Microsoft
Windows 2003/XP
Security Target
Version 1.0
28 September 2005
Prepared For:
Microsoft Corporation
Corporate Headquarters
One Microsoft Way
Redmond, WA 98052-6399
Prepared By:
Science Applications International Corporation
Common Criteria Testing Laboratory
7125 Gateway Drive
Columbia, MD 21046-2554
Microsoft Windows 2003/XP Security Target Version 1.0, 9/28/05
 Microsoft Corporation, 2005. ii
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Microsoft Windows 2003/XP Security Target Version 1.0, 9/28/05
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iv
Table of Contents
1. SECURITY TARGET INTRODUCTION......................................................................................... 1
1.1 SECURITY TARGET, TOE, AND CC IDENTIFICATION................................................................ 1
1.2 CC CONFORMANCE CLAIMS .................................................................................................... 2
1.3 STRENGTH OF ENVIRONMENT .................................................................................................. 2
1.4 CONVENTIONS, TERMINOLOGY, ACRONYMS ........................................................................... 2
1.4.1 Conventions ............................................................................................................................ 3
1.4.2 Terminology............................................................................................................................ 3
1.4.3 Acronyms................................................................................................................................ 3
1.5 SECURITY TARGET OVERVIEW AND ORGANIZATION ............................................................... 3
2. TOE DESCRIPTION........................................................................................................................... 5
2.1 PRODUCT TYPES ...................................................................................................................... 5
2.2 PRODUCT DESCRIPTION ........................................................................................................... 6
2.3 PRODUCT FEATURES ................................................................................................................ 7
2.3.1 Windows 2003/XP Administration and Management Features.............................................. 7
2.3.2 Windows 2003/XP Network Security Features....................................................................... 9
2.3.3 Windows 2003/XP Scalability Features................................................................................ 10
2.3.4 New Windows 2003/XP TOE Features................................................................................. 10
2.4 SECURITY ENVIRONMENT AND TOE BOUNDARY .................................................................. 16
2.4.1 Logical Boundaries............................................................................................................... 16
2.4.2 Physical Boundaries............................................................................................................. 18
2.5 TOE SECURITY SERVICES...................................................................................................... 18
3. SECURITY ENVIRONMENT.......................................................................................................... 20
3.1 THREATS TO SECURITY .......................................................................................................... 20
3.2 ORGANIZATIONAL SECURITY POLICIES.................................................................................. 21
3.3 SECURE USAGE ASSUMPTIONS............................................................................................... 21
3.3.1 Connectivity Assumptions..................................................................................................... 21
3.3.2 Personnel Assumptions......................................................................................................... 22
3.3.3 Physical Assumptions ........................................................................................................... 22
4. SECURITY OBJECTIVES ............................................................................................................... 23
4.1 TOE IT SECURITY OBJECTIVES ............................................................................................. 23
4.2 NON-IT SECURITY OBJECTIVES FOR THE ENVIRONMENT....................................................... 24
5. IT SECURITY REQUIREMENTS................................................................................................... 25
5.1 TOE SECURITY FUNCTIONAL REQUIREMENTS....................................................................... 25
5.1.1 Audit (FAU) Requirements ................................................................................................... 31
5.1.2 Cryptographic Support (FCS) .............................................................................................. 35
5.1.3 User Data Protection (FDP) Requirements ......................................................................... 39
5.1.4 Identification and Authentication (FIA)................................................................................ 47
5.1.5 Management Requirements (FMT)....................................................................................... 49
5.1.6 Protection of the TOE Security Functions (FPT) ................................................................. 55
5.1.7 Resource Utilization (FRU).................................................................................................. 57
5.1.8 TOE Access (FTA)................................................................................................................ 57
5.1.9 Trusted Path/Channels ......................................................................................................... 58
5.2 TOE SECURITY ASSURANCE REQUIREMENTS........................................................................ 58
5.2.1 Configuration Management (ACM)...................................................................................... 59
5.2.2 Delivery and Operation (ADO) ............................................................................................ 62
5.2.3 Development (ADV).............................................................................................................. 63
5.2.4 Guidance Documents (AGD)................................................................................................ 67
5.2.5 Life Cycle Support (ALC) ..................................................................................................... 69
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5.2.6 Security Testing (ATE).......................................................................................................... 71
5.2.7 Vulnerability Assessment (AVA)........................................................................................... 73
5.3 SECURITY REQUIREMENTS FOR THE IT ENVIRONMENT.......................................................... 76
6. TOE SUMMARY SPECIFICATION............................................................................................... 77
6.1 TOE SECURITY FUNCTIONS................................................................................................... 77
6.1.1 Audit Function...................................................................................................................... 77
6.1.2 User Data Protection Function ............................................................................................ 81
6.1.3 Cryptographic Protection..................................................................................................... 91
6.1.4 Identification and Authentication Function.......................................................................... 94
6.1.5 Security Management Function.......................................................................................... 100
6.1.6 TSF Protection Function .................................................................................................... 104
6.1.7 Resource Utilization Function............................................................................................ 111
6.1.8 Session Locking Function................................................................................................... 111
6.2 TOE SECURITY ASSURANCE MEASURES ............................................................................. 112
6.2.1 Process Assurance.............................................................................................................. 112
6.2.2 Delivery and Guidance....................................................................................................... 113
6.2.3 Design Documentation ....................................................................................................... 113
6.2.4 Tests.................................................................................................................................... 115
6.2.5 Vulnerability Assessment.................................................................................................... 116
7. PROTECTION PROFILE CLAIMS.............................................................................................. 117
7.1 CONTROLLED ACCESS PROTECTION PROFILE (CAPP) CONFORMANCE CLAIM REFERENCE 117
7.1.1 CAPP Requirements in ST.................................................................................................. 117
7.1.2 CAPP Differences and Enhancements................................................................................ 117
8. RATIONALE.................................................................................................................................... 123
8.1 SECURITY OBJECTIVES RATIONALE ..................................................................................... 123
8.1.1 TOE IT Security Objectives Rationale................................................................................ 123
8.1.2 Non-IT Security Objectives for the Environment Rationale ............................................... 126
8.2 SECURITY REQUIREMENTS RATIONALE ............................................................................... 127
8.2.1 Security Functional Requirements Rationale ..................................................................... 127
8.2.2 Security Assurance Requirements Rationale ...................................................................... 134
8.2.3 Requirement Dependency Rationale................................................................................... 134
8.2.4 Explicitly Stated Requirements Rationale........................................................................... 140
8.2.5 Internal Consistency and Mutually Supportive Rationale .................................................. 141
8.2.6 Strength of Function Rationale........................................................................................... 142
8.3 TOE SUMMARY SPECIFICATION RATIONALE....................................................................... 142
9. ADDITIONAL PROTECTION PROFILE REFERENCES……………………………………..146
9.1 PROTECTION PROFILE FOR SINGLE-LEVEL OPERATING SYSTEMS (SLOSPP) REFERENCE….146
9.2 WEB SERVER PP REFERENCE……………………………………………………………….146
APPENDIX A LIST OF ACRONYMS................................................................................................... A-1
APPENDIX B TOE COMPONENT DECOMPOSITION ................................................................... B-1
Microsoft Windows 2003/XP Security Target Version 1.0, 9/28/05
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1. Security Target Introduction
This section presents the following information:
• Identifies the Security Target (ST) and Target of Evaluation (TOE);
• Specifies the ST conventions and ST conformance claims; and,
• Describes the ST organization.
1.1 Security Target, TOE, and Common Criteria (CC) Identification
ST Title – Microsoft Windows 2003/XP Security Target
ST Version – Version 1.0, 9/28/05
TOE Software Identification – The following Windows Operating Systems (OS’):
• Microsoft Windows Server 2003, Standard Edition (32-bit); Service Pack (SP) 1
• Microsoft Windows Server 2003, Enterprise Edition (32-bit and 64-bit versions); SP 1
• Microsoft Windows Server 2003, Datacenter Edition (32-bit and 64-bit versions); SP 1
• Microsoft Windows XP, Professional; SP 2
• Microsoft Windows XP, Embedded; SP 2
The following security updates and patches must be applied to the above Server products:
• MS05-042 – Vulnerabilities in Kerberos Could Allow Denial of Service (DoS), Information
Disclosure, and Spoofing (899587)
• MS05-039 – Vulnerability in Plug and Play Could Allow Remote Code Execution and Elevation
of Privilege (899588)
• MS05-027 – Vulnerability in Server Message Block (SMB) Could Allow Remote Code Execution
(896422)
• A patch that updates the Internet Protocol (IP) Security (IPSec) Policy Agent is available for
Windows Server 2003 and Windows XP (907865)
The following security updates must be applied to the above XP products:
• MS05-043 – Vulnerability in Print Spooler Service Could Allow Remote Code Execution
(896423)
• MS05-042 – Vulnerabilities in Kerberos Could Allow DoS, Information Disclosure, and Spoofing
(899587)
• MS05-039 – Vulnerability in Plug and Play Could Allow Remote Code Execution and Elevation
of Privilege (899588)
• MS05-027 – Vulnerability in SMB Could Allow Remote Code Execution (896422)
• MS05-018 – Vulnerability in Windows Kernel Could Allow Elevation of Privilege and DoS
(890859)
• MS05-012 – Vulnerability in Object Linking and Embedding (OLE) and Component Object
Model (COM) Could Allow Remote Code Execution (873333)
• MS05-011 – Vulnerability in SMB Could Allow Remote Code Execution (885250)
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• MS05-007 – Vulnerability in Windows Could Allow Information Disclosure (888302)
• MS04-044 – Vulnerabilities in Windows Kernel and Local Security Authority Subsystem Service
(LSASS) Could Allow Elevation of Privilege (885835)
• A hotfix that updates the IPSec Policy Agent is available for Windows Server 2003 and Windows
XP (907865)
TOE Hardware Identification – The following hardware platforms are included in the evaluated
configuration:
• HP ProLiant DL380 G3 X2.8 Gigahertz (GHz)
• HP rx2600 1.5GHz Central Processing Unit (CPU) Server Solution
• HP Workstation ZX2000
• Dell Optiplex GX270
• Unisys ES700-420 (64-bit)
• Unisys ES7000-540-G3 (32-bit)
• Infineon SICRYPT Smart Cards
• IBM xSeries 346
Evaluation Assurance Level (EAL) – EAL 4 augmented with ALC_FLR.3 (Systematic Flaw
Remediation).
CC Identification – CC for Information Technology (IT) Security Evaluation, Version 2.2, January 2004.
International Standard – International Organization for Standardization (ISO)/International Electro-
technical Commission (IEC) 15408:1999.
Keywords – OS, sensitive data protection device, directory service, network management, desktop
management, single sign on, Discretionary Access Control (DAC), ST, embedded, cryptography, Public
key, firewall, web server, IPSec, smart card, certificate server, IP Version 6 (IPv6), information flow,
Federal Information Processing Standard (FIPS)-140, Virtual Private Network (VPN), content-provider,
access control, Controlled Access Protection Profile (CAPP), EAL 4, Microsoft Windows, 32 bit, 64 bit.
1.2 CC Conformance Claims
This TOE and ST are consistent with the following specifications:
• Conformant to PP, Controlled Access Protection Profile, Version 1.d, National Security Agency,
8 October 1999 (PP Conformant). Note that the CAPP requires EAL3.
• Common Criteria for Information Technology Security Evaluation Part 2: Security functional
requirements, Version 2.2, January 2004, extended (Part 2 extended)
• Common Criteria for Information Technology Security Evaluation Part 3: Security assurance
requirements, Version 2.2, January 2004, conformant, EAL4 augmented with ALC_FLR.3 (Part 3
Conformant, EAL 4 augmented).
1.3 Strength of Environment
The evaluation of Windows 2003/XP provides a moderate level of independently assured security in a
conventional TOE and is suitable for the environment specification in this ST. The assurance
requirements and the minimum Strength of Function (SOF) were chosen to be consistent with this goal and
to be compliant with the CAPP. The TOE assurance level is EAL 4 augmented with ALC_FLR.3 and the
TOE minimum SOF is SOF-medium.
1.4 Conventions, Terminology, Acronyms
This section specifies the formatting information used in the ST.
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1.4.1 Conventions
The following conventions have been applied in this document:
• SFRs – Part 2 of the CC defines the approved set of operations that may be applied to functional
requirements: iteration, assignment, selection, and refinement.
o Iteration: allows a component to be used more than once with varying operations. In the
ST, a letter placed at the end of the component indicates iteration. For example
FMT_MTD.1 (a) and FMT_MTD.1 (b) indicate that the ST includes two iterations of the
FMT_MTD.1 requirement, a and b.
o Assignment: allows the specification of an identified parameter.
o Selection: allows the specification of one or more elements from a list.
o Refinement: allows the addition of details.
The conventions for the assignment, selection, refinement, and iteration operations are
described in Section 5.
• Other sections of the ST – Other sections of the ST use bolding to highlight text of special interest,
such as captions.
1.4.2 Terminology
The following terminology is used in the ST:
• Authorized User – an entity that has been properly identified and authenticated. These users are
considered to be legitimate users of the TOE.
• Authorized administrator/Administrator – A user in the administrator role is an authorized user
who has been granted the authority to manage the TOE. These users are expected to use this
authority only in the manner prescribed by the guidance given them. The term authorized
administrator is taken from the CC and CAPP and is used in the ST in those sections that are
derived from the CAPP or the CC directly. Otherwise, the term administrator is used. These
terms are used interchangeably.
• DAC Policy – The DAC policy is defined as in the CAPP.
1.4.3 Acronyms
The acronyms used in this ST are specified in Appendix A – Acronym List.
1.5 ST Overview and Organization
The Windows 2003/XP TOE is a general-purpose, distributed, network OS that provides controlled access
between subjects and user data objects. Windows 2003/XP has a broad set of security capabilities including
single network logon (using password or smart card); access control and data encryption; extensive security
audit collection; host-based firewall and IPSec to control information flow, public key certificate service,
built-in standard-based security protocols such as Kerberos, Transport Layer Security (TLS)/Secure
Sockets Layer (SSL), Digest, Internet Key Exchange (IKE)/IPSec, FIPS-140 validated cryptography, web
service, and Light-weight Directory Access Protocol (LDAP) Directory-based resource management. The
Windows 2003/XP TOE provides the following security services: user data protection (WEBUSER access
control, web content provider access control, DAC, IPSec information flow control, connection firewall
information flow control), cryptographic support, audit, Identification and Authentication (I&A) (including
trusted path/channel), security management, protection of the TOE Security Functions (TSF), resource
quotas, and TOE access/session. The Windows 2003/XP security policies provide network-wide
controlled access protection (access control for user data, WEBUSER and web content provider, IPSec
information flow, connection firewall information flow), encrypted data/key protection, and encrypted file
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protection. These policies enforce access limitations between individual users and data objects, and on in-
coming and out-going traffic channels through a physically separate part of the TOE. The TOE is capable
of auditing security relevant events that occur within a Windows 2003/XP network. All these security
controls require users to identify themselves and be authenticated prior to using any node on the network.
The Windows 2003/XP ST contains the following additional sections:
• TOE Description (Section 2) – Provides an overview of the TSF and boundary.
• Security Environment (Section 3) – Describes the threats, organizational security policies and
assumptions that pertain to the TOE.
• Security Objectives (Section 4) – Identifies the security objectives that are satisfied by the TOE
and the TOE environment.
• IT Security Requirements (Section 5) – Presents the security functional and assurance
requirements met by the TOE.
• TOE Summary Specification (Section 6) – Describes the security functions provided by the TOE
to satisfy the security requirements and objectives.
• PP Claims (Section 7) – Presents the rationale concerning compliance of the ST with the CAPP.
• Rationale (Section 8) – Presents the rationale for the security objectives, requirements, and TOE
Summary Specifications (TSS) as to their consistency, completeness and suitability.
• Additional PP References (Section 9) – Summarizes content drawn for other unclaimed PPs above
and beyond that drawn from the CAPP.
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2. TOE Description
The TOE includes the Windows 2003/XP OS, supporting hardware, and those applications necessary to
manage, support and configure the OS.
2.1 Product Types
Windows 2003/XP is a preemptive multitasking, multiprocessor, and multi-user OS. In general, OS’
provide users with a convenient interface to manage underlying hardware. They control the allocation and
manage computing resources such as processors, memory, and Input/Output (I/O) devices. Windows
2003/XP expands these basic OS capabilities to controlling the allocation and managing higher level IT
resources such as security principals like user or machine accounts, files, printing objects, services,
windowstation, desktops, cryptographic keys, network ports/traffics, directory objects, and web contents.
Multi-user OS’ such as Windows 2003/XP, keep track of which user is using which resource, grant
resource requests, account for resource usage, and mediate conflicting requests from different programs and
users.
Windows 2003/XP provides an interactive User Interface (UI), as well as a network interface. The TOE
includes a homogenous set of Windows 2003/XP systems that can be connected via their network
interfaces and may be organized into domains. A domain is a logical collection of Windows 2003/XP
systems that allows the administration and application of a common security policy and the use of a
common accounts database. Windows 2003/XP supports single and multiple domain configurations. In a
multi-domain configuration, the TOE supports implicit and explicit trust relationships between domains.
Domains use established trust relationships to share account information and validate the rights and
permissions of users. A user with one account in one domain can be granted access to resources on any
server or workstation on the network. Domains can have one-way or two-way trust relationships. Each
domain must include at least one designated server known as a Domain Controller (DC) to manage the
domain. The TOE allows for multiple DCs that replicate TOE Data among themselves to provide for higher
availability.
Each Windows 2003/XP system, whether it is a DC server, non-DC server, or workstation, is part of the
TOE and provides a subset of the TSFs. The TSF for Windows 2003/XP can consist of the security
functions from a single system (in the case of a stand-alone system) or the collection of security functions
from an entire network of systems (in the case of domain configurations).
Within this ST, when specifically referring to a type of TSF (e.g., DC), the TSF type will be explicitly
stated. Otherwise, the term TSF refers to the total of all TSFs within the TOE.
Other than an OS Windows 2003/XP can also be categorized as the following types of Information
Assurance (IA) or IA enabled IT products:
• Windows 2003/XP is a Sensitive Data Protection Device to defend the Computing
Environment. The core mechanism in this case is the Windows 2003/XP Encrypting File System
(EFS), which is part of the Windows 2003/XP TOE.
• Windows 2003/XP is a Directory Service product to support Security Infrastructure. The LDAP
based access and management of Windows Active Directory (AD) objects is part of the Windows
2003/XP T Interfaces (TSFI).
• Windows 2003/XP is a Network Management product to support the Security Infrastructure.
Windows 2003/XP Group Policy, which is part of the Windows 2003/XP TOE and provides the
network management in Windows 2003/XP networks.
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• Windows 2003/XP is a Desktop Management product to support the Security Infrastructure.
Windows 2003/XP Group Policy Service, which is part of Windows 2003/XP TOE and provides
the desktop management of Windows 2003/XP TOE desktops.
• Windows 2003/XP is a Single Sign On product (using password or smart card) for Windows
2003/XP networks to defend the Computing Environment. Windows 2003/XP supports single
sign on to the TOE.
• Windows 2003/XP is a Firewall (Network and Host-based) product with the capability to filter
network traffic based upon source and destination addresses/ports and protocol.
• Windows 2003/XP is a VPN product providing an IPSec service and its associated Transport
Driver Interface (TDI) based network support.
• Windows 2003/XP is an Embedded OS product in that it that delivers the power of the Windows
OS in componentized form, enabling embedded developers to build reliable and advanced
embedded devices.
• Windows 2003 is a Web Server product by including the Internet Information Services (IIS)
Version 6.0 (IIS6) component functionality which provides a web service application
infrastructure utilizing the underlying OS services.
2.2 Product Description
Windows 2003/XP is an OS that supports both workstation and server installations. The TOE includes five
product variants of Windows 2003/XP: XP Embedded, XP Professional, Server 2003 Server, Server 2003
Enterprise Server, and Server 2003 Data Center. The server products additionally provide DC features
including the AD and Kerberos Key Distribution Center (KDC). The server products in the TOE also
provide IIS6, Certificate Server, File Replication, Directory Replication, Domain Name System (DNS),
Dynamic Host Configuration Protocol (DHCP), Distributed File System (DFS) service, Removable Storage
Manager, and Virtual Disk Service. The XP Embedded product in the TOE provides the Enhanced Write
Filter (EWF) feature to allow the OS to boot from a disk volume residing on any read-only media such as
flash media, Compact Disk—Read Only Memory (CD-ROM), or a write-protected hard drive. Otherwise,
all variants include the same security features. The primary difference between the variants is the number
of users and types of services they are intended to support.
Windows 2003/XP Professional are suited for business desktops and notebook computers (note that only
desktops are included in the evaluated configuration); it is the workstation product. Designed for
departmental and standard workloads, Windows Server 2003 Standard Server delivers intelligent file and
printer sharing; secure connectivity based on Internet technologies, and centralized desktop policy
management. Windows Server 2003 Enterprise Server differs from Windows Server 2003 Standard Server
primarily in its support for high-performance servers for greater load handling. These capabilities provide
reliability that helps ensure systems remain available. Windows Server 2003 Datacenter provides the
necessary scalable and reliable foundation to support mission-critical solutions for databases, enterprise
resource planning software, high-volume, real-time transaction processing, and server consolidation.
Windows XP Embedded is the embedded OS that delivers the power of Windows in componentized form
for rapidly building reliable and advanced embedded devices.
The security features addressed by this security target are those provided by Windows 2003/XP as an OS.
Microsoft provides several Window 2003/XP software applications that are considered outside the scope of
the defined TOE and thus not part of the evaluated configuration. Services outside this evaluation include:
e-mail service, Terminal Service, Microsoft Message Queue, Microsoft Distributed Transaction
Coordinator, Right Management Service, and Windows SharePoint Service. The features identified and
described in this section are included in the TOE and as such are within the scope of the evaluation.
The following table summarizes the TOE configurations included in the evaluation. There are eleven
stand-alone configurations and seventeen networked configurations.
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Windows
XP
Professional
(32 bit)
Windows
XP
Embedded
(32 bit)
Windows
Server
2003
Standard
(32 bit)
Windows
Server
2003
Enterprise
(32 bit)
Windows
Server
2003
Enterprise
(64 bit)
Windows
Server
2003 Data
Center
(32 bit)
Windows
Server
2003 Data
Center
(64 bit)
Single
Processor X X X X X N/A N/A
Multiple
Processor X N/A X X X X X
Stand-
alone X X X X X X X
Domain
Member X X X X X X X
Domain
Controller N/A N/A N/A X X X X
Variations
as a
Domain
Element 2 1 2 4 4 2 2
2.3 Product Features
Windows 2003/XP has many features, several of which support simplifying the administration and
management of a distributed environment, in order to improve network security, and scalability. This
section highlights several of these features.
2.3.1 Windows 2003/XP Administration and Management Features
Windows 2003/XP distributed security features provide scalable, flexible account management for large
domains with fine-grain access control and delegation of administration. A few of these administration
features are briefly described below.
Group Policy
Windows 2003/XP Group policy allows central management of collections of users, computers,
applications, and network resources instead of managing entities on a one-by-one basis. Integration with
AD delivers granular and flexible control. It permits authorized administrators to define customized rules
about virtually every facet of a user's computer environment such as security, user rights, desktop settings,
applications, and resources, minimizing the likelihood of misconfiguration.
Upon installation, Windows 2003/XP offers groups that are pre-configured with specific user rights and/or
privileges. These groups are referred to as “built-in groups.” The Windows 2003/XP built-in groups fall
into three (3) categories: built-in local groups (e.g., Administrator, Backup Operator); built-in domain local
groups (e.g., Administrator, Account Operator); and built-in global groups (e.g. Enterprise Administrator,
Domain Administrator). The authorized administrator can conveniently take advantage of these built-in
groups by assigning these groups to specific user accounts allowing users to gain the rights and/or
privileges associated with these groups.
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Delegated Administration
Windows 2003/XP introduces AD, a scalable, standard-compliant directory service. AD centrally manages
Windows-based clients and servers, through a single consistent management interface, reducing
redundancy and maintenance costs.
AD enables authorized administrators to delegate a selected set of administrative privileges to appropriate
individuals within the organization to distribute the management and improve accuracy of administration.
Delegation helps companies reduce the number of domains they need to support a large organization with
multiple geographical locations.
AD can interoperate or synchronize data with other directory services using LDAP, Microsoft Directory
Service (DS) Synchronization, or AD Connector.
Access Control Lists (ACLs)
Windows 2003/XP permits only authenticated users to access system resources. The security model
includes components to control who accesses objects (such as files, directories, and shared printers); what
actions an individual can perform with respect to an object, and the events that are audited.
Every object has a unique Security Descriptor (SD) that includes an ACL. An ACL is a list of entries that
grant or deny specific access rights to individuals or groups. The Windows 2003/XP Server object-based
security model lets administrators grant access rights to a user or group-rights that govern who can access a
specific object, a group of properties, or an individual property of an object. The definition of access rights
on a per-property level provides the highest level of granularity of permissions.
Disk Quotas
Windows 2003/XP allows authorized administrators to set quotas on disk space usage per user and per
volume to provide increased availability of disk space and help capacity planning efforts.
Windows Management Instrumentation (WMI)
WMI is a uniform model through which management data from any source can be managed in a standard
way. WMI provides this for software, such as applications, while WMI extensions for the Windows Driver
Model (WDM) provide this for hardware or hardware device drivers.
Administrative Tools
Windows 2003/XP delivers an integrated set of management tools and services. Only a few are described
below.
Setup Manager: provides a graphical wizard that guides authorized administrators in designing installation
scripts.
Backup and Recovery: Windows 2003/XP backup and recovery features make it easier to backup data and
then recover data in the event of a hard disk failure. Windows 2003/XP allows back up to a single file on a
hard disk or to external media.
Administrative wizards: Windows 2003/XP makes it easier to perform routine or challenging tasks,
resulting in fewer help desk calls and better customer service. For example, the Add Printer Wizard makes
it easy to connect to local and network printers even when you're browsing the network.
Microsoft Management Console (MMC)
MMC unifies and simplifies system management tasks through a central, customizable console that allows
control, monitoring, and administration of widespread network resources. All management functions in
Windows 2003/XP are available through the MMC snap-ins (including AD Domains and Trusts, AD Sites
and Services, AD Users and Computers, Component Services, Computer Management, Certificate
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Management, Event Viewer, Group Policy, IPSec Policy Management, Security Template, Security
Configuration and Analysis).
Windows File Protection
The Windows File Protection technology prevents core system files from being overwritten by application
installs. In the event a file is overwritten, Windows File Protection will replace that file with the correct
version. Windows 2003/XP identifies device drivers that have passed the Windows Hardware Quality Labs
test and warns users if they are about to install an uncertified driver.
Window Manager
The Window Manager is implemented in kernel mode. It provides a machine independent graphical
Application Programming Interface (API) for applications to control printing and window graphics, by
providing a way of displaying information and receiving user input. Graphical applications use resources,
such as windows to display information and receive user input. Users interact with the application
thorough graphical features. They can control applications by choosing menu commands. They can
provide input using the mouse, keyboard, and other devices. They receive information from resources such
as bitmaps, carets, cursors, and icons. The Window Manager exports two protected object types: a
Window station object and a Desktop Object. Each is an object with a DACL that is used to control access
to it.
2.3.2 Windows 2003/XP Network Security Features
Windows 2003/XP Server secures network data using an authentication protocol. For an additional level of
security within a site, network data can also be encrypted. All network communication can be encrypted for
specific clients, or for all clients in a domain using IPSec. Several features that support improved network
security are briefly described below.
EFS
Windows 2003/XP increases security of data on the hard disk by encrypting it. This data remains encrypted
even when backed up or archived. EFS runs as an integrated system service making it easy to manage,
difficult to attack, and transparent to the user. The encryption and decryption processes are transparent to
the user.
Kerberos Authentication Support
Full support for Kerberos Version 5 (v5) protocol Windows 2003/XP provides fast, single sign-on to
Windows 2003/XP-based enterprise resources. It is used to support Transitive Domain Trust to reduce the
number of trust relationships required to manage users and resources between Windows domains.
Support for Security Standards
Windows 2003/XP builds secure network sites using the latest standards, including 128-bit SSL/TLS,
IPSec and Kerberos v5 authentication.
Secure Network Communications
Windows 2003/XP supports end-to-end encrypted communications across network using the IPSec
standard. It protects sensitive internal communications from intentional or accidental viewing. AD
provides central policy control for its use to make it deployable.
Cryptographic API (CryptoAPI)
Windows 2003/XP CryptoAPI provides applications access to FIPS-140 compliant cryptographic
functions, public keys, credential management and certificate validation functions.
Dynamic DNS
The AD integrated, Internet standards-based DNS service simplifies object naming and location through
Internet protocols, and improves scalability, performance and interoperability. Systems that receive
addresses from a DHCP server are automatically registered in DNS. Replication options through AD can
simplify and strengthen name replication infrastructure.
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2.3.3 Windows 2003/XP Scalability Features
Windows 2003/XP delivers scalability features that support higher volumes of users and more complex
applications. Several of these features are described below.
Memory and Processor Support
Windows 2003/XP Professional and Windows 2003/XP Server support up to four (4) Gigabytes (GBs) of
Random Access Memory (RAM) and up to four (4) symmetric multiprocessors. Windows Server 2003
Enterprise Server takes advantage of larger amounts of memory to improve performance and handle the
most demanding applications, with support for up to 32 GB of RAM for x86-based computers and 64 GB
of RAM for Itanium-based computers. It supports up to eight (8) symmetric multiprocessors. Windows
Server 2003 Data Center supports 64 GB of RAM for x86-based computers and 512 GB of RAM for
Itanium-based computers. It takes care of a maximum 64 symmetric multiprocessors.
High Throughput and Bandwidth Utilization
Windows Server 2003 includes many enhancements to those core OS functions that are used to manipulate
and manage system resources. Because the efficiency with which system resources are managed affects all
server workloads, the benefits resulting from these changes are not limited to any one workload but instead
have a broad, positive impact on performance and scalability. Most server workloads have some
component of disk I/O and/or network I/O. Both types of I/O require processor cycles and memory, so the
optimizations in Windows Server 2003 that improve the efficiency with which disk I/O and network I/O is
processed leave more system resources available to support other components of a workload.
Job Object API
The Windows 2003/XP Job Object API, with its ability to setup processor affinity, establish time limits,
control process priorities, and limit memory utilization for a group of related processes, allows an
application to manage and control dependent system resources. This additional level of control means the
Job Object API can prevent an application from negatively impacting overall system scalability.
DFS
Windows 2003/XP DFS builds a single, hierarchical view of multiple file servers and file server shares on a
network. DFS makes files easier for users to locate, and increases availability by maintaining multiple file
copies across distributed servers.
Multi-master Replication
AD uses multi-master replication to ensure high scalability and availability in distributed network
configurations. "Multi-master" means that each directory replica in the network is a peer of all other
replicas; changes can be made to any replica and will be reflected across all of them.
2.3.4 New Windows 2003/XP TOE Features
The below highlight additional features that were not available in previous Windows 2000 CC evaluation
completed in Oct 2002, but are included in Windows 2003/XP TOE.
Volume Shadow Copy Service (VSS)
VSS coordinates shadow copies for applications and target New Technology File System (NTFS) volumes
in a point-in-time copy. Through integration with target applications such as AD VSS enables consistent
state management. If, during the shadow copy creation process, an application writes to disk, data
inconsistencies can occur, compromising the integrity of the point-in-time data image. The VSS has been
designed to eliminate these drawbacks.
Fault-Tolerant Process Model and Kernel-Mode Web Driver
With IIS6, web traffic requests are passed directly from the network stack to a kernel-mode Web driver,
HTTP.SYS. The “AFD.SYS” driver and Winsock 2.0 layer do not play a role. “HTTP.SYS” examines the
request, determining if it can be satisfied from the driver’s own cache. If so, the requested content is
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immediately returned without a context switch from kernel mode to user mode. When the kernel-mode
Web driver cannot satisfy a request from its cache, “HTTP.SYS” passes the request across the kernel/user
boundary directly to a worker process for servicing. In addition to delivering significantly better Web
server throughput, the new architecture of IIS6 significantly improves Web server stability because a single
faulty application running on the Web server can no longer bring down other applications on the same
server. The worker process that is servicing the faulty application can simply be recycled without affecting
other worker processes.
Web Document Authoring and Versioning (WebDAV) Redirector
WebDAV redirector allows files stored in web folders to be encrypted with EFS. When a client maps a
drive to a WebDAV access point on a remote server, files may be encrypted locally on the client and then
transmitted as a raw encrypted file to the WebDAV server using an HyperText Transfer Protocol (HTTP)
“PUT” command. Similarly, encrypted files downloaded to a client are transmitted as raw encrypted files
using an HTTP “GET” command and decrypted locally on the client.
Forest Trust
Forest trust is a new type of Windows trust for managing the security relationship between two forests.
This feature enables the trusting forest to enforce constraints on which security principal names it trusts
other forests to authenticate. This new trust type that allows all domains in one forest to (transitively) trust
all domains in another forest, via a single trust link between the two forest root domains. Cross-forest
authentication enables secure access to resources when the user account is in one forest and the computer
account is in another forest. This feature allows users to securely access resources in other forests, using
either Kerberos or NTLM, without sacrificing the single sign-on benefits of having only one user
Identification (ID) and password maintained in the user’s home forest.
IPv6
IPv6 is the next generation of the Internet layer protocols of the Transmission Control Protocol (TCP)/IP
protocol suite. The IPv6 protocol driver includes utilities and API support for IPv6-enabled system
components. Windows IPv6 also provides support for IPv6/IP Version 4 (IPv4) coexistence technologies
such as “6to4” and Intra-site Automatic Tunnel Addressing Protocol (ISATAP).
Smart Card Support for Authentication Digest Authentication
Smart Card technology is fully integrated into the Windows XP/2003 TOE, and is an important component
of the operating system's Public Key Infrastructure (PKI) security feature. The smart card serves as a
secure store for public and private keys and as a cryptographic engine for performing a digital signature or
key-exchange operation. Smart card technology allows Windows XP/2003 TOE to authenticate users by
using the private and public key information stored on a card. The Smart Card subsystem on the Windows
XP/2003 TOE supports industry standard Personal Computer/Smart Card (PC/SC)–compliant cards and
readers, and provides drivers for commercially available Plug and Play smart card readers. Smart card
readers attach to standard peripheral interfaces, such as RS-232 and Universal Serial Bus (USB). The
Windows XP/2003 TOE detects Plug and Play-compliant smart card readers and installs them using the
Add Hardware wizard.
Digest Authentication
Digest authentication operates much like Basic authentication. However, unlike Basic authentication,
Digest authentication transmits credentials across the network as a hash value, also known as a message
digest. The user name and password cannot be deciphered from the hash value. Conversely, Basic
authentication sends a Base 64 encoded password, essentially in clear text, across the network. Basic
authentication is not supported in the Windows XP/2003 TOE. Digest authentication does not have to use
reversible password encryption. With Digest authentication in Windows 2000, a user who is authenticated
by using Digest authentication must have the password stored with the Store password using reversible
encryption option flagged. However, in Windows Server 2003 TOE, the AD extended schema properties
ensures that every newly created user account automatically has the Digest authentication password hashed
and stored as a field in the “AltSecId” property of the user object.
Public Key Certificate Issuing and Management Service
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The Windows Server 2003 Certificate Server issues and manages public key certificates for the following
Windows XP/2003 TOE services: digital signatures, software code signing, TLS/SSL authentication for
Web traffic, IPSec, Smart card logon, EFS user and recovery certificates.
Credential Manager
This provides a secure store for usernames/passwords and also stores links to certificates and keys. This
enables a consistent single sign-on experience for users, including roaming users. Single sign-on makes it
possible for users to access resources over the network without having to repeatedly supply their
credentials.
Virtual Disk Service (VDS)
VDS provides a set of utilities for managing the hardware disks. VDS implements a single, uniform
interface for managing disks. Each hardware vendor writes a VDS provider that translates the general
purpose VDS APIs into specific instructions for their hardware. Windows 2003/XP includes VDS
providers for basic and dynamic disks.
Client Side Caching Off-line Files Support with SMB/Common Internet File System (CIFS)
Redirector
When Windows 2003/XP client is caching a file and the Windows 2003/XP file server is available, the
client with the SMB/CIFS Redirector checks with the file server to verify that the cached version of the file
is up-to-date. If the file is up-to-date, then the client uses the cached copy of the file. If the Windows
2003/XP file server is not available, the client with the SMB/CIFS Redirector also has the cached copy to
use.
Windows XP Embedded EWF
Windows XP Embedded has an EWF that allows for writes to be made to memory or a special EWF
partition that an administrator can set. The administrator can also turn off the filter to make changes to the
protected volume, either programmatically with a special EWF API or by using the EWF management
utilities. The EWF allows the OS to boot from a disk volume residing on any read-only media such as flash
media, CD-ROM, or a write-protected hard drive while maintaining the appearance of read/write access to
the OS.
IIS6 Web Service
An IIS6 worker process is an application that runs in user mode. Its typical roles include processing
requests to return a static page, invoking an Internet Server API (ISAPI) extension or filter, or running an
application specific handler. A worker process is physically implemented as an executable file named
“W3wp.exe” and is controlled by World-Wide Web (WWW) Service Administration and Monitoring. By
default, worker processes run as Network Service, which has the least system resource access that is
compatible with the functionality required. Worker processes use “HTTP.sys” for sending requests and
receiving responses over HTTP. Depending on how IIS6 is configured, there can be multiple worker
processes running, serving different Web applications concurrently. This design separates applications by
process boundaries, and it helps achieve maximum Web server reliability and security.
Windows Firewall (previously known as Internet Connection Firewall (ICF))
Windows Firewall is a stateful firewall that drops unsolicited incoming traffic that does not correspond to
either traffic sent in response to a request of the computer (solicited traffic) or unsolicited traffic that has
been specified as allowed (excepted traffic). Windows Firewall provides a level of protection from
malicious users and programs that rely on unsolicited incoming traffic to attack computers. Windows
Firewall supports IPv4 and IPv6. The firewall drivers (for IPv4 and for IPv6 respectively) have a static rule
called a boot-time policy to perform stateful filtering. This allows the Windows XP/2003 TOE to perform
basic networking tasks such as DNS and DHCP and communicate with a DC to obtain policy. Once the
firewall service is running, it will load and apply the run-time ICF policy and remove the boot-time filters.
64-bit Support
Windows Server 2003 Enterprise Server and data Center include support for machines with new 64-bit
CPUs. In addition to processing twice as much data per clock cycle and providing more on-chip computing
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resources (such as registers) than their 32-bit counterparts, 64-bit CPUs eliminate many of the inherent
resource management limitations of 32-bit architectures. By enabling more system resources to be added
and to be used more efficiently, 64-bit servers deliver significantly greater levels of performance and
scalability.
Storport Driver
Windows 2003/XP introduces a new port driver called Storport (storport.sys), which delivers significantly
greater disk I/O processing efficiency and throughput, especially when used with high-performance devices
such as host-based Redundant Array of Independent Disks (RAID) and fiber-channel adapters. There are
several advantages to using the Storport driver, including reduced system resource usage and better
performance. Some of the primary reasons for the Storport driver’s better performance and resource usage
include: Full-Duplex Mode, Reduced Device Lock Contention, Increased Queuing Efficiency.
Multiple DFS Roots
Windows Server 2003 Enterprise Server and Datacenter can support multiple DFS root directories on a
single server (Windows 2000 is limited to a single DFS root per server).
Larger Directory Database Cache
AD implements an in-memory cache that resides in user space and stores directory objects for faster access
than if they had to be retrieved from disk. In Windows 2000, this cache was limited to 512 Megabytes
(MBs) under normal conditions and 1024 MB when the /3GB switch was used. In Windows Server 2003,
this cache is allowed to grow more freely, although it is still limited by the amount of virtual address space
(approximate maximum sizes are 2.2 GB with the /3GB switch and 1.5 GB without the switch). With the
cache able to store more objects, cache hit ratios are higher and performance is improved.
Auto-enrollment
Public Key Certificate auto-enrollment and auto-renewal in Windows Server 2003 significantly reduce the
resources needed to manage x.509 certificates. These features also make it easier to deploy smart cards
faster, and to improve the security of the Windows PKI by automatically expiring and renewing
certificates.
Delta Certificate Revocation Lists (CRLs)
The certificate server included in Windows Server 2003 TOE supports Delta CRL, which makes
publication of revoked X.509 certificates more efficient. A Delta CRL is a list containing only certificates
whose status has changed since the last full (base) CRL was compiled. This is a much smaller object than a
full CRL and can be published frequently with little or no impact on client machines or network
infrastructure.
Cross–Certification Support
Also called qualified subordination1
, Cross-Certification allows constraints to be placed on subordinate
Certificate Authorities (CAs) and on the certificates they issue, and allows trust to be established between
CAs in separate hierarchies. Cross-Certification support improves the efficiency of administering PKI.
URL-Based authorization
This authorization mechanism enables businesses to control access to applications exposed through the
Web by restricting user access to URLs. For example, one user may be restricted from access to certain
applications, whereas another user can be allowed to execute other applications.
Constrained Delegation
Delegation is the act of allowing a service to impersonate a user account or computer account in order to
access resources throughout the network. This new feature in Windows Server 2003 enables you to limit
delegation to specific services, to control the particular network resources the service or computer can use.
1
Qualified subordination is different from “qualified certificates” defined in RFC 3739.
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For example, a service that was previously trusted for delegation in order to access a backend on behalf of a
user can now be constrained to use its delegation privilege only to that backend and not to other machines
or services.
Protocol Transition
In Windows Server 2003 TOE, the new Kerberos protocol transition mechanism allows a service to
transition to a Kerberos-based identity for the user without knowing the user’s password and without the
user having to authenticate using Kerberos. Thus a user can be authenticated using an alternative
authentication method and then obtain a Windows identity, subject to system policy.
Improvements in IPSec
Windows Server 2003 TOE includes support for a stronger cryptographic master key, the use of a 2048-bit
Diffie-Hellman (DH) key exchange. In Windows XP and the Windows Server 2003 family, IP Security
Monitor is implemented as part of MMC and includes enhancements that allow you to monitor IPSec
information for your local computer and for remote computers. In addition, it is now possible to create and
assign a persistent IPSec policy to secure a computer if a local IPSec policy or an AD-based IPSec policy
cannot be applied.
EFS Multi-user Support
Windows XP/2003 TOE supports file sharing between multiple users of an individual encrypted data file.
Encrypted file sharing is a useful and easy way to enable collaboration without having to share private keys
among users.
File Replication Service (FRS)
FRS is a technology that replicates files and folders stored in the System Volume (SYSVOL) shared folder
on domain controllers and Distributed File System (DFS) shared folders. When FRS detects that a change
has been made to a file or folder within a replicated shared folder, FRS replicates the updated file or folder
to other servers. Because FRS is a multi-master replication service, any server that participates in the
replication of a shared folder can generate changes. In addition, FRS can resolve file and folder conflicts to
make data consistent among servers.
Globally Unique Identifier (GUID) Partition Table (GPT)
The 64-bit versions of Windows Server 2003 Enterprise Server and Datacenter support a new disk
partitioning style, the GUID Partition Table (GPT). Unlike master boot record partitioned disks, GPT
allows data critical to platform operation to be located in partitions rather than unpartitioned or hidden
sectors. In addition, GPT partitioned disks provide improved data structure integrity by offering redundant
primary and backup partition tables.
Password Backup and Restore Service
A new Password Backup and Restore Service makes it easy for users to create a backup disk that can be
used to reset their password. The service provides users with a secure mechanism for resetting their
password without administrative intervention. The password is not stored on the backup disk. The disk
can be used only to reset the password for the associated user account.
Network Address Translation (NAT)
NAT hides internally managed IP addresses from external networks by translating private internal
addresses to public external addresses. This translation reduces IP address registration costs by letting you
use private IP addresses internally, which are translated to a small number of registered IP addresses
externally. NAT also hides the internal network structure, reducing the risk of attacks against internal
systems. The Windows XP/2003 TOE IPSec implementation works transparently with NAT without
interoperability issues.
Network Bridge
The Network Bridge feature provides an easy and inexpensive way to connect LAN segments. Through
Network Bridge, users can bridge connections among different computers and devices on their network,
even when they connect to the network through different methods.
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Plug and Play
Plug and Play technology combines hardware and software support in such a way that the Windows
XP/2003 TOE can recognize and adapt to hardware configuration changes automatically, without user
intervention and or restarting the computer.
Increased Performance for Network Printing
An enhanced standard port monitor in print spooler of the Windows XP/2003 TOE provides a fast and
robust method for printing to network-attached printers and provides better performance and richer device
status. Other enhancements include support for print drivers that can be downloaded automatically when
client computers connect to print servers, a benefit that simplifies printing for users and administrators.
COM Plus Component Service Infrastructure
COM Plus Component Service is an Infrastructure running the Windows XP/2003 TOE based on
extensions of the. COM Plus Component Service provides threading and security, object pooling, queued
components, and application administration and packaging.
Internet Connection Sharing (ICS)
ICS is intended for use in a scenario where the ICS host computer directs network communication between
two networks where one network is typically a more private LAN while the other is typically a wide area
network. The ICS host computer needs two network connections. The LAN connection, automatically
created by installing a network adapter, connects to the computers on the LAN. The other connection
connects the LAN to the Wide Area Network (WAN). As a result, the shared connection connects
computers on the lLAN to the WAN.
Application Compatibility Support
Application Compatibility technology provides an environment for running programs that more closely
reflects the behavior of previous Microsoft OS releases. Application compatibility technology consists of a
user mode service and kernel mode cache support. The service defines an external interface to the
application compatibility cache support. The cache resides in system space and is mapped into the address
space of every process.
Kernel Debug Management
The Kernel Debugger subcomponent supports authorized users to debug running processes in the Windows
XP/2003 TOE by allowing them to attach a debugger to a running process via a new kernel object, the
“Debug Object”. The Kernel Debugger associates resources implemented by other kernel-mode
subcomponents and wraps them in a debug object that can then be manipulated to provide information
about the system that was previously unavailable without the aid of an external debugger.
“Winsock2” Installable File System (IFS) Layer Driver
The “Winsock2” IFS Layer Driver is a transport layer driver that emulates file handles for Windows Socket
service providers for which a socket handle is not an IFS handle. As a result, Windows Sockets
architecture accommodates service providers whose socket handles are not IFS objects. Applications can
use “Win32” file I/O calls with the handle without any knowledge about the network aspects.
Processor Run Time Power Management
For each family of processors supported by the Windows XP/2003 TOE, an abstraction of issues dealing
with processor frequency, voltage, microcode, temperature, idle handling, starting, stopping and
initialization is defined. The TOE uses this abstraction to manage the power management aspect of the
processors.
Removable Storage Manager
Removable Storage Manager of the Windows XP/2003 TOE makes it easy to track removable storage
media (tapes and optical discs) and to manage the hardware libraries, such as changers and jukeboxes, that
contain them. Note that, currently, hardware changers and jukeboxes are not parts of the TOE.
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Remote Storage Service
Remote Storage uses criteria specified by an authorized user to automatically copy little-used files to
removable media. If hard-disk space drops below specified levels, Remote Storage removes the (cached)
file content from the disk. If the file is needed later, the content is automatically recalled from storage.
Windows Security Center Service (WSC)
WSC is a service that monitors the status of Windows firewall running on the Windows XP/2003 TOE. It
also provides the logged-on interactive user certain visual notifications when it detects that the status of
Windows firewall has changed.
Web Site Permissions
Web Site permissions are not meant to be used in place of NTFS permissions. Instead, they are used with
NTFS permissions to strengthen the security of specific Web site content maintained by the IIS6 web
server of the Windows Server 2003 TOE. An authorized user can configure web site's access permissions
for specific sites, directories, and files. Unlike NTFS permissions, Web site permissions affect everyone
who tries to access the configured Web sites. If Web permissions conflict with NTFS permissions for a
directory or file, the more restrictive settings are applied.
Windows XP Embedded Bootable CD-ROM Disk Image Driver
Windows XP Embedded TOE includes the El Torito driver. This driver implements the El Torito
specification, which provides a standard for creating a bootable CD-ROM as an image of a hard disk drive
or a floppy disk drive. When an image of a hard disk is created, the CD-ROM boots as drive “C” and all
hard disk drive letters are shifted up one letter.
Windows Installer Service
The Windows Installer Service enables customers to better address corporate deployment and provide a
standard format for component management. The installer supports advertisement of applications and
features according to the operating system settings. It can install multiple patches with a single transaction
that integrates installation progress, rollback, and reboots. It can apply patches in a constant order
regardless of the order that the patches are provided to the system. Patches installed with the Windows
Installer Service can be uninstalled in any order to leave the state of the product the same as if the patch
was never installed. Patching using Windows Installer Service only updates files affected by the patch and
can be significantly faster than earlier installer versions. Accounts with administrator privileges can use
Windows Installer Service functions to query and inventory product, feature, component and patch
information and to read, edit and replace installer source lists for network, URL and media sources.
Administrators can enumerate across user and install contexts and manage source lists from an external
process.
2.4 Security Environment and TOE Boundary
The TOE includes both physical and logical boundaries. Its operational environment is that of a
homogenous, networked environment.
2.4.1 Logical Boundaries
The diagram below depicts components and subcomponents of Windows 2003/XP that comprise the TOE.
The components/subcomponents are large portions of the Windows 2003/XP OS, and generally fall along
process boundaries and a few major subdivisions of the kernel mode OS.
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Administrator Tools Component
Certificate
Server
Component
Embedded
Component
Security
Component
Windows
Firewall
Component
Network
Support
Component
WinLogon
Component
Win32
Component
Services
Component
Internet
Information
Services
Component
OS Support
Component
Executive
Component
I/O System
Hardware Component
User
Mode
Software
Kernel
Mode
Software
Hardware
The system components are:
• Administrator Tools Module
o Administrator Tools Component (aka GUI Component): This component represents the
range of tools available to manage the security properties of the TSF.
• Certificate Services Module
o Certificate Server Component: This component provides services related to issuing and
managing public key certificates (e.g. X.509 certificates).
• Embedded Module
o Embedded Component: The embedded component provides a variety of applications that
facilitate the OS functioning in devices that require an embedded OS.
• Firewall Module
o Windows Firewall Component: This component provides services related to information
flow control.
• Hardware Module
o Hardware Component: This component includes all hardware used by the TSF to include
the processor(s), motherboard and associated chip sets, controllers, and I/O devices.
• Kernel Software Module
o Executive Component: This is the kernel-mode software that provides core OS services
to include memory management, process management, and inter-process communication.
This component implements all the non-I/O TSF interfaces for the kernel-mode.
o I/O System: This is the kernel-mode software that implements all I/O related services, as
well as all driver-related services. The I/O System is further divided into:
I/O Core Component
I/O File Component
I/O Network Component
I/O Devices Component
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• Miscellaneous OS Support Module
o OS Support Component: This component is a set of processes that provide various other
OS support functions and services
• Remote Procedure Call (RPC) and Network Support Module
o Network Support Component: This component contains various support services for
RPC, COM, and other network services.
• Security Module
o Security Component: This component includes all security management services and
functions.
• Services Module
o Services Component: This is the component that provides many system services as well
as the service controller.
• Web Services Module
o IIS Component: This component provides services related to Web/HTTP requests.
• Win32 Module
o Win32 Component: This component provides various support services for Win32
applications and the command console application.
• WinLogon Module
o WinLogon Component: This component provides various interactive logon services to
include interactive authentication, trusted path, session management and locking.
These components are further refined in Appendix B, TOE Component Decomposition.
2.4.2 Physical Boundaries
Physically, each TOE workstation or server consists of an Intel X86 or IA64 machine or equivalent
processor (including Pentium family) with up to four (4) CPUs for a standard Server product, up to eight
(8) CPUs for the Enterprise Server product, and up to 32 CPUs for the Data Center product. A set of
devices may be attached and they are listed as follows:
• Display Monitor,
• Keyboard,
• Mouse,
• Floppy Disk Drive,
• CD-ROM Drive
• Fixed Disk Drives,
• Printer,
• Audio Adaptor,
• Network Adaptor, and
• Smart Card Reader.
The TOE does not include any physical network components between network adaptors of a connection.
The ST assumes that any network connections, equipment, and cables are appropriately protected in the
TOE security environment.
2.5 TOE Security Services
The security services provided by the TOE are summarized below:
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• Security Audit – Windows 2003/XP has the ability to collect audit data, review audit logs, protect
audit logs from overflow, and restrict access to audit logs. Audit information generated by the system
includes date and time of the event, user who caused the event to be generated, computer where the
event occurred, and other event specific data. Authorized administrators can review audit logs.
• Identification and Authentication – Windows 2003/XP requires each user to be identified and
authenticated (using password or smart card) prior to performing any functions. An interactive user
invokes a trusted path in order to protect his I&A information. Windows 2003/XP maintains a
database of accounts including their identities, authentication information, group associations, and
privilege and logon rights associations. Windows 2003/XP includes a set of account policy functions
that include the ability to define minimum password length, number of failed logon attempts, duration
of lockout, and password age.
• Security Management – Windows 2003/XP includes a number of functions to manage policy
implementation. Policy management is controlled through a combination of access control,
membership in administrator groups, and privileges.
• User Data Protection – Windows 2003/XP protect user data by enforcing several access control
policies (DAC, WEBUSER and web content provider access control) and several information flow
policies (IPSec filter information flow control, Connection Firewall); and, object and subject residual
information protection. Windows 2003/XP uses access control methods to allow or deny access to
objects, such as files, directory entries, printers, and web content. Windows 2003/XP uses information
flow control methods to control the flow of IP traffic and packets. It authorizes access to these resource
objects through the use of SDs (which are sets of information identifying users and their specific
access to resource objects), web permissions, IP filters, and port mapping rules. Windows 2003/XP
also protects user data by ensuring that resources exported to user-mode processes do not have any
residual information.
• Cryptographic Protection - Windows 2003/XP provides additional protection of data through the use
of data encryption mechanisms. These mechanisms only allow authorized users access to encrypted
data.
• Protection of TOE Security Functions – Windows 2003/XP provides a number of features to ensure
the protection of TOE security functions. Windows 2003/XP protects against unauthorized data
disclosure and modification by using a suite of Internet standard protocols including IPSec and
ISAKMP. Windows 2003/XP ensures process isolation security for all processes through private
virtual address spaces, execution context and security context. The Windows 2003/XP data structures
defining process address space, execution context, and security context are stored in protected kernel-
mode memory.
• Resource Utilization – Windows 2003/XP can limit the amount of disk space that can be used by an
identified user or group on a specific disk volume. Each volume has a set of properties that can be
changed only by a member of the administrator group. These properties allow an authorized
administrator to enable quota management, specify quota thresholds, and select actions when quotas
are exceeded.
• Session Locking – Windows 2003/XP provides the ability for a user to lock their session immediately
or after a defined interval. It constantly monitors the mouse and keyboard for activity and locks the
workstation after a set period of inactivity. Windows 2003/XP allows an authorized administrator to
configure the system to display a logon banner before the logon dialogue.
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All Rights Reserved.
3. Security Environment
The TOE security environment consists of the threats to security, organizational security policies, and
usage assumptions as they relate to Windows 2003/XP. The assumptions and policies are primarily derived
from the CAPP, while the threats have been introduced to better represent specific threats addressed by
Windows 2003/XP.
3.1 Threats to Security
Table 3-1 presents known or presumed threats to protected resources that are addressed by Windows
2003/XP.
Table 3-1 Threats Addressed by Windows 2003/XP
Threat Description
T.AUDIT_CORRUPT Unauthorized users may tamper with audit data or unauthorized users
may cause audit data to be lost due to failure of the system to protect
the audit data.
T.CONFIG_CORRUPT Configuration data or other trusted data may be tampered with by
unauthorized users due to failure of the system to protect this data.
T.OBJECTS_NOT_CLEAN Users may request access to resources and gain unauthorized access to
information because the system may not adequately remove the data
from objects between uses by different users, thereby releasing
information to the subsequent user.
T.SPOOF A hostile entity masquerading as the IT system may receive
unauthorized access to authentication data from authorized users who
incorrectly believe they are communicating with the IT system during
attempts by a user to initially logon.
T.SYSACC An unauthorized user may gain unauthorized access to the system and
act as the administrator or other trusted personnel due to failure of the
system to restrict access.
T.UNAUTH_ACCESS An unauthorized user may gain access to system data due to failure of
the system to restrict access.
T.UNAUTH_MODIFICATION An unauthorized user may cause the modification of the security
enforcing functions in the system, and thereby gain unauthorized
access to system and user resources due to failure of the system to
protect its security enforcing functions
T.UNDETECTED_ACTIONS An unauthorized user may perform unauthorized actions that go
undetected because of the failure of the system to record actions.
T.USER_CORRUPT User data may be tampered with by unauthorized users due to failure
of the system to enforce the restrictions to data specified by authorized
users.
T.ADMIN_ERROR An administrator may incorrectly install or configure the TOE
resulting in ineffective security mechanisms.
T.AUDIT_COMPROMISE A malicious process or user may cause audit data to be inappropriately
accessed (viewed, modified or deleted), or prevent future records from
being recorded, thus masking an attacker’s actions.
T.EAVESDROP A malicious process or user may intercept data transmitted within the
enclave.
T.MASQUERADE An unauthorized user, process, or external IT entity may masquerade
as an authorized entity to gain access to data or TOE resources.
T.POOR_DESIGN Unintentional or intentional errors in requirement specification, design
or development of the TOE may occur.
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Threat Description
T.POOR_IMPLEMENTATION Unintentional or intentional errors in implementing the design of the
TOE may occur.
T.REPLAY A user may gain inappropriate access to the TOE by replaying
authentication information, or may cause the TOE to be
inappropriately configured by replaying TSF data or security
attributes.
T.UNATTENDED_SESSION A user may gain unauthorized access to an unattended session.
T.UNIDENTIFIED_ACTIONS Failure of the administrator to identify and act upon unauthorized
actions may occur.
T.ADDRESS_MASQUERADE A user on one interface may masquerade as a user on another interface
to circumvent the TOE policy.
T.TCPIP_ATTACK A threat agent may take advantage of a published vulnerability against
protocols layers below HTTP (e.g. TCP or IP), resulting in the TOE
being unable to respond properly to valid requests.
3.2 Organizational Security Policies
Table 3-2 describes organizational security policies that are addressed by Windows 2003/XP.
Table 3-2 Organizational Security Policies
Security Policy Description PP Source
P.ACCOUNTABILITY The users of the system shall be held accountable for
their actions within the system.
CAPP
P.AUTHORIZED_USERS Only those users who have been authorized access to
information within the system may access the system.
CAPP
P.NEED_TO_KNOW The system must limit the access to, modification of, and
destruction of the information in protected resources to
those authorized users which have a "need to know" for
that information.
CAPP
P.AUTHORIZATION The system must have the ability to limit the extent of
each user's authorizations.
P.ADD_IPSEC The system must have the ability to protect system data in
transmission between distributed parts of the protected
system
P.WARN The system must have the ability to warn users regarding
the unauthorized use of the system.
3.3 Secure Usage Assumptions
This section describes the security aspects of the environment in which Windows 2003/XP is intended to be
used. This includes assumptions about the connectivity, personnel, and physical aspects of the
environment.
Windows 2003/XP is assured to provide effective security measures in the defined environment only if it is
installed, managed, and used correctly. The operational environment must be managed in accordance with
the user and administrator guidance.
3.3.1 Connectivity Assumptions
Windows 2003/XP is a distributed system connected via network media. It is assumed that the connectivity
conditions described in Table 3-3 will exist.
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Table 3-3 Connectivity Assumptions
Assumption Description PP Source
A.CONNECT All connections to peripheral devices reside within the controlled
access facilities. The TOE only addresses security concerns related to
the manipulation of the TOE through its authorized access points.
Internal communication paths to access points such as terminals are
assumed to be adequately protected.
CAPP
A.PEER Any other systems with which the TOE communicates are assumed to
be under the same management control and operate under the same
security policy constraints. The TOE is applicable to networked or
distributed environments only if the entire network operates under the
same constraints and resides within a single management domain.
There are no security requirements that address the need to trust
external systems or the communications links to such systems.
CAPP
3.3.2 Personnel Assumptions
It is assumed that the personnel conditions described in Table 3-4 will exist.
Table 3-4 Personnel Assumptions
Assumption Description PP Source
A.COOP Authorized users possess the necessary authorization to access
at least some of the information managed by the TOE and are
expected to act in a cooperating manner in a benign
environment.
CAPP
A.MANAGE There will be one or more competent individuals assigned to
manage the TOE and the security of the information it
contains.
CAPP
A.NO_EVIL_ADM The system administrative personnel are not careless, willfully
negligent, or hostile, and will follow and abide by the
instructions provided by the administrator documentation.
CAPP
3.3.3 Physical Assumptions
Windows 2003/XP is intended for application in user areas that have physical control and monitoring. It is
assumed that the physical conditions described in Table 3-5 will exist.
Table 3-5 Physical Assumptions
Assumption Description PP Source
A.LOCATE The processing resources of the TOE will be located within controlled
access facilities that will prevent unauthorized physical access.
CAPP
A.PROTECT The TOE hardware and software critical to security policy
enforcement will be protected from unauthorized physical
modification.
CAPP
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23
4. Security Objectives
This section defines the security objectives of Windows 2003/XP and its supporting environment. Security
objectives, categorized as either IT security objectives or non-IT security objectives, reflect the stated intent
to counter identified threats and/or comply with any organizational security policies identified. All of the
identified threats and organizational policies are addressed under one of the categories below.
4.1 TOE IT Security Objectives
Table 4-1 describes the Windows 2003/XP IT security objectives.
Table 4-1 IT Security Objectives
Security Objective Description PP Source
O.AUTHORIZATION The TSF must ensure that only authorized users
gain access to the TOE and its resources.
CAPP
O.DISCRETIONARY_ACCESS The TSF must control accessed to resources based
on identity of users. The TSF must allow
authorized users to specify which resources may
be accessed by which users.
CAPP
O.AUDITING The TSF must record the security relevant actions
of users of the TOE. The TSF must present this
information to authorized administrators.
CAPP
O.RESIDUAL_INFORMATION The TSF must ensure that any information
contained in a protected resource is not released
when the resource is recycled.
CAPP
O.MANAGE The TSF must provide all the functions and
facilities necessary to support the authorized
administrators that are responsible for the
management of TOE security.
CAPP
O.ENFORCEMENT The TSF must be designed and implemented in a
manner which ensures that the organizational
policies are enforced in the target environment.
CAPP
O.AUDIT_PROTECTION The TSF must provide the capability to protect
audit information associated with individual users.
O.PROTECT The TSF must protect its own data and resources
and must maintain a domain for its own execution
that protects it from external interference or
tampering.
O.TRUSTED_PATH The TSF must provide the capability to allow users
to ensure they are not communicating with some
other entity pretending to be the TSF during initial
user authentication.
O.LEGAL_WARNING The TSF must provide a mechanism to advise
users of legal issues involving use of the TOE
prior to allowing the user to access resources
controlled by the TSF.
O.LIMIT_AUTHORIZATION The TSF must provide the capability to limit the
extent of each user's authorizations.
O.IPSEC The TSF must have the capability to protect data
in transmission between distributed parts of the
TOE and control the flow of traffic between
distributed parts of the TOE
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24
Security Objective Description PP Source
O.ENCRYPTED_DATA The TSF must ensure that only the users that
encrypted data may receive that data decrypted.
O.ASSURANCE Assurance in the TOE’s security functionality will
be supported by the following activities:
Configuration management of the TOE and its
development evidence during its development;
Use of sound design principles and techniques;
Functional testing; demonstration that the
guidance documentation is sufficient and not
misleading; Vulnerability analysis; Penetration
testing demonstrating the TOE is sufficiently
robust to protect itself against the casual attacker
using published exploits.
O.MEDIATE The TOE must mediate the flow of information
between sets of TOE network interfaces or
between a network interface and the TOE itself in
accordance with its security policy.
4.2 Non-IT Security Objectives for the Environment
The TOE is assumed to be complete and self-contained and, as such, is not dependent upon any other
products to perform properly. However, certain objectives with respect to the general operating
environment must be met. Table 4-2 describes the Non-IT Security Objectives for the Environment.
Table 4-2 Non-IT Security Objectives
Security
Objective
Description
PP Source
O.INSTALL Those responsible for the TOE must ensure that the TOE is
delivered, installed, managed, and operated in a manner which
maintains IT security objectives.
CAPP
O.PHYSICAL Those responsible for the TOE must ensure that those parts of the
TOE critical to security policy are protected from physical attack
which might compromise IT security objectives.
CAPP
O.CREDEN Those responsible for the TOE must ensure that all access
credentials, such as passwords or other authentication information,
are protected by the users in a manner which maintains IT security
objectives.
CAPP
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5. IT Security Requirements
5.1 TOE Security Functional Requirements
This section specifies the SFRs for the TOE. This section organizes the SFRs by CC class.
Requirement Operations:
Within the text of each SFR taken from the CAPP; assignment, refinement, and selection operations
completed in the CAPP operations are underlined.
Within the text of each SFR taken from the CAPP, additional operations performed in this ST are identified
as follows. Within the text of each SFR taken directly from the CC, operations performed in this ST are
identified as follows:
• Additional selection and assignment operations completed in this ST are bracketed in this ST (e.g.,
[ [).
• Additional refinement operations completed in this ST are indicated using bold, for additions, and
strike-through, for deletions (e.g., “… all objects …” or “… some big things …”).
• Additional iterations completed in this ST are italicized. Iterated requirements are indicated by a
letter in parenthesis placed at the end of the component short name and element name(s) (e.g.,
FMT_MTD.1(a)).
Interpreted Requirements:
Requirements that have been modified based upon an International Interpretation are identified by an
italicized parenthetic comment following the requirement element that has been modified (e.g., (per
International Interpretation #51)).
SOF:
This ST includes the SOF assurance requirement (AVA_SOF.1). The minimum strength level for the SFRs
realized by a probabilistic or permutational mechanism (with the exception of encryption mechanisms) is
SOF-Medium.
SFR Summary:
Table 5-1, CAPP Components and Operations, summarizes the SFRs that are included in the ST from the
CAPP as follows:
• Requirements included in the ST verbatim from the CAPP,
• Requirements operated upon in the CAPP,
• Requirements included in the ST with resolved operations from the CAPP, and
• Requirements supported by functions with associated SOF claims are identified with a “SOF”
subscript in the column “CAPP Component.”
Table 5-2, CC Components and Operations summarizes the SFRs that are not included in the CAPP as
follows:
• Additional requirements from part 2 of the CC,
• Additional requirements from part 2 of the CC with resolved operations, and
• Requirements supported by functions with associated SOF claims are identified with a “SOF”
subscript in the column “CC Component.”
Explicitly Stated Requirements:
Microsoft Windows 2003/XP Security Target Version 1.0, 9/28/05
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26
The CC envisioned that some PP/ST authors may have security needs not yet covered by the SFR
components in the CC and allows PP/ST authors to consider requirements not taken from the CC, referred
to as extensibility. This ST includes several requirements that are not derived from the CC. Some are
inherited from the CAPP and others are not. Table 5-1 and 5-2 identifies those requirements that are not
from the CC as those that have “extension” in the CAPP Operation or ST Operation Columns of those
tables. These requirements are also denoted by their names ending with the phrase “_EX”.
All SFRs are fully stated in the sections below.
Table 5-1 CAPP Components and Operations
CAPP
Component
Component Name
CAPP
Operation
Additional ST
Operations
FAU_GEN.1 Audit Data Generation Assignment,
Refinement
Refinement
FAU_GEN.2 User Identity Association None None
FAU_SAR.1 Audit Review Assignment Refinement
FAU_SAR.2 Restricted Audit Review None None
FAU_SAR.3(a) Selectable Audit Review by Searching and
Sorting
Assignment,
Selection
Assignment,
Selection,
Iteration
FAU_SEL.1 Selective Audit Selection Assignment
FAU_STG.1 Protected Audit Trail Storage2
Selection Refinement
FAU_STG.3 Action in Case of Possible Audit Data
Loss
Assignment Assignment
FAU_STG.4 Prevention of Audit Data Loss Selection Assignment,
Refinement
FDP_ACF.1(a) Discretionary Access Control Functions Assignment,
Refinement
Assignment,
Refinement,
Iteration
FDP_RIP.2 Object Residual Information Protection Selection None
Note1_EX3
Subject Residual Information Protection Extension None
FIA_ATD.1 User Attribute Definition Assignment Assignment
FIA_SOS.1 (SOF)
4
Verification of Secrets5
Assignment Refinement
FIA_UAU.1 Timing of Authentication None Assignment
FIA_UID.1 Timing of Identification None Assignment
FIA_UAU.7 Protected Authentication Feedback Assignment None
2
This title is consistent with the CC. The CAPP title for this requirement is “Guarantees of Audit Data
Availability” which is inconsistent with the CC.
3
This title is inconsistent with the CAPP in order to use this ST’s convention of denoting explicit
requirements by ending the name with the phrase “_EX”. The CAPP titles this requirement as
“FDP_RIP.2.Note1.”
4
The SOF claim associated with this requirement is a metric as defined in the FIA_SOS.1 requirement
5
This title is consistent with the CC. The CAPP title for this requirement is “Strength of Authentication
Data” which is inconsistent with the CC.
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27
CAPP
Component
Component Name
CAPP
Operation
Additional ST
Operations
FIA_USB.1_EX6
User-Subject Binding Extension Assignment,
Refinement
FMT_MSA.1 (a) Management of Object Security Attributes Assignment,
Selection
Assignment,
Iteration
FMT_MSA.3(a) Static Attribute Initialization Assignment,
Selection
Assignment,
Iteration
FMT_MTD.1(a) Management of the Audit Trail (1a) Assignment,
Selection,
Iteration
None
FMT_MTD.1(b) Management of Audited Events (1b) Assignment,
Selection,
Iteration
None
FMT_MTD.1(c) Management of User Attributes (1c) Assignment,
Selection,
Iteration
Assignment
FMT_MTD.1(d) Management of Authentication Data (1d) Assignment,
Selection,
Iteration
None
FMT_REV.1(a) Revocation of User Attributes (1a) Assignment,
Selection,
Iteration
Assignment
FMT_REV.1(b) Revocation of Object Attributes (1b) Assignment,
Selection,
Iteration
Assignment,
Refinement
FMT_SMR.1 Security Roles Assignment Assignment
FPT_AMT.1 Abstract Machine Testing Selection Refinement
FPT_RVM.1 Non-bypassability of the TSP7
None None
FPT_SEP.1 TSF Domain Separation Assignment None
FPT_STM.1 Reliable Time Stamps None None
Table 5-2 CC Components and Operations
CC Component Component Name ST Operations
FAU_SAR.3(b) Selectable Audit Review by Searching Assignment,
Selection
FCS_COP.1(a) thru
FCS_COP.1(j)
Cryptographic Operation Assignment,
Iteration
6
This title is inconsistent with the CAPP in order to use this ST’s convention of denoting explicit
requirements by ending the name with the phrase “_EX”. The CAPP titles this requirement as
“FIA_USB.1”.
7
This title is consistent with the CC. The CAPP title for this requirement is “Reference Mediation” which
is inconsistent with the CC.
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CC Component Component Name ST Operations
FCS_CKM.1(a) thru
FCS_CKM.1(e)
Cryptographic Key Generation Assignment,
Iteration,
Refinement
FCS_CKM.2 Cryptographic Key Distribution Assignment,
Refinement
FCS_CKM.4 Cryptographic Key Zeroization Refinement,
Assignment
FCS_CKM_EX.1 Cryptographic Key Validation and
Packaging
Extension
FCS_CKM_EX.2 Cryptographic Key Handling and
Storage
Extension
FDP_ACC.2(a) Discretionary Access Control Policy Assignment,
Refinement,
Iteration
FDP_ACC.2(b) WEBUSER Complete Access Control Assignment,
Refinement,
Iteration
FDP_ACC.2(c) Content-Provider Complete Access
Control
Assignment,
Refinement,
Iteration
FDP_ACF.1(b) WEBUSER Access Control Functions Assignment,
Refinement,
Iteration
FDP_ACF.1(c) Content-Provider Access Control
Functions
Assignment,
Refinement,
Iteration
FDP_IFC.1(a) IPSec Subset Information Flow
Control
Assignment,
Iteration
FDP_IFC.1(b) Windows Firewall Connection Subset
Information Flow Control
Assignment,
Iteration
FDP_IFF.1(a) IPSec Simple Security Attributes Assignment,
Refinement,
Iteration
FDP_IFF.1(b) Windows Firewall Connection Simple
Security Attributes
Assignment,
Refinement,
Iteration
FDP_ITT.1 Basic Internal Protection Assignment,
Selection
FDP_UCT.1 WEBUSER SFP Basic Data Exchange
Confidentiality
Assignment,
Selection,
Refinement
FDP_UIT.1 WEBUSER SFP Data Exchange
Integrity
Assignment,
Selection,
Refinement
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CC Component Component Name ST Operations
FIA_AFL.1 Authentication Failure Handling Assignment
FIA_UAU.6 Re-authenticating Refinement
FMT_MOF.1(a) Management of Audit Assignment,
Selection,
Iteration
FMT_MOF.1(b) Management of TOE TSF Data in
Transmission
Assignment,
Selection,
Iteration
FMT_MOF.1(c) Management of Unlocking Sessions Assignment,
Selection,
Iteration
FMT_MOF.1(d) Management of Web Server Assignment,
Selection,
Iteration,
Refinement
FMT_MSA.1(b) Management of DAC Object Security
Attributes
Assignment,
Selection,
Iteration
FMT_MSA.1(c) Management of IPSec Object Security
Attributes
Assignment,
Selection,
Iteration
FMT_MSA.1(d) Management of Windows Firewall
Connection Object Security Attributes
Assignment,
Selection,
Iteration
FMT_MSA.1(e) Management of WEBUSER Object
Security Attributes
Assignment,
Selection,
Iteration
FMT_MSA.1(f) Management of Content-Provider
Object Security Attributes
Assignment,
Selection,
Iteration
FMT_MSA_EX.2 Valid Password Security Attributes Extension
FMT_MSA.3(b) IPSec Static Attribute Initialization Assignment,
Selection,
Iteration
FMT_MSA.3(c) Windows Firewall Connection Static
Attribute Initialization
Assignment,
Selection,
Iteration
FMT_MSA.3(d) WEBUSER Static Attribute
Initialization
Assignment,
Selection,
Iteration,
Refinement
FMT_MSA.3(e) Content-Provider Static Attribute
Initialization
Assignment,
Selection,
Iteration,
Refinement
FMT_MTD.1(e) Management of Account Lockout
Duration
Assignment,
Selection,
Iteration
FMT_MTD.1(f) Management of Minimum Password
Length
Assignment,
Selection,
Iteration
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CC Component Component Name ST Operations
FMT_MTD.1(g) Management of TSF Time Assignment,
Selection,
Iteration
FMT_MTD.1(h) Management of NTFS Volume Quota
Settings
Assignment,
Selection,
Iteration
FMT_MTD.1(i) Management of Advisory Warning
Message
Assignment,
Selection,
Iteration
FMT_MTD.1(j) Management of Audit Log Size Assignment,
Selection,
Iteration
FMT_MTD.1(k) Management of User Inactivity
Threshold
Assignment,
Selection,
Iteration
FMT_MTD.1(l) Management of General TSF Data Assignment,
Selection,
Iteration
FMT_MTD.1(m) Management of Reading
Authentication TSF Data
Assignment,
Iteration,
Refinement
FMT_MTD.1(n) Management of Password Complexity
Requirement
Assignment,
Selection,
Iteration
FMT_MTD.1(o) Management of User Private/Public
Key Pair
Assignment,
Selection,
Iteration
FMT_MTD.2 Management of Unsuccessful
Authentication Attempts Threshold
Assignment
FMT_SAE.1 Timed–limited Authorization Assignment
FMT-SMF.1 Specification of Management
Functions
Assignment
FMT_SMR.3 Assuming Roles Assignment,
Refinement
TRANSFER_PROT_
EX.1
Internal TSF Data Transfer Protection Extension
FPT_TRC_EX Internal TSF Data Consistency Extension
TRANSFER_PROT_
EX.3
Internal TSF Data Integrity
Monitoring
Extension
FPT_RPL_EX.1 Replay Detection Extension
FRU_RSA.1 Maximum Quotas Assignment,
Selection
FTA_LSA_EX.1 Limitation on Scope of Selectable
Attributes
Extension
FTA_MCS_EX.1 Basic limitation on multiple
concurrent sessions
Extension
FTA_SSL1 TSF-initiated Session Locking Assignment
FTA_SSL.2 User-initiated Session Locking Assignment
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CC Component Component Name ST Operations
FTA_SSL.3 WEBUSER TSF-Initiated
Termination
Assignment,
Refinement
FTA_TAB.1 Default TOE Access Banners Refinement
FTA_TSE.1 TOE Session Establishment Assignment
FTP_TRP.1 Trusted Path Assignment,
Selection
5.1.1 Security Audit (FAU) Requirements
5.1.1.1 Audit Data Generation (FAU_GEN.1)
5.1.1.1.1 FAU_GEN.1.1
The TSF shall be able to generate an audit record of the auditable events listed in column “Event” of Table
5-3 (CAPP Compliant Auditable Events) and the events listed in column “Event” of Table 5-4 (Other
Auditable Events).
5.1.1.1.2 FAU_GEN.1.2
The TSF shall record within each audit record at least the following information:
a) Date and time of the event, type of event, subject identity, and the outcome (success or failure) of the
event; and
b) The additional information specified in the “Details” column of Table 5-3, CAPP Compliant
Auditable Events. This includes:
• The auditable events associated with the CAPP SFRs at the basic level of auditing, except
FIA_UID’s user identity during failures
• The identified auditable events associated with SFRs in this ST, which are not included in
the CAPP, at the not specified level of audit
Table 5-3 CAPP Compliant Auditable Events
Component Event Details
FAU_GEN.1 Start-up and Shutdown of the audit functions
FAU_GEN.2 None
FAU_SAR.1 Reading of information from the audit records
FAU_SAR.2 Unsuccessful attempts to read information from the audit
records
FAU_SAR.3(a),
(b)
None
FAU_STG.1 None
FAU_STG.3 Actions taken due to exceeding of a threshold
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Component Event Details
FAU_STG.4 Actions taken due to the audit storage failure
FDP_ACC.1 (a)8
None
FDP_ACF.1 (a) All requests to perform an operation on an object covered by
the SFP
The identity of
the object.
FDP_RIP.2 None
FDP_RIP.2.
Note 1
None
FIA_ATD.1 None
FIA_SOS.1 Rejection or acceptance by the TSF of any tested secret
FIA_UAU.1 The use of the authentication mechanism
FIA_UAU.7 None
FIA_UID.1 All use of the user identification mechanism, including the
identity provided during successful attempts
The origin of
the attempt
(e.g. terminal
identification).
FIA_USB.1_EX Success and failure of binding user security attributes to a
subject (e.g., success and failure to create a subject)
FMT_MSA.1(a) All modifications of the values of security attributes
FMT_MSA.3(a) Modifications of the default setting of permissive or restrictive
rules. All modifications of the initial value of security
attributes.
FMT_MTD.1(a)
CAPP – 5.4.3
All modifications to the values of TSF data
FMT_MTD.1(b)
CAPP – 5.4.4
All modifications to the values of TSF data The new value
of the TSF
data.
FMT_MTD.1(c)
CAPP – 5.4.5
All modifications to the values of TSF data The new value
of the TSF
data.
FMT_MTD.1(d)
CAPP- 5.4.6
All modifications to the values of TSF data
FMT_REV.1(a)
CAPP – 5.4.7
All attempts to revoke security attributes
FMT_REV.1(b)
CAPP – 5.4.8
All modifications to the values of TSF data
FMT_SMR.1 Modifications to the group of users that are part of a role
FMT_SMR.1 Every use of the rights of a role. (Additional/ Detailed) The role and
the origin of
the request.
FPT_RVM.1 None
FPT_SEP.1 None
FPT_STM.1 Changes to the time
8
This requirement is not included in this ST, however, FDP_ACC.2 is which is hierarchical to
FDP_ACC.1.
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Table 5-4 Other Auditable Events
Component Event
FIA_AFL.1 Account locked out due to exceeding the maximum number
of unsuccessful logon attempts
FMT_MOF.1(a) Audit Policy Changes
FMT_MTD.1(g) Attempt to use an authorized administrator privilege to
change the TSF Time
TRANSFER_PROT_E
X.1
IPSEC policy changes
FTA_SSL1 Attempt to unlock
FTA_SSL.2 Attempt to unlock
FTA_TSE.1 Logon Failure due to password expiration
FTP_TRP.1 Authentication and unlocking attempts
FMT_MTD.1(e) Lockout Duration changes
FMT_MTD.1(f) Modification of minimum password length
FMT_MTD.1(n) Modification of password complexity policy
FMT_MTD.2 Modification of unsuccessful logon attempt threshold
FMT_SAE.1 Setting of password expiration time
TRANSFER_PROT_E
X.3
Detection of a data integrity violation
FPT_RPL.1 Replay of TSF data
FPT_TRC_EX.1 Directory Replication
5.1.1.2 User Identity Association (FAU_GEN.2)
5.1.1.2.1 FAU_GEN.2.1
The TSF shall be able to associate each auditable event with the identity of the user that caused the event.
5.1.1.3 Audit Review (FAU_SAR.1)
5.1.1.3.1 FAU_SAR.1.1
The TSF shall provide authorized administrators with the capability to read all audit information from the
audit records.
5.1.1.3.2 FAU_SAR.1.2
The TSF shall provide the audit records in a manner suitable for the authorized administrator to interpret
the information using a tool to access the audit trail.
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5.1.1.4 Restricted Audit Review (FAU_SAR.2)
5.1.1.4.1 FAU_SAR.2.1
The TSF shall prohibit all users read access to the audit records, except those users that have been granted
explicit read-access.
5.1.1.5 Selectable Audit Review by Searching and Sorting (FAU_SAR.3(a))
5.1.1.5.1 FAU_SAR.3.1(a)
The TSF shall provide the ability to perform [searches and sorting] of audit data based on the following
attributes:
a) User identity;
b) [Type (success and/or failure), date, time, category, event identifier, and computer].
5.1.1.6 Selectable Audit Review by Searching (FAU_SAR.3(b))
5.1.1.6.1 FAU_SAR.3.1(b)
The TSF shall provide the ability to perform [searches] of audit data based on [free form text substring
within audit records].
5.1.1.7 Selective Audit (FAU_SEL.1)
5.1.1.7.1 FAU_SEL.1.1
The TSF shall be able to include or exclude auditable events from the set of audited events based on the
following attributes:
a) User identity;
b) [Object identity, Host identity, Event type, Success of auditable security events, and Failure of
auditable security events.]
5.1.1.8 Protected Audit Trail Storage (FAU_STG.1)
5.1.1.8.1 FAU_STG.1.1
The TSF shall protect the stored audit records from unauthorized deletion.
5.1.1.8.2 FAU_STG.1.2
The TSF shall be able to prevent unauthorized modifications to the audit records in the audit trail. (per
International Interpretation #141)
5.1.1.9 Action in Case of Possible Audit Data Loss (FAU_STG.3)
5.1.1.9.1 FAU_STG.3.1
The TSF shall generate an alarm to the authorized administrator if the audit trail exceeds [the authorized
administrator specified log size].
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5.1.1.10 Prevention of Audit Data Loss (FAU_STG.4)
5.1.1.10.1 FAU_STG.4.1
When the audit trail becomes full, the TSF shall be able to provide the authorized administrator the
capability to prevent auditable events, except those taken by the authorized administrator (in the context
of performing TOE maintenance) and [generate an alarm to the authorized administrator]. if the audit
trail is full
5.1.2 Cryptographic Support (FCS)
5.1.2.1 Cryptographic Operation (DES Encryption and Decryption) (FCS_COP.1(a))
5.1.2.1.1 FCS_COP.1.1(a)
The TSF shall perform [the TOE CryptProtectData, CryptEncrypt, FipsDes, and Fips3Des3Key encryption
function and the CryptUnprotectData, CryptDecrypt, FipsDes, and Fips3Des3Key decryption function] in
accordance with a specified cryptographic algorithm [FIPS-46-3 DES or Triple DES ECB and CBC
modes] and cryptographic key sizes [ 56-bits or 168-bits respectively] that meet the following [FIPS 46-
3].
5.1.2.2 Cryptographic Operation (RSA Hash) (FCS_COP.1(b))
5.1.2.2.1 FCS_COP.1.1(b)
The TSF shall perform [the TOE CryptSignHash signing function] in accordance with a specified
cryptographic algorithm [FIPS-186-2 RSA using PKCS-1 (RSASSA-PKCS1-v1_5)] and cryptographic key
size [default 1024 bits and maximum 16384 bits] that meets the following [none].
5.1.2.3 Cryptographic Operation (DSA Hash) (FCS_COP.1(c))
5.1.2.3.1 FCS_COP.1.1(c)
The TSF shall perform [the TOE CryptSignHash signing function] in accordance with a specified
cryptographic algorithm [FIPS-186-2 DSA] and cryptographic key size [default 1024 bits] that meets the
following [none].
5.1.2.4 Cryptographic Operation (XP SHA Hash) (FCS_COP.1(d))
5.1.2.4.1 FCS_COP.1.1(d)
The TSF shall perform [the TOE CryptCreateHash, CryptHashData, and CryptGetHashParam hashing
functions with the Algid parameter CALG_SHA1] in accordance with a specified cryptographic algorithm
[FIPS-180-2 SHA-1] and cryptographic key size [not applicable] that meet the following [FIPS 180-2].
5.1.2.5 Cryptographic Operation (Server SHA Hash) (FCS_COP.1(e))
5.1.2.5.1 FCS_COP.1.1(e)
The TSF shall perform [the TOE CryptCreateHash, CryptHashData, and CryptGetHashParam hashing
functions with the Algid parameter CALG_SHA1, CALG_SHA_256, CALG_SHA_384, or CALG_SHA_512
hashing] in accordance with a specified cryptographic algorithm [FIPS-180-2 SHA-1, SHA-256, SHA-384,
and SHA-512 respectively] and cryptographic key size [not applicable] that meet the following [FIPS-180-
2, SHA-1, SHA-256, SHA-384, and SHA-512].
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5.1.2.6 Cryptographic Operation (Random Number Generator) (FCS_COP.1(f))
5.1.2.6.1 FCS_COP.1.1(f)
The TSF shall perform [the TOE CryptGenRandom and FIPSGenRandom pseudo random number
generation functions] in accordance with a specified cryptographic algorithm [SHA-1] and cryptographic
key size [not applicable] that meet the following [none].
5.1.2.7 Cryptographic Operation (RSA Encryption and Decryption) (FCS_COP.1(g))
5.1.2.7.1 FCS_COP.1.1(g)
The TSF shall perform [the TOE CryptEncrypt and CryptDecrypt public key encryption services] in
accordance with a specified cryptographic algorithm [RSA] and cryptographic key size [default 1024 bits
and maximum 16384 bits] that meet the following [PKCS#1(RSAES-PKCS1-v1_5)].
5.1.2.8 Cryptographic Operation (Diffie-Hellman) (FCS_COP.1(h))
5.1.2.8.1 FCS_COP.1.1(h)
The TSF shall perform [the TOE CryptExportKey, CryptImportKey and CryptGetKeyParam, CryptGenKey
cryptographic key establishment services] in accordance with a specified cryptographic algorithm [Diffie-
Hellman (Ephemeral-Ephemeral)] and cryptographic key size [default 1024 bits and maximum 2048 bits]
that meet the following [none].
5.1.2.9 Cryptographic Operation (AES Encryption and Decryption) (FCS_COP.1(i))
5.1.2.9.1 FCS_COP.1.1(i)
The TSF shall perform [the TOE CryptEncrypt encryption function and the CryptDecrypt decryption
function] in accordance with a specified cryptographic algorithm [AES ECB and CBC modes] and
cryptographic key sizes [128 bits, 192 bits, or 256 bits] that meet the following [FIPS- 197].
5.1.2.10 Cryptographic Operation (HMAC) (FCS_COP.1(j))
5.1.2.10.1 FCS_COP.1.1(j)
The TSF shall perform [the TOE CryptCreateHash, CryptHashData, and CryptGetHashParam hashing
functions] in accordance with a specified cryptographic algorithm [HMAC] and cryptographic key sizes
[128] that meet the following [FIPS-198 (SHA-1)].
5.1.2.11 Cryptographic Key Management (FCS_CKM) Cryptographic Key Generation (for
symmetric keys) (FCS_CKM.1(a)
5.1.2.11.1 FCS_CKM.1.1(a)
The TSF shall generate FIPS-46-3 DES or Triple DES symmetric cryptographic keys in accordance with
a specified cryptographic key generation algorithm as follows:
[
(1) a software random number generator (RNG) as specified in FCS_COP.1.1(f), or
(2) a key establishment scheme as specified in FCS_COP.1.1(h) based on public key cryptography
using a software random number generator (RNG) as specified in FCS_COP.1.1(f),
when using the TOE CryptGenKey function, or when inside the TOE EFS Service, DPAPI Service,
Schannel Security Package, or IPSEC Service,
]
and specified cryptographic key sizes [56 bits or 168 bits respectively] that meet the following [FIPS 140-1
or 140-2 Level 1].
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5.1.2.12 Cryptographic Key Management (FCS_CKM) Cryptographic Key Generation (for
asymmetric keys) (FCS_CKM.1(b))
5.1.2.12.1 FCS_CKM.1.1(b)
The TSF shall generate FIPS-186-2/PKCS#1 asymmetric cryptographic keys in accordance with a
specified cryptographic key generation algorithm as follows:
[
(1) a prime number generator, when using the TOE CryptGenKey function,
]
and specified cryptographic key sizes [default 1024 bits and maximum 16384] that meets the following
[none].
5.1.2.13 Cryptographic Key Management (FCS_CKM) Cryptographic Key Generation (for
asymmetric keys) (FCS_CKM.1(c))
5.1.2.13.1 FCS_CKM.1.1(c)
The TSF shall generate FIPS-186-2 DSA asymmetric cryptographic keys in accordance with a specified
cryptographic key generation algorithm as follows:
[
(1) a random number generator(SHA-1 based RNG), when using the TOE CryptGenKey function,
]
and specified cryptographic key sizes [1024 bits] that meets the following [FIPS 186-2 ].
5.1.2.14 Cryptographic Key Management (FCS_CKM) Cryptographic Key Generation (for
symmetric keys) (FCS_CKM.1(d)
5.1.2.14.1 FCS_CKM.1.1(d)
The TSF shall generate FIPS-197AES symmetric cryptographic keys in accordance with a specified
cryptographic key generation algorithm as follows:
[
(1) a software random number generator (RNG) as specified in FCS_COP.1.1(f), or
(2) a key establishment scheme as specified in FCS_COP.1.1(h) based on public key
cryptography using a software random number generator (RNG) as specified in
FCS_COP.1.1(f),
when using the TOE CryptGenKey function,
]
and specified cryptographic key sizes [128 bits, 192 bits, or 256 bits] that meet the following [ FIPS-
197AES symmetric ].
5.1.2.15 Cryptographic Key Management (FCS_CKM) Cryptographic Key Generation (for
asymmetric keys) (FCS_CKM.1(e))
5.1.2.15.1 FCS_CKM.1.1(e)
The TSF shall generate Diffie-Hellman asymmetric cryptographic keys in accordance with a specified
cryptographic key generation algorithm as follows:
[
(1) a random number generator (SHA-1 based RNG), when using the TOE CryptGenKey function,
]
and specified cryptographic key sizes [default 1024 bits and maximum 2048 bits] that meets the following
[none].
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5.1.2.16 Cryptographic Key Management (FCS_CKM) Cryptographic Key Distribution
(FCS_CKM.2)
5.1.2.16.1 FCS_CKM.2.1
The TSF shall distribute FIPS-186-2 DSA and FIPS-186-2/PKCS#1 private asymmetric cryptographic
keys in accordance with a specified cryptographic key distribution method as follows: [
(1) PKCS#5 V2.0 (Password-Based Encryption Standard), inside the TOE DPAPI service for
handling the distribution of the aforementioned keys to physically-separated parts of the TOE that
the keys owners are currently logging onto and needing to use the keys, using FIPS-180-2 SHA-1
and FIPS-46-3 Triple DES,
]
that meet the following [FIPS 140-1 or 140-2 Level 1].
5.1.2.17 Cryptographic Key Management (FCS_CKM) Cryptographic Key Zeroization
(FCS_CKM.4)
5.1.2.17.1 FCS_CKM.4.1
The TSF shall destroy cryptographic keys within the FIPS-140 validated cryptographic modules in
accordance with a specified cryptographic key destruction method [cryptographic key zeroization method]
that meets the following [FIPS 140-1 or 140-2 Level 1].
5.1.2.18 Cryptographic Key Management (FCS_CKM) Cryptographic Key Validation and
Packaging (FCS_CKM_EX.1)
5.1.2.18.1 FCS_CKM_EX.1.1
The TSF shall apply validation techniques (e.g. hash) to validate the CryptProtectData-encrypted FIPS-
186-2 DSA and FIPS-186-2/PKCS#1 private asymmetric cryptographic keys when they are obtained via
the distribution method as called out in FCS_CKM.2.1 or via the storage method as called out in
FCS_CKM_EXP.2.2.
5.1.2.19 Cryptographic Key Management (FCS_CKM) Cryptographic Key Handling and Storage
(FCS_CKM_EX.2)
5.1.2.19.1 FCS_CKM_EX.2.1
The TSF shall provide a means to ensure that FIPS-186-2 DSA and FIPS-186-2/PKCS#1 private
asymmetric cryptographic keys are associated with the correct entities (i.e., person) to which the keys are
assigned.
5.1.2.19.2 FCS_CKM_EX.2.2
The TSF shall store FIPS-186-2 DSA and FIPS-186-2/PKCS#1 private asymmetric cryptographic keys in
accordance with a specified cryptographic key storage method as follows: [
(1) PKCS#5 V2.0 (Password-Based Encryption Standard), using FIPS-180-2 SHA-1 and FIPS-46-3
Triple DES,
]
that meet the following [FIPS 140-1 or 140-2 Level 1].
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5.1.3 User Data Protection (FDP) Requirements
5.1.3.1 Discretionary Access Control Policy (FDP_ACC.2 (a))
5.1.3.1.1 FDP_ACC.2.1(a)
The TSF shall enforce the [Discretionary Access Control Policy] on
[subjects – processes acting on the behalf of users]
and
[Named objects – Desktop, Event, Keyed Event, Event pair, I/O Completion Port, Job, Key, Mutant,
Mailslot, Named pipe, NTFS directory, NTFS file, Object Directory, LPC Port, Printer, Process, Section,
Semaphore, Symbolic Link, Thread, Timer, Tokens, Volume, Window Station, Active Directory,
Application Pool File, URL Reservation, debug, Filter Communication Port, and Filter Connection Port
objects]; and all operations among them subjects and objects covered by the SFP.
5.1.3.1.2 FDP_ACC.2.2(a)
The TSF shall ensure that all operations between any subject in the TSC and any named object within the
TSC are covered by an access control SFP the Discretionary Access Control policy.
5.1.3.2 WEBUSER (WU) Complete Access Control (FDP_ACC.2(b))
5.1.3.2.1 FDP_ACC.2.1(b)
The Web Server part of the TSF shall enforce the [WEBUSER SFP] on
[
Web Server subjects: web users – processes acting on behalf of users (which are users of the OS part
of the TOE/TSF) requesting web access.
Web Server objects: web server content (served by the Web Server part of TSF over http:// or https://)
]
and all operations among subjects and objects covered by the SFP.
5.1.3.2.2 FDP_ACC.2.2(b)
The TSF shall ensure that all operations between any subject in the WEBUSER TSC and any object within
the WEBUSER TSC are covered by an access control the WEBUSER SFP.
5.1.3.3 Content-Provider (CP) Complete Access Control (FDP_ACC.2(c))
5.1.3.3.1 FDP_ACC.2.1(c)
The Web Server part of the TSF shall enforce the [CONTENT-PROVIDER (CP) SFP] on
[
subjects - Content-Providers - processes acting on behalf of users (which are users of the OS part of
the TOE/TSF) (which are just Users of the OS part of the TOE/TSF)
objects - Web Server Content (served by the Web Server part of TSF over http:// or https://)
]
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and upon all operations among Web Server subjects and Web server objects covered by the CONTENT-
PROVIDER SFP:
5.1.3.3.2 FDP_ACC.2.2(c)
The Web Server part of the TSF shall ensure that all operations between any subject in the CONTENT-
PROVIDER TSC and any object within the CONTENT-PROVIDER TSC are covered by an access
control the CONTENT-PROVIDER SFP.
5.1.3.4 Discretionary Access Control Functions (FDP_ACF.1(a))
5.1.3.4.1 FDP_ACF.1.1(a)
The TSF shall enforce the Discretionary Access Control Policy to objects based on the following:
a) The user identity, group membership(s), and privileges associated with a subject
b) The user private key (only applicable when requesting access to encrypted files or sign data
hashes with the TOE CryptSignHash function) associated with a subject
c) The following access control attributes associated with an object:
[
• Object Owner
• A Discretionary Access Control List (DACL) that can be either absent, empty, or consist of a list
of one or more entries. Each DACL entry has a:
o Type (allow or deny)
o User or group identifier
o Specific object access right bitmasks
o For directory service (DS) object entries, a globally unique identifier (GUID) indicating a
DS-specific object attribute.
• For encrypted file objects, File Encryption Keys (FEKs)
The defaults for allowed or denied operations are:
• If a DACL is absent, the object is not protected and all access is granted.
• If a DACL is present but empty, no access is granted.
]. (per International Interpretation #103)
5.1.3.4.2 FDP_ACF.1.2(a)
The TSF shall enforce the following rules to determine if an operation among controlled subjects and
controlled objects is allowed:
[Object access is allowed if at least one of the following conditions is true:
• A DACL entry explicitly grants access to a user, and the access has not been denied by a previous
entry in the DACL.
• A DACL entry explicitly grants access to a Group of which the subject is a member, and the
access has not been denied by a previous entry in the DACL
• A DACL is not present
• The subject is the object owner and the operation is to view the object’s DACL or to modify the
object’s DACL
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]
5.1.3.4.3 FDP_ACF.1.3(a)
The TSF shall explicitly authorize access of subjects to objects based in the following additional rules:
[
• For the following operation, the authorized administrator can bypass the rules listed in
FDP_ACF.1.2:
Request to change the owner of an object
• For the following operations, only the authorized administrator can be granted access and the rules
in FDP_ACF.1.2 do not apply:
Request to change or modify the auditing of access attempts to an object
• For encrypted file objects, in addition to meeting FDP_ACF.1.2, the user must have a private key
that can decrypt the FEK associated with the file.
].
5.1.3.4.4 FDP_ACF.1.4(a)
The TSF shall explicitly deny access of subjects to objects based on the following rules:
[
Object access is explicitly denied if at least one of the below conditions is true:
• A DACL entry explicitly denies access for a user, and the access has not been granted by a previous
entry in the DACL.
• A DACL entry explicitly denies access for the group of which the user is a member, and the access has
not been granted by a previous entry in the DACL.
].
5.1.3.5 WEBUSER Access Control Functions (FDP_ACF.1(b))
5.1.3.5.1 FDP_ACF.1.1(b)
The Web Server part of the TSF shall enforce the [WEBUSER SFP] to controlled-access content objects
based on the following types of subject and object security attributes:
[
subjects – Web Server Subjects – web users – process on behalf of users (which are users of the OS part of
the TOE/TSF) requesting access:
o the user identity and group membership(s) associated with a subject
objects – Web Server objects – web server content (served by the Web Server part of the TSF over http:// or
https://)
o the DACL associated with the object
o the web permissions associated with an object
o the URL authorization associated with an object.
]
5.1.3.5.2 FDP_ACF.1.2(b)
The Web Server part of the TSF shall enforce the following WEBUSER SFP ordered rules to determine if
an operation among controlled subjects and controlled objects is allowed:
[
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(a) For (Web Server) controlled-access content:
1. If the requested access is denied by the file’s DACL associated with the web content to that
web user, deny access.
2. If the requested access is something other than read access, deny access.
3. If read-only access is permitted to that authorized web user by the file’s DACL associated
with the web content, grant access
4. Otherwise, deny access.
(b) For (Web Server) public content
1. If the requested access is something other than read access, deny access.
2. Grant read-only access to web user.
]
5.1.3.5.3 FDP_ACF.1.3(b)
The Web Server part of the TSF shall explicitly authorize access of Web Server subjects to Web Server
objects based on the following additional WEBUSER SFP rules:
[
(a) a web user trying to access an object URL must be authorized to the operation AccessURL, if
URL authorization is configured for the object.
(b) a web user may read web server content if the web permission associated with the object allows
read access.
(c) a web user may change web server content if the web permission associated with the object
allows write access.
(d) a web user may access the source of a web server content if the web permission associated with
the object allows access to the source.
(e) a web user may view web server content file lists and collections if the web permission
associated with the object allows browsing access.
]
5.1.3.5.4 FDP_ACF.1.4(b)
The Web Server part of the TSF shall explicitly deny access of Web Server subjects to Web Server objects
based on the following additional WEBUSER SFP rules:
[
(a) if a web user uses http:// instead of https:// and the web permission associated with the object
requires SSL.
(b) if a web user does not use a client certificate and the web permission associated with the object
requires SSL and a certificate.
(c) if the web user’s certificate is revoked or is invalid and the web permission associated with the
object requires SSL and a certificate.
(d) if the authorization setting of a web user determined by an authentication provider does not
match the configured authorization setting associated with the object.
(e) if the client certificate mapping setting of a web user determined by an authentication provider
does not must match the configured client certificate mapping setting associated with the object.
(f) if the web permission requested is not supported (other than those permissions identified in
FDP_ACF.1.3)
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]
5.1.3.6 Content Provider Access Control Functions (FDP_ACF.1(c))
5.1.3.6.1 FDP_ACF.1.1(c)
The Web Server part of the TSF shall enforce the [CONTENT-PROVIDER SFP] to objects based on the
following types of subject and object security attributes:
[
subjects – Content Providers – processes acting on behalf of users (which are users of the OS part of the
TOE/TSF) (which are just users of the OS part of the TOE/TSF)
o the user identity and group membership(s) associated with a subject
objects: Web Server Content (served by the Web Server part of the TSF over http:// or https://
o the web permissions associated with an object
o the DACL associated with the object
o the URL authorization.
]
5.1.3.6.2 FDP_ACF.1.2(c)
The Web Server part of the TSF shall enforce the following CONTENT-PROVIDER SFP rules to
determine if an operation among controlled subjects and controlled objects is allowed:
[
(a) The Web Server part of the TOE shall restrict the ability to create or modify content to only those
content providers authorized by an authorized administrator.
(b) For (Web Server) controlled-access content:
1. If the requested access is denied by the file’s DACL associated with the web content to that
web user, deny access.
2. If the requested access is something other than read access, deny access.
3. If read-only access is permitted to that authorized web user by the file’s DACL associated
with the web content, grant access
4. Otherwise, deny access.
(c) For (Web Server) public content
1. If the requested access is something other than read access, deny access.
2. Grant read-only access to web user.
]
5.1.3.6.3 FDP_ACF.1.3(c)
The Web Server part of the TSF shall explicitly authorize access of subjects to objects based on the
following additional CONTENT-PROVIDER SFP rules:
[
(a) a content provider trying to access an object URL must be authorized to the operation
AccessURL if the URL Authorization is configured for the object.
(b) a content provider may read web server content if the web permission associated with the object
allows read access.
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(c) a content provider may change web server content if the web permission associated with the
object allows write access.
(d) a content provider may access the source of web server content if the web permission associated
with the object allows access to the source
(e) a content provider may view web server content file lists and collections if the web permission
associated with the object allows browsing access
]
5.1.3.6.4 FDP_ACF.1.4(c)
The Web Server part of the TSF shall explicitly deny access of subjects to objects based on the following
additional CONTENT-PROVIDER SFP rules:
[
(a) if a content provider uses http:// instead of https:// and the web permission associated with the
object requires SSL.
(b) if a content provider does not use a client certificate and the web permission associated with the
object requires SSL and a certificate.
(c) if the content provider’s certificate is revoked or is invalid and the web permission associated
with the object requires SSL and that a certificate be negotiated, or requires SSL and a certificate.
(d) if the authorization setting of a content provider determined by an authentication provider does
not match the configured authorization setting associated with the object.
(e) if the client certificate mapping setting of a content provider determined by an authentication
provider does not must match the configured client certificate mapping setting associated with the
object.
(f) if the web permission requested is not supported (other than those permissions identified in
FDP_ACF.1.3(c))
]
5.1.3.7 IPSec Subset Information Flow Control (FDP_IFC.1(a))
5.1.3.7.1 FDP_IFC.1.1(a)
The TSF shall enforce the [IPSec Filter Policy] on:
[
a) subjects: one TSF sending IP traffic to another TSF or receiving IP traffic from another TSF;
(2) information: IP traffic
(3) operation: pass information.
].
5.1.3.8 Windows Firewall Connection Subset Information Flow Control (FDP_IFC.1(b))
5.1.3.8.1 FDP_IFC.1.1(b)
The TSF shall enforce the [Connection Firewall Policy] on:
[
a) subjects: one TSF receiving IP traffic from another TSF;
a) information: IP traffic
b) operation: receive information.
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].
5.1.3.9 IPSec Simple Security Attributes (FDP_IFF.1(a))
5.1.3.9.1 FDP_IFF.1.1(a)
The TSF shall enforce the [IPSec Filter Policy] based on the following types of subject and information
security attributes:
[
a) subject security attributes:
• presumed address;
b) information security attributes:
• presumed address of source subject;
• presumed address of destination subject;
• protocol;
• source port identification
• destination port identification .
]. (per International Interpretation #104)
5.1.3.9.2 FDP_IFF.1.2(a)
The TSF shall permit an information flow between a controlled subject and another controlled information
subject via a controlled operation if the following rules hold:
[all the information security attribute values are unambiguously permitted by the IPSec policy filter
rules, where such rules may be composed from all possible combinations of the values of the
information flow security attributes, created by the authorized administrator]
5.1.3.9.3 FDP_IFF.1.3(a)
The TSF shall enforce the [no additional information control SFP rules].
5.1.3.9.4 FDP_IFF.1.4(a)
The TSF shall provide the following [no additional SFP capabilities].
5.1.3.9.5 FDP_IFF.1.5(a)
The TSF shall explicitly authorize an information flow based on the following rules: [no explicit
authorization rules].
5.1.3.9.6 FDP_IFF.1.6(a)
The TSF shall explicitly deny an information flow based on the following rules: [no explicit deny rules].
5.1.3.10 Windows Firewall Connection Simple Security Attributes (FDP_IFF.1(b))
5.1.3.10.1 FDP_IFF.1.1(b)
The TSF shall enforce the [Windows Firewall Connection Policy] based on the following types of subject
and information security attributes:
[
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a) subject security attributes:
• Windows Firewall Connection Policy Port Mapping Rules
b) information security attributes:
• destination port identification .
]. (per International Interpretation #104)
5.1.3.10.2 FDP_IFF.1.2(b)
The TSF shall permit an information flow between a controlled subject and another controlled information
subject via a controlled operation if the following rules hold:
[the incoming packet is a response to previous outgoing packet ]
5.1.3.10.3 FDP_IFF.1.3(b)
The TSF shall enforce the [no additional information control SFP rules].
5.1.3.10.4 FDP_IFF.1.4(b)
The TSF shall provide the following [no additional SFP capabilities].
5.1.3.10.5 FDP_IFF.1.5(b)
The TSF shall explicitly authorize an information flow based on the following rules: [the destination port is
permitted by the Windows Firewall Connection Policy Port Mapping Rules].
5.1.3.10.6 FDP_IFF.1.6(b)
The TSF shall explicitly deny an information flow based on the following rules: [no explicit deny rules].
5.1.3.11 Basic Internal Transfer Protection (FDP_ITT.1)
5.1.3.11.1 FDP_ITT.1.1
The TSF shall enforce the [IPSec Filter Policy] to prevent the [disclosure and modification] of user data
when it is transmitted between physically-separated parts of the TOE.
5.1.3.12 Object Residual Information Protection (FDP_RIP.2)
5.1.3.12.1 FDP_RIP.2.1
The TSF shall ensure that any previous information content of a resource is made unavailable upon the
allocation of the resource to all objects.
5.1.3.13 WEBUSER Basic Data Exchange Confidentiality (FDP_UCT.1)
5.1.3.13.1 FDP_UCT.1.1
The Web Server part of the TSF shall enforce the [WEBUSER SFP] to be able to [transmit and receive]
Web Server controlled-access content objects in a manner protected from unauthorized disclosure
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5.1.3.14 WEBUSER SFP Data Exchange Integrity (FDP_UIT.1)
5.1.3.14.1 FDP_UIT.1.1
The Web Server part of the TSF shall enforce the [WEBUSER SFP] to be able to [transmit and receive]
Web Server controlled-access content user data in a manner protected from [modification] errors.
5.1.3.14.2 FDP_UIT.1.2
The Web Server part of the TSF shall be able to determine on receipt of Web Server controlled-access
content user data, under the WEBUSER SFP, whether [modification] has occurred.
5.1.3.15 Subject Residual Information Protection (Note1_EX)
5.1.3.15.1 Note1_EX.1
The TSF shall ensure that any previous information content of a resource is made unavailable upon the
allocation of the resource to all subjects.
5.1.4 Identification and Authentication (FIA)
5.1.3.1 Authentication Failure Handling (FIA_AFL.1)
5.1.4.1.1 FIA_AFL.1.1
The TSF shall detect when [an administrator configurable positive integer within a range of values
acceptable to the administrator] unsuccessful authentication attempts occur related to [user logon].
5.1.4.1.2 FIA_AFL.1.2
When the defined number of unsuccessful authentication attempts has been met or surpassed, the TSF shall
[disable the user account for an authorized administrator specified duration].
5.1.4.2 User Attribute Definition (FIA_ATD.1)
5.1.4.2.1 FIA_ATD.1.1
The TSF shall maintain the following list of security attributes belonging to individual users:
a) User Identifier;
b) Group Memberships;
c) Authentication Data;
d) Security-relevant Roles; and
e) [Private/Public Keys, Privileges, and Logon Rights on specific physically separated parts of the
TOE; Allowable time and day to logon; Policy requiring smart card to logon ]
5.1.4.3 Verification of Secrets (FIA_SOS.1)
5.1.4.3.1 FIA_SOS.1.1
The TSF shall provide a mechanism to verify that secrets meet the following:
a) For each attempt to use the authentication mechanism, the probability that a random attempt will
succeed is less than one in 1,000,000 2 x 1015
;
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b) For multiple attempts to use the authentication mechanism during a one minute period, the
probability that a random attempt during that minute will succeed is less than one in 100,000
25,000,000,000,000;
c) Any feedback given during an attempt to use the authentication mechanism will not reduce the
probability below the above metrics; and
d) The authentication mechanism must provide a delay between attempts, such that there can
be no more than ten attempts per minute.
5.1.4.4 Timing of Authentication (FIA_UAU.1)
5.1.4.4.1 FIA_UAU.1.1
The TSF shall allow [access to the web server] on behalf of that user to be performed before the user is
authenticated.
5.1.4.4.2 FIA_UAU.1.2
The TSF shall require each user to be successfully authenticated before allowing any other TSF-mediated
actions on behalf of that user.
5.1.4.5 Re-authenticating (FIA_UAU.6)
5.1.4.5.1 FIA_UAU.6.1
The TSF shall re-authenticate the user under the conditions [assignment: list of conditions under which re-
authentication is required] when changing authentication data.
5.1.4.6 Protected Authentication Feedback (FIA_UAU.7)
5.1.4.6.1 FIA_UAU.7.1
The TSF shall provide only obscured feedback to the user while the authentication is in progress.
5.1.4.7 Timing of Identification (FIA_UID.1)
5.1.4.7.1 FIA_UID.1.1
The TSF shall allow [access to the web server] on behalf of that user.
5.1.4.7.2 FIA_UID.1.2
The TSF shall require each user to be succesfully identified before allowing any other TSF-mediated
actions on behalf of that user.
5.1.4.8 User Subject Binding (FIA_USB.1_EX)
5.1.4.8.1 FIA_USB.1_EX.1
The TSF shall associate the following user security attributes with subjects acting on the behalf of that user:
a) The user unique identity which is associated with auditable events;
b) The user identity or identities which are used to enforce the Discretionary Access Control
Policy, and Maximum Quotas (FRU_RSA.1);
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c) The group membership or memberships used to enforce the Discretionary Access Control
Policy;
d) [Private/Public Keys, Privileges.]
5.1.4.8.2 FIA_USB.1_EX.2
The TSF shall enforce the following rules on the initial association of user security attributes with subjects
acting on the behalf of a user:
a) [Every subject will be assigned a subset of security attributes associated with the user on
whose behalf the subject will act.]
5.1.4.8.3 FIA_USB.1_EX.3
The TSF shall enforce the following rules governing changes to the user security attributes associated with
subjects acting on the behalf of a user:
a) [Subjects acting on behalf of users cannot add additional security attributes beyond those
initially assigned.]
5.1.5 Management Requirements (FMT)
5.1.5.1 Management of Audit (FMT_MOF.1(a))
5.1.5.1.1 FMT_MOF.1.1(a)
The TSF shall restrict the ability to [enable, disable, modify the behavior of] the function [audit] to
[authorized administrators].
5.1.5.2 Management of TOE TSF Data in Transmission (FMT_MOF.1(b))
5.1.5.2.1 FMT_MOF.1.1(b)
The TSF shall restrict the ability to [determine the behavior of and modify the behavior of] the function
[that protect TOE Data during transmission between separate parts of the TOE] to [authorized
administrators].
5.1.5.3 Management of Unlocking Sessions (FMT_MOF.1(c))
5.1.5.3.1 FMT_MOF.1.1(c)
The TSF shall restrict the ability to [modify the behavior of] the function [locked user session] to
[authorized administrators and authorized user of locked session].
5.1.5.4 Management of the Web Server (FMT_MOF.1(d))
5.1.5.4.1 FMT_MOF.1.1(d)
The Web Server part of the TSF shall restrict the ability to [modify the behaviour of] the function
[WEBUSER SFP] to [authorized administrators].
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5.1.5.5 Management of Object Security Attributes (FMT_MSA.1(a))
5.1.5.5.1 FMT_MSA.1.1(a)
The TSF shall enforce the Discretionary Access Control Policy to restrict the ability to modify the security
attributes access control attributes associated with a named object to [the owner of the object, subjects with
DAC permission to take ownership or to modify the DACL, and subjects with a specific privilege].
5.1.5.6 Management of DAC Object Security Attributes (FMT_MSA.1(b))
5.1.5.6.1 FMT_MSA.1.1(b)
The TSF shall enforce the [Discretionary Access Control Policy] to restrict the ability to [delete] the
security attributes [File Encryption Keys (FEKs)] to [users with access to one of the private keys used to
protect the file encryption key associated with the file and subjects with a specific privilege].
5.1.5.7 Management of IPSec Object Security Attributes (FMT_MSA.1(c))
5.1.5.7.1 FMT_MSA.1.1(c)
The TSF shall enforce the [IPSec Filter Policy] to restrict the ability to [modify] the security attributes
[IPSec Filter Policy security attributes] to [the authorized administrator].
5.1.5.8 Management of Windows Firewall Connection Object Security Attributes
(FMT_MSA.1(d))
5.1.5.8.1 FMT_MSA.1.1(d)
The TSF shall enforce the [Windows Firewall Connection Policy] to restrict the ability to [modify] the
security attributes [Windows Firewall Connection Policy security attributes] to [the authorized
administrator]
5.1.5.9 Management of WEBUSER Object Security Attributes (FMT_MSA.1(e))
5.1.5.9.1 FMT_MSA.1.1(e)
The TSF shall enforce the [WEBUSER Policy] to restrict the ability to [modify] the security attributes
[WEBUSER Policy security attributes] to [the authorized administrator].
5.1.5.10 Management of CONTENT-PROVIDER Object Security Attributes (FMT_MSA.1(f))
5.1.5.10.1 FMT_MSA.1.1(f)
The TSF shall enforce the [CONTEN-PROVIDER Policy] to restrict the ability to [modify] the security
attributes [CONTENT-PROVIDER Policy security attributes] to [the authorized administrator].
5.1.5.11 Valid Password Security Attributes (FMT_MSA_EX.2)
5.1.5.11.1 FMT_MSA_EX.2.1
The TSF shall ensure that only values meeting the password complexity restrictions, if defined by the
authorized administrator, are accepted for password security attributes.
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5.1.5.12 Static Attribute Initialization (FMT_MSA.3(a))
5.1.5.12.1 FMT_MSA.3.1(a)
The TSF shall enforce the Discretionary Access Control Policy to provide restrictive default values for
security attributes that are used to enforce the Discretionary Access Control Policy.
5.1.5.12.2 FMT_MSA.3.2(a)
The TSF shall allow the [object creator or authorized administrator] to specify alternative initial values to
override the default values when an object or information is created.
5.1.5.13 IPSec Static Attribute Initialization (FMT_MSA.3(b))
5.1.5.13.1 FMT_MSA.3.1(b)
The TSF shall enforce the [IPSec Filter Policy] to provide [permissive] default values for security
attributes that are used to enforce the SFP.
5.1.5.13.2 FMT_MSA.3.2(b)
The TSF shall allow the [creator or authorized administrator] to specify alternative initial values to
override the default values when an object or information is created.
5.1.5.14 Windows Firewall Connection Static Attribute Initialization (FMT_MSA.3(c))
5.1.5.14.1 FMT_MSA.3.1(c)
The TSF shall enforce the [Windows Firewall Connection Policy] to provide [permissive] default values
for security attributes that are used to enforce the SFP.
5.1.5.14.2 FMT_MSA.3.2(c)
The TSF shall allow the [authorized administrator] to specify alternative initial values to override the
default values when an object or information is created.
5.1.5.15 WEBUSER Static Attribute Initialization (FMT_MSA.3(d))
5.1.5.15.1 FMT_MSA.3.1(d)
The Web Server part of the TSF shall enforce the [WEBUSER SFP] to provide [restrictive] default
values for security attributes that are used to enforce the SFP.
5.1.5.15.2 FMT_MSA.3.2(d)
The Web Server part of the TSF shall allow the [authorized administrator] to specify alternative initial
values to override the default values when an object or information is created.
5.1.5.16 CONTENT-PROVIDER Static Attribute Initialization (FMT_MSA.3(e))
5.1.5.16.1 FMT_MSA.3.1(e)
The Web Server part of the TSF shall enforce the [CONTENT-PROVIDER SFP] to provide [restrictive]
default values for security attributes that are used to enforce the SFP.
5.1.5.16.2 FMT_MSA.3.2(e)
The Web Server part of the TSF shall allow the [authorized administrator] to specify alternative initial
values to override the default values when an object or information is created.
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5.1.5.17 Management of the Audit Trail (FMT_MTD.1(a))
5.1.5.17.1 FMT_MTD.1.1(a)
The TSF shall restrict the ability to create, delete, and clear the audit trail to authorized administrators.
5.1.5.18 Management of Audited Events (FMT_MTD.1(b))
5.1.5.18.1 FMT_MTD.1.1(b)
The TSF shall restrict the ability to modify or observe the set of audited events to authorized
administrators.
5.1.5.19 Management of User Attributes (FMT_MTD.1(c))
5.1.5.19.1 FMT_MTD.1.1(c)
The TSF shall restrict the ability to initialize and modify the user security attributes, other than
authentication data [and private/public keys] to authorized administrators.
5.1.5.20 Management of Authentication Data (FMT_MTD.1(d))
5.1.5.20.1 FMT_MTD.1.1(d)
The TSF shall restrict the ability to initialize the authentication data to authorized administrators.
5.1.5.20.2 FMT_MTD.1.2(d)
The TSF shall restrict the ability to modify the authentication data to the following:
a) authorized administrators; and
b) users authorized to modify their own authentication data.
5.1.5.21 Management of Account Lock Out Duration (FMT_MTD.1(e))
5.1.5.21.1 FMT_MTD.1.1(e)
The TSF shall restrict the ability to [modify] the [duration the user account is disabled after the
unsuccessful authentication attempts threshold is exceeded] to [authorized administrators].
5.1.5.22 Management of Minimum Password Length (FMT_MTD.1(f))
5.1.5.22.1 FMT_MTD.1.1(f)
The TSF shall restrict the ability to [modify] the [minimum allowable password length] to [authorized
administrators].
5.1.5.23 Management of TSF Time (FMT_MTD.1(g))
5.1.5.23.1 FMT_MTD.1.1(g)
The TSF shall restrict the ability to [modify] the [TSF representation of time] to [authorized
administrators].
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5.1.5.24 Management of NTFS Volume Quota Settings (FMT_MTD.1(h))
5.1.5.24.1 FMT_MTD.1.1(h)
The TSF shall restrict the ability to [modify] the [quota settings on NTFS volumes] to [authorized
administrators].
5.1.5.25 Management of Advisory Warning Message (FMT_MTD.1(i))
5.1.5.25.1 FMT_MTD.1.1(i)
The TSF shall restrict the ability to [modify] the [advisory warning message displayed before establishing
a user session] to [authorized administrators].
5.1.5.26 Management Audit Log Size (FMT_MTD.1(j))
5.1.5.26.1 FMT_MTD.1.1(j)
The TSF shall restrict the ability to [modify] the [the audit log size] to [authorized administrators].
5.1.5.27 Management of User Inactivity Threshold (FMT_MTD.1(k))
5.1.5.27.1 FMT_MTD.1.1(k)
The TSF shall restrict the ability to [change default, modify, delete, clear] the [user inactivity threshold for
an authorized user during an interactive session] to [the authorized user].
5.1.5.28 Management of TSF Data (for general TSF data) (FMT_MTD.1(l))
5.1.5.28.1 FMT_MTD.1.1(l)
The TSF shall restrict the ability to [create, change_default, query, modify, delete, and clear] the [security-
relevant TSF data except for audit records, user security attributes, authentication data, and critical
cryptographic security parameters] to [the authorized administrator.]
5.1.5.29 Management of TSF Data (for reading of authentication data) (FMT_MTD.1(m))
5.1.5.29.1 FMT_MTD.1.1(m)
The TSF shall prevent the restrict the ability to [reading] of [authentication data]. to [the authorized
identified roles.].
5.1.5.30 Management of Password Complexity Requirement (FMT_MTD.1(n))
5.1.5.30.1 FMT_MTD.1.1(n)
The TSF shall restrict the ability to [modify] the [password complexity requirement] to [authorized
administrators].
5.1.5.31 Management of User Private/Public Key Pair (FMT_MTD.1(o))
5.1.5.31.1 FMT_MTD.1.1(o)
The TSF shall restrict the ability to [initialize] the [user security attributes private/public key pair] to
[authorized administrators and authorized users].
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5.1.5.32 Management of Unsuccessful Authentication Attempts Threshold (FMT_MTD.2)
5.1.5.32.1 FMT_MTD.2.1
The TSF shall restrict the specification of the limits for [the unsuccessful authentication attempts threshold]
to [authorized administrators].
5.1.5.32.2 FMT_MTD.2.2
The TSF shall take the following action, if the TSF data are at, or exceed, the indicated limits: [the TSF
shall disable the user account for an authorized administrator specified duration].
5.1.5.33 Revocation of User Attributes (FMT_REV.1(a))
5.1.5.33.1 FMT_REV.1.1(a)
The TSF shall restrict the ability to revoke security attributes associated with the users within the TSC to
authorized administrators.
5.1.5.33.2 FMT_REV.1.2(a)
The TSF shall enforce the rules:
a) The immediate revocation of security-relevant authorizations; and,
b) [No additional rule].
5.1.5.34 Revocation of Object Attributes (FMT_REV.1(b))
5.1.5.34.1 FMT_REV.1.1(b)
The TSF shall restrict the ability to revoke security attributes associated with named objects within the
TSC to users authorized to modify the security attributes by the Discretionary Access Control policy.
5.1.5.34.2 FMT_REV.1.2(b)
The TSF shall enforce the rules:
a) The access rights associated with an object shall be enforced when an access check is made;
and
b) [No additional rule].
5.1.5.35 Time-limited Authorization (FMT_SAE.1)
5.1.5.35.1 FMT_SAE.1.1
The TSF shall restrict the capability to specify an expiration time for [authentication data] to [authorized
administrators].
5.1.5.35.2 FMT_SAE.1.2
For each of these security attributes, the TSF shall be able to [lock out the associated user account] after the
expiration time for the indicated security attribute has passed.
5.1.5.36 Specification of Management Functions (FMT_SMF.1)
5.1.5.36.1 FMT_SMF.1.1
The TSF shall be capable of performing the following security management functions:
[
a) modify access control attributes associated with an object
b) delete encryption policy attributes associated with a file
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c) enable, disable, modify the behaviour of the audit function
d) determine and modify the behaviour of the function that protects data during transmission between
parts of the TOE
e) modify the behaviour of the locked user session function
f) clear the audit trail
g) modify the set of events to be audited
h) read the audited events
i) initialize and modify user security attributes
j) modify the duration the user account is disabled after the unsuccessful authentication attempts
threshold is exceeded
k) modify the minimum allowable password length
l) modify the quota settings on NTFS volumes
m) modify the advisory warning message displayed before establishment of a user session
n) modify the audit log size
o) modify the password complexity restriction
p) modify the unsuccessful authentication attempts threshold
q) modify the time
].
5.1.5.37 Security Roles (FMT_SMR.1)
5.1.5.37.1 FMT_SMR.1.1
The TSF shall maintain the roles:
a) Authorized administrator;
b) Users authorized by the Discretionary Access Control Policy to modify object security
attributes;
c) Users authorized to modify their own authentication data and unlock the local user session; and
d) [object creator - Users that create objects ].
5.1.5.37.2 FMT_SMR.1.2
The TSF shall be able to associate users with roles.
5.1.5.38 Assuming Roles (FMT_SMR.3)
5.1.5.38.1 FMT_SMR.3.1
The TSF shall require an explicit request to assume the following roles: [assignment: the roles] any role.
5.1.6 Protection of the TOE Security Functions (FPT)
5.1.6.1 Internal Data Transfer Protection (TRANSFER_PROT_EX.1)
5.1.6.1.1 TRANSFER_PROT_EX.1.1
The TSF shall be able to protect data from disclosure and modification when it is transmitted between
separate parts of the TOE through the use of encryption.
5.1.6.2 Internal TSF Data Integrity Monitoring (TRANSFER_PROT_EX.3)
5.1.6.2.1 TRANSFER_PROT_EX.3.1
The TSF shall be able to detect [modification, insertion and replay of data] for data transmitted between
separate parts of the TOE through the use of cryptographic means.
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5.1.6.2.2 TRANSFER_PROT_EX.3.2
Upon detection of a data integrity error, the TSF shall take the following actions:
[
a) reject data
b) audit event
]
5.1.6.3 Abstract Machine Testing (FPT_AMT.1)
5.1.6.3.1 FPT_AMT.1
The TSF shall run a suite of tests during Windows Server 2003 Common Criteria evaluation to
demonstrate the correct operation of the security assumptions provided by the abstract machine that
underlies the TSF
5.1.6.4 Replay Detection (FPT_RPL_EX.1)
5.1.6.4.1 FPT_RPL_EX.1.1
The TSF shall be able to detect replay of TSF data transmitted between separate parts of the TOE through
the use of cryptographic means.
5.1.6.5 Internal TSF Data Consistency (FPT_TRC_EX.1)
5.1.6.5.1 FPT_TRC_EX.1.1
The TSF shall ensure that TSF data is consistent between parts of the TOE by providing a mechanism to
bring inconsistent TSF data into a consistent state upon replication between parts of the TOE.
5.1.6.6 Non-bypassability of the TSP (FPT_RVM.1)
5.1.6.6.1 FPT_RVM.1.1
The TSF shall ensure that the TSP enforcement functions are invoked and succeed before each function
within the TSC is allowed to proceed.
5.1.6.7 TSF Domain Separation (FPT_SEP.1)
5.1.6.7.1 FPT_SEP.1.1
The TSF shall maintain a security domain for its own execution that protects it from interference and
tampering by untrusted subjects.
5.1.6.7.2 FPT_SEP.1.2
The TSF shall enforce separation between the security domains of subjects in the TSC.
5.1.6.8 Reliable Time Stamp (FPT_STM.1)
5.1.6.8.1 FPT_STM.1.1
The TSF shall be able to provide reliable time stamps for its own use.
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5.1.7 Resource Utilization (FRU)
5.1.7.1 Maximum Quotas (FRU_RSA.1)
5.1.7.1.1 FRU_RSA.1.1
The TSF shall enforce maximum quotas of the following resources: [NTFS volumes] that [individual users]
can use [simultaneously].
5.1.8 TOE Access (FTA)
5.1.8.1 Limitation on Scope of Selectable Attributes (FTA_LSA_EX.1)
5.1.8.1.1 FTA_LSA_EX.1.1
The TSF shall restrict the scope of session security attributes [roles and user privileges], based on [location,
time, and day] if part of a domain.
5.1.8.2 Basic Limitation on Multiple Concurrent Sessions (FTA_MCS_EX.1)
5.1.8.2.1 FTA_MCS_EX.1.1
The TSF shall enforce a maximum number of concurrent interactive sessions per user, if part of a domain.
5.1.8.2.2 FTA_MCS_EX.1.2
The TSF shall allow an authorized administrator to set the maximum number of concurrent interactive
sessions per user, if part of a domain.
5.1.8.3 TSF-Initiated Session Locking (FTA_SSL.1)
5.1.8.3.1 FTA_SSL.1.1
The TSF shall lock an interactive session after [a user-selected interval of inactivity or an administrator
specified time interval of user inactivity] by:
a) Clearing or overwriting display devices, making the current contents unreadable;
b) Disabling any activity of the user’s data access/display devices other than unlocking the
session.
5.1.8.3.2 FTA_SSL.1.2
The TSF shall require the following events to occur prior to unlocking the session:
[Re-authenticate the user.]
5.1.8.4 User-Initiated Session Locking (FTA_SSL.2)
5.1.8.4.1 FTA_SSL.2.1
The TSF shall allow user-initiated locking of the user’s own interactive session by:
a) Clearing or overwriting display devices, making the current contents unreadable;
b) Disabling any activity of the user’s data access/display devices other than unlocking the
session.
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5.1.8.4.2 FTA_SSL.2.2
The TSF shall require the following events to occur prior to unlocking the session:
[Re-authenticate the user.]
5.1.8.5 WEBUSER TSF-Initiated Termination (FTA_SSL.3)
5.1.8.5.1 FTA_SSL.3.1
The Web Server part of the TSF shall terminate a remote interactive http:// or https:// session after [an
administrator configurable time interval of session inactivity].
5.1.8.6 Default TOE Access Banners (FTA_TAB.1)
5.1.8.6.1 FTA_TAB.1.1
Before establishing a user session, the TSF shall display an authorized-administrator specified advisory
notice and consent warning message regarding unauthorized use of the TOE.
5.1.8.7 TOE Session Establishment (FTA_TSE.1)
5.1.8.7.1 FTA_TSE.1.1
The TSF shall be able to deny session establishment based on [authentication data expiration, location,
time, and day].
5.1.9 Trusted Path/Channels
5.1.9.1 Trusted Path (FTP_TRP.1)
5.1.9.1.1 FTP_TRP.1.1
The TSF shall provide a communication path between itself and [local] users that is logically distinct from
other communication paths and provides assured identification of its end points and protection of the
communicated data from modification or disclosure.
5.1.9.1.2 FTP_TRP.1.2
The TSF shall permit [local and remote users] to initiate the communication via the trusted path.
5.1.9.1.3 FTP_TRP.1.3
The TSF shall require the use of the trusted path for [initial user authentication with password, initial user
authentication with smartcard, session unlocking, and changing user password when the TSF
requests/notifies (via the trusted path) the user of the user account, to which the password belongs, to
change password].
5.2 TOE SARs
The SARs for the TOE are the EAL 4 components augmented with ALC_FLR.3 as specified in Part 3 of
the CC. No operations are applied to the assurance components.
Interpreted Requirements
Requirements that have been modified based upon an International Interpretation are identified by an
italicized parenthetic comment following the requirement element that has been modified (e.g. (per
International Interpretation #51)).
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Table 5-5 EAL 4 Assurance Components
Assurance Class Assurance Components
ACM_AUT.1 Partial CM Automation
ACM_CAP.4 Generation Support and Acceptance Procedures
Configuration Management (ACM)
ACM_SCP.2 Problem Tracking CM Coverage
ADO_DEL.2 Detection of Modification
Delivery and Operation (ADO)
ADO_IGS.1 Installation, Generation, and Start-up Procedures
ADV_FSP.2 Fully Defined External Interfaces
ADV_HLD.2 Security Enforcing High-level Design
ADV_IMP.1 Subset of the Implementation of the TSF
ADV_LLD.1 Descriptive Low-level Design
ADV_RCR.1 Informal Correspondence Demonstration
Development (ADV)
ADV_SPM.1 Informal TOE Security Policy Model
AGD_ADM.1 Administrator Guidance
Guidance Documents (AGD)
AGD_USR.1 User Guidance
ALC_DVS.1 Identification of Security Measures
ALC_FLR.3 Systematic Flaw Remediation
ALC_LCD.1 Developer Defined Life-cycle Model
Life cycle support (ALC)
ALC_TAT.1 Well-defined Development Tools
ATE_COV.2 Analysis of Coverage
ATE_DPT.1 Testing: High-level Design
ATE_FUN.1 Functional Testing
Tests (ATE)
ATE_IND.2 Independent Testing – Sample
AVA_MSU.2 Validation of Analysis
AVA_SOF.1 Strength of TOE Security Function Evaluation
Vulnerability assessment (AVA)
AVA_VLA.2 Independent Vulnerability Analysis
5.2.1 Configuration Management (ACM)
5.2.1.1 Partial CM Automation (ACM_AUT.1)
5.2.1.1.1 ACM_AUT.1.1D
The developer shall use a CM system.
5.2.1.1.2 ACM_AUT.1.2D
The developer shall provide a CM plan.
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5.2.1.1.3 ACM_AUT.1.1C
The CM system shall provide an automated means by which only authorized changes are made to the TOE
implementation representation.
5.2.1.1.4 ACM_AUT.1.2C
The CM system shall provide an automated means to support the generation of the TOE.
5.2.1.1.5 ACM_AUT.1.3C
The CM plan shall describe the automated tools used in the CM system.
5.2.1.1.6 ACM_AUT.1.4C
The CM plan shall describe how the automated tools are used in the CM system.
5.2.1.1.7 ACM_AUT.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.1.2 Generation Support and Acceptance Procedures (ACM_CAP.4)
5.2.1.2.1 ACM_CAP.4.1D
The developer shall provide a reference for the TOE.
5.2.1.2.2 ACM_CAP.4.2D
The developer shall use a CM system.
5.2.1.2.3 ACM_CAP.4.3D
The developer shall provide CM documentation.
5.2.1.2.4 ACM_CAP.4.1C
The reference for the TOE shall be unique to each version of the TOE.
5.2.1.2.5 ACM_CAP.4.2C
The TOE shall be labeled with its reference.
5.2.1.2.6 ACM_CAP.4.3C
The CM documentation shall include a configuration list, a CM plan, and an acceptance plan.
5.2.1.2.7 ACM_CAP.4.NewC
The configuration list shall uniquely identify all configuration items that comprise the TOE. (per
International Interpretation #3)
5.2.1.2.8 ACM_CAP.4.4C
The configuration list shall describe the configuration items that comprise the TOE.
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5.2.1.2.9 ACM_CAP.4.5C
The CM documentation shall describe the method used to uniquely identify the configuration items.
5.2.1.2.10 ACM_CAP.4.6C
The CM system shall uniquely identify all configuration items.
5.2.1.2.11 ACM_CAP.4.7C
The CM plan shall describe how the CM system is used.
5.2.1.2.12 ACM_CAP.4.8C
The evidence shall demonstrate that the CM system is operating in accordance with the CM plan.
5.2.1.2.13 ACM_CAP.4.9C
The CM documentation shall provide evidence that all configuration items have been and are being
effectively maintained under the CM system.
5.2.1.2.14 ACM_CAP.4.10C
The CM system shall provide measures such that only authorized changes are made to the configuration
items.
5.2.1.2.15 ACM_CAP.4.11C
The CM system shall support the generation of the TOE.
5.2.1.2.16 ACM_CAP.4.12C
The acceptance plan shall describe the procedures used to accept modified or newly created configuration
items as part of the TOE.
5.2.1.2.17 ACM_CAP.4.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.1.3 Problem Tracking CM Coverage (ACM_SCP.2)
5.2.1.3.1 ACM_SCP.2.1D
The developer shall provide a list of configuration items for the TOE. (per International Interpretation #4).
5.2.1.3.2 ACM_SCP.2.1C
The list of configuration items shall include the following: implementation representation; security flaws;
and the evaluation evidence required by the assurance components in the ST. (per International
Interpretation #4 and #38).
5.2.1.3.3 ACM_SCP.2.2C
(this element has been deleted per International Interpretation #4)
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5.2.1.3.4 ACM_SCP.2.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.2 Delivery and Operation (ADO)
5.2.2.1 Detection of Modification (ADO_DEL.2)
5.2.2.1.1 ADO_DEL.2.1D
The developer shall document procedures for delivery of the TOE or parts of it to the user.
5.2.2.1.2 ADO_DEL.2.2D
The developer shall use the delivery procedures.
5.2.2.1.3 ADO_DEL.2.1C
The delivery documentation shall describe all procedures that are necessary to maintain security when
distributing versions of the TOE to a user’s site.
5.2.2.1.4 ADO_DEL.2.2C
The delivery documentation shall describe how the various procedures and technical measures provide for
the detection of modifications, or any discrepancy between the developer’s master copy and the version
received at the user site.
5.2.2.1.5 ADO_DEL.2.3C
The delivery documentation shall describe how the various procedures allow detection of attempts to
masquerade as the developer, even in cases in which the developer has sent nothing to the user’s site.
5.2.2.1.6 ADO_DEL.2.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence
5.2.2.2 Installation, Generation, and Start-up Procedures (ADO_IGS.1)
5.2.2.2.1 ADO_IGS.1.1D
The developer shall document procedures necessary for the secure installation, generation, and start-up of
the TOE.
5.2.2.2.2 ADO_IGS.1.1C
The installation, generation and start-up documentation shall describe all the steps necessary for secure
installation, generation and start-up of the TOE. (per International Interpretation # 51)
5.2.2.2.3 ADO_IGS.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
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5.2.2.2.4 ADO_IGS.1.2E
The evaluator shall determine that the installation, generation, and start-up procedures result in a secure
configuration.
5.2.3 Development (ADV)
5.2.3.1 Fully Defined External Interfaces (ADV_FSP.2)
5.2.3.1.1 ADV_FSP.2.1D
The developer shall provide a functional specification.
5.2.3.1.2 ADV_FSP.2.1C
The functional specification shall describe the TSF and its external interfaces using an informal style.
5.2.3.1.3 ADV_FSP.2.2C
The functional specification shall be internally consistent.
5.2.3.1.4 ADV_FSP.2.3C
The functional specification shall describe the purpose and method of use of all external TSF interfaces,
providing complete details of all effects, exceptions and error messages.
5.2.3.1.5 ADV_FSP.2.4C
The functional specification shall completely represent the TSF.
5.2.3.1.6 ADV_FSP.2.5C
The functional specification shall include rationale that the TSF is completely represented.
5.2.3.1.7 ADV_FSP.2.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.3.1.8 ADV_FSP.2.2E
The evaluator shall determine that the functional specification is an accurate and complete instantiation of
the TOE security functional requirements.
5.2.3.2 Security Enforcing High-level Design (ADV_HLD.2)
5.2.3.2.1 ADV_HLD.2.1D
The developer shall provide the high-level design of the TSF.
5.2.3.2.2 ADV_HLD.2.1C
The presentation of the high-level design shall be informal.
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5.2.3.2.3 ADV_HLD.2.2C
The high-level design shall be internally consistent.
5.2.3.2.4 ADV_HLD.2.3C
The high-level design shall describe the structure of the TSF in terms of subsystems.
5.2.3.2.5 ADV_HLD.2.4C
The high-level design shall describe the security functionality provided by each subsystem of the TSF.
5.2.3.2.6 ADV_HLD.2.5C
The high-level design shall identify any underlying hardware, firmware, and/or software required by the
TSF with a presentation of the functions provided by the supporting protection mechanisms implemented in
that hardware, firmware, or software.
5.2.3.2.7 ADV_HLD.2.6C
The high-level design shall identify all interfaces to the subsystems of the TSF.
5.2.3.2.8 ADV_HLD.2.7C
The high-level design shall identify which of the interfaces to the subsystems of the TSF are externally
visible.
5.2.3.2.9 ADV_HLD.2.8C
The high-level design shall describe the purpose and method of use of all interfaces to the subsystems of
the TSF, providing details of effects, exceptions and error messages, as appropriate.
5.2.3.2.10 ADV_HLD.2.9C
The high-level design shall describe the separation of the TOE into TSP-enforcing and other subsystems.
5.2.3.2.11 ADV_HLD.2.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.3.2.12 ADV_HLD.2.2E
The evaluator shall determine that the high-level design is an accurate and complete instantiation of the
TOE security functional requirements.
5.2.3.3 Subset of the Implementation of the TSF (ADV_IMP.1)
5.2.3.3.1 ADV_IMP.1.1D
The developer shall provide the implementation representation for a selected subset of the TSF.
5.2.3.3.2 ADV_IMP.1.1C
The implementation representation shall unambiguously define the TSF to a level of detail such that the
TSF can be generated without further design decisions.
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5.2.3.3.3 ADV_IMP.1.2C
The implementation representation shall be internally consistent.
5.2.3.3.4 ADV_IMP.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.3.3.5 ADV_IMP.1.2E
The evaluator shall determine that the least abstract TSF representation provided is an accurate and
complete instantiation of the TOE security functional requirements.
5.2.3.4 Descriptive Low-level Design (ADV_LLD.1)
5.2.3.4.1 ADV_LLD.1.1D
The developer shall provide the low-level design of the TSF.
5.2.3.4.2 ADV_LLD.1.1C
The presentation of the low-level design shall be informal.
5.2.3.4.3 ADV_LLD.1.2C
The low-level design shall be internally consistent.
5.2.3.4.4 ADV_LLD.1.3C
The low-level design shall describe the TSF in terms of modules.
5.2.3.4.5 ADV_LLD.1.4C
The low-level design shall describe the purpose of each module.
5.2.3.4.6 ADV_LLD.1.5C
The low-level design shall define the interrelationships between the modules in terms of provided security
functionality and dependencies on other modules.
5.2.3.4.7 ADV_LLD.1.6C
The low-level design shall describe how each TSP-enforcing function is provided.
5.2.3.4.8 ADV_LLD.1.7C
The low-level design shall identify all interfaces to the modules of the TSF.
5.2.3.4.9 ADV_LLD.1.8C
The low-level design shall identify which of the interfaces to the modules of the TSF are externally visible.
5.2.3.4.10 ADV_LLD.1.9C
The low-level design shall describe the purpose and method of use of all interfaces to the modules of the
TSF, providing details of effects, exceptions and error messages, as appropriate.
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5.2.3.4.11 ADV_LLD.1.10C
The low-level design shall describe the separation of the TOE into TSP-enforcing and other modules.
5.2.3.4.12 ADV_LLD.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.3.4.13 ADV_LLD.1.2E
The evaluator shall determine that the low-level design is an accurate and complete instantiation of the
TOE security functional requirements.
5.2.3.5 Informal Correspondence Demonstration (ADV_RCR.1)
5.2.3.5.1 ADV_RCR.1.1D
The developer shall provide an analysis of correspondence between all adjacent pairs of TSF
representations that are provided.
5.2.3.5.2 ADV_RCR.1.1C
For each adjacent pair of provided TSF representations, the analysis shall demonstrate that all relevant
security functionality of the more abstract TSF representation is correctly and completely refined in the less
abstract TSF representation.
5.2.3.5.3 ADV_RCR.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.3.6 Informal TOE Security Policy Model (ADV_SPM.1)
5.2.3.6.1 ADV_SPM.1.1D
The developer shall provide a TSP model.
5.2.3.6.2 ADV_SPM.1.2D
The developer shall demonstrate correspondence between the functional specification and the TSP model.
5.2.3.6.3 ADV_SPM.1.1C
The TSP model shall be informal.
5.2.3.6.4 ADV_SPM.1.2C
The TSP model shall describe the rules and characteristics of all policies of the TSP that can be modeled.
5.2.3.6.5 ADV_SPM.1.3C
The TSP model shall include a rationale that demonstrates that it is consistent and complete with respect to
all policies of the TSP that can be modeled.
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5.2.3.6.6 ADV_SPM.1.4C
The demonstration of correspondence between the TSP model and the functional specification shall show
that all of the security functions in the functional specification are consistent and complete with respect to
the TSP model.
5.2.3.6.7 ADV_SPM.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.4 Guidance Documents (AGD)
5.2.4.1 Administrator Guidance (AGD_ADM.1)
5.2.4.1.1 AGD_ADM.1.1D
The developer shall provide administrator guidance addressed to system administrative personnel.
5.2.4.1.2 AGD_ ADM.1.1C
The administrator guidance shall describe the administrative functions and interfaces available to the
administrator of the TOE.
5.2.4.1.3 AGD_ADM.1.2C
The administrator guidance shall describe how to administer the TOE in a secure manner.
5.2.4.1.4 AGD_ADM.1.3C
The administrator guidance shall contain warnings about functions and privileges that should be controlled
in a secure processing environment.
5.2.4.1.5 AGD_ADM.1.4C
The administrator guidance shall describe all assumptions regarding user behavior that are relevant to
secure operation of the TOE.
5.2.4.1.6 AGD_ADM.1.5C
The administrator guidance shall describe all security parameters under the control of the administrator,
indicating secure values as appropriate.
5.2.4.1.7 AGD_ADM.1.6C
The administrator guidance shall describe each type of security-relevant event relative to the administrative
functions that need to be performed, including changing the security characteristics of entities under the
control of the TSF.
5.2.4.1.8 AGD_ADM.1.7C
The administrator guidance shall be consistent with all other documentation supplied for evaluation.
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5.2.4.1.9 AGD_ADM.1.8C
The administrator guidance shall describe all security requirements on the IT environment that are relevant
to the administrator.
5.2.4.1.10 AGD_ADM.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence
5.2.4.2 User Guidance (AGD_USR.1)
5.2.4.2.1 AGD_USR.1.1D
The developer shall provide user guidance.
5.2.4.2.2 AGD_USR.1.1C
The user guidance shall describe the functions and interfaces available to the non-administrative users of
the TOE.
5.2.4.2.3 AGD_USR.1.2C
The user guidance shall describe the use of user-accessible security functions provided by the TOE.
5.2.4.2.4 AGD_USR.1.3C
The user guidance shall contain warnings about user-accessible functions and privileges that should be
controlled in a secure processing environment.
5.2.4.2.5 AGD_USR.1.4C
The user guidance shall clearly present all user responsibilities necessary for secure operation of the TOE,
including those related to assumptions regarding user behavior found in the statement of TOE security
environment.
5.2.4.2.6 AGD_USR.1.5C
The user guidance shall be consistent with all other documentation supplied for evaluation.
5.2.4.2.7 AGD_USR.1.6C
The user guidance shall describe all security requirements on the IT environment that are relevant to the
user.
5.2.4.2.8 AGD_USR.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
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5.2.5 Life Cycle Support (ALC)
5.2.5.1 Identification of Security Measures (ALC_DVS.1)
5.2.5.1.1 ALC_DVS.1.1D
The developer shall produce development security documentation.
5.2.5.1.2 ALC_DVS.1.1C
The development security documentation shall describe all the physical, procedural, personnel, and other
security measures that are necessary to protect the confidentiality and integrity of the TOE design and
implementation in its development environment.
5.2.5.1.3 ALC_DVS.1.2C
The development security documentation shall provide evidence that these security measures are followed
during the development and maintenance of the TOE.
5.2.5.1.4 ALC_DVS.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.5.1.5 ALC_DVS.1.2E
The evaluator shall confirm that the security measures are being applied.
5.2.5.2 Systematic Flaw Remediation (ALC_FLR.3)
5.2.5.2.1 ALC_FLR.3.1D
The developer shall document the flaw remediation procedures.
5.2.5.2.2 ALC_FLR.3.2D
The developer shall establish a procedure for accepting and acting upon user reports of security flaws and
requests for corrections to those flaws.
5.2.5.2.3 ALC_FLR.3.3D
The developer shall designate one or more specific points of contact for user reports and inquiries about
security issues involving the TOE.
5.2.5.2.4 ALC_FLR.3.1C
The flaw remediation procedures documentation shall describe the procedures used to track all reported
security flaws in each release of the TOE.
5.2.5.2.5 ALC_FLR.3.2C
The flaw remediation procedures shall require that a description of the nature and effect of each security
flaw be provided, as well as the status of finding a correction to that flaw.
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5.2.5.2.6 ALC_FLR.3.3C
The flaw remediation procedures shall require that corrective actions be identified for each of the security
flaws.
5.2.5.2.7 ALC_FLR.3.4C
The flaw remediation procedures documentation shall describe the methods used to provide flaw
information, corrections and guidance on corrective actions to TOE users.
5.2.5.2.8 ALC_FLR.3.5C
The procedures for processing reported security flaws shall ensure that any reported flaws are corrected and
the correction issued to TOE users.
5.2.5.2.9 ALC_FLR.3.6C
The procedures for processing reported security flaws shall provide safeguards that any corrections to these
security flaws do not introduce any new flaws.
5.2.5.2.10 ALC_FLR.3.7C
The flaw remediation procedures shall include a procedure requiring timely responses for the automatic
distribution of security flaw reports and the associated corrections to registered users who might be affected
by the security flaw.
5.2.5.2.11 ALC_FLR.3.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.5.3 Developer Defined Life-cycle Model (ALC_LCD.1)
5.2.5.3.1 ALC_LCD.1.1D
The developer shall establish a life-cycle model to be used in the development and maintenance of the
TOE.
5.2.5.3.2 ALC_LCD.1.2D
The developer shall provide life-cycle definition documentation.
5.2.5.3.3 ALC_LCD.1.1C
The life-cycle definition documentation shall describe the model used to develop and maintain the TOE.
5.2.5.3.4 ALC_LCD.1.2C
The life-cycle model shall provide for the necessary control over the development and maintenance of the
TOE.
5.2.5.3.5 ALC_LCD.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
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5.2.5.4 Well-defined Development Tools (ALC_TAT.1)
5.2.5.4.1 ALC_TAT.1.1D
The developer shall identify the development tools being used for the TOE.
5.2.5.4.2 ALC_TAT.1.2D
The developer shall document the selected implementation-dependent options of the development tools.
5.2.5.4.3 ALC_TAT.1.1C
All development tools used for implementation shall be well defined.
5.2.5.4.4 ALC_TAT.1.2C
The documentation of the development tools shall unambiguously define the meaning of all statements
used in the implementation.
5.2.5.4.5 ALC_TAT.1.3C
The documentation of the development tools shall unambiguously define the meaning of all
implementation-dependent options.
5.2.5.4.6 ALC_TAT.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.6 Security Testing (ATE)
5.2.6.1 Analysis of Coverage (ATE_COV.2)
5.2.6.1.1 ATE_COV.2.1D
The developer shall provide an analysis of the test coverage.
5.2.6.1.2 ATE_COV.2.1C
The analysis of the test coverage shall demonstrate the correspondence between the tests identified in the
test documentation and the TSF as described in the functional specification.
5.2.6.1.3 ATE_COV.2.2C
The analysis of the test coverage shall demonstrate that the correspondence between the TSF as described
in the functional specification and the tests identified in the test documentation is complete.
5.2.6.1.4 ATE_COV.2.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
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5.2.6.2 Testing: High-level Design (ATE_DPT.1)
5.2.6.2.1 ATE_DPT.1.1D
The developer shall provide the analysis of the depth of testing.
5.2.6.2.2 ATE_DPT.1.1C
The depth analysis shall demonstrate that the tests identified in the test documentation are sufficient to
demonstrate that the TSF operates in accordance with its high-level design.
5.2.6.2.3 ATE_DPT.1.1E9
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.6.3 Functional Testing (ATE_FUN.1)
5.2.6.3.1 ATE_FUN.1.1D
The developer shall test the TSF and document the results.
5.2.6.3.2 ATE_FUN.1.2D
The developer shall provide test documentation.
5.2.6.3.3 ATE_FUN.1.1C
The test documentation shall consist of test plans, test procedure descriptions, expected test results and
actual test results.
5.2.6.3.4 ATE_FUN.1.2C
The test plans shall identify the security functions to be tested and describe the goal of the tests to be
performed.
5.2.6.3.5 ATE_FUN.1.3C
The test procedure descriptions shall identify the tests to be performed and describe the scenarios for
testing each security function. These scenarios shall include any ordering dependencies on the results of
other tests.
5.2.6.3.6 ATE_FUN.1.4C
The expected test results shall show the anticipated outputs from a successful execution of the tests.
5.2.6.3.7 ATE_FUN.1.5C
The test results from the developer execution of the tests shall demonstrate that each tested security
function behaved as specified.
9
This label is consistent with the CAPP. In the CC, this element is incorrectly labeled as
“ATE_DPT.1.2E”
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5.2.6.3.8 ATE_FUN.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.6.4 Independent Testing – Sample (ATE_IND.2)
5.2.6.4.1 ATE_IND.2.1D
The developer shall provide the TOE for testing.
5.2.6.4.2 ATE_IND.2.1C
The TOE shall be suitable for testing.
5.2.6.4.3 ATE_IND.2.2C
The developer shall provide an equivalent set of resources to those that were used in the developer’s
functional testing of the TSF.
5.2.6.4.4 ATE_IND.2.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.6.4.5 ATE_IND.2.2E
The evaluator shall test a subset of the TSF as appropriate to confirm that the TOE operates as specified.
5.2.6.4.6 ATE_IND.2.3E
The evaluator shall execute a sample of tests in the test documentation to verify the developer test results.
5.2.7 Vulnerability Assessment (AVA)
5.2.7.1 Validation of Analysis (AVA_MSU.2)
5.2.7.1.1 AVA_MSU.2.1D
The developer shall provide guidance documentation.
5.2.7.1.2 AVA_MSU.2.2D
The developer shall document an analysis of the guidance documentation.
5.2.7.1.3 AVA_MSU.2.1C
The guidance documentation shall identify all possible modes of operation of the TOE (including operation
following failure or operational error), their consequences and implications for maintaining secure
operation.
5.2.7.1.4 AVA_MSU.2.2C
The guidance documentation shall be complete, clear, consistent and reasonable.
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5.2.7.1.5 AVA_MSU.2.3C
The guidance documentation shall list all assumptions about the intended environment.
5.2.7.1.6 AVA_MSU.2.4C
The guidance documentation shall list all requirements for external security measures (including external
procedural, physical and personnel controls).
5.2.7.1.7 AVA_MSU.2.5C
The analysis documentation shall demonstrate that the guidance documentation is complete.
5.2.7.1.8 AVA_MSU.2.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.7.1.9 AVA_MSU.2.2E
The evaluator shall repeat all configuration and installation procedures, and other procedures selectively, to
confirm that the TOE can be configured and used securely using only the supplied guidance
documentation.
5.2.7.1.10 AVA_MSU.2.3E
The evaluator shall determine that the use of the guidance documentation allows all insecure states to be
detected.
5.2.7.1.11 AVA_MSU.2.4E
The evaluator shall confirm that the analysis documentation shows that guidance is provided for secure
operation in all modes of operation of the TOE.
5.2.7.2 Strength of TOE Security Function Evaluation (AVA_SOF.1)
5.2.7.2.1 AVA_SOF.1.1D
The developer shall perform a strength of TOE security function analysis for each mechanism identified in
the ST as having a strength of TOE security function claim.
5.2.7.2.2 AVA_SOF.1.1C
For each mechanism with a strength of TOE security function claim the strength of TOE security function
analysis shall show that it meets or exceeds the minimum strength level defined in the PP/ST.
5.2.7.2.3 AVA_SOF.1.2C
For each mechanism with a specific strength of TOE security function claim the strength of TOE security
function analysis shall show that it meets or exceeds the specific strength of function metric defined in the
PP/ST.
5.2.7.2.4 AVA_SOF.1.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
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5.2.7.2.5 AVA_SOF.1.2E
The evaluator shall confirm that the strength claims are correct.
5.2.7.3 Independent Vulnerability Analysis (AVA_VLA.2)
5.2.7.3.1 AVA_VLA.2.1D
The developer shall perform a vulnerability analysis.
5.2.7.3.2 AVA_VLA.2.2D
The developer shall provide vulnerability analysis documentation.
5.2.7.3.3 AVA_VLA.2.1C
The vulnerability analysis documentation shall describe the analysis of the TOE deliverables performed to
search for ways in which a user can violate the TSP.
5.2.7.3.4 AVA_VLA.2.2C
The vulnerability analysis documentation shall describe the disposition of identified vulnerabilities.
5.2.7.3.5 AVA_VLA.2.3C
The vulnerability analysis documentation shall show, for all identified vulnerabilities, that the vulnerability
cannot be exploited in the intended environment for the TOE.
5.2.7.3.6 AVA_VLA.2.4C
The vulnerability analysis documentation shall justify that the TOE, with the identified vulnerabilities, is
resistant to obvious penetration attacks.
5.2.7.3.7 AVA_VLA.2.1E
The evaluator shall confirm that the information provided meets all requirements for content and
presentation of evidence.
5.2.7.3.8 AVA_VLA.2.2E
The evaluator shall conduct penetration testing, building on the developer vulnerability analysis, to ensure
the identified vulnerabilities have been addressed.
5.2.7.3.9 AVA_VLA.2.3E
The evaluator shall perform an independent vulnerability analysis.
5.2.7.3.10 AVA_VLA.2.4E
The evaluator shall perform independent penetration testing, based on the independent vulnerability
analysis, to determine the exploitability of additional identified vulnerabilities in the intended environment.
5.2.7.3.11 AVA_VLA.2.5E
The evaluator shall determine that the TOE is resistant to penetration attacks performed by an attacker
possessing a high attack potential.
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5.3 Security Requirements for the IT Environment
The TOE has no security requirements allocated to its IT environment.
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6. TOE Summary Specification (TSS)
This chapter describes the Windows 2003/XP security functions and associated assurance measures. The
Windows 2003/XP Security Functions (SFs) and Security Assurance Measures (SAMs) satisfy the security
functional and assurance requirements of the CAPP. The TOE also satisfies additional SFs and SAMs.
The SFs and SAMs performed by Windows 2003/XP are described in the following sections, as well as a
mapping to the security functional and assurance requirement satisfied by the TOE.
6.1 TOE Security Functions
This section presents the TSFs and a mapping of security functions to SFRs. The TOE performs the
following security functions:
• Audit,
• User Data Protection,
• Cryptographic Protection,
• Identification and Authentication,
• Security Management,
• TSF Protection,
• Resource Utilization, and
• TOE Access.
6.1.1 Audit Function
The TOE Audit security function performs:
• Audit Collection,
• Audit Log Review,
• Selective Audit,
• Audit Log Overflow Protection, and
• Audit Log Restricted Access Protection.
6.1.1.1 Audit Collection
The Event logger service creates the security event log, which contains the security relevant audit records
collected on a system. There is one security log (audit log) per machine. The Local Security Authority
(LSA) server collects audit events from all other parts of the TSF and forwards them to the Event Logger
for storage in the security log. For each audit event, the Event Logger stores the following data in each
audit record:
Date: The date the event occurred.
Time: The time the event occurred.
User: The security identifier (SID) of the user on whose behalf the event occurred that
represents the user. SIDs are described in more detail in Section 6 under
Identification and Authentication,
Event ID: A unique number identifying the particular event class.
Source: This will be “Security.”
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Types: Indicates whether the security audit event recorded is the result of a successful or
failed attempt to perform the action.
Category: A classification of the event defined by the event source. For security log, the LSA
service defines the following categories for security audit events: System, Logon,
Object Access, Privilege Use, Detailed Process Tracking, Policy Change, Account
Management, Directory Service Access, and Account Logon.
Each audit event may also contain category-specific data that is contained in the body of the event such as
described below:
• For the System Category, the audit records additionally include information relating to the system
such as the time of clearing the audit trail.
• For the Object Access and the Directory Service Access Category, the audit records additionally
include the object name and the desired access requested.
• For the Privilege Use Category, the audit records additionally identify the privilege.
• For the Detailed Process Tracking Category, the audit records additionally include the process
identifier.
• For the Policy Change and Account Management Category, the audit records additionally include
new values of the policy or account attributes.
• For the Logon and Account Logon Category, the audit records additionally include the reason for
failure of attempted logons.
• For the Logon Category, the audit records additionally include the logon type that indicates the
source of the logon attempt by indicating one of the following types in the audit record:
o Interactive (local logon)
o Network (logon from the network)
o Service (logon as a service)
o Batch (logon as a batch job)
o Unlock (for Unlock screen saver)
o Network_ClearText (for anonymous authentication to IIS)
Note: In the evaluated configuration IIS will only accept request from authenticated clients,
however, if configured for anonymous authentication IIS will not force the user to re-
authenticate themselves and a specified account (identified by the authorized administrator)
will be associated with the user.
There are two places within the TSF where security audit events are collected. The Security Reference
Monitor (SRM) is responsible for the generation of all audit records for the object access, privilege use, and
detailed process tracking event categories. With one exception, audit events for the remainder of the event
categories are generated by various services that co-exist in the security process with the LSA server or that
call the Authz Report Audit APIs provided by the LSA Policy subcomponent. The exception is that the
Event Logger itself records an event record when the security log is cleared and when the security log
exceeds the warning level configured by the authorized administrator.
The LSA server maintains an audit policy in its database that determines which categories of events are
actually collected. Defining and modifying the audit policy is restricted to the authorized administrator.
The authorized administrator can select events to be audited by selecting the category or categories to be
audited. An authorized administrator can individually select each category. Those services in the security
process can determine the current audit policy via direct local function calls. The only other TSF
component that uses the audit policy is the SRM in order to control object access, privilege use, and
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detailed tracking audit. LSA and the SRM share a private local connection port, which is used to pass the
audit policy to the SRM. When an authorized administrator changes the audit policy, the LSA updates its
database and notifies the SRM. The SRM receives a control flag indicating if auditing is enabled and a
data structure indicating that the events in particular categories will be audited.
In addition to the system-wide audit policy configuration, it is possible to define a per-user audit policy.
This allows individual audit categories (of success or failure) to be enabled or disabled on a per user basis.
The per-user audit policy refines the system-wide audit policy, allowing a more precise definition of the
audit policy.
Within each category, auditing can be performed based on success, failure, or both. For object access
events, auditing can be further controlled based on user/group identify and access rights using System
Access Control Lists (SACLs). SACLs are associated with objects and indicate whether or not auditing for
a specific object, or object attribute, is enabled.
The TSF is capable of generating the audit events associated with each audit category, as described in the
Description column of Table 6-1 (Audit Event Categories). The auditable events associated with each
category capture the events listed in Tables 5-3 and 5-4. For each category, the associated audit events
(listed in Tables 5-3 and 5-4) for each of the requirements in the FAU_GEN Required Events column of
Table 6-1 are captured.
Table 6-1 Audit Event Categories
Category Description FAU_GEN Required Events
System Audit attempts that affect security of
the entire system such as clearing the
audit trail.
FAU_STG.3; FAU_STG.4;
FMT_MTD.1(a)
Object Access Audit attempts to access user objects,
such as files.
FDP_ACF.1(a); FMT_MSA.1(a);
FMT_MSA.3(a); FMT_REV(b);
Privilege Use Audits attempts to use security relevant
privileges. Security relevant privileges
are those privileges that are related to
the TSFs and can be assigned in the
evaluated configuration.
FMT_SMR.1; FPT_STM.1;
FMT_MTD.1(g); FMT_MOF.1(a);
FMT_MTD.1(a); FAU_SAR.1;
FAU_SAR.2
Detailed Process
Tracking
Audit subject-tracking events,
including program activation, handle
duplication, indirect access to an
object, and process exit.
FIA_USB.1_EX; FDP_ACF.1(a);
FMT_MSA.1(d)
Policy Change Audit attempts to change security
policy settings such as the audit policy
and privilege assignment.
FMT_MTD.1(b); FMT_MTD.1(c);
FMT_REV.1(a); FMT_SMR.1;
FMT_MOF.1(a);
TRANSFER_PROT_EX.1;
TRANSFER_PROT_EX.3;
FAU_GEN.1
Account Management Audit attempts to create, delete, or
change user or group accounts and
changes to their attributes.
FMT_MTD.1(c); FMT_MTD.1(d);
FMT_REV.1(a); FMT_SMR.1;
FIA_AFL.1; FMT_SAE.1;
FMT_MTD.1(f); FMT_MTD.1(n);
FMT_MTD.2; FMT_MTD.1(e)
Directory Service
Access
Audit access to directory service
objects and associated properties.
FDP_ACF.1(a) ; FPT_TRC_EX.1
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Category Description FAU_GEN Required Events
Logon Audit attempts to logon or logoff the
system, attempts to make a network
connection.
FIA_SOS.1; FIA_UAU.1; FIA_UID.1;
FIA_AFL.1; FIA_USB.1; FTA_SSL.1;
FTA_SSL.2; FTA_TSE.1;
TRANSFER_PROT_EX; FTP_TRP.1
Account Logon Audit when a DC receives a logon
request.
FIA_SOS.1; FIA_UAU.1; FIA_UID.1;
6.1.1.2 Audit Log Review
The event viewer administrator tool provides a user interface to view, sort, and search the security log. The
security log can be sorted and searched by user identity, event type, date, time, source, category, event ID,
and computer. The security log can also be searched by free form texts occurring in the audit records.
6.1.1.3 Selective Audit
The authorized administrator is provided the ability to select events to be audited based upon object
identity, user identity, workstation (host identity), event type, and success or failure of the event.
6.1.1.4 Audit Log Overflow Protection
The TSF protects against the loss of events through a combination of controls associated with audit queuing
and event logging. As configured in the TOE, audit data is appended to the audit log until it is full. The
TOE protects against lost audit data by allowing the authorized administrator to configure the system to
generate an audit event when the security log reaches a specified capacity percentage (e.g., 90%).
Additionally, the authorized administrator can configure the system not to overwrite events and to
shutdown when the security log is full. When so configured, after the system has shutdown due to audit
overflow, only the authorized administrator can log on. When the security log is full, a message is written
to the terminal display of the authorized administrator indicating the audit log has overflowed.
As described earlier, the TSF collects audit data in two ways, via the SRM and via the LSA server. Both
components maintain audit event queues. The SRM puts audit records on an internal queue to be sent to the
LSA server. The LSA maintains a second queue where it holds the audit data from SRM and the other
services in the security process. Both audit queues detect when an audit event loss has occurred. The
SRM service maintains a high water mark and a low water mark on its audit queue to determine when full.
The LSA also maintains marks in its queue to indicate when full.
Audit events may be lost if the SRM or the LSA queues reach their high-water mark, or if the security log
file is full. The TOE can be configured to crash when the audit trail is full. The security log file is limited
in size by the resources available on the system.
6.1.1.5 Audit Log Restricted Access Protection
The Event Logger controls and protects the security event log. To view the contents of the security log, the
user must be an authorized administrator. The security event log is a system resource, created during
system startup. No interfaces exist to create, destroy, or modify a security event within the security event
log. The LSA subsystem is the only service registered to enter events into the security log. The TOE only
offers user interfaces to read and clear the security event log and these interfaces require the user to be an
authorized administrator.
SFR Mapping:
The Audit function satisfies the following SFRs:
• FAU_GEN.1 – The TOE audit collection is capable of generating audit events for items identified
in Table 6-1, TOE audit events. For each audit event the TSF records the date, time, user Security
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Identifier (SID) or name, logon type (for logon audit records), event ID, source, type, and
category.
• FAU_GEN.2 – All audit records include the user SID, which uniquely represents each user.
• FAU_SAR.1 – The event viewer provides authorized administrators with the ability to review
audit data in a readable format.
• FAU_SAR.2 and FMT_MTD.1(a) – Only authorized administrators have any access to the audit
log.
• FAU_SAR.3(a), (b) – The audit function provides capabilities for selective auditing and review
using the event viewer. The TOE provides the capability to select events to be audited based on
the success and/or failure at the category level. Additionally, for the object access category of
events, events can be selected based on user identity. The TSF determines which audit events to
record based on the current audit policy and the specific settings in the SACLs. The event viewer
provides the capability to perform searches and sorting of audit data by date, time, user SID or
name, computer, event ID, source, type, and category. Additionally, the event viewer provides the
capability to perform searching based upon specified free form text substrings within the audit
records.
• FAU_SEL.1 – The TSF provides the ability for the authorized administrator to select the events to
be audited based upon object identity, user identity, workstation (host identity), event type, and
success or failure of the event.
• FAU_STG.1 – The interface to the security log is limited by the event logger. The interface to the
security log only allows for viewing the audit data and for clearing all the audit data. The
interface to the security log is restricted to authorized administrators and does not allow for the
modification of audit data within the security log.
• FAU_STG.3 – The authorized administrator can configure the system such that an audit event
(alarm) is generated if the audit data exceeds a specified percentage of the security log.
• FMT_MTD.1(j) – The TSF restricts the ability to specify the size of the security log to an
authorized administrator.
• FAU_STG.4 – The TOE can be configured such that when the security log is full the system shuts
down. At that point, only the authorized administrator can log on to the system to clear the
security log and return the system to an operational state consistent with TOE guidance.
Additionally, when the security log reaches a certain percentage, an audit event (alarm) is
generated.
6.1.2 User Data Protection Function
The user data protection security services provided by the TOE are:
• Discretionary Access Control,
• WEBUSER Access Control,
• Content Provider Access Control,
• Information Flow Control and Protection, and
• Residual Data Protection.
6.1.2.1 Discretionary Access Control
The TSF mediates access between subjects and user data objects, also known as named objects. Subjects
consist of processes with one or more threads running on behalf of users. Table 6-2 lists the specific user
data objects under the control of the DAC policy for the TOE.
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Table 6-2 Named Objects
Name Description
Desktop The primary object used for graphical displays. The interactive
window station has three default desktops created by WinLogon.
Event An object created for the interprocess communication mechanism.
Keyed Event An object created for the interprocess communication mechanism.
Event Pair An object created for the interprocess communication mechanism.
I/O Completion Port An object that provides a means to synchronize I/O.
Job An object that allows for the management of multiple processes as
a unit.
Registry Key Registry Keys are the objects that form the Registry.
Mutant An object created for the interprocess communication mechanism
(known as Mutex at the win32 interface).
Object Directory A directory in the object namespace.
LPC Port A connection-oriented local process communication mechanism
object that supports client and server side communication end
points, message queues, etc.
Mailslot An I/O object that provides support for message passing IPC via the
network.
Named Pipe An I/O object used for IPC over the network.
NTFS Directory NT file system file object.
NTFS File A user data file object managed by NTFS.
Printer Represents a particular print queue and its association with a print
device.
Active Directory Represents shared resources defined and maintained by Active
Directory services.
Process An execution context for threads that has associated address space
and memory, token, handle table, etc.
Section A memory region.
Semaphore An object created for interprocess communication mechanism.
Symbolic Link A means for providing name aliasing in the object name space.
Thread An execution context (registers, stacks, etc.) All user-mode threads
are associated with a process.
Timer A means for a thread to wait for a specified amount of time to pass.
Tokens These objects represent the security context of a process or thread.
Volume A partition or collection of partitions that have been formatted for
use by a file system.
Window Station A container for desktop objects and related attributes.
Application Pool File A group of web applications that share configuration settings.
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Name Description
URL Reservation A URL.
Debug A set of resources used for debugging a process.
Filter Connection Port Represents a mini-filter driver.
Filter Communication
Port
Represents a port to communicate with a mini-filter driver.
6.1.2.1.1 Subject DAC Attributes
Tokens contain the security attributes for a subject. Tokens are associated with processes and threads
running on behalf of the user. The DAC related information in the token includes: the SID for the user,
SIDs representing groups for which the user is a member, privileges assigned to the user, an owner SID
identifying SID to assign as owner for newly created objects, a default DACL (for newly created objects),
token type (primary or impersonation), impersonation level (for impersonation tokens), an optional list of
restricting SIDs, and a logon ID for the session.
As described in the I&A function, a thread can be assigned an impersonation token that would be used
instead of the process’ token when making access checks and generating audit data. Hence, that thread is
impersonating the client that provided the impersonation token. Impersonation stops when the
impersonation token is removed from the thread or when the thread terminates.
A token may also include a list of restricting SIDs which are used to limit access to objects. Restricting
SIDs are contained in restricted tokens, (which is a special form of a thread impersonation token).
Access decisions are made using the impersonation token of a thread if it exists, and otherwise the thread’s
process primary token (which always exits).
6.1.2.1.2 Object DAC Attributes
SDs contain all of the security attributes associated with an object. All objects in Table 6-2 have an
associated SD. The security attributes from a SD used for access control are the object owner SID, the
DACL present flag, and the DACL itself, if present.
DACLs contain a list of Access Control Entries (ACEs). Each ACE specifies an ACE type, a SID
representing a user or group, and an access mask containing a set of access rights. Each ACE has
inheritance attributes associated with it that specify if the ACE applies to the associated object only, to its
children objects only, or to both its children objects and the associated object.
There are two types of ACEs that apply to access control:
1 ALLOW ACES
a. ACCESS_ALLOWED_ACE – used to grant access to a user or group of users
b. ACCESS_ALLOWED_OBJECT_ACE – (for DS objects) used to grant access for a
user or group to a property or property set on the directory service object, or to limit
the ACE_inheritance to a specified type of child object. This ACE type is only
supported for directory service objects.
2 DENY ACES
a. ACCESS_DENIED_ACE – used to deny access to a user or group of users
b. ACCESS_DENIED_OBJECT_ACE – (for DS objects) used to deny access for a
user or group to a property or property set on the directory service object or to limit
the ACE_inheritance to a specified type of child object. This ACE type is only
supported for directory service objects.
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An access mask contains object access rights granted (or denied) to the SID, representing a user or group,
in the ACE. An access mask is also used to specify the desired access to an object when accessing the
object and to identify granted access associated with an opened object. Each bit in an access mask
represents a particular access right. There are four categories of access rights: standard, specific, special,
and generic. Standard access rights apply to all object types. Specific access rights have different semantic
meanings depending on the type of object. Special access rights are used in desired access masks to request
special access or to ask for all allowable rights. Generic access rights are convenient groupings of specific
and standard access rights. Each object type provides its own mapping between generic access rights and
the standard and specific access rights.
For most objects, a subject requests access to the object (e.g., opens it) and receives a pointer to a handle in
return. The TSF associates a granted access mask with each opened handle. For kernel-mode objects,
handles are maintained in a kernel-mode handle table. There is one handle table per process; each entry in
the handle table identifies an opened object and the access rights granted to that object. For user-mode TSF
servers, the handle is a server-controlled context pointer associated with the connection between the subject
and the server. The server uses this context handle in the same manner as with the kernel mode (i.e., to
locate an opened object and its associated granted access mask). In both cases (user and kernel-mode
objects), the SRM makes all access control decisions.
For some objects (in particular, DS objects), the TSF does not maintain an opened context (e.g., a handle)
to the object. In these cases, access checks are performed on every reference to the object (in place of
checking a handle’s granted access mask). DS objects also differ from other objects in that they have
additional attributes, known as properties and property sets (groups of properties). Properties reference
specific portions of a DS object. Property sets reference a collection of properties. Every DS object,
property set and property has an associated object type GUID. The TOE allows access control for DS
objects to the level of GUIDs (i.e., the entire DS object, a given property set, and or a specific property).
Like all objects, DS objects still have a single security descriptor for the entire object; however the DACL
for a DS object can contain ACEs the grants/denies access to any of the associated GUIDs.
6.1.2.1.3 DAC Enforcement Algorithm
The TSF enforces the DAC policy to objects based on SIDs and privileges in the requestor’s token, the
desired access mask requested, and the object’s security descriptor.
Below is a summary of the algorithm used to determine whether a request to access a user data object is
allowed. In order for access to be granted, all access rights specified in the desired access mask must be
granted by one of the following steps. At the end of any step, if all of the requested access rights have been
granted then access is allowed. At the end of the algorithm, if any requested access right has not been
granted, then access is denied.
1. Privilege Check –
a. Check for SeSecurity privilege – This is required if ACCESS_SYSTEM_SECURITY is
in the desired access mask. If ACCESS_SYSTEM_SECURITY is requested and the
requestor does not have this privilege, access is denied. Otherwise
ACCESS_SYSTEM_SECURITY is granted.
b. Check for SeTakeOwner privilege – If the desired mask has WRITE_OWNER access
right, and the privilege is found in the requestor’s token, then WRITE_OWNER access
is granted.
2. Owner Check –
a. Checks all SIDs in token to determine if there is a match with the object owner. If so,
the READ_CONTROL and WRITE_DAC rights are granted if requested.
3. DACL not present –
a. All further access rights requested are granted.
4. DACL present but empty –
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a. If any additional access rights are requested, access is denied.
5. Iteratively process each ACE in the order that they appear in the DACL as described below:
a. If the inheritance attributes of the ACE indicate the ACE is applicable only to children
objects of the associated object, the ACE is skipped.
b. If the SID in the ACE does not match any SID in the requestor’s access token, the ACE
is skipped.
c. If a SID match is found, and the access mask in the ACE matches an access in the
desired access mask:
i) Access Allowed ACE Types –– If the ACE is of type
ACCESS_ALLOWED_OBJECT_ACE and the ACE includes a GUID
representing a property set or property associate with the object, then the
access is granted to the property set or specific property represented by the
GUID (rather than to the entire object). Otherwise the ACE grants access to
the entire object.
ii) Access Denied ACE Types –- If the ACE is of type
ACCESS_DENIED_OBJECT_ACE and the ACE includes a GUID
representing a property set or property associate with the object, then the
access is denied to the property set or specific property represented by the
GUID. Otherwise the ACE denies access to the entire object. If a requested
access is specifically denied by an ACE, then the entire access request fails.
6.1.2.1.4 DAC Enforcement of Encrypted Files
The TOE provides the ability to encrypt NTFS file objects. Users may encrypt files at their discretion. If a
file is encrypted, the TSF performs checks in addition to the checks presented in the DAC Enforcement
Algorithm upon subsequent access request to the encrypted file.
The first time a user encrypts a file the TSF assigns the user account a public/private key pair. Every time a
user encrypts a file, the TSF creates a randomly generated file FEK. The FEK is used to encrypt the file
data using the Triple Data Encryption Standard (3DES) CBC algorithm. The TSF stores the FEK as an
attribute of the file and encrypts the FEK using the RSA public-key based encryption algorithm with the
user’s public key. The TSF also allows a user who can decrypt the file to grant access to other users by
adding additional encrypted FEKs (encrypted with the new users’ public key) to the file. An authorized
administrator can assign a public/private key pair to any number of accounts. These accounts are referred
to as recovery agents and the private key associated with the recovery agent is referred to as recovery keys.
The TSF also encrypts the FEK with one or more recovery keys. The purpose of recovery keys is to let
designated accounts, or Recovery Agents, decrypt a user's file when administrative authority must have
access to the user's data.
Once a file is encrypted, upon subsequent access request, the TSF checks that the user private key or
recovery private key can decrypt the encrypted FEK. There may be more than one encrypted FEK
associated with the file. In this case, the TSF attempts to decrypt each associated encrypted FEK (each of
which is encrypted) until it is successfully decrypted or it reaches the end of the list of FEKs.
If the FEK is decrypted successfully with the private key, the decrypted FEK is then used to decrypt the file
contents and the access request is granted. If the TSF cannot decrypt any of the encrypted FEKs associated
with the file using the user private key or the recovery key, the access request is not granted.
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6.1.2.1.5 Default DAC Protection
The TSF provides a process ensuring a DACL is applied to all new objects. When new objects are created,
the appropriate DACL is determined. The default DAC protection for DS and that for non-DS objects are
slightly different.
The TOE uses the following rules to set the DACL in the SDs for new non-DS securable objects:
• The object's DACL is the DACL from the SD specified by the creating process. The TOE
merges any inheritable ACEs into the DACL unless SE_DACL_PROTECTED is set in the SD
control flags. The TOE then sets the SE_DACL_PRESENT SD control flag.
• If the creating process does not specify a SD, the TOE builds the object's DACL from inheritable
ACEs in the parent object's DACL. The TOE then sets the SE_DACL_PRESENT SD control
flag.
• If the parent object has no inheritable ACEs, the TOE uses its object manager subcomponent to
provide a default DACL. The TOE then sets the SE_DACL_PRESENT and
SE_DACL_DEFAULTED SD control flags.
• If the object manager does not provide a default DACL, the TOE checks the subject's access
token for a default DACL. The TOE then sets the SE_DACL_PRESENT and
SE_DACL_DEFAULTED SD control flags.
• The subject's access token always has a default DACL, which is set by the LSA subcomponent
when the token is created.
The method used to build a DACL for a new DS object is slightly different. There are two key differences,
which are as follows:
• The rules for creating a DACL distinguish between generic inheritable ACEs and object-specific
inheritable ACEs in the parent object's SD. Generic inheritable ACEs can be inherited by all
types of child objects. Object-specific inheritable ACEs can be inherited only by the type of child
object to which they apply.
• The AD schema can provide a SD. Each object class defined in the schema has a
defaultSecurityDescriptor attribute. If neither the creating process nor inheritance from the parent
object provides a DACL for a new AD object, the TOE uses the DACL in the default SD
specified by the schema.
The TOE uses the following rules to set the DACL in the security descriptor for new DS objects:
• The object's DACL is the DACL from the SD specified by the creating process. The TOE
merges any inheritable ACEs into the DACL unless SE_DACL_PROTECTED is set in the SD
control flags. The TOE then sets the SE_DACL_PRESENT SD control flag.
• If the creating process does not specify a SD, the TOE checks the parent object's DACL for
inheritable object-specific ACEs that apply to the type of object being created. If the parent
object has inheritable object-specific ACEs for the object type, the TOE builds the object's DACL
from inheritable ACEs, including both generic and object-specific ACEs. It then sets the
SE_DACL_PRESENT SD control flag.
• If the parent object has no inheritable object-specific ACEs for the type of object being created,
the TOE uses the default DACL from the AD schema for that object type. It then sets the
SE_DACL_PRESENT and SE_DACL_DEFAULTED SD control flags.
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• If the AD schema does not specify a default DACL for the object type, the TOE checks the
subject's access token for a default DACL. It then sets the SE_DACL_PRESENT and
SE_DACL_DEFAULTED SD control flags.
• The subject's access token always has a default DACL, which is set by the LSA subcomponent
when the token is created.
All tokens are created with an appropriate default DACL, which can be applied to the new objects as
appropriate. The default DACL is restrictive in that it only allows the SYSTEM SID and the user SID that
created the object to have access. The SYSTEM SID is a special SID representing TSF trusted processes.
6.1.2.2 WEBUSER Access Control
The TOE includes a web server (the IIS) on the Windows 2003 server product that mediates access request
to its web server content from clients accessing the web server through the HTTP.
IIS supports user authentication using either anonymous, basic, digest, certificate, NT or passport
authentication scheme. In an evaluated configuration, an IIS server accepts only the anonymous, digest,
certificate, and NT authentication schemes. Thus, only HTTP requests from clients that authenticate using
an acceptable scheme are processed by the web server. Note that IIS anonymous authentication allows a
web server request to be serviced without prompting the client for I&A. However, that client has been
authenticated prior to making a web server request in the evaluated configuration. The web server then
assigns the connection to the user account that is specified for anonymous connections.
IIS ensures that the DAC Policy of the files associated with the web server content requested is enforced.
Therefore, the DACL of the file associated with the web content is compared against the user ID and group
ids associated with the web user requesting web content access. If a request to access web content from a
web user is other than a request to read web content the request is denied unless certain configuration of
web permissions are associated with that web content.
In addition to ensuring that the DAC policy is enforced, IIS enforces further restrictions to web content
based upon web permissions that are associated with web content in IIS configuration repository, referred
to as the metabase. Web permissions do not violate the DAC policy and access can only be further
restricted by IIS.
IIS allows for configuration settings to be associated with a URL that associate web permissions with
URLs. These settings allow for access control checks to be performed by IIS when access request are made
to these URLs, if configured. These web permissions control the ability to perform the following actions to
web content:
• Access URL: access the URL,
• Read web permission: read web content,
• Write web permission: change web content,
• Source web permission: access the source of web content, and
• Browsing web permission: view the lists and collections in a directory.
If web content is configured with web permissions then IIS performs additional checking when an access
request is made to that web content to ensure that the appropriate permission is configured for that web
content (as described above). If the appropriate permission is configured, access will be granted. For
example, if write request is made to web content and that web content is not configured with write web
permission then the request will be denied. However, if write request is made to web content and the
DACL associated with the file allows write access to that web user and the write web permission is
configured for that web content, then access is granted.
Under certain circumstances IIS denies access to web content based upon web permissions associated with
the web content, as follows:
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• If web content is configured to require SSL/TLS and the web user request access via HTTP and
not Secure HTTP (HTTPS), then access is denied.
• If web content is configured to require SSL/TLS and use a client certificate, and the web user
request access via HTTPS without a certificate or via HTTP, then access is denied
• If web content is configured to require SSL/TLS and a negotiated certificate or requires a
certificate, and the web user request access via HTTP or via HTTPS with an invalid or revoked
certificate, then access is denied.
• If the authorization setting of a web user requesting access does not match the configured
authorization setting associated with the web content, then access is denied.
• If the client certificate mapping setting of the web user requesting access does not match the
configured certificate mapping setting associated with the web content, then access is denied.
In the evaluated configuration execute permission of web content is not allowed.
Read access to web content is allowed by default, however, other access must be specifically assigned by
the authorized administrator.
6.1.2.2.1 WEBUSER Data Integrity and Confidentiality
IIS protects data during transmission between the web user and the web server from unauthorized
disclosure and modification by requiring that the web user must use HTTPS instead of HTTP with or
without a client certificate which is accomplished by configuring the web content object to require
SSL/TLS. Additionally, by requiring SSL/TLS, IIS can determine upon receipt of data from the web user
if data content has been modified.
6.1.2.3 Content Provider Access Control
A web user that is allowed to install and modify web content is referred to as a content provider. The IIS
configuration values that define the configuration of web permissions to web content objects are stored in
what is referred to as a metabase file. This metabase can only be manipulated by authorized administrators.
Access request to modify web content are mediated based upon the same rules as described for web users.
6.1.2.4 Information Flow Control and Protection
The TOE includes a homogenous set of Windows 2003/XP systems that can be connected via their network
interfaces. Each Windows 2003/XP system within the TOE provides a subset of the TSFs. Therefore, the
TSF for Windows 2003/XP can be a collection of SFs from an entire network of systems (in the case of
domain configurations). Therefore, the TSF is considered to be the collection of the TSFs of each
Windows 2003/XP system included in the TOE.
The TOE uses a suite of Internet standard protocols including IPSec and ISAKMP. IPSec can be used to
secure traffic using IP addresses or port number between two computers or between two TSFs within the
TOE. See Section 6.1.6.2, Internal TOE Protection, for further details of IPSec. Note that IPSEC and
ISAKMP are not available when the TOE is configured to use IPv6 for sending or receiving network
traffic.
IPSec policies specify the functions that IPSec must perform for a given outbound or inbound packet and
include a list of filters to be applied to IP packet traffic. Filters can be specified to control traffic flow
based upon source IP address, destination IP address, protocol, source port, or destination port. An action of
permit or block can be specified within the filter for specific flows of traffic based upon source IP address,
destination IP address, protocol, source port, or destination port.
The TSF enforces these filters before sending any outbound packets and before allowing any inbound
packets to proceed.
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The TSF also prevents the disclosure and modification of user data using IPSec policies and filters. IPSEC
policies and filters can be configured only by an authorized administrator and can be configured to apply
actions to specify traffic flows such as encrypt or sign. IPSEC uses the Encapsulating Security Protocol
(ESP) to provide data confidentiality for IP packets. ESP performs encryption using the Data Encryption
Standard (DES) Cipher Block Chaining (CBC) algorithm and 3DES CBC. In addition to ESP, the TSF
implements IP Authentication Header (AH). AH provides integrity, authentication and anti-replay. AH
uses a hashing algorithm, such as Secure Hash Algorithm (SHA)-1, to compute a keyed message hash for
each IP packet. See Section 6.1.5.2, Internal TOE Protection, for further details of IPSec.
The TSF allows for the authorized administrator to define a Connection Firewall policy that can specify
what ports the TSF will allow connections upon. This policy will then enforce the blocking of all other
incoming connections and allows in only that which is a reply to a previous request that went out.
If the Windows Firewall feature is enabled by the authorized administrator, the TSF enforces the
Connection Firewall policy that will block all unsolicited incoming packets except for packets destined for
ports specified by the authorized administrator. To support this policy the TSF uses TCP/IP (IPv4 or IPv6).
When Windows Firewall is enabled, it opens and closes the communications ports that are used by
authorized applications. Windows Firewall maintains a table of connections that are initiated on behalf of
the other systems on the “protected” side of the local network, and inbound Internet traffic can reach the
“protected” network only when the table holds a matching entry. The administrator configures which
“services” will be permitted by Windows Firewall. The administrator also configures Internet Control
Message Protocol (ICMP) message handling. Service settings and ICMP options are per interface.
Windows Firewall supports Stateful Packet Filtering and Port Mapping.
6.1.2.5 Residual Data Protection Function
The TOE ensures that any previous information content is unavailable upon allocation to subjects and
objects. The TSF ensures that resources exported to user-mode processes do not have residual information
in the following ways:
• All objects are based on memory and disk storage. Memory allocated for objects is either
overwritten with all zeros or overwritten with the provided data before being assigned to an
object.10
Objects stored on disk are restricted to only disk space used for that object. Read/write
pointers prevent reading beyond the space used by the object. Only the exact value of what is most
recently written can be read and no more. For varying length objects, subsequent reads only return
the exact value that was set, even though the actual allocated size of the object may be greater than
this.
• Subjects have associated memory and an execution context. The TSF ensures that the memory
associated with subjects is either overwritten with all zeros or overwritten with user data before
allocation as described in the previous bullet for memory allocated to objects. In addition, the
execution context (registers) is initialized when new threads within a process are created and
restored when a thread context switch occurs.
SFR Mapping:
The User Data Protection function satisfies the following SFRs:
• FDP_ACC.2(a) – The SRM mediates all access to objects, including kernel-based objects and
user-mode TSF server-based objects. All access to objects is predicated on the SRM validating
the access request. In the case of most objects, this DAC validation is performed on initial access
(e.g., “open”) and subsequent use of the object is via a handle that includes a granted access mask.
For some objects (in particular DS objects), every reference to the object requires a complete DAC
validation to be performed. The TSF mediates read access by subjects to encrypted files by
protecting user and recovery private keys and using those keys to protect the FEK.
10
For APIs that create objects, the caller may provide data to initialize the object.
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• FDP_ACF.1(a) – The TSF enforces access to user objects based on SIDs and privileges
associated with subjects contained in tokens (impersonation token, if one exist), and the security
descriptors for objects. The rules governing the access are defined as part of the DAC algorithm
described above. The TSF uses the FEKs associated with the file and protected using authorized
users’ private keys to protect the encrypted file contents.
• FDP_ACC.2 (b), FDP_ACC.2(c), FDP_ACF.1(b), FDP_ACF.1(c) – The TSF enforces access to
web server content based upon the web user’s identity and group memberships, the DACL
associated with the object, URL authorization, and web permissions. The WEBUSER policy rules
govern access to read the web content and modify the web content if specifically authorized
(FDP_ACC.2(b), FDP_ACF.2(b)). The CONTENT PROVIDER policy rules govern access to
primarily control the ability to make web content available to web users and to modify web
content (FDP_ACC.2(c), FDP_ACF.2(c)).
• FDP_IFC.1(a), FDP_IFF.1(a) – The TSF controls the flow of traffic from one Windows 2003/XP
system’s TSF to another using the IPSec’s capability to enforce filters that can be configured to
restrict the flow of traffic based upon source IP address, destination IP address, source port,
destination port, and protocol.
• FDP_IFC.1(b), FDP_IFF.1(b) – The TSF controls the flow of traffic into a Windows 2003/XP
system’s TSF by providing the capability to block all unsolicited traffic with the exceptions of
traffic targeted to ports specified by the authorized administrator.
• FDP_UCT.1, FDP_UIT.1 – The TSF protects data during transmission between the web user and
the web server from unauthorized disclosure and modification by requiring that SSL/TLS is used
to support this communication.
• FDP_ITT.1 – The TSF prevents the disclosure and modification of user data using IPSec
encryption and digital signature capabilities when user data is transmitted between different
system
• FMT_MOF.1(d) – Only an authorized administrator can modify the values in the metabase which
include the IIS configuration. These values define permissions to web content.
• FMT.MSA.1(a) – The ability to change the DAC policy is controlled by the ability to change an
object’s DACL. The following are the four methods that DACL changes are controlled:
o Object owner - Has implicit WRITE_DAC access.
o Explicit DACL change access – A user granted explicit WRITE_DAC access on the
DACL can change the DACL.
o Take owner access – A user granted explicit WRITE_OWNER access on the DACL can
take ownership of the object and then use the owner’s implicit WRITE_DAC access.
o Take owner privilege – A user with SeTakeOwner privilege can take ownership of the
object and then user the owner’s implicit WRITE_DAC access.
• FMT_MSA.1(c) – The ability to change the security attributes upon which the IPSec Filter Policy
is based upon is restricted to the authorized administrator.
• FMT_MSA.1(d) – The ability to change the security attributes upon which the Connection
Firewall Policy is based upon is restricted to the authorized administrator.
• FMT_MSA.1(e), FMT_MSA1(f) – The ability to change the security attributes upon which the
WEBUSER and CONTENT PROVIDER policies are based upon is restricted to the authorized
administrator.
• FMT.MSA.3(a) - The TSF provides restrictive default values for security attributes used to
provide access control via the process’s default DACLs which only allows access to the
SYSTEM and the user creating the object. Users who create objects can specify a SD with a
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DACL to override the default. The initial keys are cryptographically generated and cannot be
modified.
• FMT_MSA.3(b) – Filters can be defined and assigned to restrict traffic flow from one TSF to
another. However, by default, there are no filters assigned and traffic is allowed to flow in an
unrestricted manner. Only the authorized administrator can define or modify the IPSec filters that
specify the rules for traffic flow.
• FMT_MSA.3(c) – By default, the list of ports which the TSF will allow unsolicited traffic into a
Windows 2003/XP system’s TSF to is empty. Only the authorized administrator can specify ports
for which unsolicited traffic will be accepted. However, the firewall feature is optional and can be
disabled in the evaluated configuration in which case no restriction on traffic flow is enforced.
• FMT_MSA.3(d), FMT_MSA.3(e) – By default, only read access to web content is allowed and
only an authorized administrator can define the configuration or the web permissions associated
with the web content in the metabase.
• FMT_REV.1(b) – The ability to revoke access to an object is controlled by the ability to change
the DACL and is governed by the same conditions for FMT_MSA.1 above. The changed DACL
is effective upon subsequent access checks against the object.
• FMT_MSA.1(b) – The TSF associates private keys with users. Only the owner of the private key
used to protect the FEK associated with the file or an administrator or subject with a specific
privilege can delete the FEK.
• FDP_RIP.2 - The TSF ensures that previous information contents of resources used for new
objects are not discernable in the new object via zeroing or overwriting of memory and tracking
read/write pointers for disk storage.
• Note1_EX - Every process is allocated new memory and an execution context. Memory is zeroed
or overwritten before allocation. The execution is initialized or restored when threads are created
or when a context switch occurs.
6.1.3 Cryptographic Protection
The TOE CryptProtectData and CryptUnprotectData functions encrypt and decrypt data blocks preventing
the data from being decrypted by unauthorized users. These functions are used internally by the TOE as
well as by users. The TSF uses this function to encrypt the private keys used by the Rivest, Shamir and
Adleman (RSA) public-key-based encryption algorithm which are used to decrypt the FEKs (FEK are
described the DAC Enforcement of Encrypted Files). Users can use these functions to encrypt and decrypt
raw data blocks at their discretion. Upon a request to encrypt data, the TSF creates a random, symmetric
key, known as the user’s master key to encrypt the user data. The integrity of the user’s master key is
ensured by the TSF based on SHA-1 Hash-Based Message Authentication Code (HMAC) which uses a
hash of the user’s master key, and a hash of the user’s SID with the user’s logon password (credential). A
backup key of the user’s master key is also calculated based on a backup/restore key of a DC, if present.
The key size is based on the DES or 3DES algorithm used for encryption, and is 56 or 168 bits.
Using the user’s master key, the TSF encrypts the data and the encrypted data is returned to the user. Upon
a request to decrypt data provided by the user, the TSF uses the user’s master key to decrypt the data. If the
decryption fails, the user does not receive any data.
When discovering the user’s master key, the TSF performs a Message Authentication Code (MAC) check
to verify proper decryption of the user’s master key. If the MAC check succeeds, the master key is used to
decrypt the user’s data. If the MAC check fails, then the TSF attempts to decrypt the data using the
backup/restore master key. This may be necessary if the user’s password has changed. The TSF verifies
that the user is authorized to the backup/restore master key by comparing the SID extracted using the
backup/restore master key to the SID of the caller. If the caller is authorized to the backup/restore master
key (e.g., the SIDs match), then the backup/restore master key is used to decrypt the data. If this
decryption fails also, the user does not receive any data.
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The encryption and decryption operations are performed by independent modules, known as Cryptographic
Service Providers (CSPs). The CSPs are FIPS 140 Level 1 compliant. The FIPS 140 standard was
developed by the National Institute of Standards and Technology (NIST). FIPS 140, titled "Security
Requirements for Cryptographic Modules," specifies the U.S. government's requirements for proper design
and implementation of hardware and software cryptographic modules that perform cryptographic
operations for sensitive but unclassified information. FIPS 140 has been adopted by the Canadian
Communication Security Establishment (CCSE) and the American National Standards Institute (ANSI).
FIPS 140 is widely regarded as a de facto standard for cryptographic modules.
In addition to encryption and decryption services, the TSF provides other cryptographic operations such as
hashing, key exchange, and digital signatures. The TSF also provides a pseudo random number generation
capability. These cryptographic capabilities are designed to conform to published standard and compliance
with these cryptographic standards has been demonstrated as follows:
Table 6-3 Cryptographic Standards and Evaluation Method
Cryptographic Operation Standard Evaluation Method
Encryption/Decryption FIPS 46-3 DES (ECB and CBC
modes)
FIPS 140-2 Certified (382)
Encryption/Decryption FIPS 46-3 3DES (ECB and
CBC modes)
FIPS 140-2 Certified (382)
Encryption/Decryption FIPS 197 (Advanced
Encryption Standard (AES))
FIPS 140-2 Certified (382)
Encryption/Decryption PKCS#1(RSAES-PKCS1-
v1_5)
Vendor Assertion
HMAC FIPS-198 HMAC (SHA-1) FIPS 140-2 Certified (382)
Hash FIPS-180-2 SHA-1, SHA-
25611
, SHA-38412
, SHA-51213
FIPS 140-2 Certified (382)
Random number generation None Vendor Assertion
Key exchange DH (Ephemeral-Ephemeral) Vendor Assertion
Key Generation Software RNG (FIPS 46-3
3DES and DES)
Vendor Assertion
Key Generation Software RNG (FIPS 197
AES)
Vendor Assertion
Key Generation Prime RNG for RSA Vendor Assertion
Key Generation RNG (FIPS 186-2 DSA) Vendor Assertion
Key Generation RNG (DH) Vendor Assertion
Key Distribution PKCS#5 V2.0 (Password-
Based Encryption Standard)
Vendor Assertion
Key Zeroization FIPS 140-1 or FIPS 140-214
FIPS 140-2 Certified (382)
11
SHA-256 is available on the 2003 Server product only.
12
SHA-384 is available on the 2003 Server product only.
13
SHA-512 is available on the 2003 Server product only.
14
FIPS 140-1 and 140-2 certification includes specific key zeroization requirements.
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Cryptographic Operation Standard Evaluation Method
Key Storage PKCS#5 V2.0 (Password-
Based Encryption Standard),
using FIPS-180-2 SHA-1 and
FIPS-46-3 Triple DES
Vendor Assertion
The TSF applies validation techniques (e.g., hash) to validate the CryptProtectData-encrypted FIPS-186-2
DSA and FIPS-186-2/PKCS#1 private asymmetric cryptographic keys when they are obtained via the
distribution method or via the storage method. The TSF checks the hash of the encrypted data (which is
meant to be a CryptProtectData-encrypted private key).
The TSF provides a means to ensure that FIPS-186-2 DSA and FIPS-186-2/PKCS#1 private asymmetric
cryptographic keys are associated with the correct entities (i.e., person) to which the keys are assigned. The
private keys are encrypted with a user masterkey. The TSF encrypts the user masterkey with a SHA-1 hash
of the logon password of the key owner.
The TSF uses PKCS#5 V2.0 (Password-Based Encryption Standard), using FIPS-180-2 SHA-1 and FIPS-
46-3 3DES in the process to store FIPS-186-2 DSA and FIPS-186-2/PKCS#1 private asymmetric
cryptographic keys. The TSF encrypts the private keys with a master key using 3DES; and the masterkey is
encrypted using the PKCS#5 format with a SHA-1 hashing of the key owner’s interactively-logging-on
password. The encrypted private keys and encrypted masterkeys are written to their persistent files. These
files are stored in a subdirectory of the user profile so that they could be loaded when the profile owner logs
onto a machine. The key storage effect is achieved because the encrypted private keys and encrypted
masterkeys are stored in their persistent files in the user profile. User profiles can be centrally maintained
by the TSF domain controllers. The key distribution effect is achieved because the user profile files can be
downloaded from a TSF domain controller when the user logs onto a machine.
For RSA key generation, pseudo-random seeds are not put through the SHA-1 process before they are used
in a RSA key generation as in the case of DSA or DH key generation. The details of the element types that
contribute to a pseudo-random seed computation are documented in the NIST approved security policy
documents associated with the above FIPS-140 certificates on the NIST web site. A pseudo-random value
is used as the starting point of an array representing consecutive odd integers. The length of the array
depends upon the size of the prime sought. The array is then sieved by finding multiples of each small
prime (about a thousand small primes). Surviving candidates (starting from the smallest) are then each put
through four iterations of Miller-Rabin until one is found that passes. If no prime is found, a new random
starting value is selected and the process is repeated until a prime is found. Resetting the starting value
when a new sieve is required limits the bias introduced by the sieving method.
The primality test for DH/DSA primes goes through one Miller Rabin and one Lucas. The mechanism to
generate a seed for a DSA key pair is the same mechanism for which the crypto module has received the
FIPS-140-2 DSA Certificate. The details of the element types that contribute to a seed computation are
documented in the NIST approved security policy documents associated with the above FIPS-140
certificates on the NIST web site. Therefore, the entropy value for the mechanism is at least that of any
FIPS-140 validated crypto modules. DSA key generation requires a pseudo-random seed to go through the
SHA-1 process with all the mandatory checks for receiving the FIPS-140 certificates. The DSA prime
values p and q are generated using the algorithm of FIPS-186-2 Appendix 2.2. The G value is generated
using FIPS-186-2 Appendix 4.
SFR Mapping:
The Cryptographic Protection function satisfies the following SFRs:
• FCS_COP.1(a) – The TSF uses the DES or 3DES (56-bit or 168-bit key sizes) algorithm to
encrypt user data and only allows the user who encrypted the data to decrypt the data by ensuring
that the SID of the subject requesting decryption is the same as the SID of the subject that
requested encryption of the data.
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• FCS_COP.1(a) – (j) – See the Table 6-3 Cryptographic Standards and Evaluation Method
• FCS_CKM.1(a) – (e) - See the Table 6-3 Cryptographic Standards and Evaluation Method
• FCS_CKM.2, FCS_CKM.4 – See the Table 6-3 Cryptographic Standards and Evaluation Method
• FCS_CKM_EX.1 – The TSF validates keys by checking the hash.
• FCS_CKM_EX.2 – The TSF ensures the private keys are associated with the entities by
encrypting the keys with a hash of the password of the key owner. The TSF stores private keys in
PKCS#5 in a subdirectory with the user’s profile.
6.1.4 Identification and Authentication Function
The TOE requires each user to be identified and authenticated prior to performing TSF-mediated functions
on behalf of that user, with a few exceptions, regardless of whether the user is logging on interactively or is
accessing the system via a network connection. One exception is the function allowing a user to shut the
system down; however, an authorized administrator may disable even that function if it is not appropriate
for a given environment. The other exception is access to the web server when anonymous authentication is
allowed (as described in the WEBUSER Access Control section) during which a web server request is
serviced without prompting the client for identification and authentication, even though that client has been
authenticated prior to making a web server request in the evaluated configuration.
6.1.4.1 Logon Type
The TOE supports six types of user logon: interactive (“Logon locally”), network (“Access this computer
from Network”), batch (“Logon as a batch job”), service (“Logon as a service”), unlock (“Unlock screen
saver”), and Network_ClearText (“Anonymous authentication to IIS”). The interactive logon type is for
users who will be interactively using the system, such as a user being logged on at a workstation console.
The network logon type is used when a user logs onto a remote network server to access resources. The
batch logon type is intended for batch servers, where processes may be executing on behalf of a user
without their direct intervention (e.g., COM - servers). The service logon type is used when a service
process is started to provide a user context in which that service will operate. The unlock logon type is
used when a user is forced to re-authenticate interactively after a specified time of inactivity. The
network_clearText logon type is used when IIS is configured to not require a client requesting IIS services
to re-authenticate and assigns a specified account for users to be associated with the anonymous
connection. In the evaluated configuration IIS will only accept request from authenticated clients.
Each of the logon types has a corresponding user logon right that can be assigned to user and group
accounts to control the logon methods available to users associated with those accounts.
6.1.4.2 Trusted Path and Re-authentication
For initial interactive logon, a user must invoke a trusted path in order to ensure the protection of
identification and authentication information. The trusted path is invoked by using the Ctrl+Alt+Del key
sequence, which is always captured by the TSF (i.e., it cannot be intercepted by an untrusted process), and
the result will be a logon dialog that is under the control of the TSF. Once the logon dialog is displayed,
the user can enter their identity (username and domain) and authentication (password). For remote logon, a
user must first logon on interactively for which a trusted path is provided (as described above).
Additionally, the TSF uses IPSec to provide a trusted path between TSFs to ensure the protection of the
I&A information transferred between TSFs.
A user can change their password either during the initial interactive log or while logged on. To change a
user’s password, the user must invoke the trusted path by using the Ctrl+Alt+Del key sequence. The logon
dialog displayed allows the user to select an option to change their password. If selected, a change
password dialog is displayed which requires the user to enter their current password and a new password.
The TSF will change the password only if the TSF can successfully authenticate the user using the current
password that is entered (see section Logon Process for a description of the authentication process).
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Other actions that require the user to invoke the trusted path by using the Ctrl+Alt+Del key sequence and
re-authenticate themselves are: initial user authentication with a smart card, changing passwords, and
session unlocking (see section Session Locking Function).
6.1.4.2.1 Logon Banner
An authorized administrator can configure the interactive logon screen to display a logon banner with a title
and warning. This logon banner will be displayed immediately before the interactive logon dialog (see
above) and the user must select “OK” to exit the banner and access the logon dialog.
6.1.4.3 User Attribute Database
6.1.4.3.1 User and Group Accounts Definitions
Each TSF maintains databases (collectively referred to as user attribute database) that fully define user and
group accounts. These definitions include:
• Account name – used to represent the account in human-readable form;
• SID – a User Identifier (UID) or group identifier used to represent the user or group account
within the TOE;
• Password (only for user accounts) – used to authenticate a user account when it logs on (stored in
hashed form and is encrypted when not in use using a Rivest’s Cipher (RC)4 algorithm and a RC4
system generated key);
• Private/Public Keys – used to encrypt and decrypt user’s FEK;
• Groups – used to associate group memberships with the account
• Privileges – used to associated TSF privileges with the account;
• Logon rights – used to control the logon methods available to the account (e.g. the “logon locally”
right allows a user to interactively logon to a given system);
• Smart Card Policy – used to require a smart card to logon;
• Miscellaneous control information – used to keep track of additional security relevant account
attributes such as allowable periods of usage, whether the account has been locked, whether the
password has expired, password history, and time since the password was last changed; and,
• Other non-security relevant information – used to complete the definition with other useful
information such a user’s real name and the purpose of the account.
The actual composition of the user attribute database depends upon the type of TSF (e.g., stand-alone,
domain member, DC). Specifically, the TOE allows the establishment of domains. Domains are used to
allow a collection of TSFs to share a common set of policies and accounts. This is accomplished by
establishing DCs that instantiate AD services (every TSF with the AD service is a DC) that define policies
and accounts to be shared by TSFs in the domain. Note that group policies (see Security Management) can
also be defined in the AD that apply to selected TSFs (e.g., systems) and accounts within the domain. If a
TSF type is not a domain member, it will have only its own user attribute database. If a TSF type is a
domain member, but not a DC, it will also have its own user attribute database. However, the policies and
accounts of its DC will logically be included in that TSF’s user attribute database. If a TSF type is a DC,
its user attribute database is defined within its AD and is generally shared with other TSFs in the domain.
In a domain, a user attribute database can be logically extended even further through trust relationships.
Each DC can be configured to trust other domains. The result is that accounts from trusted domains can be
used to access the trusting domain.
A forest is a set of one or more trees that do not form a contiguous namespace. The TSF allows a forest to
enforce constraints on which users it trusts the other forest to authenticate. This allows all domains in one
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forest to (transitively) trust all domains in another forest via a single trust link between the two forest root
domains. This cross-forest authentication enables secure access to resources when the user account is in
one forest and the computer account is in another forest. A computer account is a user account where the
user identity of the account is a computer identity belonging to a Windows domain.
6.1.4.3.2 Account Policies
Complimentary to the user account database is the account policy that is defined on each TSF and in each
domain. The account policy is controlled by an authorized administrator and allows the definition of a
password account lockout policy with respect to interactive logons.
The password policy includes:
• The number of historical password to maintain to restrict changing passwords back to a previous
value;
• The maximum password age before the user is forced to change their password;
• The minimum password age before the user is allowed to changed their password; and,
• The minimum password length when changing to a new password (0-14).
The account lockout policy includes:
• Duration of the account lockout once it occurs;
• Number of failed logon attempts before the account will be locked out; and,
• The amount of time after which the failed logon count will be reset.
These policies allow the TSF to make appropriate decisions and change user attributes in the absence of an
authorized administrator. For example, the TSF will “expire” a password automatically when the
maximum password age has been reached. Similarly, it will lock an account once a predefined number of
failed logon attempts have occurred and will subsequently only unlock the account as the policy dictates.
These policies also serve to restrict features available to authorized users (e.g., frequency of password
change, size of password, reuse of passwords).
6.1.4.4 Logon Process
All logons are treated essentially in the same manner regardless of their source (e.g., interactive logon
dialog, network interface, internally initiated service logon). They begin with an account name, domain
name (which may be NULL; indicating the local system), and password that must be provided to the TSF.
The domain name indicates where the account is defined. If the local TSF (or NULL) is selected for the
domain name, the local user account database is used. Otherwise the user account database on the target
TSF’s DC will be used. If the domain name provided does not match that of the DC, the DC will attempt
to determine whether the target domain is a trusted domain. If it is, the trusted domain’s user account
database will be used. Otherwise, the logon attempt will fail.
At this point, two types of logon may occur: NTLM or Kerberos. Kerberos is the default logon method and
will be used if a Kerberos KDC is available. Generally, each DC includes a KDC in addition to its AD. If
no KDC is available, NTLM will be used. In the evaluated configuration a KDC is available to each DC.
There are two primary differences between NTLM and Kerberos logons. The first is that NTLM requires
that the username and a hashed version of the password be sent to the appropriate DC (or local TSF for a
local account). The receiving TSF will compare the provided hashed password with the version stored in
its database for the user identified by the username. If the hashed passwords match, authentication is
successful. Kerberos, on the other hand, requires that a time-stamped logon request be partially encrypted
with the hashed password. The encrypted request is sent to the appropriate DC, which in turn looks up the
user’s hashed password in its database. The hashed password is used to decrypt the logon request. If the
decrypt operation succeeds and the logon request has an appropriate time stamp (i.e., within a time period
set by an authorized administrator), authentication is successful. In either case, a successful authentication
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yields the user’s SID and the SIDs of the user’s groups as defined on the authenticating DC (or local TSF
for a local account). Note that a failed authentication attempt yields an increment in failed logon attempts
for the user account and may result in the account being locked out (i.e., unable to logon).
The second primary difference between NTLM and Kerberos logon is in how subsequent requests for
service (i.e., network logons) will occur. In the case of NTLM, the user must logon to every TSF in order
to obtain a service (e.g., access to a file). These will be network logons and will essentially follow the
same process as the initial interactive logon. A Kerberos logon yields a Ticket Granting Ticket that is used
to subsequently request Service Tickets from the KDC each time the user process wants to access a
network service. The Service Ticket, containing some of the user’s security attributes, will serve to
authenticate the user rather than effectively requiring re-authentication using a hashed password.
Once a successful authentication occurs, the TSF will query its AD (via its DC), if applicable, for group
policies relevant to the user that is attempting to logon. The TSF will use its user attributes database
(including domain properties, such as from a group policy) to derive additional security attributes for the
user (e.g., privileges and user rights). The TSF will then ensure that any logon constraints defined in its
user attributes database (including domain properties applicable to the user) to the user are enforced prior to
completing a successful logon. If there are no constraints that would prevent a successful logon, a process
(or thread, when the logon server is going to impersonate the user) is created and assigned a token that
defines a security context based on the attributes collected during the logon process (user and group SIDs,
privileges, logon rights, as well as a default DACL created by the logon process).
When a Web site or another computer requests authentication through NTLM or Kerberos, an Update
Default Credentials or Save Password check box appears in the Net UI dialog box. If the user selects the
check box, the Credential Manager keeps track of the user's name, password, and related information for
the authentication service in use.
The next time that service is used, the Credential Manager automatically supplies the stored credential. If it
is not accepted, the user is prompted for the correct access information. If access is granted, the Credential
Manager overwrites the previous credential with the new one.
6.1.4.4.1 Smart Card Logon Processing
The TOE offers the ability to authenticate with a smart card in addition to authentication with a password.
The smart card logon process begins when the user inserts a smart card into a smart card reader attached to
the computer. When the TOE is configured for smart card logon, the insertion of the card signals the Secure
Attention Sequence (SAS), just as the key combination Ctrl+Alt+Del signals the SAS on computers
configured for password logon. In response, the TOE forces the display of a logon dialog box and the user
is prompted to provide a PIN. Note that the PIN is required by the smart card which is not part of the TOE.
As such, it is assumed that users will physically protect their smart cards and the smart card requirement to
provide a PIN for access serves only as an extra, unevaluated, mechanism offered by the TOE environment.
The user’s logon information is sent to the LSA just as it does with a username/password logon. The LSA
Kerberos authentication package uses the PIN for access, via the Smart Card Helper RPC Interfaces, to the
smart card. The smart card contains the user’s private key along with an X.509 v3 certificate that contains
the public half of the key pair. The cryptographic operations that use these keys take place on the smart
card.
After the initial private-key authentication, standard Kerberos protocols for obtaining session tickets are
used to connect to network services. When the KDC is not available in the case of a smart card cached
logon request, the verification information (e.g., supplemental credentials) is provided by the MSV1_0
authentication package.
The behavior of the TOE with respect to smart card removal is governed by a registry value which dictates
which of the following actions will occur as a reaction to the removal of the smart card: no action, the
workstation is locked, a logout is forced.
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6.1.4.4.2 Network Logon Support
PK-certificate network logon is supported by the TLS/SSL Security Provider that implements the Microsoft
Unified Security Protocol Provider security package. This package provides support for four network
security protocols, namely SSL versions 2.0 and 3.0, TLS version 1.0. In the TOE, security package APIs
are not directly accessible, rather they are accessed via LSA Authentication APIs. The TLS/SSL Security
Provider authenticates connections, and/or encrypts messages between clients and servers. When an
application needs to use a network resource on an authenticated channel, the LSA accesses the TLS/SSL
Security Service Provider (SSP) via the SSP interfaces.
Digest network logon is supported by the Microsoft Digest Access Authentication Package. Digest
performs user authentication for LSA Authentication in support of network logon attempts. Interactive
logons cannot be performed using Digest Access. Digest implements a network security protocol, in this
case digest challenge/response authentication, that supports remote network logon user authentication and
other network security services according to RFC 2617 “HTTP Authentication: Basic and Digest Access
Authentication.”
6.1.4.5 Impersonation
In some cases, specifically for server processes, it is necessary to impersonate another user in order to
ensure that access control and accountability are performed in an appropriate context. To support this, the
TSF includes the ability for a server to impersonate a client. As described above, each process has a token
that primarily includes account SIDs, privileges, logon rights, and a default DACL. Normally, each thread
within a process uses the process’ token for its security context. However, a thread can be assigned an
impersonation token that would be used instead of the processes token when making access checks and
generating audit data. Hence, that thread is impersonating the client that provided the impersonation token.
Impersonation stops when the impersonation token is removed from the thread or when the thread
terminates.
When communicating with a server, the client can select an impersonation level that constrains whether
and how a server may impersonate the client. The client can select one of four available impersonation
levels: anonymous, identify, impersonate, and delegate. Anonymous allows the server to impersonate the
client, but the impersonation token doesn’t contain any client information. Identify allows the server to
impersonate the client to perform access checks. Impersonate allows the server to impersonate the clients
entire security context to access resources local to the server’s TSF. Delegate allows the server to
impersonate the client on local and remote TSFs.
6.1.4.6 Restricted Tokens
Whenever a process is created, or a thread is assigned an impersonation token, the TSF allows the caller to
restrict the token that will be used in the new process or impersonation thread. Specifically, the caller can
remove privileges from the token, assign a deny-only attribute to SIDs, and specify a list of restricting
SIDs. The following pertains:
• Removed privileges are simply not present in the resulting token.
• SIDs with the deny-only attribute are used only to identify access denied settings when checking
for access, but ignore any access allowed settings.
• When a list of restricting SIDs is assigned to a token, access is checked twice once using the
tokens enabled SIDs and again using the restricting SIDs. Access is granted only if both checks
allow the desired access.
6.1.4.7 Strength of Authentication
As indicated above, the TSF provides a set of functions that allow the account policy to be managed. These
functions include the ability to define account policy parameters, including minimum password length. The
minimum password length can be configured to require as large as 14 characters. However, the
administrator guide recommends that the minimum password length be configured to no less than eight (8)
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characters (with at least 90 available characters, the password space is 4,304,672,100,000,000 available
combinations). Therefore, in the evaluated configuration, the probability that a random attempt will
succeed is less than one (1) in 5x1015
and the probability that, for multiple attempts within one minute, the
probability that a random attempt will succeed is less than one (1) in 25x1012
.
During authentication, the TSF will not provide feedback that will reduce the probability before the metrics
identified above. Furthermore, the TSF forces a delay between attempts, such that there can be no more
than ten (10) attempts per minute.
For each subsequent failed logon following five (5) consecutive failed logon occurrences in the last 60
seconds, the Winlogon/Graphical Identification and Authentication (GINA) subcomponent sleeps for 30
seconds before showing a new logon dialog. It therefore supports the I&A function that no more than ten
(10) interactive logon attempts are possible in any 60 second (one minute) period.
When Kerberos is used, the password requirements are the same as those described above. However, there
are both Ticket Granting Tickets and Service Tickets that are used to store, protect, and represent user
credentials and are effectively used in identifying and authenticating the user. Session keys are initially
exchanged using a hash of the user’s password for a key.
SFR Mapping:
The Identification and Authentication function satisfies the following SFRs:
• FIA_AFL.1 - The TSF locks the account after the administrator-defined threshold of unsuccessful
logon attempts has occurred. The account will remain locked either until an authorized
administrator unlocks it or until the duration defined by an authorized administrator has elapsed.
• FIA_ATD.1 - Each TSF has a user attribute database. Each user attribute database describes
accounts, including identity, group memberships, password (e.g., authentication data), privileges,
logon rights, allowable time periods of usage, smart card policy, as well as other security-relevant
control information. Security-relevant roles are associated with users via group memberships and
privileges.
• FIA_SOS.1 - The password and key spaces used by the TSF reduce the chance of guessing a
password to less than one (1) in 2 x 1015
for a single random attempt and one (1) in 25x1012
for
multiple attempts during a one minute period. The TSF can block a user from continuing to
attempt to logon for a specified amount of time after a specified number of failed attempts such
that there can be no more than ten attempts per minute and the TSF does not provide feedback
during authentication that will reduce the probability of successfully guessing passwords.
• FIA_UAU.1 - An authorized administrator can configure the TSF to allow no TSF-mediated
functions prior to authentication, with the exception of access to the web server.
• FIA_UAU.7 - During an interactive logon, the TSF echoes the users password with “*” characters
to prevent disclosure of the user’s password.
• FIA_UAU.6 - The TSF will only allow a password to be changed if the TSF can successfully
authenticate the user using the current password which must be entered with the new password.
• FIA_UID.1 - An authorized administrator can configure the TSF to allow no TSF-mediated
functions prior to identification, with the exception of access to the web server.
• FIA_USB.1_EX - Each process and thread has an associated token that identifies the responsible
user (used for audit and access), associated groups (used for access), privileges, and logon rights
held by that process or thread on behalf of the user. Additionally, a public/private key pair is
associated with a user’s account when a user encrypts a file and an authorized administrator can
assign a public/private key pair to a user account.
• FTA_LSA_EX.1 - On a DC, accounts can be restricted to a workstation during a specific time and
day. If the account has these restrictions, the members of the domain will then restrict the ability
to logon to a system based upon the Logon Locally right (allows the user to interactively logon to
given system), the time, and the day. If on a given system, the user can logon at a given time and
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day, then the user will be allowed to logon and will be included in the groups assigned to that
account and will have the privileges assigned to that account.
• FTA_MCS_EX.1 - Through locally logon right enforcement, accounts can be restricted to specific
workstations thereby enforcing the maximum number of interactive concurrent sessions per user
based upon those machines the authorized administrator has defined an account upon for any
given user.
• FTA_TAB.1, FMT_MTD.1(i) - An authorized administrator can define and modify a banner that
will be displayed prior to allowing a user to logon.
• FTA_TSE.1 - The TSF will not allow a user to logon if the user’s password has expired. The TSF
will restrict the location a user can logon from based upon the logon rights associated with a user’s
account (logon locally, logon as a batch job, access this computer from the network, and logon as
a service). Additionally, the TSF restricts a user from logon based upon time or day in that a user
will not be able to logon if attempts are made after an account has been locked out but within the
account lockout duration defined by the authorized administrator.
• FTP_TRP.1 - The TSF provides an unspoofable key sequence, Ctrl+Alt+Del, that can be used to
assure that the user is communicating directly with the TSF for purposes of initial interactive
logon with password, session unlocking, and changing the user’s password when the TSF
requests/notifies (via the trusted path) the user to do so. When the TOE is configured for smart
card logon, the insertion of the card signals the SAS, just as the key combination Ctrl+Alt+Del
signals the SAS on computers configured for password logon. Additionally, IPSec is used to
provide an additional trusted path for remote logons.
• FMT_SMR.3 - In order to assume the authorized administrator role (see the Security management
Function), a user with one of the security-relevant administrative groups or security-relevant
privileges must successfully logon. Furthermore, to switch between a user with privileged and an
authorized administrator, a user must logoff and re-logon.
6.1.5 Security Management Function
The TOE supports the definition of roles as well as providing a number of functions to manage the various
security policies and features provided by the TOE.
6.1.5.1 Roles
The notion of role within the TOE is generally realized by assigning group accounts and privileges to a
given user account. Whenever that user account is used to logon, the user will be assuming the role that
corresponds with the combination of groups and privileges that it holds. While additional roles could be
defined, this ST defines two logical roles: the authorized administrator role and the authorized user role.
The Administrator role is defined as any user account that is assigned one of the security-relevant
privileges (e.g., Take Owner privilege) or is made a member of one of the several pre-defined
administrative groups (e.g., Administrators and Backup Operators local group). The Administrator Guide
fully identifies all security-related privileges and administrative groups, and provides advice on how and
when to assign them to user accounts. A user assumes an administrator role by logging on using a user
account assigned one of these privileges or group membership.
Any user that can successfully logon and is not in the administrator role (as defined above) is considered to
be in an authorized user role.
6.1.5.2 Security Management Functions
The TOE supports a number of policies and features that require appropriate management. With few
exceptions, the security management functions are restricted to an authorized administrator. This constraint
is generally accomplished by privilege or access control (e.g., SD), and occasionally by a specific SID
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requirement (e.g., “Administrators”). The TOE supports security management functions for the following
security policies and features:
• Audit Policy – The audit policy management functions allow an authorized administrator the
ability to enable and disable auditing, to configure which categories of events will be audited for
success and/or failure, and to manage (e.g., clear) and access the security event log. An
authorized administrator can also define specifically which user and access mode combinations
will be audited for specific objects in the TOE.
• Account Policy – The account policy management functions allow only an authorized
administrator to define constraints for passwords (password complexity requirements), account
lockout (due to failed logon attempts) parameters, and Kerberos key usage parameters. The
constraints for passwords restrict changes by including minimum password length, password
history, and the minimum and maximum allowable password age. If the maximum password age
is exceeded, the corresponding user cannot logon until the password is changed. The account
lockout parameters include the number of failed logon attempts (in a selected interval) before
locking the account and duration of the lockout. The Kerberos key usage parameters primarily
specify how long various keys remain valid. While an authorized administrator can change
passwords and a user can change their own passwords, the TSF does not allow any user
(including the authorized administrator) to read passwords. Additionally, the authorized
administrator can defined the advisory warning message displayed before access to the TOE is
granted.
• Account Database Policy – The account database management functions allow an authorized
administrator to define and assign and remove security attributes to and from both user and group
accounts, both locally and for a domain, if applicable. The set of attributes includes account
names, SIDs, passwords, group memberships, and other security-relevant and non-security
relevant information. Of the set of user information, only the password can be modified by a user
that is not an authorized administrator. Specifically, an authorized administrator assigns an initial
password when an account is created and may also change the password like any other account
attribute. However, a user may change their password. This is enforced by requiring the user to
enter their old password in order to change the password to a new value.
• User Rights Policy – The user rights management functions allow an authorized administrator to
assign or remove user and group accounts to and from specific logon rights and privileges.
• Domain Policy – The domain management functions allow an authorized administrator to add
and remove machines to and from a domain as well as to establish trust relationships among
domains. Changes to domains and domain relationships effectively change the definition and
scope of other security databases and policies (e.g., the account database). For example, accounts
in a domain are generally recognized by all members of the domain. Similarly, accounts in a
trusted domain are recognized in the trusting domain.
• Group Policy – The group policy management functions allow an authorized administrator to
define accounts, user right assignments, and TOE machine/computer security settings, etc. for a
group of TSFs or accounts within a domain. The group policies effectively modify the policies
(e.g., machine security settings, and user rights policy) defined for the corresponding TSFs or
users.
• IPSec Policy – The IPSec management functions allow an authorized administrator to define
whether and how (e.g., protocols and ports to be protected, outbound and/or inbound traffic, with
what cryptographic algorithms) IPSec will be used to protect traffic among distributed TSFs.
• EFS Policy – The EFS management functions allow an authorized administrator to enable or
disable EFS on an NTFS volume and generally control the recovery for EFS data.
• Disk Quota Policy – The disk quota management functions allow an authorized administrator to
manage disk quotas for NTFS volumes. More specifically, the functions allow an authorized
administrator to enable or disable disk quotas, define default disk quotas, and define actions to
take when disk quotas are exceeded.
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• DAC Policy – The DAC functions allow authorized users to modify access control attributes
associated with a named object.
• FEK Policy - The first time a user encrypts a file the TSF assigns the user account a
public/private key pair which is used to protect the randomly generated FEK associated with the
file. Only the owner of the private key used to protect the FEK associated with the file or an
administrator or subject with a specific privilege can delete the FEK.
• Other – The TSF also allows the administrator the ability to modify the time.
6.1.5.3 Valid Password Attributes
The TSF ensures that only valid values are accepted as security attributes for the password. Valid values
are values that are meet the password complexity restrictions as defined by the administrator. For example,
the minimum password length should be set to greater than or equal to 8 by the administrator.
Subsequently, attempts to create passwords shorter than 8 will not be accepted by the TSF.
SFR Mapping;
The Security Management function satisfies the following SFRs:
• FMT_MOF.1(a): Only an authorized administrator can enable and disable the audit mechanism,
select which audit event categories will be audited, and also select whether they will be audited for
success and/or failure.
• FMT_MOF.1(b) - The TSF provides IPSec management functions that allow only an authorized
administrator the ability to define if and how IPSec will be used to protect traffic amongst
distributed TSFs.
• FMT_MSA_EX.2 - The TSF ensures that values for password security attributes meet the
password complexity restrictions, if defined by the administrator.
• FMT_MTD.1(a) - Only an authorized administrator can clear the security event log. There are no
interfaces to create or delete the security event log entries (see Audit Log Restricted Access
Protection).
• FMT_MTD.1(b) - Only an authorized administrator can view the security event log. There are no
interfaces to modify a security event (audit record) in the security event log (see Audit Log
Restricted Access Protection).
• FMT_MTD.1(c) - Only an authorized administrator can define user accounts and group accounts,
define user/group associations (e.g., group memberships), assign privileges and user rights to
accounts, as well as define other security-relevant and non-security relevant user attributes, with
the exception of passwords (which are addressed below) and private/public key pairs.
• FMT_MTD.1(d) - Only an authorized administrator can initially assign a password to a user
account. Subsequently, both an authorized administrator and the user corresponding to the
password can change a password.
• FMT_MTD.1(e) - Only an authorized administrator can change the duration of lockouts.
• FMT_MTD.1(f) - Only an authorized administrator can change the minimum password length.
• FMT_MTD.1(h) - Only an authorized administrator can manage disk quotas and define actions to
take when disk quotas are exceeded.
• FMT_MTD.1(l) - Only an authorized administrator can create, change_default, query, modify,
delete, and clear TSF data that is not considered audit records, user security attributes,
authentication data an critical cryptographic security parameters (such as IPSec and EFS policy).
• FMT_MTD.1(m) - The TSF does not store passwords in clear text and does not provide any
interfaces to read passwords.
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• FMT_MTD.1(n) - The TSF allows only the authorized administrator to change the password
complexity requirements.
• FMT_MTD.1(o) – The TSF allows a user to trigger the generation of a private/public key pair for
their own account an authorized administrator may trigger the generation of a private/public key
for any account.
• FMT_MTD.2 - Only an authorized administrator can specify and modify the maximum amount of
failed logon attempts that may occur before the account is locked out.
• FMT_REV.1(a) - Only an authorized administrator can remove security attributes from users and
group accounts. A procedure is described in the Administrator Guide that will instruct an
authorized administrator on how to immediately remove security attributes from accounts.
• FMT_SAE.1 - Only an authorized administrator can set account policy parameters, including the
maximum allowable password age before the account will be unable to logon.
• FMT_SMF.1 - The TSF provides the administrator with the capability to modify the time and
define the following policies: Audit Policy, Account Policy, Account Database Policy, User
Rights Policy, Domain Policy, Group Policy, IPSec Policy, EFS Policy, Disk Quota Policy, DAC
Policy, and the File Encryption Key Policy. Specifically, the TSF provides the administrator with
the capability to perform the following:
o DAC Policy
• modify access control attributes associated with a named object
o File Encryption Key Policy
• delete encryption policy attributes associated with a file
o Audit Policy
• enable, disable, modify the behavior of the audit function and clear the audit
trail
• modify the set of events to be audited
• read the audited events
• modify the audit log size
o IPSec Policy
• determine and modify the behavior of the function that protects data during
transmission between parts of the TOE
o Account Policy
• modify the behavior of the locked user session function
• modify the duration the user account is disabled after the unsuccessful
authentication attempts threshold is exceeded
• modify the minimum allowable password length
• modify the advisory warning message displayed before establishment of a user
session
• modify the password complexity restriction
• modify the unsuccessful authentication attempts threshold
o Account Database Policy
• initialize and modify user security attributes
o Disk Quota Policy
• modify the quota settings on NTFS volumes
• FMT_SMR.1 - The TOE supports the definition of an authorized administrator through the
association of specific privileges and group memberships with user accounts. As described in the
User Data Protection section, users are generally allowed to control the security attributes of
objects depending upon the access that they have to those objects. Users can also modify their
own authentication data (e.g., passwords) by providing their old password for authorization.
Additionally, upon the creation of an object, the user creating the object (object creator) can define
initial values for its security attributes that override the default values (e.g. DACL).
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6.1.6 TSF Protection Function
The TSF Protection provides:
• System Integrity;
• Internal TSF Transfer Protection;
• TSF Data Replication Consistency;
• Reference Mediation;
• Domain Separation;
• Abstract Machine Testing; and,
• Time Service.
6.1.6.1 System Integrity
The hardware platform included in the TOE is tested to ensure the security functions are supported. The
tests are directed at determining correct operation of the central hardware components, such as the
motherboard, as well as the set of attached peripheral devices, such as memory, disks, video, I/O ports, etc.
Specifically, these test are designed to ensure that the features most directly relied upon to support the
security functions are operating correctly (i.e., interrupt handling, memory management, task management,
privileged instructions).
6.1.6.2 Internal TOE Protection
The TOE protects against unauthorized disclosure and modification of data when it is transferred between
physically separated parts of the TOE using a suite of Internet standard protocols including IPSec and
ISAKMP. IPSec can be used to secure traffic using IP addresses or port number between two computers.
IPSec does not apply to broadcast or multicast traffic. IPSec services are configurable on the system to
allow for a variety of security services including data origin authentication, message integrity, and data
confidentiality. The TOE implements IPSec with a set of kernel subsystems and user-mode trusted servers.
IPSec allows for the application of a set of security services to be applied to IP data based on predefined
IPSec policies. The TOE stores IPSec and related key exchange protocol (ISAKMP/Oakley) policies in the
DS. At system initialization, these policies are retrieved and stored in the system registry and passed to the
IPSec network driver. The TSF monitors for policy updates and processes these as well, by updating the
system registry and updating the policy entries in the network driver as appropriate (modify, add, and
delete). IPSec policies specify the functions that IPSec must perform for a given outbound or inbound
packet. IPSec policies identify the local host algorithms and associated attributes, mode of communication
(transport is the only mode included in the evaluation configuration), and a list of filters to be applied to IP
packet traffic. Filters are used to associate inbound and outbound packets with a specific IPSec policy.
They specify the source and destination IP addresses, ports, and protocol.
IPSec uses the ESP to provide data confidentiality for IP packets. ESP performs encryption using the DES
CBC algorithm and 3DES CBC. In addition to ESP, the TSF implements IP AH. AH provides integrity,
authentication and anti-replay. AH uses a hashing algorithm, such as SHA-1, to compute a keyed message
hash for each IP packet.
Keys are exchanged between computers within the TOE before secured data can be exchanged by the
establishment of a security agreement between the two computers. In this security agreement, called a
Security Association (SA), both agree on how to exchange and protect information. To build this agreement
between the two computers, the Internet Engineering Task Force (IETF) has established a standard method
of security association and key exchange resolution named IKE which is applied in the TOE. A SA is the
combination of a negotiated key, security protocol, and Security Parameters Index (SPI), which together
define the security used to protect the communication from sender to receiver. The SPI is a unique,
identifying value in the SA that is used to distinguish among multiple SAs that exist at the receiving
computer.
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In order to ensure successful and secure communication, IKE performs a two-phase operation.
Confidentiality and authentication are ensured during each phase by the use of encryption and
authentication algorithms that are agreed upon by the two computers during security negotiations.
Phase 1 (Main Mode SA) Key Negotiation: During the first phase, the two computers establish a secure,
authenticated channel. This is called the Phase I or main mode SA. IKE automatically provides necessary
identity protection during this exchange.
• Policy Negotiation: To negotiate a policy the following four mandatory parameters are negotiated
as part of the main mode SA:
o The encryption algorithm (DES or 3DES) ;
o The integrity algorithm (MD5 or SHA1);
o The DH group to be used for the base keying material: Group 1 (768 bits of keying
material) Group 2 (1,024 bits), or Group 2048 (2,048 bits)
o The authentication method (Kerberos V5, certificate, or preshared key
authentication)
o If certificates or preshared keys are used for authentication, the computer identity is
protected. If Kerberos V5 authentication is used, the computer identity is
unencrypted until encryption of the entire identity payload takes place during
authentication.
• DH exchange (of public values) - Only the base information required by the DH key
determination algorithm to generate the shared, secret key is exchanged. After this exchange, the
IKE service on each computer generates the master key that is used to protect authentication.
• Authentication: To prevent a successful man-in-the-middle attack, the computers attempt to
authenticate the DH exchange. Without successful authentication, communication will not
proceed.
Phase II (Quick Mode SA) Key Negotiation: In this phase, SAs are negotiated on behalf of the IPSec
driver. The following are the steps that comprise a quick mode negotiation.
• Policy negotiation occurs. The IPSec computers exchange the following requirements for
securing the data transfer:
o The IPSec protocol (AH or ESP)
o The hash algorithm for integrity and authentication (MD5 or SHA1)
o The algorithm for encryption, if requested (3DES or DES)
• A common agreement is reached, and two SAs are established. One SA is for inbound
communication and the other is for outbound communication.
The IPSec management functions allow an authorized administrator to define the IPSec Policy including
whether and how (i.e., protocols and ports to be protected, outbound and/or inbound traffic, with what
cryptographic algorithms) IPSec will be used to protect traffic among distributed TSFs.
The evaluated configurations support the use of Kerberos and the use of Public key certificate for machine
authentication in the IKE processing. IKE processing includes the validation of the peer’s certificate
(including path validation) and signature payload verification.
The IPSec policy MMC snapin allows an administrator to select the authentication method based on public
key certificate. To use a public key certificate for authentication services the CA associated with the public
key certificate and the associated root CA can be chosen. IKE processing maps a computer certificate to a
computer account in an AD domain or forest, and then retrieves an access token, which includes the list of
user rights assigned to the computer. An administrator can restrict access by configuring Group Policy
security settings and assigning either the Access this computer from the network user right or the Deny
access to this computer from the network user right to individual or multiple computers as needed.
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The IKE processing also processes ISAKMP payload messages to allow IKE processing to obtain each
other’s public key value.
For outbound IP traffic, the processing occurs as follows:
• The IP stack calls into the IPSec module to apply security action (e.g. encrypt) to the packet based
on filters defined in policy.
• If this is the first packet processed for the specified source/destination pair, a set of security
parameters are retrieved and/or generated via the Internet standard based key management
protocol (ISAKMP). The parameters include the security context (used to establish common keys
with the destination machine and enforce particular policy variations), generated keys, and others,
such as the specific algorithm, which are mapped to a structure known as a SA.
• IPSec action is performed (encrypt, AH, etc.).
For inbound IP traffic, the processing occurs as follows:
• The IP stack calls the IPSec module to perform security action (decrypt, authenticate).
• The IPSec module processes the next header to determine what, if any, security service has been
applied (e.g., ESP, AH).
• If a security service has been applied, then the IPSec module retrieves the appropriate parameters
via the SA to process the packet.
• The packet is processed by obtaining the appropriate algorithm to process the security action
(decrypt, verify signature (ESP integrity and AH integrity)) and removes security specific headers.
Note that ESP integrity and encryption can only be chosen together.
IPSec policies and filters may be configured to reject the packet or audit the event if the results of a service
applied to a packet challenges the integrity of the packet (modification, insertion of data, replay of data).
6.1.6.3 TSF Data Replication Consistency
In general, directory data reside in more than one place on the network. They also need to be equally
useful to all users. Through replication, the directory service maintains replicas of directory data on
multiple DCs, ensuring directory availability and performance for all users. AD uses a multi-master
replication model, allowing authorized users to make directory changes at any DC, not just at a designated
primary DC. Any DC within a forest potentially could be a replication partner of another. Replication
partners are determined by a replication topology. A replication topology is a set of AD connections by
which DCs in a forest communicate over the network to synchronize the directory partition replicas that
they have in common.
The replication topology determines the replication partnerships between source and destination DCs. As a
replication source, the DC must determine the replication partners it must notify when changes occur. As a
replication destination, the domain controller participates in replication either by responding to notification
of changes from a source, or by requesting changes to initiate replication when it starts up or in response to
a schedule.
The KCC) is an element of AD that creates the replication topology. It creates connection objects on
destination DCs that represent the inbound connection from the replication source DC. For each source DC
that is represented by an inbound connection object, the KCC writes information to the “repsFrom”
attribute of the directory partition object for each directory partition that the destination DC has in common
with the source DC. This information is local to the destination DC and is not replicated.
A source DC keeps track of its replication partners that pull changes from it and uses the information to
locate partners for change notification. This information is not provided by the KCC, but rather by the
source DC itself during a replication cycle. The first time a DC receives a request for changes from a new
destination, the source creates an entry for the destination in the “repsTo” attribute on the respective
directory partition object.
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Whenever the source has changes, it sends a notification to all replication partners that are identified in the
“repsTo” value for the respective directory partition. Like the “repsFrom” data, this information is stored
locally on the DC and is not replicated. When updates occur, the source DC checks the “repsTo” attribute
to determine the identities of its destination replication partners. The source DC notifies them one by one
that changes are available.
The AD service allows for specific data to be replicated within the TOE. The AD namespace includes a
domain tree structure and a forest structure to facilitate the management of large size installations.
Additionally, the AD includes the Global Catalog (GC), which is a partial index of select objects in the
domain tree, combined with a search engine. The GC returns the location of an object based on an object
attribute provided by the user.
A forest is a set of one or more trees that do not form a contiguous namespace. All trees in a forest share a
common schema, configuration, and GC. All trees in a forest trust each other through transitive,
hierarchical Kerberos trust relationships. Unlike trees, a forest does not need a distinct name. A forest exists
as a set of cross-reference objects and Kerberos trust relationships known to the member trees. Trees in a
forest form a hierarchy for the purposes of Kerberos trust; the tree name at the root of the trust tree can be
used to refer to a given forest.
A tree is a set of one or more Windows 2003/XP domains sharing a common schema, configuration, and
GC, joined together to form a contiguous namespace. All domains in a given tree trust each other through
transitive hierarchical Kerberos trust relationships. A larger tree can be constructed by joining additional
domains as children to form a larger contiguous namespace.
A GC Server is a DC that stores specific information about all objects in the forest. The GC stores a
replica of every directory partition in the forest: It stores full replicas of the schema and configuration
directory partitions, a full replica of the domain directory partition for which the DC is authoritative, and
partial replicas of all other domain directory partitions in the forest. When an “attributeSchema” object has
the “isMemberOfPartialAttributeSet” attribute set to “TRUE,” the attribute is replicated from the domain
directory partition to the corresponding directory partition replicas on all authoritative DCs and also to all
GC Servers.
Enterprises can be a single-tree or a multi-tree. Naming within a given tree is always contiguous.
There are two types of TSF data replicated consistently throughout the TOE. They consist of Group Policy
Objects (GPOs) and DS data. GPOs are used to define configurations for groups of users and computers.
GPOs store Group Policy information in two locations: a Group Policy Container (GPC) and a Group
Policy Template (GPT). A GPC is a DS container that stores GPO properties that have settings in the GPO.
As a DS Container the Group Policy Container is replicated throughout the domain with the rest of the DS
data.
A GPT is a folder structure that stores Administrative Template-based policies, security settings, and
applications available for Software Installation, and script files. When you add, remove, or modify the
contents of the SYSVOL folder on a DC, those changes are replicated to the SYSVOL folders on all other
DCs in the domain. SYSVOL content uses the same replication schedule as the DS for inter-site
replication.
Along with the GPO, all DCs contain three types of DS data: domain, schema, and configuration. In the
case of the GC server a forth category consisting of a partial replica of domain data for all domains is
added. Each type of data is separated into distinct directory partitions that form the basic units of
replication for the DS. These partitions are as follows:
• Domain partition: all objects in the directory for a given domain, replicated to every domain
controller in that domain, but not beyond its domain.
• Schema partition: all object types (w/attributes) that can be created in AD, common to all
domains in the domain tree or enterprise, and replicated to all DCs in the enterprise.
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• Configuration partition: replication topology and related metadata, common to all domains in
the domain tree or enterprise, replicated to all DCs in the enterprise.
GC server also contains:
• Domain data (partial replica) for all forest domains: a partial replica of the domain directory
partition for all other domains in the enterprise, contains a subset of the properties for all objects in
all domains in the enterprise. (Is read-only)
The DS is a multi-master enabled database. This means that changes occur at any DC in the enterprise.
This introduces the possibility of conflicts that can potentially lead to problems once the data is replicated
to the rest of the enterprise. The DS addresses these potential conflicts in two ways.
One way, is by having a conflict resolution algorithm handle discrepancies in values by resolving to the DC
to which changes were written last (that is, "the last writer wins"), while discarding the changes in all other
DC’s.
For specific instances when conflicts are too difficult to resolve using the "last writer wins" approach, the
DS updates certain objects in a single-master fashion. In a single-master model, only one DC in the entire
directory is allowed to process updates. For management flexibility, this model is extended to include
multiple roles, and the ability to transfer roles to any DC in the enterprise. This extended model is referred
to as Flexible Single Master Operation (FSMO). Currently in Windows 2003/XP there are five FSMO
roles:
• Schema master - the single DC responsible for performing updates to the directory schema.
• Domain naming master - the DC responsible for making changes to the forest-wide domain name
space of the directory. It can also add or remove cross-references to domains in external
directories.
• Relative Identifier (RID) master - the single DC responsible for processing RID Pool requests for
certain unique security identifiers from all DCs within a given domain. Users, computers, and
groups that are stored in AD are assigned SIDs, which are unique alphanumeric numeric strings
that map to a single object in the domain. SIDS consist of a domain-wide SID concatenated with a
monotonically-increasing RID that is allocated by each DC in the domain. Each DC is assigned a
pool of RIDs.
• Primary DC (PDC) emulator - a Windows 2003/XP DC that advertises itself as the PDC to
member servers and domain controllers.
• Infrastructure daemon - the DC responsible for updating an object's SID and distinguished name in
a cross-domain object reference.
The first two FSMO roles must be unique within a forest. The last three must be unique within each
domain within a forest.
DS replication is not based on time, but on Update Sequence Numbers (USNs). Each DC holds a table
containing entries for its own USN and the USNs of its replication partners. During replication, the DC
compares the last known USN of its replication partner (saved in the table), with the current USN that the
replication partner provides. If there have been recent changes (that is, if the replication partner provides a
higher USN), the data store requests all changes from the replication partner (this is known as pull
replication). After receiving the data, the directory store sets the USN to the same value as that of the
replication partner.
If properties on the same object are changed on different DCs, the DCs reconcile the data by property
version number, by time stamp if the version numbers are the same, or by comparing the buffer size of a
binary memory copy operation performed on each property. If the two buffers are equal, the attributes are
the same, one can be discarded.
Note that all reconciliation operations are logged, and authorized administrators have the option of
recovering and using the rejected values.
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6.1.6.4 Reference Mediation
Access to objects on the system is generally predicated on obtaining a handle to the object. Handles are
usually obtained as the result of opening or creating an object. In these cases, the TSF ensure that access
validation occurs before creating a new handle for a subject. Handles may also be inherited from a parent
process or directly copied (with appropriate access) from another subject. In all cases, before creating a
handle, the TSF ensures that that the security policy allows the subject to have the handle (and thereby
access) to the object. A handle always has a granted access mask associated with it. This mask indicates
what access rights to the object the subject was granted to the object according to the security policy. On
every attempt to use a handle, the TSF ensure that the action requested is allowed according to the handle’s
granted access mask. In a few cases, such as with DS, objects are directly accessed by name without the
intermediate step of obtaining a handle first. In these cases, the TSF checks the request against the access
policy directly (rather than checking for a granted access mask).
6.1.6.5 Domain Separation
The TSF provides a security domain for its own protection and provides process isolation. The security
domains used within and by the TSF consists of the following:
• Hardware;
• Kernel-mode software;
• Trusted user-mode processes; and,
• User-mode Administrative tools process.
The TSF hardware is managed by the TSF kernel-mode software and is not modifiable by untrusted
subjects. The TSF kernel-mode software is protected from modification by hardware execution state and
memory protection. The TSF hardware provides a software interrupt instruction that causes a state change
from user mode to kernel mode. The TSF kernel-mode software is responsible for processing all interrupts,
and determines whether or not a valid kernel-mode call is being made. In addition, the TSF memory
protection features ensure that attempts to access kernel-mode memory from user mode results in a
hardware exception, ensuring that kernel-mode memory cannot be directly accessed by software not
executing in the kernel mode.
The TSF provides process isolation for all user-mode processes through private virtual address spaces
(private per process page tables), execution context (registers, program counters, etc.), and security context
(handle table and token). The data structures defining process address space, execution context and
security context are all stored in protected kernel-mode memory. All security relevant privileges are
considered to enforce TSF Protection.
User-mode administrator tools execute with the security context of the process running on behalf of the
authorized administrator. Administrator processes are protected like other user-mode processes, by process
isolation.
Like TSF processes, user processes also are provided a private address space and process context, and
therefore are protected from each other.
The evaluated configuration is restricted to devices that do not allow for the loading of executable data.
6.1.6.6 Abstract Machine Testing
During the evaluation of the TOE, tests were executed to demonstrate the hardware mechanisms included
in the TOE perform correctly to support the SFs.
6.1.6.7 Time Service
Each hardware platform supported by the TOE includes a real-time clock. The real-time clock is a device
that can only be accessed using functions provided by the TSF. Specifically, the TSF provides functions
that allow users, including the TSF itself, to query and set the clock, as well as functions to synchronize
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clocks within a domain. The ability to query the clock is unrestricted, while the ability to set the clock
requires a privilege dedicated to that purpose. This privilege is only granted to authorized administrators to
protect the integrity of the time service.
Each clock may be subject to some amount of error (e.g., “drift”), and management of that error is a topic
in the administrator guidance. Additionally, since it may be important to have temporal correspondence
across systems within a single domain, the TSF includes a domain clock synchronization function. One of
the DCs is designated to provide the reference time. All clients (including other DCs) within the domain
periodically contact the reference DC to adjust their local clock. The time between synchronization actions
depends on the deviation between the local and reference clock (i.e., the more deviation, the sooner the next
synchronization will be scheduled).
SFR Mapping:
The TSF Protection function satisfies the following SFRs:
• TRANSFER_PROT_EX.1 – The TSF provides internet-based standard protocols for IP security
and Key management. IPSec with AH and ESP implementations protect transferred TSF data
from disclosure and modification. AH provides data signature functionality to protect against
modification; ESP provides encryption to protect against disclosure as well as modification.
• FPT_TRC_EX.1 – The TSF provides consistency of replicated GPOs and DS data by
implementing a well-defined TSF replication algorithm.
• TRANSFER_PROT_EX.3 - The TSF implements IP AH. AH provides integrity, authentication
and anti-replay. AH uses a hashing algorithm, such as SHA-1, to compute a keyed message hash
for each IP packet. Additionally, IPSec policies and filters may be configured to reject the packet
or audit the event if the results of a service applied to a packet challenges the integrity of the
packet (modification, insertion of data, replay of data).
• FPT_RPL_EX.1 – The TSF implements IP AH. AH provides integrity, authentication and anti-
replay. AH uses a hashing algorithm, such as SHA-1, to compute a keyed message hash for each
IP packet. The TSF may reject the packet or audit the event if the IPSec service results challenge
the integrity of the packet.
• FPT_RVM.1 – The TSF provides reference mediation of all the objects covered by the DAC
policy. Reference mediation is primarily enforced through handle enforcement. Once an access
policy decision is made by the TSF, this policy is enforced via the handle enforcement checks
applied every time a handle is used. In this manner, access to objects is assured to be consistent
with the security policy even though the security policy is not checked on all use of an object.
Some objects are directly accessed by name without obtaining a handle first. In these cases, the
TSF checks the request against the access policy directly.
• FPT_SEP.1 – The TSF provides a security domain to protect itself through hardware, the
processor kernel mode, controlled state-transitions, process isolation, and memory protection.
Processes are managed by the TSF kernel-mode software and have private address spaces and
process context.
• FPT_STM.1, FMT_MTD.1(g) - The real-time clock in each Windows 2003/XP platform, in
conjunction with periodic domain synchronization and restricting the ability to change the clock to
authorized administrators, provides a reliable source of time stamps for the TSF.
• FPT_AMT.1 - Tests were available during the evaluation that demonstrated the correct operation
of the hardware mechanisms included in the TOE.
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6.1.7 Resource Utilization Function
The TSF provides a function that can limit the amount of disk space that can be used by an identified user
on a specific NTFS-formatted disk volume. Each NTFS volume has a set of properties, including a
description of applicable disk quotas that can be changed only by an authorized administrator. These
properties allow an authorized administrator to enable or disable quota management on the selected
volume, specify default and specific quota thresholds and warning levels, and select the action to take when
quotas are exceeded.
The disk space quota threshold and warning level properties can be specified per user account, each of the
other properties apply to all users of the volume. Any disk space that is used is associated with the account
that “owns” the object, based on the owner property of the object. When quota management is enabled, the
first time that an object is created on a volume for a given account, a quota record will be created for that
account (if it hasn’t already been explicitly created). This quota record is initially assigned the default disk
space and warning levels and is used subsequently to manage that account’s use of disk space. Whenever a
given account causes more disk space to be allocated, the quota record for that account is modified and the
thresholds are checked. If the warning level or disk space quota is exceeded, the administrator-selected
action is taken.
SFR Mapping:
The Resource Utilization function satisfies the following SFR:
• FRU_RSA.1 - The quota feature of NTFS provides an authorized administrator the ability to
effectively limit the total amount of disk space that a specified user can use on a specific NTFS
disk volume.
6.1.8 Session Locking Function
The TSF provides the ability for a user to lock their interactive logon session immediately or after a user-
defined time interval. Additionally, the TSF provides the ability for the administrator to specify a defined
interval of inactivity after which the session will be locked. Once a user is logged on, they can invoke the
session locking function by using the same key sequence used to invoke the trusted path (Ctrl+Alt+Del).
This key sequence is captured by the TSF and cannot be intercepted or altered by any user process. The
result of that key sequence is a menu of functions, one of which is to lock the workstation.
Alternately, a user can invoke a function to set screen saver properties for their interactive logon session.
The user can select a program to use as a screen saver, the amount of inactivity before the screen saver will
start, and whether a password will be required to resume the user’s session (effectively making the screen
saver a session lock). The TSF constantly monitors the mouse and keyboard for activity and if they are
inactive for the user-specified time period, the TSF will lock the workstation (assuming the user configured
it to lock the session) and execute the screen saver program (assuming the user selected a screen saver
program). Note that if the workstation was not locked manually, the TSF will start the screen saver
program if and when the inactivity period is exceeded.
When the workstation is locked manually, or when there is mouse or keyboard activity after the screen
saver program has started (assuming a password is required, otherwise the session immediately resumes),
the TSF will display the user’s default background and a dialog indicating that the user must use the
Ctrl+Alt+Del sequence to re-authenticate.
Regardless of how the workstation was locked, the user must use the Ctrl+Alt+Del function that will result
in an authentication dialog. The user must then re-enter their password, which has been cached by the local
system from the initial logon, after which the user’s display will be restored and the session will resume.
Alternately, an authorized administrator can enter their administrator identity and password in the
authentication dialog. If the TSF can successfully authenticate the administrator, the user will be logged
off, rather than returning to the user’s session, leaving the workstation ready to authenticate a new user.
The web server (IIS) configuration values (in the metabase) includes a value that defines the time in
seconds that IIS waits before it disconnects an inactive session. Only an authorized administrator can
define this value.
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SFR Mapping:
The Session Locking function satisfies the following SFR:
• FTA_SSL.1 - Windows 2003/XP allows users and the authorized administrator to define an
inactivity interval, after which their session will be locked. The locked display has only the user’s
default background, instructions to unlock, and optionally the output from a user-selected screen
saver program. The user must re-enter their password to unlock the workstation.
• FTA_SSL.2 - Windows 2003/XP also allows a user to directly invoke the session lock as
described above.
• FTA_SSL.3 - IIS disconnects an inactive session after the authorized administrator defined time
has elapsed.
• FMT_MOF.1(c) - Only the authorized user and an authorized administrator can unlock a locked
session.
• FMT_MTD.1(k) - The TSF allows an authorized user to define and modify the time interval of
inactivity before the session associated with that user will be locked.
6.2 TOE Security Assurance Measures
The following assurance measures are applied to Windows 2003/XP to satisfy the CC EAL4 assurance
requirements:
• Process Assurance;
• Delivery and Guidance;
• Design Documentation;
• Tests; and,
• Vulnerability Assessment.
6.2.1 Process Assurance
6.2.1.1 Configuration Management
The Configuration Management (CM) measures applied by Microsoft ensure that Configuration Items
(CIs) are uniquely identified, and that documented procedures are used to control and track changes that are
made to the TOE. Microsoft ensures changes to the implementation representation are controlled with the
support of automated tools and that TOE associated CI modifications are properly controlled. Microsoft
performs CM on the TOE implementation representation, design, tests, user and administrator guidance, the
CM documentation, lifecycle documentation, vulnerability analysis, and security flaws. Microsoft
documents and follows an acceptance plan for how CIs are approved. Microsoft ensures that the TOE is
uniquely referenced and labeled with its reference. Microsoft uses, and documents how they use, automated
tools to support TOE generation. These activities are documented in the Windows 2003/XP CM Manual.
Microsoft applies procedures to accept and act upon reported security flaws and requests to correct security
flaws. Microsoft designates specific points of contact for user reports and security related inquiries. The
procedures are documented and describe how security flaws are tracked, that for each security flaw a
description and status of the correction of the security flaw is provided, that corrective actions are identified
for each security flaw, how flaw information is provided (corrective actions and guidance on corrective
actions). The procedures ensure that all reported flaws are corrected and that corrections are issues to TOE
users, and that the flaws do not introduce new flaws. The procedures also ensure a timely response to
reported flaws and the automatic distribution of security flaw reports to the affected users. These activities
are documented in the Windows 2003/XP CM Manual.
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6.2.1.2 Life-Cycle Support
Microsoft ensures the adequacy of the procedures used during the development and maintenance of the
TOE through the use of a comprehensive life-cycle management plan. Microsoft includes security controls
on the development environment that are adequate to provide the confidentiality and integrity of the TOE
design and implementation that is necessary to ensure that secure operation of the TOE. Microsoft
achieves this through the use of a documented model of the TOE life cycle and well-defined development
tools that yield consistent and predictable results. Additionally, Microsoft documents the implementation
dependent options and the meaning of all statements used in the implementation. This information and
these procedures are documented in the Windows 2003/XP Life Cycle Management Plan.
SAM Mapping:
The Process assurance measure satisfies the following SARs:
• ACM_AUT.1;
• ACM_CAP.4;
• ACM_SCP.2;
• ALC_DVS.1;
• ALC_FLR.3;
• ALC_LCD.1; and,
• ALC_TAT.1.
6.2.2 Delivery and Guidance
Microsoft provides delivery documentation and procedures to identify the TOE, allow detection of
unauthorized modifications of the TOE and installation and generation instructions at start-up.
Microsoft’s delivery procedures describe the electronic and non-electronic procedures to be used to detect
modification to the TOE. The installation and generation procedures describe the steps necessary to place
Windows 2003/XP into the evaluated configuration. These procedures are documented in the Windows
2003/XP Delivery and Operation Procedures.
Microsoft provides administrator and user guidance on how to perform the TOE security functions and
warnings to authorized administrators and users about actions that can compromise the security of the TOE.
Administrator and User guidance is documented in the Windows 2003/XP Administrator Guide
SAM Mapping:
The Delivery and Guidance assurance measure satisfies the following SARs:
• ADO_DEL.2;
• ADO_IGS.1;
• AGD_ADM.1; and,
• AGD_USR.1.
6.2.3 Design Documentation
The Windows 2003/XP “Security Design Documentation” is an extensive set of documents describing all
aspects of the TOE security design, architecture, mechanisms, and interfaces. The Security Design
Documentation consists of a large number of related documents. These documents are:
• Introduction: Describes the form, content, and organization of the System Design
documentation.
• Security Policy: Provides an informal description and model of the access control policy for the
system.
• System Decomposition Summary: This document describes the decomposition of the system and
identifies the subsystems in terms of components.
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• Component Descriptions (several): There are several of these documents; one each for the system
components defined in the Decomposition Summary document. Each document describes the
component and identifies the modules within the component in terms of subcomponents.
• Subcomponent Designs (many): There are many of these documents; one each for the
subcomponents defined in the several Component Description documents. Each subcomponent
design document presents the following:
• Summary identifying the subcomponent’s name, implementation location, and execution
environment.
• A description of the design of the subcomponent and a summary of its security functions
and mechanisms.
• A specification of each TSF interface implemented by the subcomponent. The following is
provided for each TSF interface: purpose, parameters, security checks, and security effects.
• A correspondence matrix that identifies for each TSF interface, which security functions
the interface’s checks and effects help implement. The matrix includes a rationale for this
correspondence.
• A test family summary that describes test cases implemented in the security tests for each
API.
SAM Mapping:
The Design Documentation assurance measure satisfies the following SARs:
• ADV_FSP.2 - The sum of all TSF interface specifications from each of the Subcomponent Design
documents fully describes all interfaces to the TSF.
• ADV_HLD.2 - The system components satisfy the requirement for decomposing the TOE into
subsystems. Each component corresponds to a subsystem. The Component Decomposition
Summary document and all of the Component Description documents fully describe each
component.
• ADV_IMP.1 - The source code used to generate the TOE satisfies this requirement.
• ADV_LLD.1 - The subcomponents, which are a further decomposition of the components, satisfy
the requirement to decompose each subsystem into module. Each subcomponent is a module.
The design descriptions and TSF interface specifications from each of the Subcomponent Design
documents fully describes each subcomponent.
• ADV_SPM.1 - The Security Policy document fully presents an informal security model for the
TOE.
• ADV_RCR.1 - Most of the correspondence between the various design documentation is implicit
to the way in which the documentation is structured. The way that this correspondence is evident
within the design documentation is:
o ST-TSS to FSP - This is the principal explicit correspondence provided within the
Security Design documentation. This correspondence is captured in all the TSF interface
correspondence matrices from each of the Subcomponent Design documents.
o FSP to HLD - Since the FSP is presented on a per-subcomponent basis, this
correspondence is implicit since each Component Description document explicitly
identifies which subcomponents (and hence which TSF interfaces) are contained within
each Component.
o HLD to LLD - As above, the Component Description documents explicitly identify the
association between components and subcomponents.
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o LLD to IMP - The summary information for each Subcomponent Design document
identifies the location within the TOE source code tree where that subcomponent
implementation is contained.
6.2.4 Tests
The TOE test documentation has been created to demonstrate appropriate breadth and depth of coverage.
The test documentation describes how all security relevant APIs are tested, specifically describing all test
cases and variations necessary to demonstrate that all security checks and effects related to the API are
correctly implemented. The test documentation provides correspondence between the security-relevant
APIs and applicable tests and test variations. The test documentation describes the actual tests, procedures
to successfully execute the tests, and expected results of the tests. The test documentation also includes
results in the form of logs resulting from completely exercising all of the security test procedures.
The test documentation consists of four parts: a test plan (“Windows 2003/XP Security Test Plan”), test
families, test suites, and test results.
• The test plan describes the form, content, and organization of test documentation. It also
summarizes each of the test suites and includes high-level procedures for exercising the tests.
• The test families described the set of security-relevant test cases on a per-subcomponent basis.
These descriptions include references to the corresponding test suites that implement those test
cases. Note that every test case corresponds to at least one test suite.
• The test suites include both documentation and an actual implemented test (if applicable). Test
suites are organized around tests that share a common theme, such as handle enforcement,
privilege enforcement, auditing, etc. The test suite documentation describes the purpose and
“theme” for the test suite, the set of test variations that are exercised for each of its corresponding
test cases, procedures to successfully exercise the test suite, and the expected results. The test
suite documentation also implicitly includes the actual tests that provide specific details regarding
test variations and expected results.
• The test results are essentially the set of logs resulting from completely exercising all of the
security test procedures. These logs include summaries of the results in terms of total test
variations, counts of variations that passed, failed, or blocked (i.e., were unable to run), and
detailed information about each variation that was attempted, including more detailed results and
expected results.
SAM Mapping:
The Tests assurance measure satisfies the following SARs:
• ATE_COV.2 - The set of test families describe the test cases for each of the security-relevant
interfaces of the TOE. The test families indicate which test suites (and therefore which tests) are
used to satisfy the test cases identified for each interface.
• ATE_DPT.1 - The test suites include test variation descriptions that demonstrate that all of the
corresponding test cases (and therefore security checks and effects) are appropriately exercised.
• ATE_FUN.1 - Together, the test documents describe the security functions to be tested, how to
successfully test all of them, the expected results, and the actual test results after exercising all of
the tests.
• ATE_IND.2 - The TOE and test suites will be available for independent testing.
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6.2.5 Vulnerability Assessment
6.2.5.1 Evaluation of Misuse
The administrator guidance documentation describes the operation of Windows 2003/XP and how to
maintain a secure state. The administrator guide also describes all operating assumptions and security
requirements outside the scope of control of the TOE. The administrator guidance documentation has been
developed to serve as a complete, clear, consistent, and reasonable administrator reference. This
administrator guidance documentation is documented in:
• The Windows 2003/XP Administrator Guide
The misuse analysis shows that the administrative guidance completely addresses managing the TOE in a
secure configuration.
• The Windows 2003/XP Vulnerability Analysis
6.2.5.2 Strength of TSFs and Vulnerability Analysis
The strength of TSF analysis demonstrates that the SOF claims made in the ST for all probabilistic or
permutation mechanisms are correct. Microsoft performs a systematic vulnerability analyses of the TOE to
identify weaknesses that can be exploited in the TOE. Microsoft documents the status of identified
vulnerabilities and demonstrates that for each vulnerability, the vulnerability cannot be exploited in the
intended environment and that the TOE is highly resistant to obvious penetration attacks. The SOF and
vulnerability analysis are documented in:
• The Windows 2003/XP Vulnerability Analysis
SAM Mapping:
The Vulnerability Assessment assurance measure satisfies the following SARs:
• AVA_MSU.2;
• AVA_SOF.1; and,
• AVA_VLA.2.
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7. Protection Profile Claims
This section provides the PP conformance claim statements and supporting justifications of conformance
with the CAPP.
7.1 CAPP Conformance Claim Reference
The TOE conforms to the Controlled Access Protection Profile (CAPP), Version 1.d, National Security
Agency, 8 October 1999.
7.1.1 CAPP Requirements in ST
The CAPP requirements included in this ST are identified in Section 5. For each CAPP requirement
included in this ST, Section 5 also indicates what operation, if any has been performed. The specific
operations that were performed are highlighted in Section 5 as part of the requirement statements.
7.1.2 CAPP Differences and Enhancements
The following list in Table 7-1 clearly identifies the delta between this ST and the CAPP with respect to
threats, assumptions, policies, objectives, SFRs and assurance requirements. The ST has primarily added
additional items, or in the case of assurance requirements, enhanced requirements from EAL 3, as required
in the CAPP, to EAL 4. This section categorizes the delta into differences and enhancements. Differences
are considered changes to the PP content. Enhancements are considered the addition of new items or the
replacement of an item in the CAPP with a higher hierarchical item. This section provides rationale that
each difference and enhancement complies with CAPP and does not introduce any inconsistencies.
Table 7-1 also indicates when a requirement that is included in the CAPP has changed due to an
International Interpretation, and is therefore different as presented in this ST. These requirements are
identified in Table 7-1 by the word “Interpreted” in the Modification column. Note that these requirements
are denoted in Section 5 by an italicized parenthetical following those changed requirement elements (e.g.
(per International Interpretation #51))
Table 7-1 CAPP Modifications
Category Name Modification
Threat T.AUDIT_CORRUPT Addition
Threat T.CONFIG_CORRUPT Addition
Threat T.OBJECTS_NOT_CLEAN Addition
Threat T.SPOOF Addition
Threat T.SYSACC Addition
Threat T.UNAUTH_ACCESS Addition
Threat T.UNAUTH_MODIFICATION Addition
Threat T.UNDETECTED_ACTIONS Addition
Threat T.USER_CORRUPT Addition
Threat T.ADMIN_ERROR Addition
Threat T.AUDIT_COMPROMISE Addition
Threat T.EAVESDROP Addition
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Category Name Modification
Threat T.MASQUERADE Addition
Threat T.POOR_DESIGN Addition
Threat T.POOR_IMPLEMENTATION Addition
Threat T.REPLAY Addition
Threat T.UNATTENDED_SESSION Addition
Threat T.UNIDENTIFIED_ACTIONS Addition
Threat T.ADDRESS_MASQUERADE Addition
Threat T.TCPIP_ATTACK Addition
Policy P.AUTHORIZATION Addition
Policy P.ADD_IPSEC Addition
Policy P.WARN Addition
Objective O.AUDIT_PROTECTION Addition
Objective O.PROTECT Addition
Objective O.TRUSTED_PATH Addition
Objective O.LEGAL_WARNING Addition
Objective O.LIMIT_AUTHORIZATION Addition
Objective O.ENCRYPTED_DATA Addition
Objective O.IPSEC Addition
Objective O.ASSURANCE Addition
Objective O.MEDIATE Addition
SFR FAU_GEN.1 Refinement
SFR FAU_SAR.1 Refinement
SFR FAU_STG.1 Interpreted, Refinement
SFR FAU_STG.4 Refinement
SFR FCS_COP.1(a) thru (j) Addition
SFR FCS_CKM.1(a) thru (e) Addition
SFR FCS_CKM.2 Addition
SFR FCS_CKM.4 Addition
SFR FCS_CKM_EX.1 Addition
SFR FCS_CKM_EX.2 Addition
SFR FDP_ACC.2(a) Addition
SFR FDP_ACC.2(b) Addition
SFR FDP_ACC.2(c) Addition
SFR FDP_ACF.1(a) Refinement
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Category Name Modification
SFR FDP_ACF.1(b) Addition
SFR FDP_ACF.1(c) Addition
SFR FDP_IFC.1(a) Addition
SFR FDP_IFC.1(b) Addition
SFR FDP_IFF.1(a) Addition
SFR FDP_IFF.1(b) Addition
SFR FDP_ITT.1 Addition
SFR FDP_UCT.1 Addition
SFR FDP_UIT.1 Addition
SFR FIA_AFL.1 Addition
SFR FIA_SOS.1 Refinement
SFR FIA_UAU.6 Addition
SFR FIA_USB.1_EX.1 Refinement
SFR FMT_MOF.1(a) Addition
SFR FMT_MOF.1(b) Addition
SFR FMT_MOF.1(c) Addition
SFR FMT_MOF.1(d) Addition
SFR FMT_MSA.1(b) Addition
SFR FMT_MSA.1( c) Addition
SFR FMT_MSA.1( d) Addition
SFR FMT_MSA.1(e) Addition
SFR FMT_MSA.1(f) Addition
SFR FMT_MSA_EX.2 Addition
SFR FMT_MSA.3(b) Addition
SFR FMT_MSA.3(c) Addition
SFR FMT_MSA.3(d) Addition
SFR FMT_MSA.3(e) Addition
SFR FMT_MTD.1(e) thru (o) Addition
SFR FMT_MTD.2 Addition
SFR FMT_SAE.1 Addition
SFR FMT_SMF.1 Addition
SFR FMT_SMR.3 Addition
SFR TRANSFER_PROT_EX Addition
SFR FPT_TRC_EX.1 Addition
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Category Name Modification
SFR TRANSFER_PROT_EX.3 Addition
SFR FPT_RPL_EX.1 Addition
SFR FRU_RSA.1 Addition
SFR FTA_LSA_EX.1 Addition
SFR FTA_MSC_EX.1 Addition
SFR FTA_SSL.1 Addition
SFR FTA_SSL.2 Addition
SFR FTA_SSL.3 Addition
SFR FTA_TAB.1 Addition
SFR FTA_TSE.1 Addition
SFR FTA_TRP.1 Addition
SAR ACM_AUT.1 Addition for EAL4
SAR ACM_CAP.4 Upgrade for EAL4
SAR ACM_SCP.2 Upgrade for EAL4
SAR ADO_IGS.1 Interpreted
SAR ADO_DEL2 Upgrade for EAL4
SAR ADV_FSP.2 Upgrade for EAL4
SAR ADV_IMP.1 Upgrade for EAL4
SAR ADV_LLD.1 Addition for EAL4
SAR ADV_SPM.1 Addition for EAL4
SAR ALC_FLR.3 Augment to EAL4
SAR ALC_LCD.1 Addition for EAL4
SAR ALC_TAT.1 Addition for EAL4
SAR ATE_COV.2 Addition for EAL4
SAR AVA_MSU.2 Upgrade for EAL4
7.1.2.1 Threat Enhancements
The CAPP does not identify specific threats that are to be addressed by a compliant TOE. The ST includes
specific threats to help readers understand the types of attacks that the TOE can address. These threats
apply to aspects of the TOE that are included in the CAPP as well as additional TOE features presented in
this ST.
7.1.2.2 Policy Enhancements
The ST includes three additional organizational policies from the CAPP, which the TOE addresses. One of
these policies reflects an optional policy, which the TOE can support, depending upon configuration
settings identified in Guidance Documents. The optional policy reflects the TOE ability to provide IPSec.
Since IPSEC may not be appropriate for all deployments of the TOE, it is included in the ST as an optional
policy, P.ADD_IPSEC. This TSF implementation of IPSec is discussed in the TSS, corresponds to a
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functional security requirement, which in turn supports the P.ADD_IPSEC organizational policy.
Including the IPSec policy in the ST, complements the CAPP policies.
The remaining polices reflect other areas where the TOE includes functionality that is beyond that specified
in the CAPP. The additional functionality and corresponding supported policies are fully compatible with
the CAPP.
7.1.2.3 Objective Enhancements
The additional objectives in the ST reflect additional functionality and detail that was not included in the
CAPP. These objectives generally are a result of the additional material (e.g., threats and policies) used to
characterize the environment. The Rationale, Section 8 provides traceability between objectives and
requirements.
7.1.2.4 SFR Enhancements
The additional SFRs reflect additional functionality that the TOE provides to meet the security objectives
for the environment that is characterized in the ST. The additional SFRs are compatible with the CAPP.
FDP_ACC.2(a) is included in this ST and is hierarchical to the CAPP requirements FDP_ACC.1. As
indicated in Table 7-1 six requirements in the CAPP were further refined. These requirements are
FAU_GEN.1, FAU_SAR.1, FAU_STG.1, FAU_STG.4, FDP_ACF.1(a), and FIA_SOS.1. These
refinements are described below and these requirements remain compliant with the CAPP.
• FAU_GEN.1 is refined further than the CAPP to specify the audit events that are related to SFRs
that are not included in the CAPP. The CAPP FAU_GEN.1 requirement includes the statement
that the events listed meet the basic level of audit, with the exception of FIA_UID.1’s user
identity during failures. The events listed in the FAU_GEN.1 requirement in this ST is a superset
of the events listed in the CAPP FAU_GEN.1 requirement. The additional events are related to
the additional SFRs included in this ST that are not in the CAPP, however, these additional
events are not at the basic level of audit. The refinements made in the FAU_GEN.1 requirement
in this ST are to clarify the distinction between the audit events that are included for CAPP
compliancy and those that are added beyond the CAPP and to clarify that the additional audit
events are not claimed to be at any specified level of audit.
• FAU_SAR.1 is refined to restrict the ability to view the audit records to only the authorized
administrator and to provide the authorized administrator with a tool to access the audit records.
• FAU_STG.1 is refined to make a stronger claim of protection of the audit records by requiring
that the audit records be protected from all modification, by removing the ability to perform
“authorized” modifications.
• FAU_STG.4 is refined only to allow for a more readable requirement.
• FDP_ACF.1(a) is refined further than the CAPP to add additional security attributes associated
with a subject that the DAC policy is based upon.
• FIA_SOS.1 is refined further than the CAPP to require a stronger secret than that specified in the
CAPP and also to require a delay between authentication attempts.
• FIA_USB.1_EX (which is labeled FIA_USB.1 in the CAPP but is an explicit requirement) is
refined to ensure the user identity associated with auditable events is unique and to allow for the
association of a maximum resource quota to subjects acting on behalf of users.
7.1.2.5 Security Assurance Requirement Enhancements
The ST has upgraded and added additional security assurance requirements to reflect that the assurance
measures in place for the TOE are at EAL 4 and augmented with ALC_FLR.3 (Systematic Flaw
Remediation). The ST augmented EAL 4 is an appropriate claim as discussed in the rationale section 8.x.
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The CAPP requires EAL 3. Since EAL 4 augmented is hierarchical to EAL 3, the SAR upgrades still fully
comply with the assurance requirements in the CAPP.
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8. Rationale
This section provides the rationale for completeness and consistency of the ST. The rationale addresses the
following areas:
• Security Objectives;
• Security Functional Requirements;
• Security Assurance Requirements;
• TOE Summary Specification;
• Security Functional Requirement Dependencies; and,
• Internal Consistency.
8.1 Security Objectives Rationale
This section shows that all threats, secure usage assumptions, and organizational security policies are
completely covered by security objectives. In addition, each objective counters or addresses at least one
assumption, organizational security policy, or threat. Tables 8.1 and 8.2 present the mapping of objectives
to the security environment.
8.1.1 TOE IT Security Objectives Rationale
This section provides evidence demonstrating the coverage of threats and organizational policies by the IT
security objectives. The following table shows the threats and organizational policies that each IT security
objective addresses.
Table 8-1 IT Security Objectives Rationale Mapping
IT Security Objectives Threats and Organizational Policies
O.AUTHORIZATION T.SYSACC
T.MASQUERADE
T.UNATTENDED_SESSION
P.AUTHORIZED_USERS
T.UNAUTH_ACCESS
O.DISCRETIONARY_ACCESS T.USER_CORRUPT
P.NEED_TO_KNOW
O.AUDITING T.UNDETECTED_ACTIONS
T.AUDIT_COMPROMISE
P.ACCOUNTABILITY
T.UNIDENTIFIED_ACTIONS
O.AUDIT_PROTECTION T.AUDIT_CORRUPT
T.AUDIT_COMPROMISE
O.RESIDUAL_INFORMATION P.NEED_TO_KNOW
T.OBJECTS_NOT_CLEAN
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IT Security Objectives Threats and Organizational Policies
O.MANAGE P.ACCOUNTABILITY
P.AUTHORIZED_USERS
P.NEED_TO_KNOW
T.UNIDENTIFIED_ACTIONS
O.ENFORCEMENT P.ACCOUNTABILITY
P.AUTHORIZED_USERS
P.NEED_TO_KNOW
P.ADD_IPSEC
O.PROTECT T.UNAUTH_MODIFICATION
T.CONFIG_CORRUPT
T.USER_CORRUPT
T.AUDIT_COMPROMISE
T.UNAUTH_ACCESS
O.TRUSTED_PATH T.SPOOF
T.REPLAY
O.LEGAL_WARNING P.WARN
O.LIMIT_AUTHORIZATION P.AUTHORIZATION
O.IPSEC P.ADD_IPSEC
T.EAVESDROP
T.REPLAY
O.ENCRYPTED_DATA T.USER_CORRUPT
T.UNAUTH_ACCESS
O.ASSURANCE T.ADMIN_ERROR
T.POOR_DESIGN
T.POOR_IMPLEMENTATION
T.UNATTENDED_SESSION
T.UNIDENTIFIED_ACTIONS
T.TCPIP_ATTACK
O.MEDIATE T.ADDRESS_MASQUERADE
The following objectives are sufficient to address all of the threats and organizational policies in the ST.
O.AUTHORIZATION – Ensuring that the TOE and its resources are protected from unauthorized access
counters the threats T.UNAUTH_ACCESS and T.SYSACC since the execution of these threats relies upon
unauthorized access to the TOE. T.MASQUERADE is also mitigated by this objective because it ensures
that only authorized users are allowed access to a resource. Additionally, this objective implements the
policy P.AUTHORIZED_USER by ensuring that only authorized users gain access to the TOE and its
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resources. T.UNATTENDED_SESSION is mitigated by ensuring the TOE does not allow unauthorized
access to the TOE and its resources.
O.DISCRETIONARY_ACCESS – By ensuring that authorized users can define which users can access
their resources, the threat T.USER_CORRUPT is countered because the TSF enforces the authorized users’
restrictions thus preventing users from accessing data not allowed by the user authorized to restrict access
to that data. This objective ensures that the TSF enforces the restrictions to resources defined by the
authorized users, thereby implementing the policy P.NEED_TO_KNOW.
O.AUDITING – By ensuring that the TSF record security relevant actions of users and present them to the
authorized administrator, the threat T.UNDETECTED_ACTIONS is countered because the record of
actions produced by the TSF will ensure that unauthorized actions will not go undetected.
T.AUDIT_COMPROMISE is mitigated by this objective because the objective ensures that the generation
of audit data can not be prevented by unauthorized users. This objective ensures that a record of actions is
produced and made available to the authorized administrator thereby implementing the policy
P.ACCOUNTABILITY by providing the ability to review actions of individuals on the TOE and to hold
them accountable for their actions. T.UNIDENTIFIED_ACTIONS is mitigated by ensuring the TOE
present audit data to the authorized administrator.
O.AUDIT_PROTECTION – By ensuring that the audit information is protected, the threats
T.AUDIT_CORRUPT and T.AUDIT_COMPROMISE are countered because unauthorized access will be
prevented and audit information will not be lost or tampered with by unauthorized users.
O.RESIDUAL_INFORMATION – By ensuring that information in a protected resource is not released
when the resource is recycled, the threat T.OBJECTS_NOT_CLEAN is countered because the TSF will
always remove data from resources between uses by different users. This objective supports the policy
P.NEED_TO_KNOW because it enforces the restrictions on resources defined by authorized users by
ensuring that information is not left behind in a resource that may have different restrictions placed upon it.
O.MANAGE – By ensuring that all the functions and facilities necessary to support the authorized
administrator in managing TOE security are provided, support is provided to implement the
P.ACCOUNTABILITY, P.AUTHORIZED_USERS, and P.NEED_TO_KNOW policies because it
requires the system to provide functionality to support the management of audit, resource protection, and
system access protection. T.UNIDENTIFIED_ACTIONS is mitigated by ensuring the TOE offers the
necessary management functions for the authorized administrator to securely manage the TOE.
O.ENFORCEMENT – By ensuring that organizational policies are enforced, the policies
P.ACCOUNTABILITY, P. AUTHORIZED_USERS, P.ADD_IPSEC, and P.NEED_TO_KNOW are
supported because the objective ensures that functions are invoked and operate correctly.
O.PROTECT – By ensuring that the TSF protects itself including its data and resources from external
tampering, the threats T.UNAUTH_ACCESS and T.CONFIG_CORRUPT are countered. Additionally,
support to counter the threats T.USER_CORRUPT, T.UNAUTH_MODIFICATION and
T.AUDIT_COMPROMISE are supported. Ensuring that unauthorized access to the TSF data and
resources is prevented disallows the above threats from being executed since they rely upon unauthorized
access to TSF data or the modification of the TSF to a state where the security functions are not enforced
thereby ensuring that the TSF is never bypassed.
O.TRUSTED_PATH – By ensuring that there is a capability to allow users to ensure they are
communicating with the TSF during initial user authentication, the threat T.SPOOF is countered because
the execution of the threat relies upon the ability to masquerade as the TSF. Countering T.REPLAY is
supported in that authentication data cannot be captured by an authorized entity.
O.LEGAL_WARNING – By ensuring that users are aware of legal issues involving use of the TOE
before access to resource is allowed implements the policy P.WARN because it provides the users with a
warning of the ramifications of unauthorized use of the TOE.
O.LIMIT_AUTHORIZATION – By providing a capability to limit the extent a user’s authorizations, the
policy P.AUTHORIZATION is implemented because each user’s authorizations can be limited.
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O.IPSEC – By ensuring that the a capability is provided to protect system data in transmission between
separate parts of the TOE, the policy P.ADD_IPSEC is implemented because it requires the system to
provide this capability to protect system data in transmission between distributed parts of the TOE. By
protecting data during transmission data cannot be intercepted allowing the TOE to mitigate
T.EAVESDROP. The mitigation of T.REPLAY is assisted by ensuring data during transmission is
protected from capture and resubmission.
O.ENCRYPTED_DATA – By ensuring that only users that encrypted data may receive that data
decrypted the threat T.USER_CURRUPT and T.UNAUTH_ACCESS are countered because access to
decrypted data from a user other than the user that encrypted the data is prevented
O.ASSURANCE – By ensuring that the guidance documentation is accurate and not misleading the threat
that the TOE is incorrectly installed or configured, T.ADMIN_ERROR, is countered. The application of
sound design principles and techniques, functional testing, and penetration testing mitigate the threats
T.POOR_DESIGN and T.POOR_IMPLEMENTATION that errors exist in the TOE design and
implementation. T.UNATTENDED_SESSION and T.UNIDENTIFIED_ACTIONS are mitigated by
ensuring there is sufficient guidance to users and authorized administrators with respect to using the
security functions. T.TCPIP_ATTACK is mitigated by ensuring the TOE has undergone a vulnerability
analysis and penetration testing which will ensure the TOE is sufficiently robust to protect itself against
published exploits.
O.MEDIATE – By ensuring that all network packets that flow through the TOE are subject to the
information flow policies, a user cannot modify the identification TOE interface associated with them
which mitigates the threat T.ADDRESS_MASQUERADE.
All of the organizational policies and threats are addressed by the IT security objectives. For each policy
and threat, the associated IT security objectives are appropriate to address each policy and threat associated
with them in Table 8.1. Given that the IT Security Objectives are met, the organizational policies will be
implemented and the threats will be countered.
8.1.2 Non-IT Security Objectives for the Environment Rationale
This section provides evidence demonstrating the coverage of environmental assumptions by the Non-IT
security objectives. The following table shows the assumption that each Non-IT security objective
addresses.
Table 8-2 Non-IT Security Objectives Rationale Mapping
Non-IT Security Objectives Environmental Assumptions
O.INSTALL A.MANAGE
A.NO_EVIL_ADM
A.PEER
O.PHYSICAL A.LOCATE
A.PROTECT
A.CONNECT
O.CREDEN A.COOP
O.INSTALL – By ensuring that the TOE is delivered, installed, managed, and operated in a secure
manner, the assumptions A. MANAGE, A.NO_EVIL_ADM, and A.PEER are addressed. This objective
ensures that the TOE is managed and administered in a secure manner by a competent and security aware
individual in accordance with the administrator documentation.
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O.PHYSICAL – By ensuring that the responsible individuals ensure that the TOE is protected from
physical attack, the assumptions A.LOCATE, A.PROTECT, and A.CONNECT are addressed because the
objective ensures that the TOE is protected from unauthorized physical access.
O.CREDEN – By ensuring that access credentials are adequately protected addresses the assumption
A.COOP because it ensures that only those users that are authorized are allowed to gain access to the TOE
which supports a benign environment and cooperative users.
Of the definition of the environment in this ST (assumptions, policies, and threats), the assumptions are the
only aspects of the environment definition that are Non-IT related. All of the policies and threats are
addressed by the IT security objectives. For each assumption, the associated Non-IT Security Objectives
there are appropriateness to address the assumptions associated with them in Table 8.2. Given that the
Non-IT Security Objectives are met, the assumptions will be achieved.
8.2 Security Requirements Rationale
This section provides evidence supporting the internal consistency and completeness of the requirements in
the ST. Table 8.3 shows that the security objectives are completely met by the security functional
requirements.
8.2.1 Security Functional Requirements Rationale
The following table provides the correspondence mapping between security objectives for the TOE and the
requirements that satisfy them.
Table 8-3 Requirement to Security Objective Correspondence
Requirement
O.AUTHORIZATION
O.DISCRETIONARY_ACCESS
O.AUDITING
O.AUDIT_PROTECTION
O.RESIDUAL_INFORMATION
O.MANAGE
O.ENFORCEMENT
O.PROTECT
O.TRUSTED_PATH
O.LEGAL_WARNING
O.LIMIT_AUTHORIZATION
O.IPSEC
O.ENCRYPTED_DATA
O.ASSURANCE
O.MEDIATE
FAU_GEN.1 X
FAU_GEN.2 X
FAU_SAR.1 X X
FAU_SAR.2 X
FAU_SAR.3(a), (b) X X
FAU_SEL.1 X
FAU_STG.1 X X
FAU_STG.3 X X
FAU_STG.4 X X X
FCS_COP.1(a) thru (j) X X
FCS_CKM.1(a) thru (e) X X
FCS_CKM.2 X X
FCS_CKM.4 X X
FCS_CKM_EX.1 X X
FCS_CKM_EX.2 X X
FDP_ACC.2(a) X
FDP_ACC.2(b) X
FDP_ACC.2(c) X
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Requirement O.AUTHORIZATION
O.DISCRETIONARY_ACCESS
O.AUDITING
O.AUDIT_PROTECTION
O.RESIDUAL_INFORMATION
O.MANAGE
O.ENFORCEMENT
O.PROTECT
O.TRUSTED_PATH
O.LEGAL_WARNING
O.LIMIT_AUTHORIZATION
O.IPSEC
O.ENCRYPTED_DATA
O.ASSURANCE
O.MEDIATE
FDP_ACF.1(a) X
FDP_ACF.1(b) X
FDP_ACF.1(c) X
FDP_IFC.1(a) X X
FDP_IFC.1(b) X X
FDP_IFF.1(a) X X
FDP_IFF.1(b) X X
FDP_ITT.1 X
FDP_RIP.2 X
FDP_UCT.1 X
FDP_UIT.1 X
Note1_EX X
FIA_AFL.1 X
FIA_ATD.1 X X X
FIA_SOS.1 X
FIA_UAU.1 X
FIA_UAU.6 X
FIA_UAU.7 X
FIA_UID.1 X
FIA_USB.1_EX X X
FMT_MSA.1(a) X X
FMT_MSA.1(b) X X
FMT_MSA.1(c) X X
FMT_MSA.1(d) X X
FMT_MSA.1(e) X X
FMT_MSA.1(f) X X
FMT_MSA_EX.2 X
FMT_MSA.3(a) X X
FMT_MSA.3(b) X X
FMT_MSA.3(c) X X
FMT_MSA.3(d) X X
FMT_MSA.3(e) X X
FMT_MTD.1(a) X X
FMT_MTD.1(b) X X
FMT_MTD.1(c) X X X
FMT_MTD.1(d) X X
FMT_MTD.1(e) X X
FMT_MTD.1(f) X X
FMT_MTD.1(g) X X
FMT_MTD.1(h) X
FMT_MTD.1(i) X X
FMT_MTD.1(j) X X
FMT_MTD.1(k) X
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Requirement O.AUTHORIZATION
O.DISCRETIONARY_ACCESS
O.AUDITING
O.AUDIT_PROTECTION
O.RESIDUAL_INFORMATION
O.MANAGE
O.ENFORCEMENT
O.PROTECT
O.TRUSTED_PATH
O.LEGAL_WARNING
O.LIMIT_AUTHORIZATION
O.IPSEC
O.ENCRYPTED_DATA
O.ASSURANCE
O.MEDIATE
FMT_MTD.1(l) X
FMT_MTD.1(m) X X
FMT_MTD.1(n) X
FMT_MTD.1(o) X
FMT_MTD.2 X X
FMT_MOF.1(a) X
FMT_MOF.1(b) X X
FMT_MOF.1(c) X X
FMT_MOF.1(d) X
FMT_REV.1(a) X X
FMT_REV.1(b) X
FMT_SAE.1 X X
FMT_SMF.1 X
FMT_SMR.1 X X
FMT_SMR.3 X
TRANSFER_PROT_E
X.1
X X
TRANSFER_PROT_E
X.3
X
FPT_AMT.1 X
FPT_RPL_EX.1 X
FPT_RVM.1 X X
FPT_SEP.1 X X
FPT_STM.1 X
FPT_TRC_EX X
FRU_RSA.1 X
FTA_LSA_EX.1 X
FTA_MCS_EX.1 X
FTA_SSL.1 X
FTA_SSL.2 X
FTA_SSL.3 X
FTA_TAB.1 X
FTA_TSE.1 X
FTP_TRP.1 X
ACM_AUT.1 X
ACM_CAP.4 X
ACM_SCP.2 X
ADO_DEL.2
ADO_IGS.1 X
ADV_FSP.2
ADV_HLD.2
ADV_IMP.1
ADV_LLD.1
ADV_RCR.1
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Requirement O.AUTHORIZATION
O.DISCRETIONARY_ACCESS
O.AUDITING
O.AUDIT_PROTECTION
O.RESIDUAL_INFORMATION
O.MANAGE
O.ENFORCEMENT
O.PROTECT
O.TRUSTED_PATH
O.LEGAL_WARNING
O.LIMIT_AUTHORIZATION
O.IPSEC
O.ENCRYPTED_DATA
O.ASSURANCE
O.MEDIATE
ADV_SPM.1
AGD_ADM.1 X
AGD_USR.1
ALC_DVS.1 X
ALC_FLR.3 X
ALC_LCD.1 X
ALC_TAT.1 X
ATE_COV.2 X
ATE_DPT.1 X
ATE_FUN.1 X
ATE_IND.2 X
AVA_MSU.2 X
AVA_SOF.1
AVA_VLA.2 X
O.AUTHORIZATION:
FIA_ATD.1 and FMT_MTD.1(d) define data to be used for authentication per user and restrict the ability
to initialize authentication data to only authorized administrator, and the ability to modify authentication to
authorized administrators and authorized users.
FTA_LSA_EX.1 restricts a user’s capabilities based on the ability for them to logon which can be restricted
based upon the ability of a user to logon locally to a given system, the time, and the day.
FIA_AFL.1, FMT_MTD.1(e) and FMT_MTD.2 allow the authorized administrator the ability to set
thresholds on the amount of attempts to logon that can be made before a user is locked out and the duration
the account locked out.
FIA_SOS.1 defines a metric the authentication mechanism must meet.
FIA_UAU.1, FIA_UID.1 and FIA_UAU.7 require a user to be identified and authenticated before any
other TSF-mediation action on their behalf, with the exception of web server access, is allowed and prevent
the user requesting access from receiving insightful authentication feedback during the authentication.
FIA_UAU.6 requires a user to be authenticated prior to changing their password.
FTA_SSL.1, FTA_SSL.2, FTA_SSL.3, FMT_MOF.1(c), FMT_MTD.1(k) allow for the authorized user to
define and modify a period of user inactivity before the session is locked and for the authorized user or
authorized administrator to unlock a locked session as well as initiate the locking of a session. Unlocking a
session by an authorized user requires re-authentication.
FMT_MTD.1(f), FTA_TSE.1, and FMT_SAE.1 provide the administrator with the ability to define
authentication parameters that further restrict the authentication mechanism which provides access to the
TOE.
FTA_MSC.1 allows the administrator to set, and the TSF to enforce, a maximum number of concurrent
interactive sessions per user which further restricts access to the TOE.
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They allow the authorized administrator the ability to modify the minimum password length and set an
expiration limit on authentication data that upon the expiration time the user is prevented from logging on.
FRU_RSA.1 limits access to NTFS volume resources based on quotas, thereby, supporting the ability of
the TOE to restrict access to its resources and ensuring that only users that have not exceeded their quota
can access NTFS volume resources.
These requirements together restrict access to the TOE by enforcing authentication and identification of
users based on the user accounts including user attributes and limits defined by the authorized
administrator.
O.DISCRETIONARY_ACCESS:
FDP_ACC.2(a) and FDP_ACF.1(a); FDP_ACC.2(b) and FDP_ACF.1(b); FDP_ACC.2(c) and
FDP_ACF.1(c); define several discretionary Security Functional Policies (SFPs), each identifies the
subjects and objects which the policy covers, the security attributes that access to objects is based upon, and
the rules of access between subjects and objects. The discretionary SFPs allows for the control of access to
resources based on the user identity.
FIA_ATD.1 and FIA_USB.1_EX define the security attributes associated with users that used to enforce
the SFPs.
FMT_MSA.1(a), FMT_MSA.1(b), FMT_MSA.1(e), FMT_MSA.1(f), FMT_MSA.3(a), FMT_MSA.3(d),
FMT_MSA.3(e), and FMT_REV.1(b) restrict the ability to modify object security attributes to authorized
users, ensures that the default values are known (permissive or restrictive) for the security attributes used
to enforce the SFPs, and ensures that only authorized users can revoke the security attributes used to
enforce the SFPs.
These requirements together allow the users the ability to specify, modify, and revoke how objects they are
authorized to control can be shared; ensures that the system enforces the sharing specified; and that the
security attributes of the users cannot be modified by other than the authorized administrator.
Each of the above requirements together ensure that access is controlled to resources based on user identity
and allow authorized users to specify which resources may be accessed by which users.
O.AUDITING:
FAU_GEN.1, FAU_GEN.2, FIA_USB.1_EX, FPT_STM.1, and FMT_MTD.1(g) define the events that
must be auditable and ensures that each event shall identify the user that caused the event and the time the
event occurred.
FAU_SAR.1, FAU_SAR.2, FAU_SAR.3(a), FAU_SAR.3(b), FAU_STG.1, FAU_STG.3, FAU_STG.4,
FMT_MTD.1(j), FMT_MTD.1(a), and FMT_MTD.1(b) ensure that the audit trail is complete and that
audit events can be selected and reviewed by only the authorized administrator, and that the audit log
(security log) can be managed appropriately by the authorized administrator. Additionally, FAU_SEL.1
provides the capability to the authorized administrator to select the events that will be audited based upon
specific attributes (pre-selection of audit events).
Each of the above requirements together ensure the generation of audit records, the adequacy of the content
of audit records, and that the audit records are available to and managed by the authorized administrator.
O.AUDIT_ PROTECTION:
FAU_STG.1 and FAU_STG.4 require the TOE to restrict access to the audit trail and to prevent the loss of
audit data.
By restricting access to the audit trail and preventing the loss of audit data the requirements together
ensures the protection of audit records.
O.RESIDUAL_INFORMATION:
FDP_RIP.2 and Note1_EX require the TSF to purge residual data associated with objects and subjects prior
to reuse.
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Each of the above requirements together ensure that residual data associated with objects and subjects are
purged, thereby ensuring that information contained in protected resources does not remain available when
the resource is recycled.
O.MANAGE :
FAU_SAR.1, FAU_SAR.3(a), FAU_SAR.3(b), FAU_STG.3, FAU_STG.4, FMT_MTD.1(a),
FMT_MTD.1(b), and FMT_MTD.1(j) ensure the authorized administrator can manage audit records.
FMT_MSA.1(a), FMT_MSA.1(b), FMT_MSA.1(e), FMT_MSA.1(f), FMT_MSA.1(c), FMT_MSA.1(d),
FMT_MSA.3(a), FMT_MSA.3(b), FMT_MSA.3(c), FMT_MSA.3(d), FMT_MSA.3(e), FMT_MTD.1(c)
and FMT_REV.1(a) ensure the authorized administrator can manage attributes used to enforce the SFPs.
FMT_MTD.1(d), FMT_MTD.1(e), FMT_MTD.1(f), FMT_MTD.1(i), FMT_MTD.2, FMT_MOF.1(c), and
FMT_SAE.1 ensure the authorized administrator can manage authentication related data. FMT_MTD.1(l),
FMT_MTD.1(g), FMT_MTD.1(h), FMT_MTD.1(n) restrict the ability to modify TSF data (including the
password complexity requirements). FMT_MTD.1(m) prevents all users (including the authorized
administrator) from reading passwords. FMT_MTD.1(o) restricts the initialization of the user security
attribute private/public key pair to authorized users and the authorized administrator.
FMT_SMR.1, and FMT_SMR.3 ensure the role of the authorized administrator is enforced.
FMT_SMF.1 ensures the authorized administrator is provided the capability to change and maintain
security relevant data (e.g. audit policy, account policy, etc).
FMT_MOF.1(a) and FMT_MOF.1(b) ensure the authorized administrator can manage the audit function
and the function to protect TSF data during transmission. FMT_MOF.1(d) ensure the authorized
administrator can manage the web server policy that controls the access to web server content.
FPT_TRC_EX ensures that TSF data can be replicated between parts of the TOE to enable TSFs to have
the most recent TSF data.
Together the above requirements ensure that the administrator can manage data (audit records, attributes
used to enforce the SFPs, authentication data), manage functions (audit, protection of data in transmission,
replication of TSF data), and ensure that the authorized user and administrator roles are enforced. Changes
to specific TSF data are distributed throughout the TOE assisting in the management of a distributed TOE.
Each of the above requirements contributes to and together ensures that the authorized administrator can
manage the TOE securely.
O.ENFORCEMENT:
FPT_RVM.1, FPT.SEP.1, and FPT_AMT.1 ensure the TOE makes and enforces the decisions of the TSPs
and that the TSF is protected from interference that would prevent if from performing its functions.
Together the above requirements ensure that the underlying abstract machine relied upon by the TSF is
operating correctly, and that the TSF continues to operate effectively to uphold the TSPs.
Each of the above requirements together ensures that the organizational policies are enforced.
O.PROTECT:
FMT_MTD.1(c) ensures that user security attributes which the SFPs are based upon can only be initialized
and modified by an authorized administrator. FMT_MSA_EX.2 ensures that only valid password values are
accepted by the TOE as security attributes supporting the ability for the TOE to protect itself.
FMT_MTD.1(m) protects the TOE authentication data by preventing authentication from being read by any
user (including the administrator).
TRANSFER_PROT_EX and FPT_SEP.1 ensure that the TOE provides TSF protection of system resources
and maintains a separate domain for the TSF.
FDP_UCT.1 and FDP_UIT.1 ensure that the data communication between web users and the web server is
protected from unauthorized disclosure and modification.
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Together the requirements ensure that the TSF data is protected from modification, protected in
transmission, and that the TSF cannot be modified in an unauthorized manner.
Each of the above requirements contributes to and together ensures that a separate domain is maintained for
the TSF and the TSF protects its own data and resources.
O.TRUSTED_PATH:
FTP_TRP.1 ensures the TOE includes a capability for the user to utilize a trusted path with the TSF for
initial logon and session unlocking.
The above requirement ensures there is a mechanism that allows the user to assuredly communicate with
the TSF, and not another entity pretending to be the TSF, during initial user authentication
O.LEGAL_WARNING:
FTA_TAB.1 requires the TOE to provide the capability of displaying a banner before login.
FMT_MTD.1(i) restricts the modification of the banner content to an authorized administrator.
Each of the above requirements together ensure that a banner can be displayed before login containing a
warning defined by an authorized administrator to advise users of legal issues involving the misuse of the
TOE before access to resources is allowed.
O.LIMIT_AUTHORIZATION:
FMT_SMR.1; FIA_ATD.1; FMT_MTD.1(c); and FMT_REV.1(a) require the TOE to provide the
capability to limit user authorizations by the definition of roles, the user privileges, and the revocation of
security-relevant authorizations.
By ensuring that security attributes associated with users can only be assigned and revoked by the
administrator and that the security attributes allow for specific roles to be enforced, these requirements
ensure that the capabilities of users can be limited.
Each of the above requirements together ensures the capability to limit the extent of each user’s
authorizations.
O.IPSEC:
FDP_ITT.1, TRANSFER_PROT_EX.1, FMT_MOF.1(b) ensures the capability to protect TSF data from
disclosure and modification when in transmission between distributed parts of the TOE and provide
management support for these functions.
FPT_RPL_EX.1 and TRANSFER_PROT_EX.3 ensures data is in transmission is protected by rejecting or
auditing TSF data for which a replay of TSF data is detected.
FDP_IFC.1(a) and FDP_IFF.1(a) ensure that the IPSec filters can be used to control the flow of traffic
amongst the different systems (or TSFs) within the TOE. FDP_IFC.1(b) and FDP_IFF.1(b) ensure that the
TOE may be configured to prevent unsolicited traffic into the TSF.
FMT_MSA.1(c), FMT_MSA.1(d), FMT_MSA.3(b), and FMT_MSA.3(c) restrict the ability to modify
security attributes to authorized users and ensures that known default values are defined for the security
attributes used to enforce the SFP.
Additionally, all the cryptographic requirements (all FCS_COP and FCS_CKM related requirements)
support IPSec in its application of security services that involve digital signatures, encryption, decryption,
the hashing., and other services. These services support of protection and control of traffic in transmission
between physically separate parts of the TOE.
The above requirements together protect the authorized administrator with the capability to configure the
system to protect system data in transmission between distributed parts of the TOE.
O.ENCRYPTED_DATA:
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FCS_COP.1(a) thru (j), FCS_CKM.1(a) thru (e), FCS_CKM.2, FCM_CKM.4, FCS_CKM_EX.1 and
FCS_CKM_EX.2 prevents the decryption of encrypted data if the user attempting decryption is not the
user that encrypted the data and supports cryptographic operations that support the encryption and
decryption of data such as hashing, key generation, key validation, key handling and key storage.
These requirements together prevent users from decrypting data they did not encrypt and ensures that only
those users that encrypted data can decrypt that data.
O.ASSURANCE:
AGD_ADM.1, AVA_MSU.2, ADO_IGS.1 support that the TOE is installed and configured properly.
ACM_AUT.1, ACM_CAP.4, ACM_SCP.2, ALC_DVS.1, ALC_FLR.3, ALC_LCD.1, and ALC_TAT.1
support that the TOE is protected during its development. ATE_COV.2, ATE_DPT.1, ATE_FUN.1,
ATE_IND.2, and AVA_VLA.2 support that the TOE is sufficiently protect and can protect itself against
the casual attacker.
O.MEDIATE:
FDP_IFC.1(a), FDP_IFC.1(b), FDP_IFF.1(a), and FDP_IFF.1(b) support that the TOE ensures all network
packets that flow through the TOE are subject to information flow policies. FPT_RVM.1 ensures the
policy cannot be bypassed.
8.2.2 SAR Rationale
This ST contains the assurance requirements from the CC EAL4 assurance package augmented with
ALC_FLR.3. The CC allows assurance packages to be augmented, which allows the addition of assurance
components from the CC not already included in the EAL. Augmentation was chosen to provide the added
assurance that is provided by defining flaw remediation procedures and correcting security flaws
(ALC_FLR.3). This ST is based on good rigorous commercial development practices and has been
developed for a generalized environment for a TOE that is generally available and does not require
modification to meet the security needs of the environment specified in this ST.
The EAL chosen is based on the statement of the security environment (threats, organizational policies,
assumptions) and the security objectives defined in this ST. The sufficiency of the EAL chosen (EAL4
augmented) is justified based on those aspects of the environment that have impact upon the assurance
needed in the TOE. Users will act in a cooperative manner in a benign environment (A.COOP,
O.CREDEN); the administrative staff is conscientious and not hostile (A.NO_EVIL_ADM); the TOE is
designed and implemented in a manner which ensures the security policies are enforced
(O.ENFORCEMENT); and, the TOE is physically protected (O.PHYSICAL) and properly and securely
configured (O.INSTALL). Given these aspects, a TOE based on good commercial development practices
is sufficient. The CC states that EAL 4 permits a developer to gain the maximum assurance from positive
security engineering based on good commercial development practices which, though rigorous, do not
require substantial specialist knowledge, skills, and other resources. Given the amount of assurance
deemed necessary to meet the security environment and objectives of the TOE and the intent of EAL 4,
EAL 4 is an appropriate level of assurance for the TOE described in this ST. Thereby, EAL4 augmented is
an appropriate level of assurance for the TOE.
While the EAL chosen is not the same as is specified in the CAPP, this ST remains CAPP conformant
because the EAL chosen in this ST (EAL4 augmented) is hierarchical to the EAL specified in the CAPP
(EAL3). EAL 4 augmented was chosen instead of EAL 3 because the ST authors chose to achieve the
highest level of assurance feasible based on current development practices.
8.2.3 Requirement Dependency Rationale
Table 8-4 depicts the satisfaction of all functional requirement dependencies. For each functional
requirement included in the ST, the CC dependencies are identified in the column “Dependencies.”
Additionally, all operations performed upon requirements were reviewed. None were found to add any
dependencies in addition to those identified in the CC.
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For explicitly stated requirements (those ending with “_EX”), the CC dependencies identified for similar
requirements were used as guidance to identify their dependencies, and additionally, all the explicitly
included requirements in the ST were considered. The following pertains:
• For FIA_USB.1_EX and Note1_EX, there is no change in the dependencies from the CC
identified dependencies for the CC requirements these explicit requirements are based upon
(FIA_USB.1 and FDP_RIP.2) considering the changes between the CC requirements and the
explicit requirements.
• For TRANSFER_PROT_EX.1, there are no CC identified dependencies for the CC requirements
this explicit requirement is based upon ( FPT_ITT.1). Considering the changes between the CC
requirements and the explicit requirements, the TRANSFER_PROT_EX explicit requirements is
dependent upon the TOE providing the functionality to allow the administrator to enable or
disable the functionality described in these explicit requirements and the TOE providing
cryptographic functionality. Therefore, TRANSFER_PROT_EX is dependent upon
FMT_MOF.1(b) and FCS_COP.1.
• For TRANSFER_PROT_EX.3, the dependency is to an explicit requirement
(TRANSFER_PROT_EX.1) which is similar to the CC identified dependency and acceptable
considering the difference between the explicit requirements and the similar CC requirements
(TRANSFER_PROT_EX.1 and FPT_ITT.1; and TRANSFER_PROT_EX.3 and FPT_ITT.3).
However, the explicit requirement requires that the TOE provides cryptographic functionality and
is, therefore, dependent upon FCS_COP.1.
• For FPT_TRC_EX, the dependency is to an explicit requirement (TRANSFER_PROT_EX) which
is similar to the CC identified dependency and acceptable considering the difference between the
explicit requirements and the similar CC requirements (TRANSFER_PROT_EX.1 and
FPT_ITT.1; and FPT_TRC_EX and FPT_TRC.1).
• For FCS_CKM_EX.1 and FCS_CKM_EX.2, there are no CC requirements that address the nature
of these requirements.
• For FPT_RPL_EX.1, there are no CC identified dependencies for the CC requirement this explicit
requirement is based upon (FPT_RPL.1). However, the explicit requirement requires that the TOE
provides cryptographic functionality and is, therefore, dependent upon FCS_COP.1.
• For FMT_MSA_EX.2, the dependencies identified are the same dependencies as the CC identified
dependencies for the CC requirement, FMT_MSA.2, this explicit requirement is based upon.
• For the FCS_COP.1 requirement, the CC identifies the following dependency: FDP_ITC.1 or
FCS_CKM.1, FCS_CKM.4, and FMT_MSA.2. The following dependency for this requirement is
not applicable and the rationale is as follows:
• FDP_ITC.1: this requirement applies to user data that is imported from outside of the TSF
Scope of Control (TSC) and concerned with applying rules to the imported data (e.g. ignore
security attributes associated with data when imported). There is no user data within the TOE
that is imported from outside the TSC and, therefore, this requirement is not applicable.
• FMT_MSA.2: this requirement is concerned with ensuring that only secure values are
accepted for security attributes. There are no security attributes entered by users within the
context of the operations specified by FCS_COP.1, therefore, FMT_MSA.2 is not applicable
to FCS_COP.1.
The component number in column “Satisfied Component No” denotes the requirement(s) that is included in
this ST to meet the dependencies of each functional requirement. The component number used in the
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column “Satisfied Component No.” is the component number used to identify each ST Functional
Requirement in column “Component No.” With the exception of the requirement for which a rationale is
provided above (FCS_COP.1), all the dependencies are satisfied by component numbers of requirements
included in this ST. Therefore, all dependencies have been satisfied.
Note that the letters “a” through “k” are used to enumerate iterations of the requirements in the column “ST
Functional Requirement.”
Table 8-4 Dependency Rationale Mapping
Component
No.
ST Functional
Requirement
Dependencies
Satisfied
Component
No.
1. FAU_GEN.1 FPT_STM.1 83
2. FAU_GEN.2 FAU_GEN.1
FIA_UID.1
1, 38
3. FAU_SAR.1 FAU_GEN.1 1
4. FAU_SAR.2 FAU_SAR.1 3
5. FAU_SAR.3(a), (b) FAU_SAR.1 3
6. FAU_SEL.1 FAU_GEN.1, FMT_MTD.1 1, 56
7. FAU_STG.1 FAU_GEN.1 1
8. FAU_STG.3 FAU_STG.1 7
9. FAU_STG.4 FAU_STG.1 7
10. FCS_COP.1 (a) –(j) FDP_ITC.1 or FCS_CKM.1
FCS_CKM.4
FMT_MSA.2
12, 14, 50
11. FCS_CKM.1(a) –(e) FCS_CKM.2 or FCS_COP.1
FCS_CKM.4, FMT_MSA.2
11, 14, 50
12. FCS_CKM.2 FDP_ITC.1 or FCS_CKM.1
FCS_CKM.4
FMT_MSA.2
12, 14, 50
13. FCS_CKM.4 FDP_ITC.1 or FCS_CKM.1
FMT_MSA.2
12, 50
14. FCS_CKM_EX.1 None
15. FCS_CKM_EX.2 None
16. FDP_ACC.2(a) FDP_ACF.1 20
17. FDP_ACC.2(b) FDP_ACF.1 21
18. FDP_ACC.2(c) FDP_ACF.1 22
19. FDP_ACF.1(a) FDP_ACC.1
FMT_MSA.3
17, 51
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Component
No.
ST Functional
Requirement
Dependencies
Satisfied
Component
No.
20. FDP_ACF.1(b) FDP_ACC.1
FMT_MSA.3
18, 54
21. FDP_ACF.1(c) FDP_ACC.1
FMT_MSA.3
19, 55
22. FDP_IFC.1(a) FDP_IFF.1 20
23. FDP_IFC.1(b) FDP_IFF.1 21
24. FDP_IFF.1(a) FDP_IFC.1
FDP_MSA.3
23, 52
25. FDP_IFF.1(b) FDP_IFC.1
FDP_MSA.3
24, 53
26. FDP_ITT.1 FDP_ACC.1 or FDP_IFC.1 17
27. FDP_RIP.2 None
28. FDP_UCT.1 [FTP_ITC.1 Inter-TSF trusted channel,
or FTP_TRP.1 Trusted path]
[FDP_ACC.1 Subset access control, or
FDP_IFC.1 Subset information flow
control]
92, 18
29. FDP_UIT.1 [FDP_ACC.1 Subset access control, or
FDP_IFC.1 Subset information flow
control]
[FTP_ITC.1 Inter-TSF trusted channel,
or FTP_TRP.1 Trusted path]
92, 18
30. Note1_EX None
31. FIA_AFL.1 FIA_UAU.1 35
32. FIA_ATD.1 None
33. FIA_SOS.1 None
34. FIA_UAU.1 FIA_UID.1 38
35. FIA_UAU.6 None
36. FIA_UAU.7 FIA_UAU.1 35
37. FIA_UID.1 None
38. FIA_USB.1_EX FIA_ATD.1 33
39. FMT_MOF.1(a) FMT_SMR.1
FMT_SMF.1
62, 63
40. FMT_MOF.1(b) FMT_SMR.1
FMT_SMF.1
75, 74
41. FMT_MOF.1(c) FMT_SMR.1
FMT_SMF.1
73, 74
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Component
No.
ST Functional
Requirement
Dependencies
Satisfied
Component
No.
42. FMT_MOF.1(d) FMT_SMR.1
FMT_SMF.1
73, 74
43. FMT_MSA.1(a) FDP_ACC.1 or FDP_IFC.1,
FMT_SMR.1
FMT_SMF.1
17, 73, 74
44. FMT_MSA.1(b) FDP_ACC.1 or FDP_IFC.1,
FMT_SMR.1
FMT_SMF.1
17, 73, 74
45. FMT_MSA.1(c) FDP_ACC.1 or FDP_IFC.1,
FMT_SMR.1
FMT_SMF.1
23, 73, 74
46. FMT_MSA.1(d) FDP_ACC.1 or FDP_IFC.1,
FMT_SMR.1
FMT_SMF.1
24, 73, 74
47. FMT_MSA.1(e) FDP_ACC.1 or FDP_IFC.1,
FMT_SMR.1
FMT_SMF.1
18, 73, 74
48. FMT_MSA.1(f) FDP_ACC.1 or FDP_IFC.1,
FMT_SMR.1
FMT_SMF.1
19, 73, 74
49. FMT_MSA_EX.2 ADV_SPM.1
FDP_ACC.1 or FDP_IFC.1
FMT_MSA.1
FMT_SMR.1
EAL4, 17,
44, 75
50. FMT_MSA.3(a) FMT_MSA.1(a)
FMT_SMR.1
44, 75
51. FMT_MSA.3(b) FMT_MSA.1(c)
FMT_SMR.1
46, 75
52. FMT_MSA.3(c) FMT_MSA.1(d)
FMT_SMR.1
46, 75
53. FMT_MSA.3(d) FMT_MSA.1(e)
FMT_SMR.1
48, 75
54. FMT_MSA.3(e) FMT_MSA.1(f)
FMT_SMR.1
49, 75
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Component
No.
ST Functional
Requirement
Dependencies
Satisfied
Component
No.
55. FMT_MTD.1(a) – (g) FMT_SMR.1
FMT_SMF.1
73, 74
56. FMT_MTD.1(b) FMT_SMR.1
FMT_SMF.1
73, 74
57. FMT_MTD.1(c) FMT_SMR.1
FMT_SMF.1
73, 74
58. FMT_MTD.1(d) FMT_SMR.1
FMT_SMF.1
73, 74
59. FMT_MTD.1(e) FMT_SMR.1
FMT_SMF.1
73, 74
60. FMT_MTD.1(f) FMT_SMR.1
FMT_SMF.1
73, 74
61. FMT_MTD.1(g) FMT_SMR.1
FMT_SMF.1
73, 74
62. FMT_MTD.1(h) FMT_SMR.1
FMT_SMF.1
73, 74
63. FMT_MTD.1(i) FMT_SMR.1
FMT_SMF.1
73, 74
64. FMT_MTD.1(j) FMT_SMR.1
FMT_SMF.1
73, 74
65. FMT_MTD.1(k) FMT_SMR.1
FMT_SMF.1
73, 74
66. FMT_MTD.1(l) FMT_SMR.1
FMT_SMF.1
73, 74
67. FMT_MTD.1(m) FMT_SMR.1
FMT_SMF.1
73, 74
68. FMT_MTD.1(n), (o) FMT_SMR.1
FMT_SMF.1
74, 73
69. FMT_MTD.2 FMT_MTD.1(e)
FMT_SMR.1
59, 74
70. FMT_REV.1(a) FMT_SMR.1 75
71. FMT_REV.1(b) FMT_SMR.1 75
72. FMT_SAE.1 FMT_SMR.1
FPT_STM.1
75, 83
73. FMT_SMF.1 None
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Component
No.
ST Functional
Requirement
Dependencies
Satisfied
Component
No.
74. FMT_SMR.1 FIA_UID.1 38
75. FMT_SMR.3 FMT_SMR.1 75
76.
TRANSFER_PROT_
EX.1
FMT_MOF.1(b)
FCS_COP.1
41
11
77. TRANSFER_PROT_
EX.3
FPT_ITT.1 (equivalent to explicit
requirement TRANSFER_PROT_EX.1)
FCS_COP.1
77
11
78. FPT_RPL_EX.1 FCS_COP.1 11
79. FPT_TRC_EX.1 TRANSFER_PROT_EX.1 77
80. FPT_RVM.1 None
81. FPT_SEP.1 None
82. FPT_STM.1 None
83. FRU_RSA.1 None
84. FTA_LSA_EX.1 None
85. FTA_MCS_EX.1 FIA_UID.1
FMT_SMF.1
38
74
86. FTA_SSL.1 FIA_UAU.1 35
87. FTA_SSL.2 FIA_UAU.1 35
88. FTA_SSL.2 FIA_UAU.1 35
89. FTA_TAB.1 FMT_MTD.1.1(i) 64
90. FTA_TSE.1 None
91. FTP_TRP.1 None
8.2.4 Explicitly Stated Requirements Rationale
The ST includes the following explicitly stated requirements: FCS_CKM_EX.1; FCS_CKM_EX.2;
Note1_EX; FIA_USB.1_EX; FMT_MSA_EX.2; TRANSFER_PROT_EX; FPT_RPL_EX;
FPT_TRC_EX.1; Note1_EX; and, FIA_USB.1_EX, referred to as FDP_RIP.2.Note1 and FIA_USB.1 in
the CAPP, are included in the CAPP along with a rationale for each requirement.
FCS_CKM_EX.1: The CC cryptographic support section does not specifically address the concepts of key
validation techniques. Although closely tied to generated keys, these concepts typically get implemented
just after, not during, the actual generation of a key. In this ST, FCS_CKM_EXP.1 allows for specifically
addressing these key management-related concepts in support of O.IPSEC and O.ENCRYPTED_DATA.
FCS_CKM_EX.2: The CC does not provide components for key handling and storage. In this ST,
FCS_CKM_EX.2 allows for specifically addressing these key management-related concepts in support of
O.IPSEC and O.ENCRYPTED_DATA.
FMT_MSA_EX.2: To address the TOE functionality of the ability to enforce that passwords meet the
password complexity requirements in support of the objective O.PROTECT, the FMT_MSA.2 CC
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requirement was considered. However, FMT_MSA.2 enforces that all security attributes are “secure” while
the TOE functionality is more adequately expressed as ensuring the password security attributes are “valid”
in that they meet the password complexity requirements defined by the administrator.
TRANSFER_PROT_EX.1: To address the TOE functionality of the protection of data in transmission
between different parts of the TOE to support the objective O.PROTECT, the FPT_ITT.1 CC requirement
was considered. However, because FPT_ITT.1 prescribes functionality beyond what is required to meet
O.PROTECT and O.IPSEC, the ST authors created the explicit requirement TRANSFER_PROT_EX. The
functionality to “always” protect data in transmission between separate parts of the TOE is not necessary to
meet the objective O.PROTECT (to protect TSF data) because of the physical protection of all parts of the
TOE as required by the Non-IT security objective O.PHYSICAL. The ST authors added the words “be able
to” to the requirement to provide the desired flexibility in the evaluated configuration to meet the objectives
O.PROTECT and O.IPSEC. The ST authors also qualified the requirement to apply to protecting all data
instead of only TSF data. This change allows the authorized administrator to be able to disable this
functionality and remain within the evaluated configuration.
TRANSFER_PROT_EX.3: To address the TOE functionality of the protection of data in transmission
between different parts of the TOE to support the objective O.IPSEC, the FPT_ITT.3 CC requirement was
considered. However, because FPT_ITT.3 prescribes functionality beyond what is required to meet
O.IPSEC, the ST authors created the explicit requirement TRANSFER_PROT_EX.3. The ST authors
qualified the requirement to apply only to protecting all data instead of only TSF data.
FPT_RPL_EX: To address the TOE functionality to detect replay in support of O.IPSEC the CC
requirement FPT_RPL.1 was considered. However, because FPT_RPL prescribes functionality beyond
what is needed to support O.IPSEC, in that the functionality required must always be enforced. The ST
authors created the explicit requirement FPT_RPL_EX which mandates the ability to detect replays,
however, this functionality need not always be configured to be enforced in its evaluated configuration to
do so (similar to FAU_GEN.1).
FPT_TRC_EX: To address the TOE functionality of TSF data replication to support the objective
O.MANAGE, the FPT_TRC.1 CC requirement was considered. However, because FPT_TRC.1 prescribes
functionality beyond what is required to meet O.MANAGE which the TOE does not implement, the ST
authors created the explicit requirement FPT_TRC_EX. Ensuring that data is “totally” consistent between
separate TSFs in a distributed TOE appears to be the intent of FPT_TRC.1, which is not required by any
TOE Objectives. The ST authors chose to create an explicit requirement, FPT_TRC_EX, to ensure that
TSF data changed at one TSF is copied to other TSFs and that the target TSF will only accept the changed
TSF data if it is more recent than the local copy of that TSF data. FPT_TRC_EX supports the TOE
objective O.MANAGE by ensuring that changes to important TSF data are copied to support the accuracy
and enforcement of TSF data at each TSF.
FTA_MCS_EX: FTA_MCS_EX is based upon the FTA_MCS.1 CC requirement and is written explicitly
because this functionality is enforced only on members of a domain. Additionally, FTA_MCS_EX
replaces the assignment in FTA_MCS.1, which allows the ST author to enter a default amount of
concurrent sessions allowed, with the ability for the authorized administrator to set this limit. This change
introduces a dependency upon FMT_SMF.1 which is addressed in item i (initialize and modify user
security attributes).
FTA_LSA_EX: FTA_LSA_EX is based upon the FTA_LSA.1 CC requirement and is written explicitly
because only this requirement only applies to members of a domain.
The assurance requirements are still applicable and appropriate with the inclusion of these explicitly stated
requirements. The explicitly stated requirements do not demand any additional documentary evidence
other than what is required at EAL4.
8.2.5 Internal Consistency and Mutually Supportive Rationale
The selected requirements are internally consistent and fully compliant with the CAPP. The ST includes all
of the functional requirements from the CAPP and additional requirements to reflect additional
functionality, compatible with the CAPP requirements. All operations that have been performed on the
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additional requirements are in accordance with the CC. The ST includes no instance of a requirement that
contradicts another requirement in the ST. In instances where different requirements apply to the same
events or types of data, the requirements and the operations performed within the requirements do not
contradict each other.
The selected requirements together form a mutually supportive whole by the satisfaction of all
dependencies as demonstrated in Table 8-4; the mapping and suitability of the requirements to security
objectives as justified in Section 8.2.1; the inclusion of architectural requirements FPT_RVM.1 and
FPT_SEP.1 to protect the TSF, the inclusion of audit requirements to detect attacks of other security
functional requirements; and the inclusion of security management requirements to ensure proper
configuration and control of other security functional requirements.
8.2.6 SOF Rationale
The TOE minimum SOF of SOF-medium was chosen to be consistent with the CAPP. The explicit SOF
claim for the authentication mechanism described in FIA_SOS.1 and FIA_UAU.1 of guessing a password
is stronger than that specified in the CAPP and is in turn consistent with the security objectives described in
Section 8.2.1.
The SOF-medium strength level is sufficient to meet the objectives of the TOE given the security
environment described in the ST, specifically given the assumption A.COOP (Authorized users possess the
necessary authorization to access at least some of the information management by the TOE and are
expected to act in a cooperating manner in a benign environment.)
8.3 TSS Rationale
This Section, in conjunction with Section 6, the TSS, provides evidence that the SFs are suitable to meet
the TOE security requirements and the assurance measures address the assurance measures.
Each subsection in the Section 6.1, TSFs, describes a SF of the TOE. Each description is followed with
rationale that indicates which requirements are satisfied by aspects of the corresponding SF. The set of SFs
work together to satisfy all of the SFRs. Furthermore, all of the SFs are necessary in order for the TSF to
provide the required security functionality.
The collection of SFs work together to provide all of the security requirements as indicated in Table 8-5.
The collection of assurance measures work together to address all of the SARs as indicated in Table 8-6.
The SFs and assurance measures described in the TSS and indicated in the tables below are all necessary
for the required security functionality in the TSF.
Table 8-5 Requirement to Security Function Correspondence
Requirement
Audit
User
Data
Protection
Cryptographic
Protection
I
&
A
Security
Management
TSF
Protection
Resource
Utilization
Session
Locking
FAU_GEN.1 X
FAU_GEN.2 X
FAU_SAR.1 X
FAU_SAR.2 X
FAU_SAR.3(a), (b) X
FAU_SEL.1 X
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Requirement
Audit
User
Data
Protection
Cryptographic
Protection
I
&
A
Security
Management
TSF
Protection
Resource
Utilization
Session
Locking
FAU_STG.1 X
FAU_STG.3 X
FAU_STG.4 X
FCS_COP.1(a) thru (j) X
FCS_CKM.1(a) thru (e) X
FCS_CKM.2 X
FCS_CKM.4 X
FCS_CKM_EX.1 X
FCS_CKM_EX.2 X
FDP_ACC.2(a) X
FDP_ACC.2(b) X
FDP_ACC.2(c) X
FDP_ACF.1(a) X
FDP_ACF.1(b) X
FDP_ACF.1(c) X
FDP_IFC.1(a) X
FDP_IFC.1(b) X
FDP_IFF.1(a) X
FDP_IFF.1(b) X
FDP_ITT.1 X
FDP_RIP.2 X
FDP_UCT.1 X
FDP_UIT.1 X
Note1_EX X
FIA_AFL.1 X
FIA_ATD.1 X
FIA_SOS.1 X
FIA_UAU.1 X
FIA_UAU.6 X
FIA_UAU.7 X
FIA_UID.1 X
FIA_USB.1_EX X
FMT_MSA.1(a) X
FMT_MSA.1(b) X
FMT_MSA.1(c) X
FMT_MSA.1(d) X
FMT_MSA.1(e) X
FMT_MSA.1(f) X
FMT_MSA_EX.2 X
FMT_MSA.1(d) X
FMT_MSA.3 (a) X
FMT_MSA.3 (b) X
FMT_MSA.3 (c) X
FMT_MSA.3 (d) X
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Requirement
Audit
User
Data
Protection
Cryptographic
Protection
I
&
A
Security
Management
TSF
Protection
Resource
Utilization
Session
Locking
FMT_MSA.3 (e) X
FMT_MTD.1(a) X X
FMT_MTD.1(b) X
FMT_MTD.1(c) X
FMT_MTD.1(d) X
FMT_MTD.1(e) X
FMT_MTD.1(f) X
FMT_MTD.1(g) X
FMT_MTD.1(h) X
FMT_MTD.1(i) X
FMT_MTD.1(j) X
FMT_MTD.1(k) X
FMT_MTD.1(l) X
FMT_MTD.1(m) X
FMT_MTD.1(n) X
FMT_MTD.1(o) X
FMT_MTD.2 X
FMT_MOF.1(a) X
FMT_MOF.1(b) X
FMT_MOF.1(c) X
FMT_REV.1(a) X
FMT_REV.1(b) X
FMT_SAE.1 X
FMT_SMR.1 X
FMT_SMR.3 X
TRANSFER_PROT_EX.1 X
TRANSFER_PROT_EX.3 X
FPT_AMT.1 X
FPT_RPL_EX.1 X
FPT_RVM.1 X
FPT_SEP.1 X
FPT_STM.1 X
FPT_TRC_EX X
FRU_RSA.1 X
FTA_LSA_EX.1 X
FTA_MCS_EX.1 X
FTA_SSL.1 X
FTA_SSL.2 X
FTA_SSL.2 X
FTA_TAB.1 X
FTA_TSE.1 X
FTP_TRP.1 X
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Table 8-6 Assurance Requirements to Assurance Measures Mappings
Requirement
Process
Assurance
Delivery
and
Guidance
Design
Documentation
Test
Vulnerability
Assessment
ACM_AUT.1 X
ACM_CAP.4 X
ACM_SCP.2 X
ADO_DEL.2 X
ADO_IGS.1 X
ADV_FSP.2 X
ADV_HLD.2 X
ADV_IMP.1 X
ADV_LLD.1 X
ADV_RCR.1 X
ADV_SPM.1 X
AGD_ADM.1 X
AGD_USR.1 X
ALC_DVS.1 X
ALC_FLR.3 X
ALC_LCD.1 X
ALC_TAT.1 X
ATE_COV.2 X
ATE_DPT.1 X
ATE_FUN.1 X
ATE_IND.2 X
AVA_MSU.2 X
AVA_SOF.1 X
AVA_VLA.2 X
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9. Additional Protection Profile References
This section identifies additional PPs to which conformance is not claimed but were used as a source to
identify additional requirements applicable to the TOE. The additional PPs are the PP for Single-level OS’
in Environments Requiring Medium Robustness (SLOSPP) and the U.S. Government Web Server
Protection Profile (WEB Server PP) for Basic Robustness Environments. A subsection for each of these
PPs is included in this section that provides further details regarding how this ST relates to each of the PPs
referenced.
9.1 Protection Profile for Single-level Operating Systems (SLOSPP)
Reference
This TOE is an OS and while conforming with the CAPP it does provide additional security functionality
that meets specific requirements from the SLOSPP. These additional requirements mandate additional
security functionality and do not conflict with any CAPP requirements as demonstrated in 7.1.2 CAPP
Differences and Enhancements.
The requirements included in this ST that were based upon SLOSPP requirements are:
• FCS_COP.1(a) thru (j) Cryptographic Operation,
• FCS_CKM.1(a) thru FCS_CKM.1(e) Cryptographic Key Generation,
• FCS_CKM.2 Cryptographic Key Distribution,
• FCS_CKM.4 Cryptographic Key Zeroization,
• FCS_CKM_EX.1 Cryptographic Key Validation and Packaging,
• FCS_CKM_EX.2 Cryptographic Key Handling and Storage,
• FDP_ITT.1 Basic Internal Protection,
• FIA_UAU.6 Re-authenticating,
• FMT_MSA_EX.2 Valid Password Security Attributes,
• TRANSFER_PROT_EX.1 Internal TSF Data Transfer Protection,
• FPT_TRC_EX Internal TSF Data Consistency,
• TRANSFER_PROT_EX.3 Internal TSF Data Integrity Monitoring,
• FPT_RPL_EX Replay Detection,
• FTA_LSA_EX.1 Limit on Scope of Selectable Attributes, and
• FTA_MCS_EX.1 Basic Limitation on Multiple Concurrent Sessions.
9.2 Web Server PP Reference
This TOE includes a web server which provides security functionality that meets several requirements U.S.
Government WEB Server PP. These additional requirements mandate additional security functionality and
do not conflict with any CAPP requirements as demonstrated in 7.1.2 CAPP Differences and
Enhancements.
The following requirements included in this ST which are based upon WEB Server PP requirements are:
• FDP_ACC.2(b) WEBUSER Complete Access Control,
• FDP_ACC.2(c) Content-Provider Complete Access Control,
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• FDP_ACF.1(b) WEBUSER Access Control Functions,
• FDP_ACF.1(c) Content-Provider Access Control Functions,
• FDP_UCT.1 WEBUSER SFP Basic Data Exchange Confidentiality,
• FDP_UIT.1 WEBUSER SFP Data Exchange Integrity,
• FMT_MOF.1(d) Management of Web Server,
• FMT_MSA.1(e) Management of WEBUSER Object Security Attributes,
• FMT_MSA.1(f) Management of Content-Provider Object Security Attributes,
• FMT_MSA.3(d) WEBUSER Static Attribute Initialization,
• FMT_MSA.3(e) Content-Provider Static Attribute Initialization, and
• FTA_SSL.3 WEBUSER TSF-Initiated Termination.
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A-1
APPENDIX A—List of Acronyms
3DES Triple DES
ACE Access Control Entry
ACL Access Control List
ACM Access Control Management
ACP Access Control Policy
AD Active Directory
AES Advanced Encryption Standard
AGD Administrator Guidance Document
AH Authentication Header
ANSI American National Standards Institute
API Application Programming Interface
CA Certificate Authority
CALG Confidentiality Algorithm
CAPP Controlled Access Protection Profile
CBC Cipher Block Chaining
CC Common Criteria
CCSE Canadian Communication Security Establishment
CD-ROM Compact Disk Read Only Memory
CI Configuration Item
CIFS Common Internet File System
CM Configuration Management; Control Management
COM Component Object Model
CP Content Provider
CPU Central Processing Unit
CRL Certificate Revocation List
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A-2
CryptoAPI Cryptograhic API
CSP Cryptographic Service Provider
DAC Discretionary Access Control
DACL Discretionary Access Control List
DPAPI Data Protection API
DC Domain Controller
DES Data Encryption Standard
DFS Distributed File System
DH Diffie-Hellman
DHCP Dynamic Host Configuration Protocol
DFS Distributed File System
DNS Domain Name System
DoS Denial of Service
DO Delivery Operation
DS Directory Service
DSA Digital Signature Algorithm
EAL Evaluation Assurance Level
ECB Electronic Code Book
EFS Encrypting File System
ESP Encapsulating Security Protocol
EWF Enhanced Write Filter
FEK File Encryption Key
FIPS Federal Information Processing Standard
FRS File Replication Service
FSMO Flexible Single Master Operation
GB Gigabyte
GC Global Catalog
GHz Gibahertz
Microsoft Windows 2003/XP Security Target Version 1.0, 9/28/05
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A-3
GINA Graphical Identification and Authentication
GPC Group Policy Container
GPO Group Policy Object
GPT GUID Partition Table; Group Policy Template
GUI Graphical User Interface
GUID Globally Unique Identifiers
HMAC Hash-Based Message Authentication Code
HTTP HyperText Transfer Protocol
HTTPS Secure HTTP
I/O Input/Output
I&A Identification and Authentication
IA Information Assurance
ICF Internet Connection Firewall
ICMP Internet Control Message Protocol
ICS Internet Connection Sharing
ID Identification
IEC International Electro-technical Commission
IETF Internet Engineering Task Force
IFS Installable File System
IIS Internet Information Services
IIS6 IIS Version 6.0
IKE Internet Key Exchange
IP Internet Protocol
IPv4 IP Version 4
IPv6 IP Version 6
IPC Inter-process Communication
IPSec IP Security
ISAPI Internet Server API
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A-4
ISATAP Intra-site Automatic Tunnel Addressing Protocol
ISO International Organization for Standardization
IT Information Technology
KDC Key Distributed Center
LAN Local Area Network
LDAP Lightweight Directory Access Protocol
LPC Local Procedure Call
LSA Local Security Authority
LSASS LSA Subsystem Service
MAC Message Authentication Code
MB Megabyte
MBR Master Boot Record
MMC Microsoft Management Console
NAT Network Address Translation
NIST National Institute of Standards and Technology
NTFS New Technology File System
NSA National Security Agency
NTLM New Technology LAN Manager
OLE Object Linking and Embedding
OS Operating System
PAE Physical Address Extension
PC/SC Personal Computer/Smart Card
PDC Primary DC
PIN Personal Identification Number
PKCS Public Key Certificate Standard
PKI Public Key Infrastructure
PP Protection Profile
RAID Redundant Array of Independent Disks
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A-5
RAM Random Access Memory
RC4 Rivest’s Cipher 4
RID Relative Identifier
RNG Random Number Generator
RPC Remote Procedure Call
RSA Rivest, Shamir and Adleman
RSASSA RSA Signature Scheme with Appendix
SA Security Association
SACL System Access Control List
SAM Security Assurance Measure
SAR Security Assurance Requirement
SAS Secure Attention Sequence
SD Security Descriptor
SHA Secure Hash Algorithm
SID Security Identifier
SF Security Functions
SFP Security Functional Policy
SFR Security Functional Requirement
SMB Server Message Block
SOF Strength of Function
SP Service Pack
SPI Security Parameters Index
SRM Security Reference Monitor
SSL Secure Sockets Layer
ST Security Target
SYSVOL System Volume
TCP Transmission Control Protocol
TDI Transport Driver Interface
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A-6
TLS Transport Layer Security
TOE Target of Evaluation
TSC TOE Scope of Control
TSF TOE Security Functions
TSS TOE Summary Specification
UI User Interface
UID User Identifier
UNC Universal Naming Convention
U.S. United States
URL Uniform Resource Locator
USB Universal Serial Bus
USN Update Sequence Number
v5 Version 5
VDS Virtual Disk Service
VPN Virtual Private Network
VSS Volume Shadow Copy Service
WAN Wide Area Network
WebDAV Web Document Authoring and Versioning
WU WEBUSER
WMD Windows Driver Model
WMI Windows Management Instrumentation
WSC Windows Security Center
WWW World-Wide Web
X86 Intel Microprocessors
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B-1
Appendix B—TOE Component Decomposition
Certificate Server Component
Certificate Service
Certificate Service Default Policy Module
Certificate Service Default Exit Module
Embedded Component
Bootable CD ROM Disk Image Driver
Embedded System Setup
Enhanced Write Filter Driver
Enhanced Write Filter Formatter Library
EWF Volume Creation and Configuration
First Boot Agent
First Boot Agent Registry Restoration Utility
Reseal Run-Time Image
System Stand-Alone Optional Component Manager
Windows File Protection
Executive Component
Executive Object Services
64 bit Kernel Debug Support
Application Compatibility Support
Cache Manager
Configuration Manager
Graphics Device Interface
Hardware Abstraction Layer (HAL)
Kernel Debug Manager
Kernel Mode Windows Management Instrumentation
Kernel Runtime
Local Process Communication
Memory Manager
Microkernel
Object Manager
Plug and Play Manager
Power Manager
Process Manager
Security Reference Monitor
Virtual DOS Machine
Window Manager (User)
Hardware Component
IA 32 Hardware
IA 64 Hardware
Windows Firewall Component
Application Layer Gateway Service
Home Networking Configuration Manager
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B-2
IP Network Address Translator
IPv6 Firewall Driver
MAC Bridge Driver
Network Address Translation Helper
Internet Information Server Component
Internet Information Services
IIS CoAdmin
IIS ISAPI Handler
IIS Metadata DLL
IIS Reset Control
IIS Web Admin Service
IIS Web Server Core
IIS Worker Process
ISAPI DLL for Web Printing
Metadata and Admin Service
URL Authorization ISAPI
Web Application Manager Registration
WebDAV ISAPI Extension and File Handle Cache
WinHTTP Web Proxy Auto Discovery Service
IO:Core Component
I/O Manager
Kernel Security Device Driver
File System Recognizer
Mount Manager
IO: File Component
CD-ROM File System
Encrypting File System
Fast FAT File System
Mailslot Driver
NPFS Driver
NT File System Driver
UDF File System Driver
IO: Net Component
TCP/IP Protocol Driver
Ancillary Function Driver for WinSock
Browser
Distributed File System Filter Driver
General Packet Classifier Driver
HTTP Driver
IP Filter Driver
IP in IP Encapsulation Driver
IPSec Driver
IPv6 Driver
Loopback Network Driver
NDIS 5.1 Wrapper Driver
NDIS User Mode I/O Driver
NetBT Transport Driver
QoS Packet Scheduler Driver
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B-3
Redirected Drive Buffering Subsystem Driver
Remote NDIS Miniport
Server Driver
SMB Mini Redirector
SMB Transport Driver
TDI Wrapper
WebDav Mini Redirector
Winsock2 IFS Layer Driver
Multiple UNC Provider and DFS Client Driver
IO: Devices Component
ACPI Driver
Adaptec adpu160m SCSI/RAID Controller
AGP 440 Bus Filter Driver
ATI ATI2MPAD Miniport Driver
ATI ATI2MTAG Miniport Driver
Audio Port Class Driver
BCM5703 Gigabit Ethernet
Beep Driver
Broadcom NetXtreme Gigabit Ethernet
Compaq Smart Array Controller SCSI Miniport Driver
Disk Manager I/O Driver
File System Filter Manager
FIPS Crypto Driver
Floppy Disk Controller Driver
Floppy Driver
FT Disk Driver
HID Class Library
HID Keyboard Filter Driver
HID Mouse Filter Driver
HID Parsing Library
i8042 Port Driver
IBM ServeRAID Adapter Storport Miniport Driver
IDE/ATAPI Port Driver
Intel e1000645 NIC Miniport Driver
Intel e100b645 NIC Miniport Driver
Intel Pro Adapter Driver
Intelligent I/O Miniport Driver
Intelligent I/O Utility Filter Driver
Keyboard Class Driver
LSI Logic PCI SCSI-FC MPI Miniport Driver
LSI Logic Symbios Ultra3 SCSI Miniport Driver
MegaRAID RAID Controller Driver
Mouse Class Driver
Null Driver
Parallel Port Driver
Partition Manager
Plug and Play PCI Enumerator
Plug and Play Software Device Enumerator Driver
PnP Disk Driver
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B-4
PnP ISA Bus Driver
Processor Device Driver
Redbook Audio Filter Driver
SCSI CD-ROM Driver
SCSI Class System Driver
SCSI Floppy Driver
SCSI Port Driver
SCSI Tape Class Driver
Serial Device Driver
Serial Port Enumerator
Smart Card Driver Library
Storage Port Driver
Update Driver
USB 1.1 & 2.0 Port Driver
USB CC Generic Parent Driver
USB CCID Driver
USB Host Controller Interface Miniport Drivers
USB Mass Storage Driver
USB Miniport Driver for Input Devices
USB Root Hub Driver
VGA/Super VGA Video Driver
Video Port Driver
Volume Shadow Copy Driver
Watchdog Driver
Windows Management Interface for ACPI
Net Support Component
Domain Name Service
COM+ Configuration Catalog Server
COM+ Event System Service
COM+ Services
DHCP Service
Distributed COM Services
Internet Extensions for Win32
IPv6 over IPv4 Service
Network Connections Manager
Network Location Awareness
Routing Information Protocol for Internet Protocol
RPC Endpoint Mapper
RPC Locator
Simple TCP/IP Services Service DLL
TCP/IP NetBios Transport Services DLL
TCP/IP Services Application
Web DAV Service DLL
OS Support Component
Distributed File System Service
Logical Disk Manager Administrative Service
Print Spooler
Removable Storage Manager
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B-5
Session Manager
WMI Provider Host
WMI Service
Security Component
Active Directory Replication Management
Core Directory Service
Credential Manager
Data Protection API
Directory Services Role Management
Encrypting File System Service
Inter-Site Messaging
IPSec SPD Server
KDC Service
Kerberos Security Package
LDAP
LSA Audit
LSA Authentication
LSA Policy
MAPI Based Directory Request
Microsoft Authentication Package v1.0
Microsoft Digest Access
Net Logon Service DLL
NT Directory Service Backup & Restore
Oakley Key Manager
PKI Trust Installation and Setup
Protected Storage Server
SAM Server
Secondary Logon Service
TLS / SSL Security Provider
TLS / SSL Service for HTTP
Trust Signing APIs
Services Component
Services and Controller App
Alerter Service
Application Experience Lookup Service
Computer Browser Service DLL
Cryptographic Services
Event Logging Service
File Replication Service
Generic Host Process for Win32 Services
Logical Disk Manager Service
Non-COM WMI Event Provision APIs
NT Messenger Service
Remote Registry Service
Server Service DLL
SIS Groveler Service
Smart Card Resource Management Server
System Event Notification Service (SENS)
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B-6
User-mode Plug-and-Play Service
Virtual Disk Service
Volume Shadow Copy Service
Windows Installer Service
Windows Security Center Service
Windows Security Configuration Editor Engine
Windows Shell Services Dll
Windows Time Service
Workstation Service
WinLogon Component
Windows Logon Application
Auto Enrollment DLL
Group Policy
Group Policy Object Processing
Infineon SICRYPT Smart Card CSP
Profile Mapping
Syskey
Trust Verification APIs
User Environment
Windows File Protection
Win32 Component
Client Server Runtime Process
Base Server
Windows Server DLL
Administrator Tools Component
auditusr
Auth_Mgr_GUI
Backup_and_Restore
Certification Authority GUI.
Certreq Utility
cipher.exe
COM+ Applications
Computer Management
ConfigureYourServerWizard
Date_and_Time
DCOM Config
Default_Group_Policy_Object_Restore_Utility
Device Manager
DHCP Snap-in
Disk Management
Disk Quota GUI
DNS Snap-in
Domains and Trusts
Driver_Verifier_Manager
efsadu
Event Viewer
Explorer
Group Policy Spec
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B-7
Group Policy Refresh
Group Policy
GUI Component
IIS_Manager_GUI
IPSec Settings GUI Spec
IPv6 Monitor DLL
Keyring Manager
Network
NetworkID
OU Delegation
Printers GUI
Registry_Editor
RSoP
SAM Lock Tool
SCWcmd.exe
Security Config Editor
Security Policy GUI
Security_Config_Wizard
Services
Session_Locking
Share_a_Folder_Wizard
Sigverif Design Spec
Sites and Services
Users and Groups
Volume Shadow Copy Service Command Line
Windows Mngt Infra (WMI)
Windows_Firewall_GUI