wfascim.dll.mui Network Management Value Objects 089b00b441ae219019bb377520d4cb87

File name:	wfascim.dll.mui
Size:	243200 byte
MD5:	089b00b441ae219019bb377520d4cb87
SHA1:	cbc3fa03e56139c5760139f05f28bf2ee746fe77
SHA256:	f3237449820a3a95639cbc56505183d3d3e72a1091a9c45d1f0413ab7081d0dc
Operating systems:	Windows 10
Extension:	MUI

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id	Hungarian	English
1	InstanceID is an optional property that may be used to opaquely and uniquely identify an instance of this class within the scope of the instantiating Namespace. Various subclasses of this class may override this property to make it required, or a key. Such subclasses may also modify the preferred algorithms for ensuring uniqueness that are defined below. To ensure uniqueness within the NameSpace, the value of InstanceID should be constructed using the following "preferred" algorithm: : Where and are separated by a colon (:), and where must include a copyrighted, trademarked, or otherwise unique name that is owned by the business entity that is creating or defining the InstanceID or that is a registered ID assigned to the business entity by a recognized global authority. (This requirement is similar to the _ structure of Schema class names.) In addition, to ensure uniqueness, must not contain a colon (:). When using this algorithm, the first colon to appear in InstanceID must appear between and . is chosen by the business entity and should not be reused to identify different underlying (real-world) elements. If not null and the above "preferred" algorithm is not used, the defining entity must assure that the resulting InstanceID is not reused across any InstanceIDs produced by this or other providers for the NameSpace of this instance. If not set to null for DMTF-defined instances, the "preferred" algorithm must be used with the set to CIM.	InstanceID is an optional property that may be used to opaquely and uniquely identify an instance of this class within the scope of the instantiating Namespace. Various subclasses of this class may override this property to make it required, or a key. Such subclasses may also modify the preferred algorithms for ensuring uniqueness that are defined below. To ensure uniqueness within the NameSpace, the value of InstanceID should be constructed using the following "preferred" algorithm: : Where and are separated by a colon (:), and where must include a copyrighted, trademarked, or otherwise unique name that is owned by the business entity that is creating or defining the InstanceID or that is a registered ID assigned to the business entity by a recognized global authority. (This requirement is similar to the _ structure of Schema class names.) In addition, to ensure uniqueness, must not contain a colon (:). When using this algorithm, the first colon to appear in InstanceID must appear between and . is chosen by the business entity and should not be reused to identify different underlying (real-world) elements. If not null and the above "preferred" algorithm is not used, the defining entity must assure that the resulting InstanceID is not reused across any InstanceIDs produced by this or other providers for the NameSpace of this instance. If not set to null for DMTF-defined instances, the "preferred" algorithm must be used with the set to CIM.
2	The Caption property is a short textual description (one- line string) of the object.	The Caption property is a short textual description (one- line string) of the object.
3	The Description property provides a textual description of the object.	The Description property provides a textual description of the object.
4	A user-friendly name for the object. This property allows each instance to define a user-friendly name in addition to its key properties, identity data, and description information. Note that the Name property of ManagedSystemElement is also defined as a user-friendly name. But, it is often subclassed to be a Key. It is not reasonable that the same property can convey both identity and a user-friendly name, without inconsistencies. Where Name exists and is not a Key (such as for instances of LogicalDevice), the same information can be present in both the Name and ElementName properties. Note that if there is an associated instance of CIM_EnabledLogicalElementCapabilities, restrictions on this properties may exist as defined in ElementNameMask and MaxElementNameLen properties defined in that class.	A user-friendly name for the object. This property allows each instance to define a user-friendly name in addition to its key properties, identity data, and description information. Note that the Name property of ManagedSystemElement is also defined as a user-friendly name. But, it is often subclassed to be a Key. It is not reasonable that the same property can convey both identity and a user-friendly name, without inconsistencies. Where Name exists and is not a Key (such as for instances of LogicalDevice), the same information can be present in both the Name and ElementName properties. Note that if there is an associated instance of CIM_EnabledLogicalElementCapabilities, restrictions on this properties may exist as defined in ElementNameMask and MaxElementNameLen properties defined in that class.
5	2.19.0	2.19.0
6	ManagedElement is an abstract class that provides a common superclass (or top of the inheritance tree) for the non-association classes in the CIM Schema.	ManagedElement is an abstract class that provides a common superclass (or top of the inheritance tree) for the non-association classes in the CIM Schema.
7	A datetime value that indicates when the object was installed. Lack of a value does not indicate that the object is not installed.	A datetime value that indicates when the object was installed. Lack of a value does not indicate that the object is not installed.
8	The Name property defines the label by which the object is known. When subclassed, the Name property can be overridden to be a Key property.	The Name property defines the label by which the object is known. When subclassed, the Name property can be overridden to be a Key property.
9	Indicates the current statuses of the element. Various operational statuses are defined. Many of the enumeration\'s values are self-explanatory. However, a few are not and are described here in more detail. "Stressed" indicates that the element is functioning, but needs attention. Examples of "Stressed" states are overload, overheated, and so on. "Predictive Failure" indicates that an element is functioning nominally but predicting a failure in the near future. "In Service" describes an element being configured, maintained, cleaned, or otherwise administered. "No Contact" indicates that the monitoring system has knowledge of this element, but has never been able to establish communications with it. "Lost Communication" indicates that the ManagedSystem Element is known to exist and has been contacted successfully in the past, but is currently unreachable. "Stopped" and "Aborted" are similar, although the former implies a clean and orderly stop, while the latter implies an abrupt stop where the state and configuration of the element might need to be updated. "Dormant" indicates that the element is inactive or quiesced. "Supporting Entity in Error" indicates that this element might be "OK" but that another element, on which it is dependent, is in error. An example is a network service or endpoint that cannot function due to lower-layer networking problems. "Completed" indicates that the element has completed its operation. This value should be combined with either OK, Error, or Degraded so that a client can tell if the complete operation Completed with OK (passed), Completed with Error (failed), or Completed with Degraded (the operation finished, but it did not complete OK or did not report an error). "Power Mode" indicates that the element has additional power model information contained in the Associated PowerManagementService association. OperationalStatus replaces the Status property on ManagedSystemElement to provide a consistent approach to enumerations, to address implementation needs for an array property, and to provide a migration path from today\'s environment to the future. This change was not made earlier because it required the deprecated qualifier. Due to the widespread use of the existing Status property in management applications, it is strongly recommended that providers or instrumentation provide both the Status and OperationalStatus properties. Further, the first value of OperationalStatus should contain the primary status for the element. When instrumented, Status (because it is single-valued) should also provide the primary status of the element.	Indicates the current statuses of the element. Various operational statuses are defined. Many of the enumeration\'s values are self-explanatory. However, a few are not and are described here in more detail. "Stressed" indicates that the element is functioning, but needs attention. Examples of "Stressed" states are overload, overheated, and so on. "Predictive Failure" indicates that an element is functioning nominally but predicting a failure in the near future. "In Service" describes an element being configured, maintained, cleaned, or otherwise administered. "No Contact" indicates that the monitoring system has knowledge of this element, but has never been able to establish communications with it. "Lost Communication" indicates that the ManagedSystem Element is known to exist and has been contacted successfully in the past, but is currently unreachable. "Stopped" and "Aborted" are similar, although the former implies a clean and orderly stop, while the latter implies an abrupt stop where the state and configuration of the element might need to be updated. "Dormant" indicates that the element is inactive or quiesced. "Supporting Entity in Error" indicates that this element might be "OK" but that another element, on which it is dependent, is in error. An example is a network service or endpoint that cannot function due to lower-layer networking problems. "Completed" indicates that the element has completed its operation. This value should be combined with either OK, Error, or Degraded so that a client can tell if the complete operation Completed with OK (passed), Completed with Error (failed), or Completed with Degraded (the operation finished, but it did not complete OK or did not report an error). "Power Mode" indicates that the element has additional power model information contained in the Associated PowerManagementService association. OperationalStatus replaces the Status property on ManagedSystemElement to provide a consistent approach to enumerations, to address implementation needs for an array property, and to provide a migration path from today\'s environment to the future. This change was not made earlier because it required the deprecated qualifier. Due to the widespread use of the existing Status property in management applications, it is strongly recommended that providers or instrumentation provide both the Status and OperationalStatus properties. Further, the first value of OperationalStatus should contain the primary status for the element. When instrumented, Status (because it is single-valued) should also provide the primary status of the element.
10	Unknown	Unknown
11	Other	Other
12	OK	OK
13	Degraded	Degraded
14	Stressed	Stressed
15	Predictive Failure	Predictive Failure
16	Error	Error
17	Non-Recoverable Error	Non-Recoverable Error
18	Starting	Starting
19	Stopping	Stopping
20	Stopped	Stopped
21	In Service	In Service
22	No Contact	No Contact
23	Lost Communication	Lost Communication
24	Aborted	Aborted
25	Dormant	Dormant
26	Supporting Entity in Error	Supporting Entity in Error
27	Completed	Completed
28	Power Mode	Power Mode
29	DMTF Reserved	DMTF Reserved
30	Vendor Reserved	Vendor Reserved
31	Strings describing the various OperationalStatus array values. For example, if "Stopping" is the value assigned to OperationalStatus, then this property may contain an explanation as to why an object is being stopped. Note that entries in this array are correlated with those at the same array index in OperationalStatus.	Strings describing the various OperationalStatus array values. For example, if "Stopping" is the value assigned to OperationalStatus, then this property may contain an explanation as to why an object is being stopped. Note that entries in this array are correlated with those at the same array index in OperationalStatus.
32	A string indicating the current status of the object. Various operational and non-operational statuses are defined. This property is deprecated in lieu of OperationalStatus, which includes the same semantics in its enumeration. This change is made for 3 reasons: 1) Status is more correctly defined as an array. This definition overcomes the limitation of describing status using a single value, when it is really a multi-valued property (for example, an element might be OK AND Stopped. 2) A MaxLen of 10 is too restrictive and leads to unclear enumerated values. 3) The change to a uint16 data type was discussed when CIM V2.0 was defined. However, existing V1.0 implementations used the string property and did not want to modify their code. Therefore, Status was grandfathered into the Schema. Use of the deprecated qualifier allows the maintenance of the existing property, but also permits an improved definition using OperationalStatus.	A string indicating the current status of the object. Various operational and non-operational statuses are defined. This property is deprecated in lieu of OperationalStatus, which includes the same semantics in its enumeration. This change is made for 3 reasons: 1) Status is more correctly defined as an array. This definition overcomes the limitation of describing status using a single value, when it is really a multi-valued property (for example, an element might be OK AND Stopped. 2) A MaxLen of 10 is too restrictive and leads to unclear enumerated values. 3) The change to a uint16 data type was discussed when CIM V2.0 was defined. However, existing V1.0 implementations used the string property and did not want to modify their code. Therefore, Status was grandfathered into the Schema. Use of the deprecated qualifier allows the maintenance of the existing property, but also permits an improved definition using OperationalStatus.
33	Indicates the current health of the element. This attribute expresses the health of this element but not necessarily that of its subcomponents. The possible values are 0 to 30, where 5 means the element is entirely healthy and 30 means the element is completely non-functional. The following continuum is defined: "Non-recoverable Error" (30) - The element has completely failed, and recovery is not possible. All functionality provided by this element has been lost. "Critical Failure" (25) - The element is non-functional and recovery might not be possible. "Major Failure" (20) - The element is failing. It is possible that some or all of the functionality of this component is degraded or not working. "Minor Failure" (15) - All functionality is available but some might be degraded. "Degraded/Warning" (10) - The element is in working order and all functionality is provided. However, the element is not working to the best of its abilities. For example, the element might not be operating at optimal performance or it might be reporting recoverable errors. "OK" (5) - The element is fully functional and is operating within normal operational parameters and without error. "Unknown" (0) - The implementation cannot report on HealthState at this time. DMTF has reserved the unused portion of the continuum for additional HealthStates in the future.	Indicates the current health of the element. This attribute expresses the health of this element but not necessarily that of its subcomponents. The possible values are 0 to 30, where 5 means the element is entirely healthy and 30 means the element is completely non-functional. The following continuum is defined: "Non-recoverable Error" (30) - The element has completely failed, and recovery is not possible. All functionality provided by this element has been lost. "Critical Failure" (25) - The element is non-functional and recovery might not be possible. "Major Failure" (20) - The element is failing. It is possible that some or all of the functionality of this component is degraded or not working. "Minor Failure" (15) - All functionality is available but some might be degraded. "Degraded/Warning" (10) - The element is in working order and all functionality is provided. However, the element is not working to the best of its abilities. For example, the element might not be operating at optimal performance or it might be reporting recoverable errors. "OK" (5) - The element is fully functional and is operating within normal operational parameters and without error. "Unknown" (0) - The implementation cannot report on HealthState at this time. DMTF has reserved the unused portion of the continuum for additional HealthStates in the future.
34	Degraded/Warning	Degraded/Warning
35	Minor failure	Minor failure
36	Major failure	Major failure
37	Critical failure	Critical failure
38	Non-recoverable error	Non-recoverable error
39	CommunicationStatus indicates the ability of the instrumentation to communicate with the underlying ManagedElement. CommunicationStatus consists of one of the following values: Unknown, None, Communication OK, Lost Communication, or No Contact. A Null return indicates the implementation (provider) does not implement this property. "Unknown" indicates the implementation is in general capable of returning this property, but is unable to do so at this time. "Not Available" indicates that the implementation (provider) is capable of returning a value for this property, but not ever for this particular piece of hardware/software or the property is intentionally not used because it adds no meaningful information (as in the case of a property that is intended to add additional info to another property). "Communication OK " indicates communication is established with the element, but does not convey any quality of service. "No Contact" indicates that the monitoring system has knowledge of this element, but has never been able to establish communications with it. "Lost Communication" indicates that the Managed Element is known to exist and has been contacted successfully in the past, but is currently unreachable.	CommunicationStatus indicates the ability of the instrumentation to communicate with the underlying ManagedElement. CommunicationStatus consists of one of the following values: Unknown, None, Communication OK, Lost Communication, or No Contact. A Null return indicates the implementation (provider) does not implement this property. "Unknown" indicates the implementation is in general capable of returning this property, but is unable to do so at this time. "Not Available" indicates that the implementation (provider) is capable of returning a value for this property, but not ever for this particular piece of hardware/software or the property is intentionally not used because it adds no meaningful information (as in the case of a property that is intended to add additional info to another property). "Communication OK " indicates communication is established with the element, but does not convey any quality of service. "No Contact" indicates that the monitoring system has knowledge of this element, but has never been able to establish communications with it. "Lost Communication" indicates that the Managed Element is known to exist and has been contacted successfully in the past, but is currently unreachable.
40	Not Available	Not Available
41	Communication OK	Communication OK
42	DetailedStatus compliments PrimaryStatus with additional status detail. It consists of one of the following values: Not Available, No Additional Information, Stressed, Predictive Failure, Error, Non-Recoverable Error, SupportingEntityInError. Detailed status is used to expand upon the PrimaryStatus of the element. A Null return indicates the implementation (provider) does not implement this property. "Not Available" indicates that the implementation (provider) is capable of returning a value for this property, but not ever for this particular piece of hardware/software or the property is intentionally not used because it adds no meaningful information (as in the case of a property that is intended to add additional info to another property). "No Additional Information" indicates that the element is functioning normally as indicated by PrimaryStatus = "OK". "Stressed" indicates that the element is functioning, but needs attention. Examples of "Stressed" states are overload, overheated, and so on. "Predictive Failure" indicates that an element is functioning normally but a failure is predicted in the near future. "Non-Recoverable Error " indicates that this element is in an error condition that requires human intervention. "Supporting Entity in Error" indicates that this element might be "OK" but that another element, on which it is dependent, is in error. An example is a network service or endpoint that cannot function due to lower-layer networking problems.	DetailedStatus compliments PrimaryStatus with additional status detail. It consists of one of the following values: Not Available, No Additional Information, Stressed, Predictive Failure, Error, Non-Recoverable Error, SupportingEntityInError. Detailed status is used to expand upon the PrimaryStatus of the element. A Null return indicates the implementation (provider) does not implement this property. "Not Available" indicates that the implementation (provider) is capable of returning a value for this property, but not ever for this particular piece of hardware/software or the property is intentionally not used because it adds no meaningful information (as in the case of a property that is intended to add additional info to another property). "No Additional Information" indicates that the element is functioning normally as indicated by PrimaryStatus = "OK". "Stressed" indicates that the element is functioning, but needs attention. Examples of "Stressed" states are overload, overheated, and so on. "Predictive Failure" indicates that an element is functioning normally but a failure is predicted in the near future. "Non-Recoverable Error " indicates that this element is in an error condition that requires human intervention. "Supporting Entity in Error" indicates that this element might be "OK" but that another element, on which it is dependent, is in error. An example is a network service or endpoint that cannot function due to lower-layer networking problems.
43	No Additional Information	No Additional Information
44	OperatingStatus provides a current status value for the operational condition of the element and can be used for providing more detail with respect to the value of EnabledState. It can also provide the transitional states when an element is transitioning from one state to another, such as when an element is transitioning between EnabledState and RequestedState, as well as other transitional conditions. OperatingStatus consists of one of the following values: Unknown, Not Available, In Service, Starting, Stopping, Stopped, Aborted, Dormant, Completed, Migrating, Emmigrating, Immigrating, Snapshotting. Shutting Down, In Test A Null return indicates the implementation (provider) does not implement this property. "Unknown" indicates the implementation is in general capable of returning this property, but is unable to do so at this time. "None" indicates that the implementation (provider) is capable of returning a value for this property, but not ever for this particular piece of hardware/software or the property is intentionally not used because it adds no meaningful information (as in the case of a property that is intended to add additional info to another property). "Servicing" describes an element being configured, maintained, cleaned, or otherwise administered. "Starting" describes an element being initialized. "Stopping" describes an element being brought to an orderly stop. "Stopped" and "Aborted" are similar, although the former implies a clean and orderly stop, while the latter implies an abrupt stop where the state and configuration of the element might need to be updated. "Dormant" indicates that the element is inactive or quiesced. "Completed" indicates that the element has completed its operation. This value should be combined with either OK, Error, or Degraded in the PrimaryStatus so that a client can tell if the complete operation Completed with OK (passed), Completed with Error (failed), or Completed with Degraded (the operation finished, but it did not complete OK or did not report an error). "Migrating" element is being moved between host elements. "Immigrating" element is being moved to new host element. "Emigrating" element is being moved away from host element. "Shutting Down" describes an element being brought to an abrupt stop. "In Test" element is performing test functions. "Transitioning" describes an element that is between states, that is, it is not fully available in either its previous state or its next state. This value should be used if other values indicating a transition to a specific state are not applicable. "In Service" describes an element that is in service and operational.	OperatingStatus provides a current status value for the operational condition of the element and can be used for providing more detail with respect to the value of EnabledState. It can also provide the transitional states when an element is transitioning from one state to another, such as when an element is transitioning between EnabledState and RequestedState, as well as other transitional conditions. OperatingStatus consists of one of the following values: Unknown, Not Available, In Service, Starting, Stopping, Stopped, Aborted, Dormant, Completed, Migrating, Emmigrating, Immigrating, Snapshotting. Shutting Down, In Test A Null return indicates the implementation (provider) does not implement this property. "Unknown" indicates the implementation is in general capable of returning this property, but is unable to do so at this time. "None" indicates that the implementation (provider) is capable of returning a value for this property, but not ever for this particular piece of hardware/software or the property is intentionally not used because it adds no meaningful information (as in the case of a property that is intended to add additional info to another property). "Servicing" describes an element being configured, maintained, cleaned, or otherwise administered. "Starting" describes an element being initialized. "Stopping" describes an element being brought to an orderly stop. "Stopped" and "Aborted" are similar, although the former implies a clean and orderly stop, while the latter implies an abrupt stop where the state and configuration of the element might need to be updated. "Dormant" indicates that the element is inactive or quiesced. "Completed" indicates that the element has completed its operation. This value should be combined with either OK, Error, or Degraded in the PrimaryStatus so that a client can tell if the complete operation Completed with OK (passed), Completed with Error (failed), or Completed with Degraded (the operation finished, but it did not complete OK or did not report an error). "Migrating" element is being moved between host elements. "Immigrating" element is being moved to new host element. "Emigrating" element is being moved away from host element. "Shutting Down" describes an element being brought to an abrupt stop. "In Test" element is performing test functions. "Transitioning" describes an element that is between states, that is, it is not fully available in either its previous state or its next state. This value should be used if other values indicating a transition to a specific state are not applicable. "In Service" describes an element that is in service and operational.
45	Servicing	Servicing
46	Migrating	Migrating
47	Emigrating	Emigrating
48	Immigrating	Immigrating
49	Snapshotting	Snapshotting
50	Shutting Down	Shutting Down
51	In Test	In Test
52	Transitioning	Transitioning
53	PrimaryStatus provides a high level status value, intended to align with Red-Yellow-Green type representation of status. It should be used in conjunction with DetailedStatus to provide high level and detailed health status of the ManagedElement and its subcomponents. PrimaryStatus consists of one of the following values: Unknown, OK, Degraded or Error. "Unknown" indicates the implementation is in general capable of returning this property, but is unable to do so at this time. "OK" indicates the ManagedElement is functioning normally. "Degraded" indicates the ManagedElement is functioning below normal. "Error" indicates the ManagedElement is in an Error condition.	PrimaryStatus provides a high level status value, intended to align with Red-Yellow-Green type representation of status. It should be used in conjunction with DetailedStatus to provide high level and detailed health status of the ManagedElement and its subcomponents. PrimaryStatus consists of one of the following values: Unknown, OK, Degraded or Error. "Unknown" indicates the implementation is in general capable of returning this property, but is unable to do so at this time. "OK" indicates the ManagedElement is functioning normally. "Degraded" indicates the ManagedElement is functioning below normal. "Error" indicates the ManagedElement is in an Error condition.
54	CIM_ManagedSystemElement is the base class for the System Element hierarchy. Any distinguishable component of a System is a candidate for inclusion in this class. Examples of system components include: - software components such as application servers, databases, and applications - operating system components such as files, processes, and threads - device components such as disk drives, controllers, processors, and printers - physical components such as chips and cards.	CIM_ManagedSystemElement is the base class for the System Element hierarchy. Any distinguishable component of a System is a candidate for inclusion in this class. Examples of system components include: - software components such as application servers, databases, and applications - operating system components such as files, processes, and threads - device components such as disk drives, controllers, processors, and printers - physical components such as chips and cards.
55	2.22.0	2.22.0
56	CIM_LogicalElement is a base class for all the components of a System that represent abstract system components, such as Files, Processes, or LogicalDevices.	CIM_LogicalElement is a base class for all the components of a System that represent abstract system components, such as Files, Processes, or LogicalDevices.
57	2.6.0	2.6.0
58	The Name property defines the label by which the Filter Entry is known and uniquely identified.	The Name property defines the label by which the Filter Entry is known and uniquely identified.
59	The scoping ComputerSystem\'s CreationClassName.	The scoping ComputerSystem\'s CreationClassName.
60	The scoping ComputerSystem\'s Name.	The scoping ComputerSystem\'s Name.
61	CreationClassName indicates the name of the class or the subclass used in the creation of an instance. When used with the other key properties of this class, this property allows all instances of this class and its subclasses to be uniquely identified.	CreationClassName indicates the name of the class or the subclass used in the creation of an instance. When used with the other key properties of this class, this property allows all instances of this class and its subclasses to be uniquely identified.
62	Boolean indicating that the match condition described in the properties of the FilterEntryBase subclass should be negated. This property is defined for ease of use when filtering on simple negations - for example, to select all source ports except 162. It is not recommended that this Boolean be set to True when filtering on multiple criteria, such as defining an IPHeadersFilter based on source/destination addresses, ports, and DiffServ Code Points.	Boolean indicating that the match condition described in the properties of the FilterEntryBase subclass should be negated. This property is defined for ease of use when filtering on simple negations - for example, to select all source ports except 162. It is not recommended that this Boolean be set to True when filtering on multiple criteria, such as defining an IPHeadersFilter based on source/destination addresses, ports, and DiffServ Code Points.
63	A FilterList aggregates instances of (subclasses of) FilterEntryBase via the aggregation EntriesInFilterList. The filter entries are always ANDed together when grouped by the FilterList. Note that it is possible to aggregate different types of filters into a single FilterList - for example, packet header filters (represented by the IpHeadersFilter class) and IPsec security filters. A FilterList is weak to the network device (e.g., the ComputerSystem) that contains it. Hence, the ComputerSystem keys are propagated to this class.	A FilterList aggregates instances of (subclasses of) FilterEntryBase via the aggregation EntriesInFilterList. The filter entries are always ANDed together when grouped by the FilterList. Note that it is possible to aggregate different types of filters into a single FilterList - for example, packet header filters (represented by the IpHeadersFilter class) and IPsec security filters. A FilterList is weak to the network device (e.g., the ComputerSystem) that contains it. Hence, the ComputerSystem keys are propagated to this class.
64	2.7.0	2.7.0
65	A string that uniquely identifies this instance within the PolicyStore.	A string that uniquely identifies this instance within the PolicyStore.
66	Used in CimInstance.ToString(). A short string for describing this instance when debugging.	Used in CimInstance.ToString(). A short string for describing this instance when debugging.
67	This field is ignored.	This field is ignored.
68	Reserved for internal use by the WMI provider only.	Reserved for internal use by the WMI provider only.
69	An array of addresses, subnets, ranges, or some of the following tokens: Any, LocalSubnet, DefaultGateway, DHCP, WINS, DNS, Internet, Intranet, IntranetRemoteAccess, PlayToTargets. The 'Any' keyword may only be used by itself.	An array of addresses, subnets, ranges, or some of the following tokens: Any, LocalSubnet, DefaultGateway, DHCP, WINS, DNS, Internet, Intranet, IntranetRemoteAccess, PlayToTargets. The 'Any' keyword may only be used by itself.
70	Determines whether the the address is considered intranet or Internet.	Determines whether the the address is considered intranet or Internet.
71	An AddressFilter matches based on the local or remote address of the traffic.	An AddressFilter matches based on the local or remote address of the traffic.
72	Path and filename of the executable whose traffic to filter.	Path and filename of the executable whose traffic to filter.
73	The application package this rule applies to, given as a SID.	The application package this rule applies to, given as a SID.
74	Filters traffic based on which local application is sending or receiving the traffic.	Filters traffic based on which local application is sending or receiving the traffic.
75	A user-friendly name of this policy-related object.	A user-friendly name of this policy-related object.
76	An array of keywords for characterizing / categorizing policy objects. Keywords are of one of two types: - Keywords defined in this and other MOFs, or in DMTF white papers. These keywords provide a vendor- independent, installation-independent way of characterizing policy objects. - Installation-dependent keywords for characterizing policy objects. Examples include \'Engineering\', \'Billing\', and \'Review in December 2000\'. This MOF defines the following keywords: \'UNKNOWN\', \'CONFIGURATION\', \'USAGE\', \'SECURITY\', \'SERVICE\', \'MOTIVATIONAL\', \'INSTALLATION\', and \'EVENT\'. These concepts are self-explanatory and are further discussed in the SLA/Policy White Paper. One additional keyword is defined: \'POLICY\'. The role of this keyword is to identify policy-related instances that may not be otherwise identifiable, in some implementations. The keyword \'POLICY\' is NOT mutually exclusive of the other keywords specified above.	An array of keywords for characterizing / categorizing policy objects. Keywords are of one of two types: - Keywords defined in this and other MOFs, or in DMTF white papers. These keywords provide a vendor- independent, installation-independent way of characterizing policy objects. - Installation-dependent keywords for characterizing policy objects. Examples include \'Engineering\', \'Billing\', and \'Review in December 2000\'. This MOF defines the following keywords: \'UNKNOWN\', \'CONFIGURATION\', \'USAGE\', \'SECURITY\', \'SERVICE\', \'MOTIVATIONAL\', \'INSTALLATION\', and \'EVENT\'. These concepts are self-explanatory and are further discussed in the SLA/Policy White Paper. One additional keyword is defined: \'POLICY\'. The role of this keyword is to identify policy-related instances that may not be otherwise identifiable, in some implementations. The keyword \'POLICY\' is NOT mutually exclusive of the other keywords specified above.
77	An abstract class defining the common properties of the policy managed elements derived from CIM_Policy. The subclasses are used to create rules and groups of rules that work together to form a coherent set of policies within an administrative domain or set of domains.	An abstract class defining the common properties of the policy managed elements derived from CIM_Policy. The subclasses are used to create rules and groups of rules that work together to form a coherent set of policies within an administrative domain or set of domains.
78	PolicyDecisionStrategy defines the evaluation method used for policies contained in the PolicySet. There are two values currently defined: - \'First Matching\' (1) executes the actions of the first rule whose conditions evaluate to TRUE. The concept of \'first\' is determined by examining the priority of the rule within the policy set (i.e., by examining the property, PolicySetComponent.Priority). Note that this ordering property MUST be maintained when processing the PolicyDecisionStrategy. - \'All\' (2) executes the actions of ALL rules whose conditions evaluate to TRUE, in the set. As noted above, the order of processing of the rules is defined by the property, PolicySetComponent.Priority (and within a rule, the ordering of the actions is defined by the property, PolicyActionStructure.ActionOrder). Note that when this strategy is defined, processing MUST be completed of ALL rules whose conditions evaluate to TRUE, regardless of errors in the execution of the rule actions.	PolicyDecisionStrategy defines the evaluation method used for policies contained in the PolicySet. There are two values currently defined: - \'First Matching\' (1) executes the actions of the first rule whose conditions evaluate to TRUE. The concept of \'first\' is determined by examining the priority of the rule within the policy set (i.e., by examining the property, PolicySetComponent.Priority). Note that this ordering property MUST be maintained when processing the PolicyDecisionStrategy. - \'All\' (2) executes the actions of ALL rules whose conditions evaluate to TRUE, in the set. As noted above, the order of processing of the rules is defined by the property, PolicySetComponent.Priority (and within a rule, the ordering of the actions is defined by the property, PolicyActionStructure.ActionOrder). Note that when this strategy is defined, processing MUST be completed of ALL rules whose conditions evaluate to TRUE, regardless of errors in the execution of the rule actions.
79	First Matching	First Matching
80	All	All
81	The PolicyRoles property represents the roles associated with a PolicySet. All contained PolicySet instances inherit the values of the PolicyRoles of the aggregating PolicySet but the values are not copied. A contained PolicySet instance may, however, add additional PolicyRoles to those it inherits from its aggregating PolicySet(s). Each value in PolicyRoles multi-valued property represents a role for which the PolicySet applies, i.e., the PolicySet should be used by any enforcement point that assumes any of the listed PolicyRoles values. Although not officially designated as \'role combinations\', multiple roles may be specified using the form: [&&]* where the individual role names appear in alphabetical order (according to the collating sequence for UCS-2). Implementations may treat PolicyRoles values that are specified as \'role combinations\' as simple strings. This property is deprecated in lieu of the use of an association, CIM_PolicySetInRoleCollection. The latter is a more explicit and less error-prone approach to modeling that a PolicySet has one or more PolicyRoles.	The PolicyRoles property represents the roles associated with a PolicySet. All contained PolicySet instances inherit the values of the PolicyRoles of the aggregating PolicySet but the values are not copied. A contained PolicySet instance may, however, add additional PolicyRoles to those it inherits from its aggregating PolicySet(s). Each value in PolicyRoles multi-valued property represents a role for which the PolicySet applies, i.e., the PolicySet should be used by any enforcement point that assumes any of the listed PolicyRoles values. Although not officially designated as \'role combinations\', multiple roles may be specified using the form: [&&]* where the individual role names appear in alphabetical order (according to the collating sequence for UCS-2). Implementations may treat PolicyRoles values that are specified as \'role combinations\' as simple strings. This property is deprecated in lieu of the use of an association, CIM_PolicySetInRoleCollection. The latter is a more explicit and less error-prone approach to modeling that a PolicySet has one or more PolicyRoles.
82	Indicates whether this PolicySet is administratively enabled, administratively disabled, or enabled for debug. The "EnabledForDebug" property value is deprecated and, when it or any value not understood by the receiver is specified, the receiving enforcement point treats the PolicySet as "Disabled". To determine if a PolicySet is "Enabled", the containment hierarchy specified by the PolicySetComponent aggregation is examined and the Enabled property values of the hierarchy are ANDed together. Thus, for example, everything aggregated by a PolicyGroup may be disabled by setting the Enabled property in the PolicyGroup instance to "Disabled" without changing the Enabled property values of any of the aggregated instances. The default value is 1 ("Enabled").	Indicates whether this PolicySet is administratively enabled, administratively disabled, or enabled for debug. The "EnabledForDebug" property value is deprecated and, when it or any value not understood by the receiver is specified, the receiving enforcement point treats the PolicySet as "Disabled". To determine if a PolicySet is "Enabled", the containment hierarchy specified by the PolicySetComponent aggregation is examined and the Enabled property values of the hierarchy are ANDed together. Thus, for example, everything aggregated by a PolicyGroup may be disabled by setting the Enabled property in the PolicyGroup instance to "Disabled" without changing the Enabled property values of any of the aggregated instances. The default value is 1 ("Enabled").
83	Enabled	Enabled
84	Disabled	Disabled
85	Enabled For Debug	Enabled For Debug
86	PolicySet is an abstract class that represents a set of policies that form a coherent set. The set of contained policies has a common decision strategy and a common set of policy roles (defined via the PolicySetInRole Collection association). Subclasses include PolicyGroup and PolicyRule.	PolicySet is an abstract class that represents a set of policies that form a coherent set. The set of contained policies has a common decision strategy and a common set of policy roles (defined via the PolicySetInRole Collection association). Subclasses include PolicyGroup and PolicyRule.
87	2.8.0	2.8.0
88	The scoping System\'s CreationClassName.	The scoping System\'s CreationClassName.
89	The scoping System\'s Name.	The scoping System\'s Name.
90	A user-friendly name of this PolicyRule.	A user-friendly name of this PolicyRule.
91	Indicates whether the list of PolicyConditions associated with this PolicyRule is in disjunctive normal form (DNF), conjunctive normal form (CNF), or has no conditions (i.e., is an UnconditionalRule) and is automatically evaluated to "True." The default value is 1 ("DNF").	Indicates whether the list of PolicyConditions associated with this PolicyRule is in disjunctive normal form (DNF), conjunctive normal form (CNF), or has no conditions (i.e., is an UnconditionalRule) and is automatically evaluated to "True." The default value is 1 ("DNF").
92	Unconditional Rule	Unconditional Rule
93	DNF	DNF
94	CNF	CNF
95	A free-form string that can be used to provide guidelines on how this PolicyRule should be used.	A free-form string that can be used to provide guidelines on how this PolicyRule should be used.
96	PolicyRule.Priority is deprecated and replaced by providing the priority for a rule (and a group) in the context of the aggregating PolicySet instead of the priority being used for all aggregating PolicySet instances. Thus, the assignment of priority values is much simpler. A non-negative integer for prioritizing this Policy Rule relative to other Rules. A larger value indicates a higher priority. The default value is 0.	PolicyRule.Priority is deprecated and replaced by providing the priority for a rule (and a group) in the context of the aggregating PolicySet instead of the priority being used for all aggregating PolicySet instances. Thus, the assignment of priority values is much simpler. A non-negative integer for prioritizing this Policy Rule relative to other Rules. A larger value indicates a higher priority. The default value is 0.
97	A flag indicating that the evaluation of the Policy Conditions and execution of PolicyActions (if the Conditions evaluate to TRUE) is required. The evaluation of a PolicyRule MUST be attempted if the Mandatory property value is TRUE. If the Mandatory property is FALSE, then the evaluation of the Rule is \'best effort\' and MAY be ignored.	A flag indicating that the evaluation of the Policy Conditions and execution of PolicyActions (if the Conditions evaluate to TRUE) is required. The evaluation of a PolicyRule MUST be attempted if the Mandatory property value is TRUE. If the Mandatory property is FALSE, then the evaluation of the Rule is \'best effort\' and MAY be ignored.
98	This property gives a policy administrator a way of specifying how the ordering of the PolicyActions associated with this PolicyRule is to be interpreted. Three values are supported: o mandatory(1): Do the actions in the indicated order, or don\'t do them at all. o recommended(2): Do the actions in the indicated order if you can, but if you can\'t do them in this order, do them in another order if you can. o dontCare(3): Do them -- I don\'t care about the order. The default value is 3 ("DontCare").	This property gives a policy administrator a way of specifying how the ordering of the PolicyActions associated with this PolicyRule is to be interpreted. Three values are supported: o mandatory(1): Do the actions in the indicated order, or don\'t do them at all. o recommended(2): Do the actions in the indicated order if you can, but if you can\'t do them in this order, do them in another order if you can. o dontCare(3): Do them -- I don\'t care about the order. The default value is 3 ("DontCare").
99	Mandatory	Mandatory
100	Recommended	Recommended
101	Dont Care	Dont Care
102	ExecutionStrategy defines the strategy to be used in executing the sequenced actions aggregated by this PolicyRule. There are three execution strategies: Do Until Success - execute actions according to predefined order, until successful execution of a single action. Do All - execute ALL actions which are part of the modeled set, according to their predefined order. Continue doing this, even if one or more of the actions fails. Do Until Failure - execute actions according to predefined order, until the first failure in execution of an action instance.	ExecutionStrategy defines the strategy to be used in executing the sequenced actions aggregated by this PolicyRule. There are three execution strategies: Do Until Success - execute actions according to predefined order, until successful execution of a single action. Do All - execute ALL actions which are part of the modeled set, according to their predefined order. Continue doing this, even if one or more of the actions fails. Do Until Failure - execute actions according to predefined order, until the first failure in execution of an action instance.
103	Do Until Success	Do Until Success
104	Do All	Do All
105	Do Until Failure	Do Until Failure
106	The central class used for representing the \'If Condition then Action\' semantics of a policy rule. A PolicyRule condition, in the most general sense, is represented as either an ORed set of ANDed conditions (Disjunctive Normal Form, or DNF) or an ANDed set of ORed conditions (Conjunctive Normal Form, or CNF). Individual conditions may either be negated (NOT C) or unnegated (C). The actions specified by a PolicyRule are to be performed if and only if the PolicyRule condition (whether it is represented in DNF or CNF) evaluates to TRUE. The conditions and actions associated with a PolicyRule are modeled, respectively, with subclasses of PolicyCondition and PolicyAction. These condition and action objects are tied to instances of PolicyRule by the PolicyConditionInPolicyRule and PolicyActionInPolicyRule aggregations. A PolicyRule may also be associated with one or more policy time periods, indicating the schedule according to which the policy rule is active and inactive. In this case it is the PolicySetValidityPeriod aggregation that provides this linkage. The PolicyRule class uses the property ConditionListType, to indicate whether the conditions for the rule are in DNF (disjunctive normal form), CNF (conjunctive normal form) or, in the case of a rule with no conditions, as an UnconditionalRule. The PolicyConditionInPolicyRule aggregation contains two additional properties to complete the representation of the Rule\'s conditional expression. The first of these properties is an integer to partition the referenced PolicyConditions into one or more groups, and the second is a Boolean to indicate whether a referenced Condition is negated. An example shows how ConditionListType and these two additional properties provide a unique representation of a set of PolicyConditions in either DNF or CNF. Suppose we have a PolicyRule that aggregates five PolicyConditions C1 through C5, with the following values in the properties of the five PolicyConditionInPolicyRule associations: C1: GroupNumber = 1, ConditionNegated = FALSE C2: GroupNumber = 1, ConditionNegated = TRUE C3: GroupNumber = 1, ConditionNegated = FALSE C4: GroupNumber = 2, ConditionNegated = FALSE C5: GroupNumber = 2, ConditionNegated = FALSE If ConditionListType = DNF, then the overall condition for the PolicyRule is: (C1 AND (NOT C2) AND C3) OR (C4 AND C5) On the other hand, if ConditionListType = CNF, then the overall condition for the PolicyRule is: (C1 OR (NOT C2) OR C3) AND (C4 OR C5) In both cases, there is an unambiguous specification of the overall condition that is tested to determine whether to perform the PolicyActions associated with the PolicyRule. PolicyRule instances may also be used to aggregate other PolicyRules and/or PolicyGroups. When used in this way to implement nested rules, the conditions of the aggregating rule apply to the subordinate rules as well. However, any side effects of condition evaluation or the execution of actions MUST NOT affect the result of the evaluation of other conditions evaluated by the rule engine in the same evaluation pass. That is, an implementation of a rule engine MAY evaluate all conditions in any order before applying the priority and determining which actions are to be executed.	The central class used for representing the \'If Condition then Action\' semantics of a policy rule. A PolicyRule condition, in the most general sense, is represented as either an ORed set of ANDed conditions (Disjunctive Normal Form, or DNF) or an ANDed set of ORed conditions (Conjunctive Normal Form, or CNF). Individual conditions may either be negated (NOT C) or unnegated (C). The actions specified by a PolicyRule are to be performed if and only if the PolicyRule condition (whether it is represented in DNF or CNF) evaluates to TRUE. The conditions and actions associated with a PolicyRule are modeled, respectively, with subclasses of PolicyCondition and PolicyAction. These condition and action objects are tied to instances of PolicyRule by the PolicyConditionInPolicyRule and PolicyActionInPolicyRule aggregations. A PolicyRule may also be associated with one or more policy time periods, indicating the schedule according to which the policy rule is active and inactive. In this case it is the PolicySetValidityPeriod aggregation that provides this linkage. The PolicyRule class uses the property ConditionListType, to indicate whether the conditions for the rule are in DNF (disjunctive normal form), CNF (conjunctive normal form) or, in the case of a rule with no conditions, as an UnconditionalRule. The PolicyConditionInPolicyRule aggregation contains two additional properties to complete the representation of the Rule\'s conditional expression. The first of these properties is an integer to partition the referenced PolicyConditions into one or more groups, and the second is a Boolean to indicate whether a referenced Condition is negated. An example shows how ConditionListType and these two additional properties provide a unique representation of a set of PolicyConditions in either DNF or CNF. Suppose we have a PolicyRule that aggregates five PolicyConditions C1 through C5, with the following values in the properties of the five PolicyConditionInPolicyRule associations: C1: GroupNumber = 1, ConditionNegated = FALSE C2: GroupNumber = 1, ConditionNegated = TRUE C3: GroupNumber = 1, ConditionNegated = FALSE C4: GroupNumber = 2, ConditionNegated = FALSE C5: GroupNumber = 2, ConditionNegated = FALSE If ConditionListType = DNF, then the overall condition for the PolicyRule is: (C1 AND (NOT C2) AND C3) OR (C4 AND C5) On the other hand, if ConditionListType = CNF, then the overall condition for the PolicyRule is: (C1 OR (NOT C2) OR C3) AND (C4 OR C5) In both cases, there is an unambiguous specification of the overall condition that is tested to determine whether to perform the PolicyActions associated with the PolicyRule. PolicyRule instances may also be used to aggregate other PolicyRules and/or PolicyGroups. When used in this way to implement nested rules, the conditions of the aggregating rule apply to the subordinate rules as well. However, any side effects of condition evaluation or the execution of actions MUST NOT affect the result of the evaluation of other conditions evaluated by the rule engine in the same evaluation pass. That is, an implementation of a rule engine MAY evaluate all conditions in any order before applying the priority and determining which actions are to be executed.
107	LimitNegotiation is used as part of processing either a key exchange or IPsec Rule. Before proceeding with either a phase 1 or a phase 2 negotiation, this property is checked to determine if the negotiation role of the Rule matches that defined for the negotiation being undertaken (e.g., Initiator, Responder, or Both). If this check fails, then the negotiation is stopped. Note that this only applies to new negotiations and has no effect on either renegotiation or refresh operations with peers for which an established Security Association already exists.	LimitNegotiation is used as part of processing either a key exchange or IPsec Rule. Before proceeding with either a phase 1 or a phase 2 negotiation, this property is checked to determine if the negotiation role of the Rule matches that defined for the negotiation being undertaken (e.g., Initiator, Responder, or Both). If this check fails, then the negotiation is stopped. Note that this only applies to new negotiations and has no effect on either renegotiation or refresh operations with peers for which an established Security Association already exists.
108	Initiator-Only	Initiator-Only
109	Responder-Only	Responder-Only
110	Either	Either
111	SARule is a base class for defining IKE and IPsec Rules. Although concrete (because it subclasses from a concrete class), it is not intended to be instantiated. It defines a common connection point for associating conditions and actions for both types of rules. Note that each valid PolicyGroup containing SARules MUST use a unique priority number for the Rule in the aggregation, PolicySetComponent.Priority.	SARule is a base class for defining IKE and IPsec Rules. Although concrete (because it subclasses from a concrete class), it is not intended to be instantiated. It defines a common connection point for associating conditions and actions for both types of rules. Note that each valid PolicyGroup containing SARules MUST use a unique priority number for the Rule in the aggregation, PolicySetComponent.Priority.
112	Specifies which platforms the rule is applicable on. If null, the rule applies to all platforms (the default). Each entry takes the form Major.Minor+, for instance 6.0, 6.1+, or 6.2. If + is specified, then it means that the rule applies to that version or greater. For instance, Windows Vista could be represented as 6 or 6.0, and Windows 7 or later would be represented as 6.1+. + may only be attached to the final item in the list. 6.0+ is not valid because it means the same thing as null (all platforms).	Specifies which platforms the rule is applicable on. If null, the rule applies to all platforms (the default). Each entry takes the form Major.Minor+, for instance 6.0, 6.1+, or 6.2. If + is specified, then it means that the rule applies to that version or greater. For instance, Windows Vista could be represented as 6 or 6.0, and Windows 7 or later would be represented as 6.1+. + may only be attached to the final item in the list. 6.0+ is not valid because it means the same thing as null (all platforms).
113	The locale-independent name for the group that this rule belongs to. If this field is non-null, then Windows Firewall with Advanced Security assumes that this rule belongs to a Windows component or an installed application, and some parts of the rule are protected (including but not limited to the Name, Description, Program, and Service).	The locale-independent name for the group that this rule belongs to. If this field is non-null, then Windows Firewall with Advanced Security assumes that this rule belongs to a Windows component or an installed application, and some parts of the rule are protected (including but not limited to the Name, Description, Program, and Service).
114	The localized name of this rule. This field's value is based on the value of ElementName. Changes to this field are ignored.	The localized name of this rule. This field's value is based on the value of ElementName. Changes to this field are ignored.
115	The group that this rule belongs to. This field is based on the value of RuleGroup and changes to this field are ignored.	The group that this rule belongs to. This field is based on the value of RuleGroup and changes to this field are ignored.
116	Which profiles this rule is active on.	Which profiles this rule is active on.
117	Any	Any
118	Public	Public
119	Private	Private
120	Domain	Domain
121	The InstanceID of the MainModeCryptoSet to use for Main Mode.	The InstanceID of the MainModeCryptoSet to use for Main Mode.
122	The InstanceID of the QuickModeCryptoSet to use for Quick Mode.	The InstanceID of the QuickModeCryptoSet to use for Quick Mode.
123	The InstanceID of the Phase1AuthenticationSet to use for Phase 1 auth.	The InstanceID of the Phase1AuthenticationSet to use for Phase 1 auth.
124	The InstanceID of the Phase2AuthenticationSet to use for Phase 2 auth.	The InstanceID of the Phase2AuthenticationSet to use for Phase 2 auth.
125	PrimaryStatus provides a high level status value, intended to align with Red-Yellow-Green type representation of status. It should be used in conjunction with DetailedStatus to provide high level and detailed health status of the ManagedElement and its subcomponents. PrimaryStatus consists of one of the following values: Unknown, OK, Degraded or Error. "Unknown" indicates the implementation is in general capable of returning this property, but is unable to do so at this time. "OK" indicates the ManagedElement is functioning normally. "Degraded" indicates the ManagedElement is functioning below normal. "Error" indicates the ManagedElement is in an Error condition.	PrimaryStatus provides a high level status value, intended to align with Red-Yellow-Green type representation of status. It should be used in conjunction with DetailedStatus to provide high level and detailed health status of the ManagedElement and its subcomponents. PrimaryStatus consists of one of the following values: Unknown, OK, Degraded or Error. "Unknown" indicates the implementation is in general capable of returning this property, but is unable to do so at this time. "OK" indicates the ManagedElement is functioning normally. "Degraded" indicates the ManagedElement is functioning below normal. "Error" indicates the ManagedElement is in an Error condition.
126	The detailed status of the rule, as a numeric error code.	The detailed status of the rule, as a numeric error code.
127	The detailed status of the rule, as a string.	The detailed status of the rule, as a string.
128	If this object is retrieved from the ActiveStore, describes the current enforcement status of the rule.	If this object is retrieved from the ActiveStore, describes the current enforcement status of the rule.
129	Invalid	Invalid
130	Full	Full
131	FirewallOffInProfile	FirewallOffInProfile
132	CategoryOff	CategoryOff
133	DisabledObject	DisabledObject
134	InactiveProfile	InactiveProfile
135	LocalAddressResolutionEmpty	LocalAddressResolutionEmpty
136	RemoteAddressResolutionEmpty	RemoteAddressResolutionEmpty
137	LocalPortResolutionEmpty	LocalPortResolutionEmpty
138	RemotePortResolutionEmpty	RemotePortResolutionEmpty
139	InterfaceResolutionEmpty	InterfaceResolutionEmpty
140	ApplicationResolutionEmpty	ApplicationResolutionEmpty
141	RemoteMachineEmpty	RemoteMachineEmpty
142	RemoteUserEmpty	RemoteUserEmpty
143	LocalGlobalOpenPortsDisallowed	LocalGlobalOpenPortsDisallowed
144	LocalAuthorizedApplicationsDisallowed	LocalAuthorizedApplicationsDisallowed
145	LocalFirewallRulesDisallowed	LocalFirewallRulesDisallowed
146	LocalConsecRulesDisallowed	LocalConsecRulesDisallowed
147	NotTargetPlatform	NotTargetPlatform
148	OptimizedOut	OptimizedOut
149	LocalUserEmpty	LocalUserEmpty
150	TransportMachinesEmpty	TransportMachinesEmpty
151	TunnelMachinesEmpty	TunnelMachinesEmpty
152	TupleResolutionEmpty	TupleResolutionEmpty
153	If this object is retrieved from the ActiveStore, with the TracePolicyStoreSource option set, describes the type of PolicyStore where this rule originally came from.	If this object is retrieved from the ActiveStore, with the TracePolicyStoreSource option set, describes the type of PolicyStore where this rule originally came from.
154	If this object is retrieved from the ActiveStore, with the TracePolicyStoreSource option set, contains the path to the PolicyStore where this rule originally came from.	If this object is retrieved from the ActiveStore, with the TracePolicyStoreSource option set, contains the path to the PolicyStore where this rule originally came from.
155	Represents an IPsec Rule. Subtypes differentiate between Connection Security Rules (MSFT_NetConSecRule) and Main Mode Rules (MSFT_NetMainModeRule).	Represents an IPsec Rule. Subtypes differentiate between Connection Security Rules (MSFT_NetConSecRule) and Main Mode Rules (MSFT_NetMainModeRule).
156	Within the scope of the instantiating Namespace, InstanceID opaquely and uniquely identifies an instance of this class. To ensure uniqueness within the NameSpace, the value of InstanceID should be constructed using the following "preferred" algorithm: : Where and are separated by a colon (:), and where must include a copyrighted, trademarked, or otherwise unique name that is owned by the business entity that is creating or defining the InstanceID or that is a registered ID assigned to the business entity by a recognized global authority. (This requirement is similar to the _ structure of Schema class names.) In addition, to ensure uniqueness, must not contain a colon (:). When using this algorithm, the first colon to appear in InstanceID must appear between and . is chosen by the business entity and should not be reused to identify different underlying (real-world) elements. If the above "preferred" algorithm is not used, the defining entity must assure that the resulting InstanceID is not reused across any InstanceIDs produced by this or other providers for the NameSpace of this instance. For DMTF-defined instances, the "preferred" algorithm must be used with the set to CIM.	Within the scope of the instantiating Namespace, InstanceID opaquely and uniquely identifies an instance of this class. To ensure uniqueness within the NameSpace, the value of InstanceID should be constructed using the following "preferred" algorithm: : Where and are separated by a colon (:), and where must include a copyrighted, trademarked, or otherwise unique name that is owned by the business entity that is creating or defining the InstanceID or that is a registered ID assigned to the business entity by a recognized global authority. (This requirement is similar to the _ structure of Schema class names.) In addition, to ensure uniqueness, must not contain a colon (:). When using this algorithm, the first colon to appear in InstanceID must appear between and . is chosen by the business entity and should not be reused to identify different underlying (real-world) elements. If the above "preferred" algorithm is not used, the defining entity must assure that the resulting InstanceID is not reused across any InstanceIDs produced by this or other providers for the NameSpace of this instance. For DMTF-defined instances, the "preferred" algorithm must be used with the set to CIM.
157	The user-friendly name for this instance of SettingData. In addition, the user-friendly name can be used as an index property for a search or query. (Note: The name does not have to be unique within a namespace.)	The user-friendly name for this instance of SettingData. In addition, the user-friendly name can be used as an index property for a search or query. (Note: The name does not have to be unique within a namespace.)
158	CIM_SettingData is used to represent configuration and and operational parameters for CIM_ManagedElement instances. There are a number of different uses of CIM_SettingData supported in the model today. Additional uses may be defined in the future. Instances of CIM_SettingData may represent Aspects of a CIM_ManagedElement instance. This is modeled using the CIM_SettingsDefineState association. CIM_SettingData may be used to define capabilities when associated to an instance of CIM_Capabilities through the CIM_SettingsDefineCapabilities association. Instances of CIM_SettingData may represent different types of configurations for a CIM_ManagedElement, including persistent configurations, in progress configuration changes, or requested configurations. The CIM_ElementSettingData association is used to model the relationship between a CIM_SettingData instance and the CIM_ManagedElement for which it is a configuration. When an instance of CIM_SettingData represents a configuration, the current operational values for the parameters of the element are reflected by properties in the Element itself or by properties in its associations. These properties do not have to be the same values that are present in the SettingData object. For example, a modem might have a SettingData baud rate of 56Kb/sec but be operating at 19.2Kb/sec. Note: The CIM_SettingData class is very similar to CIM_Setting, yet both classes are present in the model because many implementations have successfully used CIM_Setting. However, issues have arisen that could not be resolved without defining a new class. Therefore, until a new major release occurs, both classes will exist in the model. Refer to the Core White Paper for additional information. SettingData instances can be aggregated together into higher- level SettingData objects using ConcreteComponent associations.	CIM_SettingData is used to represent configuration and and operational parameters for CIM_ManagedElement instances. There are a number of different uses of CIM_SettingData supported in the model today. Additional uses may be defined in the future. Instances of CIM_SettingData may represent Aspects of a CIM_ManagedElement instance. This is modeled using the CIM_SettingsDefineState association. CIM_SettingData may be used to define capabilities when associated to an instance of CIM_Capabilities through the CIM_SettingsDefineCapabilities association. Instances of CIM_SettingData may represent different types of configurations for a CIM_ManagedElement, including persistent configurations, in progress configuration changes, or requested configurations. The CIM_ElementSettingData association is used to model the relationship between a CIM_SettingData instance and the CIM_ManagedElement for which it is a configuration. When an instance of CIM_SettingData represents a configuration, the current operational values for the parameters of the element are reflected by properties in the Element itself or by properties in its associations. These properties do not have to be the same values that are present in the SettingData object. For example, a modem might have a SettingData baud rate of 56Kb/sec but be operating at 19.2Kb/sec. Note: The CIM_SettingData class is very similar to CIM_Setting, yet both classes are present in the model because many implementations have successfully used CIM_Setting. However, issues have arisen that could not be resolved without defining a new class. Therefore, until a new major release occurs, both classes will exist in the model. Refer to the Core White Paper for additional information. SettingData instances can be aggregated together into higher- level SettingData objects using ConcreteComponent associations.
159	Reserved for internal use by the WMI provider only	Reserved for internal use by the WMI provider only
160	Action	Action
161	Add	Add
162	Delete	Delete
163	Array of V6 addresses	Array of V6 addresses
164	Array of V4 addresses	Array of V4 addresses
165	Policy Store	Policy Store
166	IPsec rule name	IPsec rule name
167	endpoint type	endpoint type
168	Endpoint1	Endpoint1
169	Endpoint2	Endpoint2
170	Array of names that failed name resolution	Array of names that failed name resolution
171	The DisplayName of the IPsec rule.	The DisplayName of the IPsec rule.
172	IPSec policy delta	IPSec policy delta
173	A brief description of the rule. May be an indirect string. If it is an indirect string, then it may not be overwritten.	A brief description of the rule. May be an indirect string. If it is an indirect string, then it may not be overwritten.
174	The locale-independent name of the rule. May be an indirect string.	The locale-independent name of the rule. May be an indirect string.
175	Indicates whether this rule is administratively enabled or disabled.	Indicates whether this rule is administratively enabled or disabled.
176	The IPsec Encapsulation Mode that should be used.	The IPsec Encapsulation Mode that should be used.
177	Transport Mode	Transport Mode
178	Tunnel Mode	Tunnel Mode
179	Whether to allow Trusted Intermediaries to set the key of SA's created by this rule.	Whether to allow Trusted Intermediaries to set the key of SA's created by this rule.
180	Whether to allow Trusted Intermediaries to be notified when the encryption keys for this SA change.	Whether to allow Trusted Intermediaries to be notified when the encryption keys for this SA change.
181	The maximum lifetime, in seconds, for SA's created by this rule across the forwarding path.	The maximum lifetime, in seconds, for SA's created by this rule across the forwarding path.
182	Determines how aggressively to enforce security on inbound traffic.	Determines how aggressively to enforce security on inbound traffic.
183	Never	Never
184	Request	Request
185	Require	Require
186	Determines how aggressively to enforce security on outbound traffic.	Determines how aggressively to enforce security on outbound traffic.
187	Which keying modules to use.	Which keying modules to use.
188	IKEv1	IKEv1
189	IKEv2	IKEv2
190	AuthIP	AuthIP
191	Require authorization for endpoints. The authorization list is part of the IPsec Globals.	Require authorization for endpoints. The authorization list is part of the IPsec Globals.
192	Authorized users for transport mode, specified as an SDDL string.	Authorized users for transport mode, specified as an SDDL string.
193	Authorized machines for transport mode, specified as an SDDL string.	Authorized machines for transport mode, specified as an SDDL string.
194	The local tunnel endpoint address.	The local tunnel endpoint address.
195	A Fully-Qualified Domain Name that resolves to a list of allowed Remote Endpoints. If present, the value in RemoteEndpoint will be used initially, but will be replaced with all the IP addresses that this name resolves to.	A Fully-Qualified Domain Name that resolves to a list of allowed Remote Endpoints. If present, the value in RemoteEndpoint will be used initially, but will be replaced with all the IP addresses that this name resolves to.
196	The remote tunnel endpoint(s).	The remote tunnel endpoint(s).
197	Allow traffic that is already encrypted to bypass the tunnel.	Allow traffic that is already encrypted to bypass the tunnel.
198	Synchronize IPsec policy	Synchronize IPsec policy
199	Servers	Servers
200	Domains	Domains
201	Endpoint type	Endpoint type
202	Types of addresses	Types of addresses
203	IPv4	IPv4
204	IPv6	IPv6
205	Servers to perform name resolution against	Servers to perform name resolution against
206	Delta collection	Delta collection
207	Apply IPsec policy deltas	Apply IPsec policy deltas
208	IPv6 Addresses	IPv6 Addresses
209	IPv4 Addresses	IPv4 Addresses
210	PassThru	PassThru
211	Output NetConSecRule	Output NetConSecRule
212	Enumerate all parts of all rules	Enumerate all parts of all rules
213	Finds the rules that will be used to secure the specified traffic.	Finds the rules that will be used to secure the specified traffic.
214	Enable this rule.	Enable this rule.
215	Disable this rule.	Disable this rule.
216	Rename this rule.	Rename this rule.
217	The new name for the rule.	The new name for the rule.
218	Copy this rule.	Copy this rule.
219	The new policy store for the rule.	The new policy store for the rule.
220	The new GPOSession for the rule.	The new GPOSession for the rule.
221	A Connection Security Rule.	A Connection Security Rule.
222	The parent element in the association.	The parent element in the association.
223	The child element in the association.	The child element in the association.
224	CIM_Component is a generic association used to establish \'part of\' relationships between Managed Elements. For example, it could be used to define the components or parts of a System.	CIM_Component is a generic association used to establish \'part of\' relationships between Managed Elements. For example, it could be used to define the components or parts of a System.
225	The parent Policy in the association.	The parent Policy in the association.
226	The child/part Policy in the association.	The child/part Policy in the association.
227	CIM_PolicyComponent is a generic association used to establish \'part of\' relationships between the subclasses of CIM_Policy. For example, the PolicyConditionInPolicyRule association defines that PolicyConditions are part of a PolicyRule.	CIM_PolicyComponent is a generic association used to establish \'part of\' relationships between the subclasses of CIM_Policy. For example, the PolicyConditionInPolicyRule association defines that PolicyConditions are part of a PolicyRule.
228	The name of the class or the subclass used in the creation of the System object in whose scope this PolicyAction is defined. This property helps to identify the System object in whose scope this instance of PolicyAction exists. For a rule-specific PolicyAction, this is the System in whose context the PolicyRule is defined. For a reusable PolicyAction, this is the instance of PolicyRepository (which is a subclass of System) that holds the Action. Note that this property, and the analogous property SystemName, do not represent propagated keys from an instance of the class System. Instead, they are properties defined in the context of this class, which repeat the values from the instance of System to which this PolicyAction is related, either directly via the PolicyActionInPolicyRepository association or indirectly via the PolicyActionInPolicyRule aggregation.	The name of the class or the subclass used in the creation of the System object in whose scope this PolicyAction is defined. This property helps to identify the System object in whose scope this instance of PolicyAction exists. For a rule-specific PolicyAction, this is the System in whose context the PolicyRule is defined. For a reusable PolicyAction, this is the instance of PolicyRepository (which is a subclass of System) that holds the Action. Note that this property, and the analogous property SystemName, do not represent propagated keys from an instance of the class System. Instead, they are properties defined in the context of this class, which repeat the values from the instance of System to which this PolicyAction is related, either directly via the PolicyActionInPolicyRepository association or indirectly via the PolicyActionInPolicyRule aggregation.
229	The name of the System object in whose scope this PolicyAction is defined. This property completes the identification of the System object in whose scope this instance of PolicyAction exists. For a rule-specific PolicyAction, this is the System in whose context the PolicyRule is defined. For a reusable PolicyAction, this is the instance of PolicyRepository (which is a subclass of System) that holds the Action.	The name of the System object in whose scope this PolicyAction is defined. This property completes the identification of the System object in whose scope this instance of PolicyAction exists. For a rule-specific PolicyAction, this is the System in whose context the PolicyRule is defined. For a reusable PolicyAction, this is the instance of PolicyRepository (which is a subclass of System) that holds the Action.
230	For a rule-specific PolicyAction, the CreationClassName of the PolicyRule object with which this Action is associated. For a reusable PolicyAction, a special value, \'NO RULE\', should be used to indicate that this Action is reusable and not associated with a single PolicyRule.	For a rule-specific PolicyAction, the CreationClassName of the PolicyRule object with which this Action is associated. For a reusable PolicyAction, a special value, \'NO RULE\', should be used to indicate that this Action is reusable and not associated with a single PolicyRule.
231	For a rule-specific PolicyAction, the name of the PolicyRule object with which this Action is associated. For a reusable PolicyAction, a special value, \'NO RULE\', should be used to indicate that this Action is reusable and not associated with a single PolicyRule.	For a rule-specific PolicyAction, the name of the PolicyRule object with which this Action is associated. For a reusable PolicyAction, a special value, \'NO RULE\', should be used to indicate that this Action is reusable and not associated with a single PolicyRule.
232	A user-friendly name of this PolicyAction.	A user-friendly name of this PolicyAction.
233	DoActionLogging causes a log message to be generated when the action is performed.	DoActionLogging causes a log message to be generated when the action is performed.
234	A class representing a rule-specific or reusable policy action to be performed if the PolicyConditions for a Policy Rule evaluate to TRUE. Since all operational details of a PolicyAction are provided in subclasses of this object, this class is abstract.	A class representing a rule-specific or reusable policy action to be performed if the PolicyConditions for a Policy Rule evaluate to TRUE. Since all operational details of a PolicyAction are provided in subclasses of this object, this class is abstract.
235	PolicyAction instances may be aggregated into either PolicyRule instances or CompoundPolicyAction instances.	PolicyAction instances may be aggregated into either PolicyRule instances or CompoundPolicyAction instances.
236	A PolicyAction aggregated by a PolicyRule or CompoundPolicyAction.	A PolicyAction aggregated by a PolicyRule or CompoundPolicyAction.
237	ActionOrder is an unsigned integer \'n\' that indicates the relative position of a PolicyAction in the sequence of actions associated with a PolicyRule or CompoundPolicyAction. When \'n\' is a positive integer, it indicates a place in the sequence of actions to be performed, with smaller integers indicating earlier positions in the sequence. The special value \'0\' indicates \'don\'t care\'. If two or more PolicyActions have the same non-zero sequence number, they may be performed in any order, but they must all be performed at the appropriate place in the overall action sequence. A series of examples will make ordering of PolicyActions clearer: o If all actions have the same sequence number, regardless of whether it is \'0\' or non-zero, any order is acceptable. o The values: 1:ACTION A 2:ACTION B 1:ACTION C 3:ACTION D indicate two acceptable orders: A,C,B,D or C,A,B,D, since A and C can be performed in either order, but only at the \'1\' position. o The values: 0:ACTION A 2:ACTION B 3:ACTION C 3:ACTION D require that B,C, and D occur either as B,C,D or as B,D,C. Action A may appear at any point relative to B, C, and D. Thus the complete set of acceptable orders is: A,B,C,D; B,A,C,D; B,C,A,D; B,C,D,A; A,B,D,C; B,A,D,C; B,D,A,C; B,D,C,A. Note that the non-zero sequence numbers need not start with \'1\', and they need not be consecutive. All that matters is their relative magnitude.	ActionOrder is an unsigned integer \'n\' that indicates the relative position of a PolicyAction in the sequence of actions associated with a PolicyRule or CompoundPolicyAction. When \'n\' is a positive integer, it indicates a place in the sequence of actions to be performed, with smaller integers indicating earlier positions in the sequence. The special value \'0\' indicates \'don\'t care\'. If two or more PolicyActions have the same non-zero sequence number, they may be performed in any order, but they must all be performed at the appropriate place in the overall action sequence. A series of examples will make ordering of PolicyActions clearer: o If all actions have the same sequence number, regardless of whether it is \'0\' or non-zero, any order is acceptable. o The values: 1:ACTION A 2:ACTION B 1:ACTION C 3:ACTION D indicate two acceptable orders: A,C,B,D or C,A,B,D, since A and C can be performed in either order, but only at the \'1\' position. o The values: 0:ACTION A 2:ACTION B 3:ACTION C 3:ACTION D require that B,C, and D occur either as B,C,D or as B,D,C. Action A may appear at any point relative to B, C, and D. Thus the complete set of acceptable orders is: A,B,C,D; B,A,C,D; B,C,A,D; B,C,D,A; A,B,D,C; B,A,D,C; B,D,A,C; B,D,C,A. Note that the non-zero sequence numbers need not start with \'1\', and they need not be consecutive. All that matters is their relative magnitude.
238	PolicyActions may be aggregated into rules and into compound actions. PolicyActionStructure is the abstract aggregation class for the structuring of policy actions.	PolicyActions may be aggregated into rules and into compound actions. PolicyActionStructure is the abstract aggregation class for the structuring of policy actions.
239	This property represents the PolicyRule that contains one or more PolicyActions.	This property represents the PolicyRule that contains one or more PolicyActions.
240	This property holds the name of a PolicyAction contained by one or more PolicyRules.	This property holds the name of a PolicyAction contained by one or more PolicyRules.
241	A PolicyRule aggregates zero or more instances of the PolicyAction class, via the PolicyActionInPolicyRule association. A Rule that aggregates zero Actions is not valid--it may, however, be in the process of being entered into a PolicyRepository or being defined for a System. Alternately, the actions of the policy may be explicit in the definition of the PolicyRule. Note that a PolicyRule should have no effect until it is valid. The Actions associated with a PolicyRule may be given a required order, a recommended order, or no order at all. For Actions represented as separate objects, the PolicyActionInPolicyRule aggregation can be used to express an order. This aggregation does not indicate whether a specified action order is required, recommended, or of no significance; the property SequencedActions in the aggregating instance of PolicyRule provides this indication.	A PolicyRule aggregates zero or more instances of the PolicyAction class, via the PolicyActionInPolicyRule association. A Rule that aggregates zero Actions is not valid--it may, however, be in the process of being entered into a PolicyRepository or being defined for a System. Alternately, the actions of the policy may be explicit in the definition of the PolicyRule. Note that a PolicyRule should have no effect until it is valid. The Actions associated with a PolicyRule may be given a required order, a recommended order, or no order at all. For Actions represented as separate objects, the PolicyActionInPolicyRule aggregation can be used to express an order. This aggregation does not indicate whether a specified action order is required, recommended, or of no significance; the property SequencedActions in the aggregating instance of PolicyRule provides this indication.
242	DoPacketLogging causes a log message to be generated when the action is applied to a packet.	DoPacketLogging causes a log message to be generated when the action is applied to a packet.
243	SAAction is the base class for the various types of key exchange or IPsec actions. It is abstract and used to categorize the different types of actions of SARules.	SAAction is the base class for the various types of key exchange or IPsec actions. It is abstract and used to categorize the different types of actions of SARules.
244	The IPsec rule.	The IPsec rule.
245	The auth/crypto sets.	The auth/crypto sets.
246	Links an IPsec rule to its auth and crypto sets.	Links an IPsec rule to its auth and crypto sets.
247	MinLifetimeSeconds prevents certain denial of service attacks where the peer requests an arbitrarily low lifetime value, causing renegotiations with expensive Diffie-Hellman operations. The property specifies the minimum lifetime, in seconds, that will be accepted from the peer. A value of zero (the default) indicates that there is no minimum value. A non-zero value specifies the minimum seconds lifetime.	MinLifetimeSeconds prevents certain denial of service attacks where the peer requests an arbitrarily low lifetime value, causing renegotiations with expensive Diffie-Hellman operations. The property specifies the minimum lifetime, in seconds, that will be accepted from the peer. A value of zero (the default) indicates that there is no minimum value. A non-zero value specifies the minimum seconds lifetime.
248	Seconds	Seconds
249	IdleDurationSeconds is the time an SA can remain idle (i.e., no traffic protected using the security association) before it is automatically deleted. The default (zero) value indicates that there is no idle duration timer and that the SA is deleted based upon the SA seconds and kilobyte lifetimes. Any non-zero value indicates the number of seconds that the SA may remain unused.	IdleDurationSeconds is the time an SA can remain idle (i.e., no traffic protected using the security association) before it is automatically deleted. The default (zero) value indicates that there is no idle duration timer and that the SA is deleted based upon the SA seconds and kilobyte lifetimes. Any non-zero value indicates the number of seconds that the SA may remain unused.
250	MinLifetimeKilobytes prevents certain denial of service attacks where the peer requests an arbitrarily low lifetime value, causing renegotiations with expensive Diffie-Hellman operations. The property specifies the minimum lifetime, in kilobytes, that will be accepted from the peer. A value of zero (the default) indicates that there is no minimum value. A non-zero value specifies the minimum kilobytes lifetime. Note that there has been considerable debate regarding the usefulness of applying kilobyte lifetimes to phase 1 security associations, so it is likely that this property will only apply to the subclass, IPsecAction.	MinLifetimeKilobytes prevents certain denial of service attacks where the peer requests an arbitrarily low lifetime value, causing renegotiations with expensive Diffie-Hellman operations. The property specifies the minimum lifetime, in kilobytes, that will be accepted from the peer. A value of zero (the default) indicates that there is no minimum value. A non-zero value specifies the minimum kilobytes lifetime. Note that there has been considerable debate regarding the usefulness of applying kilobyte lifetimes to phase 1 security associations, so it is likely that this property will only apply to the subclass, IPsecAction.
251	KiloBytes	KiloBytes
252	SANegotiationAction is the base class for negotiated SAs. It is abstract, specifying the common parameters that control the IPsec phase 1 and phase 2 negotiations.	SANegotiationAction is the base class for negotiated SAs. It is abstract, specifying the common parameters that control the IPsec phase 1 and phase 2 negotiations.
253	The ExchangeMode designates the mode IKE should use for its key negotiations.	The ExchangeMode designates the mode IKE should use for its key negotiations.
254	Base	Base
255	Main	Main
256	Aggressive	Aggressive
257	UseIKEIdentityType specifies what network identity type should be used when negotiating with the peer. It is used in conjunction with the available IPNetworkIdentity instances, that are associated with an IPProtocolEndpoint.	UseIKEIdentityType specifies what network identity type should be used when negotiating with the peer. It is used in conjunction with the available IPNetworkIdentity instances, that are associated with an IPProtocolEndpoint.
258	IPV4 Address	IPV4 Address
259	FQDN	FQDN
260	User FQDN	User FQDN
261	IPV4 Subnet Address	IPV4 Subnet Address
262	IPV6 Address	IPV6 Address
263	IPV6 Subnet Address	IPV6 Subnet Address
264	IPV4 Address Range	IPV4 Address Range
265	IPV6 Address Range	IPV6 Address Range
266	DER ASN1 DN	DER ASN1 DN
267	DER ASN1 GN	DER ASN1 GN
268	KEY ID	KEY ID
269	VendorID specifies the value to be used in the Vendor ID payload. An empty string (the default) means that the Vendor ID payload will not be generated or accepted. A non-NULL value means that a Vendor ID payload will be generated (when acting as an initiator) or is expected (when acting as a responder).	VendorID specifies the value to be used in the Vendor ID payload. An empty string (the default) means that the Vendor ID payload will not be generated or accepted. A non-NULL value means that a Vendor ID payload will be generated (when acting as an initiator) or is expected (when acting as a responder).
270	When IKEAction.ExchangeMode is set to "Aggressive" (4), this property specifies the key exchange groupID to use in the first packets of the phase 1 negotiation. This property is ignored unless the ExchangeMode is \'aggressive\'. If the GroupID number is from the vendor- specific range (32768-65535), the VendorID qualifies the group number. Well-known group identifiers from RFC2412, Appendix E, are: Group 1=\'768 bit prime\', Group 2=\'1024 bit prime\', Group 3=\'Elliptic Curve Group with 155 bit field element\', Group 4=\'Large Elliptic Curve Group with 185 bit field element\', and Group 5=\'1536 bit prime\'.	When IKEAction.ExchangeMode is set to "Aggressive" (4), this property specifies the key exchange groupID to use in the first packets of the phase 1 negotiation. This property is ignored unless the ExchangeMode is \'aggressive\'. If the GroupID number is from the vendor- specific range (32768-65535), the VendorID qualifies the group number. Well-known group identifiers from RFC2412, Appendix E, are: Group 1=\'768 bit prime\', Group 2=\'1024 bit prime\', Group 3=\'Elliptic Curve Group with 155 bit field element\', Group 4=\'Large Elliptic Curve Group with 185 bit field element\', and Group 5=\'1536 bit prime\'.
271	No Group/Non-Diffie-Hellman Exchange	No Group/Non-Diffie-Hellman Exchange
272	DH-768 bit prime	DH-768 bit prime
273	DH-1024 bit prime	DH-1024 bit prime
274	EC2N-155 bit field element	EC2N-155 bit field element
275	EC2N-185 bit field element	EC2N-185 bit field element
276	DH-1536 bit prime	DH-1536 bit prime
277	Standard Group - Reserved	Standard Group - Reserved
278	IKEAction specifies the parameters to use for an IPsec IKE phase 1 negotiation.	IKEAction specifies the parameters to use for an IPsec IKE phase 1 negotiation.
279	The ScopedSettingData class represents the general concept of SettingData, which is scoped or contained by a ManagedElement (that is, settings that are specifically defined for a system, device, and so on). ScopedSettingData is tied to a ManagedElement using the ScopedSetting association. Note that the cardinality of the ManagedElement reference is Min(1), Max(1). This cardinality mandates the instantiation of the ScopedSetting association for the referenced instance of ScopedSettingData. ScopedSetting describes the existence requirements and context for the referenced instance of ManagedElement. Specifically, the ManagedElement must exist and it provides the context for the ScopedSettingData.	The ScopedSettingData class represents the general concept of SettingData, which is scoped or contained by a ManagedElement (that is, settings that are specifically defined for a system, device, and so on). ScopedSettingData is tied to a ManagedElement using the ScopedSetting association. Note that the cardinality of the ManagedElement reference is Min(1), Max(1). This cardinality mandates the instantiation of the ScopedSetting association for the referenced instance of ScopedSettingData. ScopedSetting describes the existence requirements and context for the referenced instance of ManagedElement. Specifically, the ManagedElement must exist and it provides the context for the ScopedSettingData.
280	2.10.0	2.10.0
281	SAProposal is a base class defining the common properties of, and anchoring common associations for, IPsec phase 1 and phase 2 proposals. It is defined as a kind of ScopedSettingData (scoped by a ComputerSystem or AdminDomain), since its subclasses define sets of IPsec properties that MUST be applied together, if negotiated. This subclassing is different than that defined in IETF\'s IPSP Policy draft - where it is subclassed from Policy. The definition as SettingData is more consistent with the application of the properties as a set, to the negotiated Security Association. To indicate that \'this\' proposaltransform is negotiated for a Security Association, use the ElementSettingData to associate the proposal and the SA.	SAProposal is a base class defining the common properties of, and anchoring common associations for, IPsec phase 1 and phase 2 proposals. It is defined as a kind of ScopedSettingData (scoped by a ComputerSystem or AdminDomain), since its subclasses define sets of IPsec properties that MUST be applied together, if negotiated. This subclassing is different than that defined in IETF\'s IPSP Policy draft - where it is subclassed from Policy. The definition as SettingData is more consistent with the application of the properties as a set, to the negotiated Security Association. To indicate that \'this\' proposaltransform is negotiated for a Security Association, use the ElementSettingData to associate the proposal and the SA.
282	MaxLifetimeSeconds specifies the maximum time the IKE message sender proposes for an SA to be considered valid after it has been created. A value of zero indicates that the default of 8 hours be used. A non-zero value indicates the maximum seconds lifetime.	MaxLifetimeSeconds specifies the maximum time the IKE message sender proposes for an SA to be considered valid after it has been created. A value of zero indicates that the default of 8 hours be used. A non-zero value indicates the maximum seconds lifetime.
283	MaxLifetimeKilobytes specifies the maximum kilobyte lifetime the IKE message sender proposes for an SA to be considered valid after it has been created. A value of zero (the default) indicates that there should be no maximum kilobyte lifetime. A non-zero value specifies the desired kilobyte lifetime.	MaxLifetimeKilobytes specifies the maximum kilobyte lifetime the IKE message sender proposes for an SA to be considered valid after it has been created. A value of zero (the default) indicates that there should be no maximum kilobyte lifetime. A non-zero value specifies the desired kilobyte lifetime.
284	CipherAlgorithm is an enumeration that specifies the proposed encryption algorithm. The list of algorithms was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list and aligns with the values in IKESAEndpoint.CipherAlgorithm.	CipherAlgorithm is an enumeration that specifies the proposed encryption algorithm. The list of algorithms was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list and aligns with the values in IKESAEndpoint.CipherAlgorithm.
285	DES	DES
286	IDEA	IDEA
287	Blowfish	Blowfish
288	RC5	RC5
289	3DES	3DES
290	CAST	CAST
291	DMTF/IANA Reserved	DMTF/IANA Reserved
292	Description of the encryption algorithm when the value 1 ("Other") is specified for the property, CipherAlgorithm.	Description of the encryption algorithm when the value 1 ("Other") is specified for the property, CipherAlgorithm.
293	HashAlgorithm is an enumeration that specifies the proposed hash function. The list of algorithms was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list and aligns with the values in IKESAEndpoint.HashAlgorithm.	HashAlgorithm is an enumeration that specifies the proposed hash function. The list of algorithms was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list and aligns with the values in IKESAEndpoint.HashAlgorithm.
294	MD5	MD5
295	SHA-1	SHA-1
296	Tiger	Tiger
297	Description of the hash function when the value 1 ("Other") is specified for the property, HashAlgorithm.	Description of the hash function when the value 1 ("Other") is specified for the property, HashAlgorithm.
298	AuthenticationMethod is an enumeration that specifies the proposed authentication. The list of methods was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list and aligns with the values in IKESAEndpoint.AuthenticationMethod. There is one change to the list - the value 65000 has special meaning. It is a special value that indicates that this particular proposal should be repeated once for each authentication method corresponding to credentials installed on the machine. For example, if the system has a pre-shared key and an public-key certificate, a proposal list would be constructed which includes a proposal that specifies a pre-shared key and a proposal for any of the public-key certificates.	AuthenticationMethod is an enumeration that specifies the proposed authentication. The list of methods was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list and aligns with the values in IKESAEndpoint.AuthenticationMethod. There is one change to the list - the value 65000 has special meaning. It is a special value that indicates that this particular proposal should be repeated once for each authentication method corresponding to credentials installed on the machine. For example, if the system has a pre-shared key and an public-key certificate, a proposal list would be constructed which includes a proposal that specifies a pre-shared key and a proposal for any of the public-key certificates.
299	Pre-shared Key	Pre-shared Key
300	DSS Signatures	DSS Signatures
301	RSA Signatures	RSA Signatures
302	Encryption with RSA	Encryption with RSA
303	Revised Encryption with RSA	Revised Encryption with RSA
304	Description of the method when the value 1 ("Other") is specified for the property, AuthenticationMethod.	Description of the method when the value 1 ("Other") is specified for the property, AuthenticationMethod.
305	The property GroupId specifies the proposed phase 1 security association key exchange group. This property is ignored for all aggressive mode exchanges (IKEAction.ExchangeMode = 4). If the GroupID number is from the vendor-specific range (32768-65535), the property VendorID qualifies the group number. Well-known group identifiers from RFC2412, Appendix E, are: Group 1=\'768 bit prime\', Group 2=\'1024 bit prime\', Group 3 =\'Elliptic Curve Group with 155 bit field element\', Group 4= \'Large Elliptic Curve Group with 185 bit field element\', and Group 5=\'1536 bit prime\'.	The property GroupId specifies the proposed phase 1 security association key exchange group. This property is ignored for all aggressive mode exchanges (IKEAction.ExchangeMode = 4). If the GroupID number is from the vendor-specific range (32768-65535), the property VendorID qualifies the group number. Well-known group identifiers from RFC2412, Appendix E, are: Group 1=\'768 bit prime\', Group 2=\'1024 bit prime\', Group 3 =\'Elliptic Curve Group with 155 bit field element\', Group 4= \'Large Elliptic Curve Group with 185 bit field element\', and Group 5=\'1536 bit prime\'.
306	VendorID identifies the vendor when the value of GroupID is in the vendor-specific range, 32768 to 65535.	VendorID identifies the vendor when the value of GroupID is in the vendor-specific range, 32768 to 65535.
307	IKEProposal contains the parameters necessary to drive the phase 1 IKE negotiation.	IKEProposal contains the parameters necessary to drive the phase 1 IKE negotiation.
308	Represents an auth proposal.	Represents an auth proposal.
309	The locale-independent name for the group that this set belongs to.	The locale-independent name for the group that this set belongs to.
310	The localized name of this set. This field's value is based on the value of ElementName. Changes to this field are ignored.	The localized name of this set. This field's value is based on the value of ElementName. Changes to this field are ignored.
311	The group that this set belongs to. This field is based on the value of RuleGroup and changes to this field are ignored.	The group that this set belongs to. This field is based on the value of RuleGroup and changes to this field are ignored.
312	The proposals within this set, in order of preference.	The proposals within this set, in order of preference.
313	A list of auth suites, in preferential order, to use when negotiating an SA.	A list of auth suites, in preferential order, to use when negotiating an SA.
314	A brief description of the set. May be an indirect string. If it is an indirect string, then it may not be overwritten.	A brief description of the set. May be an indirect string. If it is an indirect string, then it may not be overwritten.
315	The locale-independent name of the set. May be an indirect string.	The locale-independent name of the set. May be an indirect string.
316	Rename this set.	Rename this set.
317	The new name for the set.	The new name for the set.
318	Copy this set.	Copy this set.
319	The new ID for the set.	The new ID for the set.
320	The new policy store for the set.	The new policy store for the set.
321	The new GPOSession for the set.	The new GPOSession for the set.
322	A set of authentication proposals that can be used in Phase 2 of authentication.	A set of authentication proposals that can be used in Phase 2 of authentication.
323	The Phase 2 Authentication Set used by the rule.	The Phase 2 Authentication Set used by the rule.
324	Relates an IPsec rule to its Phase 2 Authentication Set.	Relates an IPsec rule to its Phase 2 Authentication Set.
325	The connection security rule.	The connection security rule.
326	Relates a connection security rule to its Phase 2 Authentication Set.	Relates a connection security rule to its Phase 2 Authentication Set.
327	The rule.	The rule.
328	The filters associated with the rule.	The filters associated with the rule.
329	Associates a policy rule to its filters.	Associates a policy rule to its filters.
330	The connection security rule being filtered.	The connection security rule being filtered.
331	Associates a connection security rule with its filters. Instances of this class can be traversed and the values in the associated filters can be modified, but instances of this class may not be created or deleted.	Associates a connection security rule with its filters. Instances of this class can be traversed and the values in the associated filters can be modified, but instances of this class may not be created or deleted.
332	The address filter applied to the rule.	The address filter applied to the rule.
333	Interfaces that the traffic applies to. They may be specified by LUID or by Alias.	Interfaces that the traffic applies to. They may be specified by LUID or by Alias.
334	Filters traffic based on what interface it is sent or received on.	Filters traffic based on what interface it is sent or received on.
335	The interface filter applied to the rule.	The interface filter applied to the rule.
336	Specifies what types of interface to filter on.	Specifies what types of interface to filter on.
337	Local area network	Local area network
338	Remote access	Remote access
339	Wireless	Wireless
340	Filters traffic based on the type of interface it is sent or received on.	Filters traffic based on the type of interface it is sent or received on.
341	The interface type filter applied to the rule.	The interface type filter applied to the rule.
342	IP Protocol Number that this filter applies to. May be 0-255 or one of the following: ICMPv4, ICMPv6, TCP, UDP.	IP Protocol Number that this filter applies to. May be 0-255 or one of the following: ICMPv4, ICMPv6, TCP, UDP.
343	Applies only when Protocol is TCP or UDP. Remote ports this filter applies to. May be a number or range 0-65535, or one of the following: Any, IPHTTPSOut.	Applies only when Protocol is TCP or UDP. Remote ports this filter applies to. May be a number or range 0-65535, or one of the following: Any, IPHTTPSOut.
344	Applies only when Protocol is TCP or UDP. Local ports this filter applies to. May be a number or range 0-65535, or one of the following: Any, RPC, RPC-EPMap, IPHTTPSIn, PlayToDiscovery.	Applies only when Protocol is TCP or UDP. Local ports this filter applies to. May be a number or range 0-65535, or one of the following: Any, RPC, RPC-EPMap, IPHTTPSIn, PlayToDiscovery.
345	Applies only when Protocol is ICMPv4 or ICMPv6. ICMP Type/Code pairs this filter applies to. May be an ICMP type (0-255), or an ICMP type/code pair in the format Type.Code, where type and code values are numbers from 0 to 255.	Applies only when Protocol is ICMPv4 or ICMPv6. ICMP Type/Code pairs this filter applies to. May be an ICMP type (0-255), or an ICMP type/code pair in the format Type.Code, where type and code values are numbers from 0 to 255.
346	Allows filtering traffic to/from endpoints by certain kinds of virtual transports, rather than traditional tuples of addresses, protocols, and ports.	Allows filtering traffic to/from endpoints by certain kinds of virtual transports, rather than traditional tuples of addresses, protocols, and ports.
347	ProximityApps	ProximityApps
348	ProximitySharing	ProximitySharing
349	WifiDirectPrinting	WifiDirectPrinting
350	WifiDirectDisplay	WifiDirectDisplay
351	WifiDirectDevices	WifiDirectDevices
352	Filters traffic based on its protocol and port.	Filters traffic based on its protocol and port.
353	The protocol/port filter applied to the rule.	The protocol/port filter applied to the rule.
354	A PolicySet that aggregates other PolicySet instances.	A PolicySet that aggregates other PolicySet instances.
355	A PolicySet aggregated into a PolicySet.	A PolicySet aggregated into a PolicySet.
356	A non-negative integer for prioritizing this PolicySet component relative to other elements of the same PolicySet. A larger value indicates a higher priority. The Priority property MUST have a unique value when compared with others defined for the same aggregating PolicySet.	A non-negative integer for prioritizing this PolicySet component relative to other elements of the same PolicySet. A larger value indicates a higher priority. The Priority property MUST have a unique value when compared with others defined for the same aggregating PolicySet.
357	PolicySetComponent is a concrete aggregation that collects instances of the subclasses of PolicySet (i.e., PolicyGroups and PolicyRules). Instances are collected in sets that use the same decision strategy. They are prioritized relative to each other, within the set, using the Priority property of this aggregation. Together, the PolicySet.PolicyDecisionStrategy and PolicySet Component.Priority properties determine the processing for the groups and rules contained in a PolicySet. A larger priority value represents a higher priority. Note that the Priority property MUST have a unique value when compared with others defined for the same aggregating PolicySet. Thus, the evaluation of rules within a set is deterministically specified.	PolicySetComponent is a concrete aggregation that collects instances of the subclasses of PolicySet (i.e., PolicyGroups and PolicyRules). Instances are collected in sets that use the same decision strategy. They are prioritized relative to each other, within the set, using the Priority property of this aggregation. Together, the PolicySet.PolicyDecisionStrategy and PolicySet Component.Priority properties determine the processing for the groups and rules contained in a PolicySet. A larger priority value represents a higher priority. Note that the Priority property MUST have a unique value when compared with others defined for the same aggregating PolicySet. Thus, the evaluation of rules within a set is deterministically specified.
358	The name of the profile.	The name of the profile.
359	Whether the firewall is enabled on this profile.	Whether the firewall is enabled on this profile.
360	The default action for Inbound traffic.	The default action for Inbound traffic.
361	The default action for outbound traffic.	The default action for outbound traffic.
362	If this is true, administrators will be able to create firewall rules which allow unsolicited inbound traffic to be accepted. If this is false, such rules will be ignored.	If this is true, administrators will be able to create firewall rules which allow unsolicited inbound traffic to be accepted. If this is false, such rules will be ignored.
363	Determines whether local firewall rules should be merged into the effective policy along with Group Policy settings.	Determines whether local firewall rules should be merged into the effective policy along with Group Policy settings.
364	Determines whether local IPsec rules should be merged into the effective policy along with rules from Group Policy.	Determines whether local IPsec rules should be merged into the effective policy along with rules from Group Policy.
365	Whether to respect user allowed applications created in the legacy Windows XP firewall.	Whether to respect user allowed applications created in the legacy Windows XP firewall.
366	Whether to respect globally opened ports created in the legacy Windows XP firewall.	Whether to respect globally opened ports created in the legacy Windows XP firewall.
367	Whether to allow unicast responses to multicast traffic.	Whether to allow unicast responses to multicast traffic.
368	If true, users will be notified when an application listens on a port that is closed.	If true, users will be notified when an application listens on a port that is closed.
369	The filename in which to store the firewall log.	The filename in which to store the firewall log.
370	Maximum size the log file can reach before being rotated. May be a uint32 value, or MAXUINT64 for Not Configured.	Maximum size the log file can reach before being rotated. May be a uint32 value, or MAXUINT64 for Not Configured.
371	Whether to log allowed packets.	Whether to log allowed packets.
372	Whether to log blocked traffic.	Whether to log blocked traffic.
373	Whether to log an event when rules are ignored.	Whether to log an event when rules are ignored.
374	Interfaces that the firewall profile is disabled on.	Interfaces that the firewall profile is disabled on.
375	Whether to use Stealth Mode for IPsec-protected traffic.	Whether to use Stealth Mode for IPsec-protected traffic.
376	Represents a particular firewall profile. Multiple profiles may be in effect on any interface at any given time.	Represents a particular firewall profile. Multiple profiles may be in effect on any interface at any given time.
377	The firewall profile.	The firewall profile.
378	The policy rule within the profile.	The policy rule within the profile.
379	Indicates that a rule applies to a particular firewall profile.	Indicates that a rule applies to a particular firewall profile.
380	A set of authentication proposals used in Phase 1 of authentication.	A set of authentication proposals used in Phase 1 of authentication.
381	The Phase 1 Authentication Set used by the rule.	The Phase 1 Authentication Set used by the rule.
382	Relates an IPsec rule to its Phase 1 Authentication Set.	Relates an IPsec rule to its Phase 1 Authentication Set.
383	Represents a suite of crypto algorithms to propose.	Represents a suite of crypto algorithms to propose.
384	A list of crypto suites, in preferential order, to use when negotiating an SA.	A list of crypto suites, in preferential order, to use when negotiating an SA.
385	Diffie-Hellman Group to use with PFS	Diffie-Hellman Group to use with PFS
386	DH Group 1	DH Group 1
387	DH Group 2	DH Group 2
388	DH Group 14	DH Group 14
389	DH Group 19	DH Group 19
390	DH Group 20	DH Group 20
391	DH Group 24	DH Group 24
392	Specifies parameters for the quick mode negotiation as well as dictating the crypto sets that should be proposed during the exchange.	Specifies parameters for the quick mode negotiation as well as dictating the crypto sets that should be proposed during the exchange.
393	The Quick Mode crypto set used by this rule.	The Quick Mode crypto set used by this rule.
394	Relates an IPsec rule to its Quick Mode crypto set.	Relates an IPsec rule to its Quick Mode crypto set.
395	Relates a connection security rule to its Quick Mode Crypto Set.	Relates a connection security rule to its Quick Mode Crypto Set.
396	Whether to group UDP packets into conversations based upon the local address, local port, and remote port. Applies only to UDP.	Whether to group UDP packets into conversations based upon the local address, local port, and remote port. Applies only to UDP.
397	Whether to group UDP packets into conversations based only upon the local address and port. Applies only to UDP.	Whether to group UDP packets into conversations based only upon the local address and port. Applies only to UDP.
398	Specifies how this firewall rule will handle edge traversal cases.	Specifies how this firewall rule will handle edge traversal cases.
399	Block	Block
400	Allow	Allow
401	Defer to User	Defer to User
402	Defer to App	Defer to App
403	Specifies which direction of traffic to match with this rule.	Specifies which direction of traffic to match with this rule.
404	Inbound	Inbound
405	Outbound	Outbound
406	Specifies the action to take on traffic that matches this rule.	Specifies the action to take on traffic that matches this rule.
407	AllowBypass	AllowBypass
408	The owner of the firewall rule, as a SID.	The owner of the firewall rule, as a SID.
409	Desc	Desc
410	Represents a Windows firewall rule.	Represents a Windows firewall rule.
411	The firewall rule.	The firewall rule.
412	Associates a firewall rule with its filters. Instances of this class can be traversed and the values in the associated filters can be modified, but instances of this class may not be created or deleted.	Associates a firewall rule with its filters. Instances of this class can be traversed and the values in the associated filters can be modified, but instances of this class may not be created or deleted.
413	Associates a FirewallRule to its AddressFilter.	Associates a FirewallRule to its AddressFilter.
414	The application filter applied to the rule.	The application filter applied to the rule.
415	Whether to require Authentication. NoEncapsulation means that authentication is still required, but only once at the beginning of the traffic flow, instead of on every packet.	Whether to require Authentication. NoEncapsulation means that authentication is still required, but only once at the beginning of the traffic flow, instead of on every packet.
416	NotRequired	NotRequired
417	Required	Required
418	NoEncapsulation	NoEncapsulation
419	Whether to require Encryption. Dynamic encryption means that the first packet may be protected but not encrypted.	Whether to require Encryption. Dynamic encryption means that the first packet may be protected but not encrypted.
420	Dynamic	Dynamic
421	Whether to allow this rule to take precedence over Block rules. This setting may only be applied on Allow rules that require Authentication with specific RemoteUsers and/or RemoteMachines.	Whether to allow this rule to take precedence over Block rules. This setting may only be applied on Allow rules that require Authentication with specific RemoteUsers and/or RemoteMachines.
422	SDDL string describing Local Users that are allowed by this rule. If this is empty, all users are allowed. If LocalUsers/RemoteUsers/RemoteMachines are specified, then they apply conjunctively, and this is an ''Allow-Bypass'' rule and ProtectionLevel must be set above None (so that authentication is required).	SDDL string describing Local Users that are allowed by this rule. If this is empty, all users are allowed. If LocalUsers/RemoteUsers/RemoteMachines are specified, then they apply conjunctively, and this is an ''Allow-Bypass'' rule and ProtectionLevel must be set above None (so that authentication is required).
423	SDDL string describing Remote Users that are allowed by this rule. If this is empty, all users are allowed. If LocalUsers/RemoteUsers/RemoteMachines are specified, then they apply conjunctively, and this is an ''Allow-Bypass'' rule and ProtectionLevel must be set above None (so that authentication is required).	SDDL string describing Remote Users that are allowed by this rule. If this is empty, all users are allowed. If LocalUsers/RemoteUsers/RemoteMachines are specified, then they apply conjunctively, and this is an ''Allow-Bypass'' rule and ProtectionLevel must be set above None (so that authentication is required).
424	SDDL string describing Remote Machines that are allowed by this rule. If this is empty, all users are allowed. If LocalUsers/RemoteUsers/RemoteMachines are specified, then they apply conjunctively, and this is an ''Allow-Bypass'' rule and ProtectionLevel must be set above None (so that authentication is required).	SDDL string describing Remote Machines that are allowed by this rule. If this is empty, all users are allowed. If LocalUsers/RemoteUsers/RemoteMachines are specified, then they apply conjunctively, and this is an ''Allow-Bypass'' rule and ProtectionLevel must be set above None (so that authentication is required).
425	Filters traffic based on certain high-level security constraints, like whether or not the traffic is encrypted. Connection Security rules will have to be created in order for traffic to pass the rule.	Filters traffic based on certain high-level security constraints, like whether or not the traffic is encrypted. Connection Security rules will have to be created in order for traffic to pass the rule.
426	The security filter applied to the rule.	The security filter applied to the rule.
427	The short name of the service to be filtered.	The short name of the service to be filtered.
428	Filters traffic based on which Windows service it is sent or received by.	Filters traffic based on which Windows service it is sent or received by.
429	The service filter applied to the rule.	The service filter applied to the rule.
430	Associates a firewall rule with a profile that it is in.	Associates a firewall rule with a profile that it is in.
431	Specifies the proposed authentication. The list of methods was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list and aligns with the values in IKESAEndpoint.AuthenticationMethod.	Specifies the proposed authentication. The list of methods was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list and aligns with the values in IKESAEndpoint.AuthenticationMethod.
432	Anonymous	Anonymous
433	Kerberos (machine as principal)	Kerberos (machine as principal)
434	NTLM (machine as principal)	NTLM (machine as principal)
435	Kerberos (user as principal)	Kerberos (user as principal)
436	NTLM (user as principal)	NTLM (user as principal)
437	X.509 Certificates (machine as principal)	X.509 Certificates (machine as principal)
438	X.509 Certificates (user as principal)	X.509 Certificates (user as principal)
439	X.509 Certificates (machine health)	X.509 Certificates (machine health)
440	Represents an auth proposal. Instances of this class only exist as embedded instances within a MSFT_NetIKEP1AuthSet and MSFT_NetIKEP2AuthSet.	Represents an auth proposal. Instances of this class only exist as embedded instances within a MSFT_NetIKEP1AuthSet and MSFT_NetIKEP2AuthSet.
441	Only certs issued by this CA should be allowed.	Only certs issued by this CA should be allowed.
442	Indicates whether to accept certificates only from the root TrustedCA, or to also accept certificates from Intermediate CA's which are children of the TrustedCA.	Indicates whether to accept certificates only from the root TrustedCA, or to also accept certificates from Intermediate CA's which are children of the TrustedCA.
443	Root CA	Root CA
444	Intermediate CA	Intermediate CA
445	If this flag is set, certificate authority names are excluded. This flag MUST be set only on first authentications.	If this flag is set, certificate authority names are excluded. This flag MUST be set only on first authentications.
446	If this flag is set, Windows will attempt to map certificates to domain accounts.	If this flag is set, Windows will attempt to map certificates to domain accounts.
447	Specifies the certificate signing algorithm to use.	Specifies the certificate signing algorithm to use.
448	RSA	RSA
449	256-bit Elliptic-Curve DSA	256-bit Elliptic-Curve DSA
450	384-bit Elliptic-Curve DSA	384-bit Elliptic-Curve DSA
451	The name that should be on the certificate.	The name that should be on the certificate.
452	The type of name used in CertName.	The type of name used in CertName.
453	None	None
454	DNS	DNS
455	UPN	UPN
456	RFC822	RFC822
457	CN	CN
458	OU	OU
459	O	O
460	DC	DC
461	The EKU's to accept.	The EKU's to accept.
462	The thumbprint to accept.	The thumbprint to accept.
463	Whether to follow certificate renewal.	Whether to follow certificate renewal.
464	Whether the cert criteria (CertName, EKUs, Thumbprint) should be used when choosing which certificates to offer.	Whether the cert criteria (CertName, EKUs, Thumbprint) should be used when choosing which certificates to offer.
465	Whether the cert criteria (CertName, EKUs, Thumbprint) should be used for validating the certificates presented.	Whether the cert criteria (CertName, EKUs, Thumbprint) should be used for validating the certificates presented.
466	Represents an auth proposal that uses certificates to authenticate the remote peer. Instances of this class only exist as embedded instances within a MSFT_NetIKEP1AuthSet and MSFT_NetIKEP2AuthSet.	Represents an auth proposal that uses certificates to authenticate the remote peer. Instances of this class only exist as embedded instances within a MSFT_NetIKEP1AuthSet and MSFT_NetIKEP2AuthSet.
467	The Kerberos proxy server to use when authenticating remotely.	The Kerberos proxy server to use when authenticating remotely.
468	Represents an auth proposal for Kerberos.	Represents an auth proposal for Kerberos.
469	Require use of Diffie-Hellman for enhanced security.	Require use of Diffie-Hellman for enhanced security.
470	The maximum number of QM SA's that may be established using this MMSA before it must be re-established.	The maximum number of QM SA's that may be established using this MMSA before it must be re-established.
471	The maximum amount of time that can elapse before this MMSA must be re-established.	The maximum amount of time that can elapse before this MMSA must be re-established.
472	For a Main Mode or Connection Security rule, sets parameters for the main mode negotiation and describes the crypto proposals that should be negotiated.	For a Main Mode or Connection Security rule, sets parameters for the main mode negotiation and describes the crypto proposals that should be negotiated.
473	Specifies the proposed encryption algorithm.	Specifies the proposed encryption algorithm.
474	AES-128	AES-128
475	AES-192	AES-192
476	AES-256	AES-256
477	AES-GCM-128	AES-GCM-128
478	AES-GCM-192	AES-GCM-192
479	AES-GCM-256	AES-GCM-256
480	Specifies the proposed hash algorithm.	Specifies the proposed hash algorithm.
481	SHA-256	SHA-256
482	SHA-384	SHA-384
483	AES-GMAC-128	AES-GMAC-128
484	AES-GMAC-192	AES-GMAC-192
485	AES-GMAC-256	AES-GMAC-256
486	The property GroupId specifies the proposed phase 1 security association key exchange group. Well-known group identifiers from RFC2412, Appendix E, are: Group 1='768 bit prime', Group 2='1024 bit prime', Group 3 ='Elliptic Curve Group with 155 bit field element', Group 4= 'Large Elliptic Curve Group with 185 bit field element', and Group 5='1536 bit prime'. Note that only groups 1, 2, 14, 19, 20, and 24 are acceptable in Windows 8.	The property GroupId specifies the proposed phase 1 security association key exchange group. Well-known group identifiers from RFC2412, Appendix E, are: Group 1='768 bit prime', Group 2='1024 bit prime', Group 3 ='Elliptic Curve Group with 155 bit field element', Group 4= 'Large Elliptic Curve Group with 185 bit field element', and Group 5='1536 bit prime'. Note that only groups 1, 2, 14, 19, 20, and 24 are acceptable in Windows 8.
487	Represents a crypto suite to propose in main mode.	Represents a crypto suite to propose in main mode.
488	The key to use in the authentication.	The key to use in the authentication.
489	A Pre-shared Key authentication proposal.	A Pre-shared Key authentication proposal.
490	The maximum lifetime for a Quick-Mode SA before it must be rekeyed, in kilobytes.	The maximum lifetime for a Quick-Mode SA before it must be rekeyed, in kilobytes.
491	Hash algorithm to use in AH.	Hash algorithm to use in AH.
492	Hash algorithm to use in ESP.	Hash algorithm to use in ESP.
493	What type of encapsulation to use.	What type of encapsulation to use.
494	AH	AH
495	ESP	ESP
496	AH/ESP	AH/ESP
497	The maximum lifetime for a Quick-Mode SA before it must be rekeyed, in minutes.	The maximum lifetime for a Quick-Mode SA before it must be rekeyed, in minutes.
498	Represents a crypto suite to propose in quick mode.	Represents a crypto suite to propose in quick mode.
499	Superclass SettingData for networking	Superclass SettingData for networking
500	State entry idle timeout in seconds. Value must be 0	State entry idle timeout in seconds. Value must be 0
501	Per internal IP address rate limit queue idle timeout in seconds. Value must be 0	Per internal IP address rate limit queue idle timeout in seconds. Value must be 0
502	DSCP (RFC 2474) marking for unauthenticated inbound IPv6 IPsec traffic. Value must be	DSCP (RFC 2474) marking for unauthenticated inbound IPv6 IPsec traffic. Value must be
503	Per internal IP address rate limit for unauthenticated inbound IPv6 IPsec traffic.	Per internal IP address rate limit for unauthenticated inbound IPv6 IPsec traffic.
504	DSCP (RFC 2474) marking for authenticated inbound IPv6 IPsec traffic. Value must be	DSCP (RFC 2474) marking for authenticated inbound IPv6 IPsec traffic. Value must be
505	Rate limit for authenticated inbound IPv6 IPsec traffic.	Rate limit for authenticated inbound IPv6 IPsec traffic.
506	DSCP (RFC 2474) marking for inbound ICMPv6 traffic. Value must be	DSCP (RFC 2474) marking for inbound ICMPv6 traffic. Value must be
507	Rate limit for inbound ICMPv6 traffic.	Rate limit for inbound ICMPv6 traffic.
508	DSCP (RFC 2474) marking for inbound IPv6 filter exempted traffic. Value must be	DSCP (RFC 2474) marking for inbound IPv6 filter exempted traffic. Value must be
509	Rate limit for inbound IPv6 filter exempted traffic.	Rate limit for inbound IPv6 filter exempted traffic.
510	DSCP (RFC 2474) marking for inbound default-block exempted traffic. Value must be	DSCP (RFC 2474) marking for inbound default-block exempted traffic. Value must be
511	Rate limit for inbound default-block exempted traffic.	Rate limit for inbound default-block exempted traffic.
512	Maximum number of state entries in the table. Value must be 0.	Maximum number of state entries in the table. Value must be 0.
513	Maximum number of per internal IP address rate limit queues for inbound unauthenticated IPv6 IPsec traffic. Value must be 0.	Maximum number of per internal IP address rate limit queues for inbound unauthenticated IPv6 IPsec traffic. Value must be 0.
514	Enabled keying modules	Enabled keying modules
515	IkeV1	IkeV1
516	IkeV2	IkeV2
517	AuthIp	AuthIp
518	Filtering flags	Filtering flags
519	DisableDefaultBlock	DisableDefaultBlock
520	FilterBlock	FilterBlock
521	FilterExempt	FilterExempt
522	Public network interfaces	Public network interfaces
523	Private network interfaces	Private network interfaces
524	Optional public IPv6 address or subnet, for which this policy is specified.	Optional public IPv6 address or subnet, for which this policy is specified.
525	Optional private IPv6 address or subnet, for which this policy is specified.	Optional private IPv6 address or subnet, for which this policy is specified.
526	Address family(ies) currently protected	Address family(ies) currently protected
527	Denial of Service Prevention Settings for IPsec.	Denial of Service Prevention Settings for IPsec.
528	Whether to enable stateful FTP.	Whether to enable stateful FTP.
529	False	False
530	True	True
531	NotConfigured	NotConfigured
532	Whether to enable stateful PPTP.	Whether to enable stateful PPTP.
533	Current profile. This is only valid in the ActiveStore.	Current profile. This is only valid in the ActiveStore.
534	Not Applicable	Not Applicable
535	Specifies which kinds of certificate problems should cause a certificate to be rejected.	Specifies which kinds of certificate problems should cause a certificate to be rejected.
536	Attempt CRL Check	Attempt CRL Check
537	Require CRL Check	Require CRL Check
538	The maximum length of time, in seconds, that an SA may be idle before it will be torn down. 0 means Not Configured.	The maximum length of time, in seconds, that an SA may be idle before it will be torn down. 0 means Not Configured.
539	When IPsec is in use, extra work is required to enable NAT traversal. This setting indicates on which side NAT traversal should be attempted.	When IPsec is in use, extra work is required to enable NAT traversal. This setting indicates on which side NAT traversal should be attempted.
540	Server	Server
541	Both	Both
542	How to encode Pre-Shared Keys.	How to encode Pre-Shared Keys.
543	UTF-16	UTF-16
544	UTF-8	UTF-8
545	Traffic exemptions	Traffic exemptions
546	NeighborDiscovery	NeighborDiscovery
547	Icmp	Icmp
548	RouterDiscovery	RouterDiscovery
549	Dhcp	Dhcp
550	Opportunistically match full auth set per key module	Opportunistically match full auth set per key module
551	SDDL for remote machine tunnel SA authorization	SDDL for remote machine tunnel SA authorization
552	SDDL for remote user tunnel SA authorization	SDDL for remote user tunnel SA authorization
553	SDDL for remote machine transport SA authorization	SDDL for remote machine transport SA authorization
554	SDDL for remote user transport SA authorization	SDDL for remote user transport SA authorization
555	Toggle IPSec queuing of packets for RSS-like functionality	Toggle IPSec queuing of packets for RSS-like functionality
556	Receive	Receive
557	Forward	Forward
558	Global settings for IPsec.	Global settings for IPsec.
559	The InstanceID of the CryptoSet to use for Main Mode.	The InstanceID of the CryptoSet to use for Main Mode.
560	The InstanceID of the CryptoSet to use for Quick Mode.	The InstanceID of the CryptoSet to use for Quick Mode.
561	The InstanceID of the AuthSet to use for Phase 1 auth.	The InstanceID of the AuthSet to use for Phase 1 auth.
562	The InstanceID of the AuthSet to use for Phase 2 auth.	The InstanceID of the AuthSet to use for Phase 2 auth.
563	A rule that alters the behavior of main-mode authentications.	A rule that alters the behavior of main-mode authentications.
564	The main mode rule being filtered.	The main mode rule being filtered.
565	Associates a main mode rule with its filters. Instances of this class can be traversed and the values in the associated filters can be modified, but instances of this class may not be created or deleted.	Associates a main mode rule with its filters. Instances of this class can be traversed and the values in the associated filters can be modified, but instances of this class may not be created or deleted.
566	The main mode rule.	The main mode rule.
567	Relates a main mode rule to its Phase 1 Authentication Set.	Relates a main mode rule to its Phase 1 Authentication Set.
568	The Main Mode crypto set used in this rule.	The Main Mode crypto set used in this rule.
569	Relates an IPsec rule to its Main Mode crypto set.	Relates an IPsec rule to its Main Mode crypto set.
570	The main mode crypto set used in this rule.	The main mode crypto set used in this rule.
571	Relates a main mode rule to its Main Mode Crypto Set.	Relates a main mode rule to its Main Mode Crypto Set.
572	ImpersonationType	ImpersonationType
573	Impersonated	Impersonated
574	Authentication method used by this identity	Authentication method used by this identity
575	Preshared key	Preshared key
576	Certificate	Certificate
577	Kerberos	Kerberos
578	SSL	SSL
579	NTLMV2	NTLMV2
580	CGA	CGA
581	CertificateEcdsa256	CertificateEcdsa256
582	CertificateEcdsa384	CertificateEcdsa384
583	SSLEcdsa256	SSLEcdsa256
584	SSLEcdsa384	SSLEcdsa384
585	EAP	EAP
586	Identity flags	Identity flags
587	HealthCertificate	HealthCertificate
588	Identity	Identity
589	An identity used by IPsec	An identity used by IPsec
590	A free-form string that represents the status of the job. The primary status is reflected in the inherited OperationalStatus property. JobStatus provides additional, implementation-specific details.	A free-form string that represents the status of the job. The primary status is reflected in the inherited OperationalStatus property. JobStatus provides additional, implementation-specific details.
591	The time that the Job was submitted to execute. A value of all zeroes indicates that the owning element is not capable of reporting a date and time. Therefore, the ScheduledStartTime and StartTime are reported as intervals relative to the time their values are requested.	The time that the Job was submitted to execute. A value of all zeroes indicates that the owning element is not capable of reporting a date and time. Therefore, the ScheduledStartTime and StartTime are reported as intervals relative to the time their values are requested.
592	The time that the current Job is scheduled to start. This time can be represented by the actual date and time, or an interval relative to the time that this property is requested. A value of all zeroes indicates that the Job is already executing. The property is deprecated in lieu of the more expressive scheduling properties, RunMonth, RunDay, RunDayOfWeek, and RunStartInterval.	The time that the current Job is scheduled to start. This time can be represented by the actual date and time, or an interval relative to the time that this property is requested. A value of all zeroes indicates that the Job is already executing. The property is deprecated in lieu of the more expressive scheduling properties, RunMonth, RunDay, RunDayOfWeek, and RunStartInterval.
593	The time that the Job was actually started. This time can be represented by an actual date and time, or by an interval relative to the time that this property is requested. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run time can be stored in this single-valued property.	The time that the Job was actually started. This time can be represented by an actual date and time, or by an interval relative to the time that this property is requested. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run time can be stored in this single-valued property.
594	The time interval that the Job has been executing or the total execution time if the Job is complete. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run time can be stored in this single-valued property.	The time interval that the Job has been executing or the total execution time if the Job is complete. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run time can be stored in this single-valued property.
595	The number of times that the Job should be run. A value of 1 indicates that the Job is not recurring, while any non-zero value indicates a limit to the number of times that the Job will recur. Zero indicates that there is no limit to the number of times that the Job can be processed, but that it is terminated either after the UntilTime or by manual intervention. By default, a Job is processed once.	The number of times that the Job should be run. A value of 1 indicates that the Job is not recurring, while any non-zero value indicates a limit to the number of times that the Job will recur. Zero indicates that there is no limit to the number of times that the Job can be processed, but that it is terminated either after the UntilTime or by manual intervention. By default, a Job is processed once.
596	The month during which the Job should be processed. Specify 0 for January, 1 for February, and so on.	The month during which the Job should be processed. Specify 0 for January, 1 for February, and so on.
597	January	January
598	February	February
599	March	March
600	April	April
601	May	May
602	June	June
603	July	July
604	August	August
605	September	September
606	October	October
607	November	November
608	December	December
609	The day in the month on which the Job should be processed. There are two different interpretations for this property, depending on the value of DayOfWeek. In one case, RunDay defines the day-in-month on which the Job is processed. This interpretation is used when the DayOfWeek is 0. A positive or negative integer indicates whether the RunDay should be calculated from the beginning or end of the month. For example, 5 indicates the fifth day in the RunMonth and -1 indicates the last day in the RunMonth. When RunDayOfWeek is not 0, RunDay is the day-in-month on which the Job is processed, defined in conjunction with RunDayOfWeek. For example, if RunDay is 15 and RunDayOfWeek is Saturday, then the Job is processed on the first Saturday on or after the 15th day in the RunMonth (for example, the third Saturday in the month). If RunDay is 20 and RunDayOfWeek is -Saturday, then this indicates the first Saturday on or before the 20th day in the RunMonth. If RunDay is -1 and RunDayOfWeek is -Sunday, then this indicates the last Sunday in the RunMonth.	The day in the month on which the Job should be processed. There are two different interpretations for this property, depending on the value of DayOfWeek. In one case, RunDay defines the day-in-month on which the Job is processed. This interpretation is used when the DayOfWeek is 0. A positive or negative integer indicates whether the RunDay should be calculated from the beginning or end of the month. For example, 5 indicates the fifth day in the RunMonth and -1 indicates the last day in the RunMonth. When RunDayOfWeek is not 0, RunDay is the day-in-month on which the Job is processed, defined in conjunction with RunDayOfWeek. For example, if RunDay is 15 and RunDayOfWeek is Saturday, then the Job is processed on the first Saturday on or after the 15th day in the RunMonth (for example, the third Saturday in the month). If RunDay is 20 and RunDayOfWeek is -Saturday, then this indicates the first Saturday on or before the 20th day in the RunMonth. If RunDay is -1 and RunDayOfWeek is -Sunday, then this indicates the last Sunday in the RunMonth.
610	A positive or negative integer used in conjunction with RunDay to indicate the day of the week on which the Job is processed. RunDayOfWeek is set to 0 to indicate an exact day of the month, such as March 1. A positive integer (representing Sunday, Monday, ..., Saturday) means that the day of week is found on or after the specified RunDay. A negative integer (representing -Sunday, -Monday, ..., -Saturday) means that the day of week is found on or BEFORE the RunDay.	A positive or negative integer used in conjunction with RunDay to indicate the day of the week on which the Job is processed. RunDayOfWeek is set to 0 to indicate an exact day of the month, such as March 1. A positive integer (representing Sunday, Monday, ..., Saturday) means that the day of week is found on or after the specified RunDay. A negative integer (representing -Sunday, -Monday, ..., -Saturday) means that the day of week is found on or BEFORE the RunDay.
611	-Saturday	-Saturday
612	-Friday	-Friday
613	-Thursday	-Thursday
614	-Wednesday	-Wednesday
615	-Tuesday	-Tuesday
616	-Monday	-Monday
617	-Sunday	-Sunday
618	ExactDayOfMonth	ExactDayOfMonth
619	Sunday	Sunday
620	Monday	Monday
621	Tuesday	Tuesday
622	Wednesday	Wednesday
623	Thursday	Thursday
624	Friday	Friday
625	Saturday	Saturday
626	The time interval after midnight when the Job should be processed. For example, 00000000020000.000000:000 indicates that the Job should be run on or after two o\'clock, local time or UTC time (distinguished using the LocalOrUtcTime property.	The time interval after midnight when the Job should be processed. For example, 00000000020000.000000:000 indicates that the Job should be run on or after two o\'clock, local time or UTC time (distinguished using the LocalOrUtcTime property.
627	This property indicates whether the times represented in the RunStartInterval and UntilTime properties represent local times or UTC times. Time values are synchronized worldwide by using the enumeration value 2, "UTC Time".	This property indicates whether the times represented in the RunStartInterval and UntilTime properties represent local times or UTC times. Time values are synchronized worldwide by using the enumeration value 2, "UTC Time".
628	Local Time	Local Time
629	UTC Time	UTC Time
630	The time after which the Job is invalid or should be stopped. This time can be represented by an actual date and time, or by an interval relative to the time that this property is requested. A value of all nines indicates that the Job can run indefinitely.	The time after which the Job is invalid or should be stopped. This time can be represented by an actual date and time, or by an interval relative to the time that this property is requested. A value of all nines indicates that the Job can run indefinitely.
631	The User who is to be notified upon the Job completion or failure.	The User who is to be notified upon the Job completion or failure.
632	The User that submitted the Job, or the Service or method name that caused the job to be created.	The User that submitted the Job, or the Service or method name that caused the job to be created.
633	Indicates the urgency or importance of execution of the Job. The lower the number, the higher the priority. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the setting information that would influence the results of a job.	Indicates the urgency or importance of execution of the Job. The lower the number, the higher the priority. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the setting information that would influence the results of a job.
634	The percentage of the job that has completed at the time that this value is requested. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run data can be stored in this single-valued property. Note that the value 101 is undefined and will be not be allowed in the next major revision of the specification.	The percentage of the job that has completed at the time that this value is requested. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run data can be stored in this single-valued property. Note that the value 101 is undefined and will be not be allowed in the next major revision of the specification.
635	Percent	Percent
636	Indicates whether or not the job should be automatically deleted upon completion. Note that the \'completion\' of a recurring job is defined by its JobRunTimes or UntilTime properties, or when the Job is terminated by manual intervention. If this property is set to false and the job completes, then the extrinsic method DeleteInstance must be used to delete the job instead of updating this property.	Indicates whether or not the job should be automatically deleted upon completion. Note that the \'completion\' of a recurring job is defined by its JobRunTimes or UntilTime properties, or when the Job is terminated by manual intervention. If this property is set to false and the job completes, then the extrinsic method DeleteInstance must be used to delete the job instead of updating this property.
637	A vendor-specific error code. The value must be set to zero if the Job completed without error. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run error can be stored in this single-valued property.	A vendor-specific error code. The value must be set to zero if the Job completed without error. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run error can be stored in this single-valued property.
638	A free-form string that contains the vendor error description. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run error can be stored in this single-valued property.	A free-form string that contains the vendor error description. Note that this property is also present in the JobProcessingStatistics class. This class is necessary to capture the processing information for recurring Jobs, because only the \'last\' run error can be stored in this single-valued property.
639	Describes the recovery action to be taken for an unsuccessfully run Job. The possible values are: 0 = "Unknown", meaning it is unknown as to what recovery action to take 1 = "Other", indicating that the recovery action will be specified in the OtherRecoveryAction property 2 = "Do Not Continue", meaning stop the execution of the job and appropriately update its status 3 = "Continue With Next Job", meaning continue with the next job in the queue 4 = "Re-run Job", indicating that the job should be re-run 5 = "Run Recovery Job", meaning run the Job associated using the RecoveryJob relationship. Note that the recovery Job must already be in the queue from which it will run.	Describes the recovery action to be taken for an unsuccessfully run Job. The possible values are: 0 = "Unknown", meaning it is unknown as to what recovery action to take 1 = "Other", indicating that the recovery action will be specified in the OtherRecoveryAction property 2 = "Do Not Continue", meaning stop the execution of the job and appropriately update its status 3 = "Continue With Next Job", meaning continue with the next job in the queue 4 = "Re-run Job", indicating that the job should be re-run 5 = "Run Recovery Job", meaning run the Job associated using the RecoveryJob relationship. Note that the recovery Job must already be in the queue from which it will run.
640	Do Not Continue	Do Not Continue
641	Continue With Next Job	Continue With Next Job
642	Re-run Job	Re-run Job
643	Run Recovery Job	Run Recovery Job
644	A string describing the recovery action when the RecoveryAction property of the instance is 1 ("Other").	A string describing the recovery action when the RecoveryAction property of the instance is 1 ("Other").
645	KillJob is being deprecated because there is no distinction made between an orderly shutdown and an immediate kill. CIM_ConcreteJob.RequestStateChange() provides \'Terminate\' and \'Kill\' options to allow this distinction. A method to kill this job and any underlying processes, and to remove any \'dangling\' associations.	KillJob is being deprecated because there is no distinction made between an orderly shutdown and an immediate kill. CIM_ConcreteJob.RequestStateChange() provides \'Terminate\' and \'Kill\' options to allow this distinction. A method to kill this job and any underlying processes, and to remove any \'dangling\' associations.
646	Success	Success
647	Not Supported	Not Supported
648	Timeout	Timeout
649	Failed	Failed
650	Access Denied	Access Denied
651	Not Found	Not Found
652	Vendor Specific	Vendor Specific
653	Indicates whether or not the Job should be automatically deleted upon termination. This parameter takes precedence over the property, DeleteOnCompletion.	Indicates whether or not the Job should be automatically deleted upon termination. This parameter takes precedence over the property, DeleteOnCompletion.
654	A Job is a LogicalElement that represents an executing unit of work, such as a script or a print job. A Job is distinct from a Process in that a Job can be scheduled or queued, and its execution is not limited to a single system.	A Job is a LogicalElement that represents an executing unit of work, such as a script or a print job. A Job is distinct from a Process in that a Job can be scheduled or queued, and its execution is not limited to a single system.
655	Primary classification of the error. The following values are defined: 2 - Communications Error. Errors of this type are principally associated with the procedures and/or processes required to convey information from one point to another. 3 - Quality of Service Error. Errors of this type are principally associated with failures that result in reduced functionality or performance. 4 - Software Error. Error of this type are principally associated with a software or processing fault. 5 - Hardware Error. Errors of this type are principally associated with an equipment or hardware failure. 6 - Environmental Error. Errors of this type are principally associated with a failure condition relating the to facility, or other environmental considerations. 7 - Security Error. Errors of this type are associated with security violations, detection of viruses, and similar issues. 8 - Oversubscription Error. Errors of this type are principally associated with the failure to allocate sufficient resources to complete the operation. 9 - Unavailable Resource Error. Errors of this type are principally associated with the failure to access a required resource. 10 -Unsupported Operation Error. Errors of this type are principally associated with requests that are not supported.	Primary classification of the error. The following values are defined: 2 - Communications Error. Errors of this type are principally associated with the procedures and/or processes required to convey information from one point to another. 3 - Quality of Service Error. Errors of this type are principally associated with failures that result in reduced functionality or performance. 4 - Software Error. Error of this type are principally associated with a software or processing fault. 5 - Hardware Error. Errors of this type are principally associated with an equipment or hardware failure. 6 - Environmental Error. Errors of this type are principally associated with a failure condition relating the to facility, or other environmental considerations. 7 - Security Error. Errors of this type are associated with security violations, detection of viruses, and similar issues. 8 - Oversubscription Error. Errors of this type are principally associated with the failure to allocate sufficient resources to complete the operation. 9 - Unavailable Resource Error. Errors of this type are principally associated with the failure to access a required resource. 10 -Unsupported Operation Error. Errors of this type are principally associated with requests that are not supported.
656	Communications Error	Communications Error
657	Quality of Service Error	Quality of Service Error
658	Software Error	Software Error
659	Hardware Error	Hardware Error
660	Environmental Error	Environmental Error
661	Security Error	Security Error
662	Oversubscription Error	Oversubscription Error
663	Unavailable Resource Error	Unavailable Resource Error
664	Unsupported Operation Error	Unsupported Operation Error
665	A free-form string describing the ErrorType when 1, "Other", is specified as the ErrorType.	A free-form string describing the ErrorType when 1, "Other", is specified as the ErrorType.
666	A string that uniquely identifies the entity that owns the definition of the format of the Message described in this instance. OwningEntity MUST include a copyrighted, trademarked or otherwise unique name that is owned by the business entity or standards body defining the format.	A string that uniquely identifies the entity that owns the definition of the format of the Message described in this instance. OwningEntity MUST include a copyrighted, trademarked or otherwise unique name that is owned by the business entity or standards body defining the format.
667	An opaque string that uniquely identifies, within the scope of the OwningEntity, the format of the Message.	An opaque string that uniquely identifies, within the scope of the OwningEntity, the format of the Message.
668	The formatted message. This message is constructed by combining some or all of the dynamic elements specified in the MessageArguments property with the static elements uniquely identified by the MessageID in a message registry or other catalog associated with the OwningEntity.	The formatted message. This message is constructed by combining some or all of the dynamic elements specified in the MessageArguments property with the static elements uniquely identified by the MessageID in a message registry or other catalog associated with the OwningEntity.
669	An array containing the dynamic content of the message.	An array containing the dynamic content of the message.
670	An enumerated value that describes the severity of the Indication from the notifier\'s point of view: 0 - the Perceived Severity of the indication is unknown or indeterminate. 1 - Other, by CIM convention, is used to indicate that the Severity\'s value can be found in the OtherSeverity property. 2 - Information should be used when providing an informative response. 3 - Degraded/Warning should be used when its appropriate to let the user decide if action is needed. 4 - Minor should be used to indicate action is needed, but the situation is not serious at this time. 5 - Major should be used to indicate action is needed NOW. 6 - Critical should be used to indicate action is needed NOW and the scope is broad (perhaps an imminent outage to a critical resource will result). 7 - Fatal/NonRecoverable should be used to indicate an error occurred, but it\'s too late to take remedial action. 2 and 0 - Information and Unknown (respectively) follow common usage. Literally, the Error is purely informational or its severity is simply unknown.	An enumerated value that describes the severity of the Indication from the notifier\'s point of view: 0 - the Perceived Severity of the indication is unknown or indeterminate. 1 - Other, by CIM convention, is used to indicate that the Severity\'s value can be found in the OtherSeverity property. 2 - Information should be used when providing an informative response. 3 - Degraded/Warning should be used when its appropriate to let the user decide if action is needed. 4 - Minor should be used to indicate action is needed, but the situation is not serious at this time. 5 - Major should be used to indicate action is needed NOW. 6 - Critical should be used to indicate action is needed NOW and the scope is broad (perhaps an imminent outage to a critical resource will result). 7 - Fatal/NonRecoverable should be used to indicate an error occurred, but it\'s too late to take remedial action. 2 and 0 - Information and Unknown (respectively) follow common usage. Literally, the Error is purely informational or its severity is simply unknown.
671	Information	Information
672	Minor	Minor
673	Major	Major
674	Critical	Critical
675	Fatal/NonRecoverable	Fatal/NonRecoverable
676	An enumerated value that describes the probable cause of the error.	An enumerated value that describes the probable cause of the error.
677	Adapter/Card Error	Adapter/Card Error
678	Application Subsystem Failure	Application Subsystem Failure
679	Bandwidth Reduced	Bandwidth Reduced
680	Connection Establishment Error	Connection Establishment Error
681	Communications Protocol Error	Communications Protocol Error
682	Communications Subsystem Failure	Communications Subsystem Failure
683	Configuration/Customization Error	Configuration/Customization Error
684	Congestion	Congestion
685	Corrupt Data	Corrupt Data
686	CPU Cycles Limit Exceeded	CPU Cycles Limit Exceeded
687	Dataset/Modem Error	Dataset/Modem Error
688	Degraded Signal	Degraded Signal
689	DTE-DCE Interface Error	DTE-DCE Interface Error
690	Enclosure Door Open	Enclosure Door Open
691	Equipment Malfunction	Equipment Malfunction
692	Excessive Vibration	Excessive Vibration
693	File Format Error	File Format Error
694	Fire Detected	Fire Detected
695	Flood Detected	Flood Detected
696	Framing Error	Framing Error
697	HVAC Problem	HVAC Problem
698	Humidity Unacceptable	Humidity Unacceptable
699	I/O Device Error	I/O Device Error
700	Input Device Error	Input Device Error
701	LAN Error	LAN Error
702	Non-Toxic Leak Detected	Non-Toxic Leak Detected
703	Local Node Transmission Error	Local Node Transmission Error
704	Loss of Frame	Loss of Frame
705	Loss of Signal	Loss of Signal
706	Material Supply Exhausted	Material Supply Exhausted
707	Multiplexer Problem	Multiplexer Problem
708	Out of Memory	Out of Memory
709	Output Device Error	Output Device Error
710	Performance Degraded	Performance Degraded
711	Power Problem	Power Problem
712	Pressure Unacceptable	Pressure Unacceptable
713	Processor Problem (Internal Machine Error)	Processor Problem (Internal Machine Error)
714	Pump Failure	Pump Failure
715	Queue Size Exceeded	Queue Size Exceeded
716	Receive Failure	Receive Failure
717	Receiver Failure	Receiver Failure
718	Remote Node Transmission Error	Remote Node Transmission Error
719	Resource at or Nearing Capacity	Resource at or Nearing Capacity
720	Response Time Excessive	Response Time Excessive
721	Retransmission Rate Excessive	Retransmission Rate Excessive
722	Software Program Abnormally Terminated	Software Program Abnormally Terminated
723	Software Program Error (Incorrect Results)	Software Program Error (Incorrect Results)
724	Storage Capacity Problem	Storage Capacity Problem
725	Temperature Unacceptable	Temperature Unacceptable
726	Threshold Crossed	Threshold Crossed
727	Timing Problem	Timing Problem
728	Toxic Leak Detected	Toxic Leak Detected
729	Transmit Failure	Transmit Failure
730	Transmitter Failure	Transmitter Failure
731	Underlying Resource Unavailable	Underlying Resource Unavailable
732	Version Mismatch	Version Mismatch
733	Previous Alert Cleared	Previous Alert Cleared
734	Login Attempts Failed	Login Attempts Failed
735	Software Virus Detected	Software Virus Detected
736	Hardware Security Breached	Hardware Security Breached
737	Denial of Service Detected	Denial of Service Detected
738	Security Credential Mismatch	Security Credential Mismatch
739	Unauthorized Access	Unauthorized Access
740	Alarm Received	Alarm Received
741	Loss of Pointer	Loss of Pointer
742	Payload Mismatch	Payload Mismatch
743	Transmission Error	Transmission Error
744	Excessive Error Rate	Excessive Error Rate
745	Trace Problem	Trace Problem
746	Element Unavailable	Element Unavailable
747	Element Missing	Element Missing
748	Loss of Multi Frame	Loss of Multi Frame
749	Broadcast Channel Failure	Broadcast Channel Failure
750	Invalid Message Received	Invalid Message Received
751	Routing Failure	Routing Failure
752	Backplane Failure	Backplane Failure
753	Identifier Duplication	Identifier Duplication
754	Protection Path Failure	Protection Path Failure
755	Sync Loss or Mismatch	Sync Loss or Mismatch
756	Terminal Problem	Terminal Problem
757	Real Time Clock Failure	Real Time Clock Failure
758	Antenna Failure	Antenna Failure
759	Battery Charging Failure	Battery Charging Failure
760	Disk Failure	Disk Failure
761	Frequency Hopping Failure	Frequency Hopping Failure
762	Loss of Redundancy	Loss of Redundancy
763	Power Supply Failure	Power Supply Failure
764	Signal Quality Problem	Signal Quality Problem
765	Battery Discharging	Battery Discharging
766	Battery Failure	Battery Failure
767	Commercial Power Problem	Commercial Power Problem
768	Fan Failure	Fan Failure
769	Engine Failure	Engine Failure
770	Sensor Failure	Sensor Failure
771	Fuse Failure	Fuse Failure
772	Generator Failure	Generator Failure
773	Low Battery	Low Battery
774	Low Fuel	Low Fuel
775	Low Water	Low Water
776	Explosive Gas	Explosive Gas
777	High Winds	High Winds
778	Ice Buildup	Ice Buildup
779	Smoke	Smoke
780	Memory Mismatch	Memory Mismatch
781	Out of CPU Cycles	Out of CPU Cycles
782	Software Environment Problem	Software Environment Problem
783	Software Download Failure	Software Download Failure
784	Element Reinitialized	Element Reinitialized
785	Logging Problems	Logging Problems
786	Leak Detected	Leak Detected
787	Protection Mechanism Failure	Protection Mechanism Failure
788	Protecting Resource Failure	Protecting Resource Failure
789	Database Inconsistency	Database Inconsistency
790	Authentication Failure	Authentication Failure
791	Breach of Confidentiality	Breach of Confidentiality
792	Cable Tamper	Cable Tamper
793	Delayed Information	Delayed Information
794	Duplicate Information	Duplicate Information
795	Information Missing	Information Missing
796	Information Modification	Information Modification
797	Information Out of Sequence	Information Out of Sequence
798	Key Expired	Key Expired
799	Non-Repudiation Failure	Non-Repudiation Failure
800	Out of Hours Activity	Out of Hours Activity
801	Out of Service	Out of Service
802	Procedural Error	Procedural Error
803	Unexpected Information	Unexpected Information
804	A free-form string describing the probable cause of the error.	A free-form string describing the probable cause of the error.
805	A free-form string describing recommended actions to take to resolve the error.	A free-form string describing recommended actions to take to resolve the error.
806	The identifying information of the entity (i.e., the instance) generating the error. If this entity is modeled in the CIM Schema, this property contains the path of the instance encoded as a string parameter. If not modeled, the property contains some identifying string that names the entity that generated the error. The path or identifying string is formatted per the ErrorSourceFormat property.	The identifying information of the entity (i.e., the instance) generating the error. If this entity is modeled in the CIM Schema, this property contains the path of the instance encoded as a string parameter. If not modeled, the property contains some identifying string that names the entity that generated the error. The path or identifying string is formatted per the ErrorSourceFormat property.
807	The format of the ErrorSource property is interpretable based on the value of this property. Values are defined as: 0 - Unknown. The format is unknown or not meaningfully interpretable by a CIM client application. 1 - Other. The format is defined by the value of the OtherErrorSourceFormat property.2 - CIMObjectPath. A CIM Object Path as defined in the CIM Infrastructure specification. Note: CIM 2.5 and earlier used the term object names.	The format of the ErrorSource property is interpretable based on the value of this property. Values are defined as: 0 - Unknown. The format is unknown or not meaningfully interpretable by a CIM client application. 1 - Other. The format is defined by the value of the OtherErrorSourceFormat property.2 - CIMObjectPath. A CIM Object Path as defined in the CIM Infrastructure specification. Note: CIM 2.5 and earlier used the term object names.
808	CIMObjectPath	CIMObjectPath
809	A string defining "Other" values for ErrorSourceFormat. This value MUST be set to a non NULL value when ErrorSourceFormat is set to a value of 1 ("Other"). For all other values of ErrorSourceFormat, the value of this string must be set to NULL.	A string defining "Other" values for ErrorSourceFormat. This value MUST be set to a non NULL value when ErrorSourceFormat is set to a value of 1 ("Other"). For all other values of ErrorSourceFormat, the value of this string must be set to NULL.
810	The CIM status code that characterizes this instance. This property defines the status codes that MAY be return by a conforming CIM Server or Listener. Note that not all status codes are valid for each operation. The specification for each operation SHOULD define the status codes that may be returned by that operation. The following values for CIM status code are defined: 1 - CIM_ERR_FAILED. A general error occurred that is not covered by a more specific error code. 2 - CIM_ERR_ACCESS_DENIED. Access to a CIM resource was not available to the client. 3 - CIM_ERR_INVALID_NAMESPACE. The target namespace does not exist. 4 - CIM_ERR_INVALID_PARAMETER. One or more parameter values passed to the method were invalid. 5 - CIM_ERR_INVALID_CLASS. The specified Class does not exist. 6 - CIM_ERR_NOT_FOUND. The requested object could not be found. 7 - CIM_ERR_NOT_SUPPORTED. The requested operation is not supported. 8 - CIM_ERR_CLASS_HAS_CHILDREN. Operation cannot be carried out on this class since it has instances. 9 - CIM_ERR_CLASS_HAS_INSTANCES. Operation cannot be carried out on this class since it has instances. 10 - CIM_ERR_INVALID_SUPERCLASS. Operation cannot be carried out since the specified superclass does not exist. 11 - CIM_ERR_ALREADY_EXISTS. Operation cannot be carried out because an object already exists. 12 - CIM_ERR_NO_SUCH_PROPERTY. The specified Property does not exist. 13 - CIM_ERR_TYPE_MISMATCH. The value supplied is incompatible with the type. 14 - CIM_ERR_QUERY_LANGUAGE_NOT_SUPPORTED. The query language is not recognized or supported. 15 - CIM_ERR_INVALID_QUERY. The query is not valid for the specified query language. 16 - CIM_ERR_METHOD_NOT_AVAILABLE. The extrinsic Method could not be executed. 17 - CIM_ERR_METHOD_NOT_FOUND. The specified extrinsic Method does not exist. 18 - CIM_ERR_UNEXPECTED_RESPONSE. The returned response to the asynchronous operation was not expected. 19 - CIM_ERR_INVALID_RESPONSE_DESTINATION. The specified destination for the asynchronous response is not valid. 20 - CIM_ERR_NAMESPACE_NOT_EMPTY. The specified Namespace is not empty. 21 - CIM_ERR_INVALID_ENUMERATION_CONTEXT. The enumeration context supplied is not valid. 22 - CIM_ERR_INVALID_OPERATION_TIMEOUT. The specified Namespace is not empty. 23 - CIM_ERR_PULL_HAS_BEEN_ABANDONED. The specified Namespace is not empty. 24 - CIM_ERR_PULL_CANNOT_BE_ABANDONED. The attempt to abandon a pull operation has failed. 25 - CIM_ERR_FILTERED_ENUMERATION_NOT_SUPPORTED. Filtered Enumeratrions are not supported. 26 - CIM_ERR_CONTINUATION_ON_ERROR_NOT_SUPPORTED. Continue on error is not supported. 27 - CIM_ERR_SERVER_LIMITS_EXCEEDED. The WBEM Server limits have been exceeded (e.g. memory, connections, ...). 28 - CIM_ERR_SERVER_IS_SHUTTING_DOWN. The WBEM Server is shutting down. 29 - CIM_ERR_QUERY_FEATURE_NOT_SUPPORTED. The specified Query Feature is not supported.	The CIM status code that characterizes this instance. This property defines the status codes that MAY be return by a conforming CIM Server or Listener. Note that not all status codes are valid for each operation. The specification for each operation SHOULD define the status codes that may be returned by that operation. The following values for CIM status code are defined: 1 - CIM_ERR_FAILED. A general error occurred that is not covered by a more specific error code. 2 - CIM_ERR_ACCESS_DENIED. Access to a CIM resource was not available to the client. 3 - CIM_ERR_INVALID_NAMESPACE. The target namespace does not exist. 4 - CIM_ERR_INVALID_PARAMETER. One or more parameter values passed to the method were invalid. 5 - CIM_ERR_INVALID_CLASS. The specified Class does not exist. 6 - CIM_ERR_NOT_FOUND. The requested object could not be found. 7 - CIM_ERR_NOT_SUPPORTED. The requested operation is not supported. 8 - CIM_ERR_CLASS_HAS_CHILDREN. Operation cannot be carried out on this class since it has instances. 9 - CIM_ERR_CLASS_HAS_INSTANCES. Operation cannot be carried out on this class since it has instances. 10 - CIM_ERR_INVALID_SUPERCLASS. Operation cannot be carried out since the specified superclass does not exist. 11 - CIM_ERR_ALREADY_EXISTS. Operation cannot be carried out because an object already exists. 12 - CIM_ERR_NO_SUCH_PROPERTY. The specified Property does not exist. 13 - CIM_ERR_TYPE_MISMATCH. The value supplied is incompatible with the type. 14 - CIM_ERR_QUERY_LANGUAGE_NOT_SUPPORTED. The query language is not recognized or supported. 15 - CIM_ERR_INVALID_QUERY. The query is not valid for the specified query language. 16 - CIM_ERR_METHOD_NOT_AVAILABLE. The extrinsic Method could not be executed. 17 - CIM_ERR_METHOD_NOT_FOUND. The specified extrinsic Method does not exist. 18 - CIM_ERR_UNEXPECTED_RESPONSE. The returned response to the asynchronous operation was not expected. 19 - CIM_ERR_INVALID_RESPONSE_DESTINATION. The specified destination for the asynchronous response is not valid. 20 - CIM_ERR_NAMESPACE_NOT_EMPTY. The specified Namespace is not empty. 21 - CIM_ERR_INVALID_ENUMERATION_CONTEXT. The enumeration context supplied is not valid. 22 - CIM_ERR_INVALID_OPERATION_TIMEOUT. The specified Namespace is not empty. 23 - CIM_ERR_PULL_HAS_BEEN_ABANDONED. The specified Namespace is not empty. 24 - CIM_ERR_PULL_CANNOT_BE_ABANDONED. The attempt to abandon a pull operation has failed. 25 - CIM_ERR_FILTERED_ENUMERATION_NOT_SUPPORTED. Filtered Enumeratrions are not supported. 26 - CIM_ERR_CONTINUATION_ON_ERROR_NOT_SUPPORTED. Continue on error is not supported. 27 - CIM_ERR_SERVER_LIMITS_EXCEEDED. The WBEM Server limits have been exceeded (e.g. memory, connections, ...). 28 - CIM_ERR_SERVER_IS_SHUTTING_DOWN. The WBEM Server is shutting down. 29 - CIM_ERR_QUERY_FEATURE_NOT_SUPPORTED. The specified Query Feature is not supported.
811	CIM_ERR_FAILED	CIM_ERR_FAILED
812	CIM_ERR_ACCESS_DENIED	CIM_ERR_ACCESS_DENIED
813	CIM_ERR_INVALID_NAMESPACE	CIM_ERR_INVALID_NAMESPACE
814	CIM_ERR_INVALID_PARAMETER	CIM_ERR_INVALID_PARAMETER
815	CIM_ERR_INVALID_CLASS	CIM_ERR_INVALID_CLASS
816	CIM_ERR_NOT_FOUND	CIM_ERR_NOT_FOUND
817	CIM_ERR_NOT_SUPPORTED	CIM_ERR_NOT_SUPPORTED
818	CIM_ERR_CLASS_HAS_CHILDREN	CIM_ERR_CLASS_HAS_CHILDREN
819	CIM_ERR_CLASS_HAS_INSTANCES	CIM_ERR_CLASS_HAS_INSTANCES
820	CIM_ERR_INVALID_SUPERCLASS	CIM_ERR_INVALID_SUPERCLASS
821	CIM_ERR_ALREADY_EXISTS	CIM_ERR_ALREADY_EXISTS
822	CIM_ERR_NO_SUCH_PROPERTY	CIM_ERR_NO_SUCH_PROPERTY
823	CIM_ERR_TYPE_MISMATCH	CIM_ERR_TYPE_MISMATCH
824	CIM_ERR_QUERY_LANGUAGE_NOT_SUPPORTED	CIM_ERR_QUERY_LANGUAGE_NOT_SUPPORTED
825	CIM_ERR_INVALID_QUERY	CIM_ERR_INVALID_QUERY
826	CIM_ERR_METHOD_NOT_AVAILABLE	CIM_ERR_METHOD_NOT_AVAILABLE
827	CIM_ERR_METHOD_NOT_FOUND	CIM_ERR_METHOD_NOT_FOUND
828	CIM_ERR_UNEXPECTED_RESPONSE	CIM_ERR_UNEXPECTED_RESPONSE
829	CIM_ERR_INVALID_RESPONSE_DESTINATION	CIM_ERR_INVALID_RESPONSE_DESTINATION
830	CIM_ERR_NAMESPACE_NOT_EMPTY	CIM_ERR_NAMESPACE_NOT_EMPTY
831	CIM_ERR_INVALID_ENUMERATION_CONTEXT	CIM_ERR_INVALID_ENUMERATION_CONTEXT
832	CIM_ERR_INVALID_OPERATION_TIMEOUT	CIM_ERR_INVALID_OPERATION_TIMEOUT
833	CIM_ERR_PULL_HAS_BEEN_ABANDONED	CIM_ERR_PULL_HAS_BEEN_ABANDONED
834	CIM_ERR_PULL_CANNOT_BE_ABANDONED	CIM_ERR_PULL_CANNOT_BE_ABANDONED
835	CIM_ERR_FILTERED_ENUMERATION_NOT_SUPPORTED	CIM_ERR_FILTERED_ENUMERATION_NOT_SUPPORTED
836	CIM_ERR_CONTINUATION_ON_ERROR_NOT_SUPPORTED	CIM_ERR_CONTINUATION_ON_ERROR_NOT_SUPPORTED
837	CIM_ERR_SERVER_LIMITS_EXCEEDED	CIM_ERR_SERVER_LIMITS_EXCEEDED
838	CIM_ERR_SERVER_IS_SHUTTING_DOWN	CIM_ERR_SERVER_IS_SHUTTING_DOWN
839	CIM_ERR_QUERY_FEATURE_NOT_SUPPORTED	CIM_ERR_QUERY_FEATURE_NOT_SUPPORTED
840	A free-form string containing a human-readable description of CIMStatusCode. This description MAY extend, but MUST be consistent with, the definition of CIMStatusCode.	A free-form string containing a human-readable description of CIMStatusCode. This description MAY extend, but MUST be consistent with, the definition of CIMStatusCode.
841	2.22.1	2.22.1
842	CIM_Error is a specialized class that contains information about the severity, cause, recommended actions and other data related to the failure of a CIM Operation. Instances of this type MAY be included as part of the response to a CIM Operation.	CIM_Error is a specialized class that contains information about the severity, cause, recommended actions and other data related to the failure of a CIM Operation. Instances of this type MAY be included as part of the response to a CIM Operation.
843	Within the scope of the instantiating Namespace, InstanceID opaquely and uniquely identifies an instance of this class. In order to ensure uniqueness within the NameSpace, the value of InstanceID SHOULD be constructed using the following \'preferred\' algorithm: : Where and are separated by a colon \':\', and where must include a copyrighted, trademarked or otherwise unique name that is owned by the business entity that is creating or defining the InstanceID, or that is a registered ID that is assigned to the business entity by a recognized global authority. (This requirement is similar to the _ structure of Schema class names.) In addition, to ensure uniqueness must not contain a colon (\':\'). When using this algorithm, the first colon to appear in InstanceID must appear between and . is chosen by the business entity and should not be re-used to identify different underlying (real-world) elements. If the above \'preferred\' algorithm is not used, the defining entity must assure that the resulting InstanceID is not re-used across any InstanceIDs produced by this or other providers for the NameSpace of this instance. For DMTF defined instances, the \'preferred\' algorithm must be used with the set to \'CIM\'.	Within the scope of the instantiating Namespace, InstanceID opaquely and uniquely identifies an instance of this class. In order to ensure uniqueness within the NameSpace, the value of InstanceID SHOULD be constructed using the following \'preferred\' algorithm: : Where and are separated by a colon \':\', and where must include a copyrighted, trademarked or otherwise unique name that is owned by the business entity that is creating or defining the InstanceID, or that is a registered ID that is assigned to the business entity by a recognized global authority. (This requirement is similar to the _ structure of Schema class names.) In addition, to ensure uniqueness must not contain a colon (\':\'). When using this algorithm, the first colon to appear in InstanceID must appear between and . is chosen by the business entity and should not be re-used to identify different underlying (real-world) elements. If the above \'preferred\' algorithm is not used, the defining entity must assure that the resulting InstanceID is not re-used across any InstanceIDs produced by this or other providers for the NameSpace of this instance. For DMTF defined instances, the \'preferred\' algorithm must be used with the set to \'CIM\'.
844	The user-friendly name for this instance of a Job. In addition, the user-friendly name can be used as a property for a search or query. (Note: Name does not have to be unique within a namespace.)	The user-friendly name for this instance of a Job. In addition, the user-friendly name can be used as a property for a search or query. (Note: Name does not have to be unique within a namespace.)
845	JobState is an integer enumeration that indicates the operational state of a Job. It can also indicate transitions between these states, for example, \'Shutting Down\' and \'Starting\'. Following is a brief description of the states: New (2) indicates that the job has never been started. Starting (3) indicates that the job is moving from the \'New\', \'Suspended\', or \'Service\' states into the \'Running\' state. Running (4) indicates that the Job is running. Suspended (5) indicates that the Job is stopped, but can be restarted in a seamless manner. Shutting Down (6) indicates that the job is moving to a \'Completed\', \'Terminated\', or \'Killed\' state. Completed (7) indicates that the job has completed normally. Terminated (8) indicates that the job has been stopped by a \'Terminate\' state change request. The job and all its underlying processes are ended and can be restarted (this is job-specific) only as a new job. Killed (9) indicates that the job has been stopped by a \'Kill\' state change request. Underlying processes might have been left running, and cleanup might be required to free up resources. Exception (10) indicates that the Job is in an abnormal state that might be indicative of an error condition. Actual status might be displayed though job-specific objects. Service (11) indicates that the Job is in a vendor-specific state that supports problem discovery, or resolution, or both. Query pending (12) waiting for a client to resolve a query	JobState is an integer enumeration that indicates the operational state of a Job. It can also indicate transitions between these states, for example, \'Shutting Down\' and \'Starting\'. Following is a brief description of the states: New (2) indicates that the job has never been started. Starting (3) indicates that the job is moving from the \'New\', \'Suspended\', or \'Service\' states into the \'Running\' state. Running (4) indicates that the Job is running. Suspended (5) indicates that the Job is stopped, but can be restarted in a seamless manner. Shutting Down (6) indicates that the job is moving to a \'Completed\', \'Terminated\', or \'Killed\' state. Completed (7) indicates that the job has completed normally. Terminated (8) indicates that the job has been stopped by a \'Terminate\' state change request. The job and all its underlying processes are ended and can be restarted (this is job-specific) only as a new job. Killed (9) indicates that the job has been stopped by a \'Kill\' state change request. Underlying processes might have been left running, and cleanup might be required to free up resources. Exception (10) indicates that the Job is in an abnormal state that might be indicative of an error condition. Actual status might be displayed though job-specific objects. Service (11) indicates that the Job is in a vendor-specific state that supports problem discovery, or resolution, or both. Query pending (12) waiting for a client to resolve a query
846	New	New
847	Running	Running
848	Suspended	Suspended
849	Terminated	Terminated
850	Killed	Killed
851	Exception	Exception
852	Service	Service
853	Query Pending	Query Pending
854	The date or time when the state of the Job last changed. If the state of the Job has not changed and this property is populated, then it must be set to a 0 interval value. If a state change was requested, but rejected or not yet processed, the property must not be updated.	The date or time when the state of the Job last changed. If the state of the Job has not changed and this property is populated, then it must be set to a 0 interval value. If a state change was requested, but rejected or not yet processed, the property must not be updated.
855	The amount of time that the Job is retained after it has finished executing, either succeeding or failing in that execution. The job must remain in existence for some period of time regardless of the value of the DeleteOnCompletion property. The default is five minutes.	The amount of time that the Job is retained after it has finished executing, either succeeding or failing in that execution. The job must remain in existence for some period of time regardless of the value of the DeleteOnCompletion property. The default is five minutes.
856	Requests that the state of the job be changed to the value specified in the RequestedState parameter. Invoking the RequestStateChange method multiple times could result in earlier requests being overwritten or lost. If 0 is returned, then the task completed successfully. Any other return code indicates an error condition.	Requests that the state of the job be changed to the value specified in the RequestedState parameter. Invoking the RequestStateChange method multiple times could result in earlier requests being overwritten or lost. If 0 is returned, then the task completed successfully. Any other return code indicates an error condition.
857	Completed with No Error	Completed with No Error
858	Unknown/Unspecified Error	Unknown/Unspecified Error
859	Can NOT complete within Timeout Period	Can NOT complete within Timeout Period
860	Invalid Parameter	Invalid Parameter
861	In Use	In Use
862	Method Parameters Checked - Transition Started	Method Parameters Checked - Transition Started
863	Invalid State Transition	Invalid State Transition
864	Use of Timeout Parameter Not Supported	Use of Timeout Parameter Not Supported
865	Busy	Busy
866	Method Reserved	Method Reserved
867	RequestStateChange changes the state of a job. The possible values are as follows: Start (2) changes the state to \'Running\'. Suspend (3) stops the job temporarily. The intention is to subsequently restart the job with \'Start\'. It might be possible to enter the \'Service\' state while suspended. (This is job-specific.) Terminate (4) stops the job cleanly, saving data, preserving the state, and shutting down all underlying processes in an orderly manner. Kill (5) terminates the job immediately with no requirement to save data or preserve the state. Service (6) puts the job into a vendor-specific service state. It might be possible to restart the job.	RequestStateChange changes the state of a job. The possible values are as follows: Start (2) changes the state to \'Running\'. Suspend (3) stops the job temporarily. The intention is to subsequently restart the job with \'Start\'. It might be possible to enter the \'Service\' state while suspended. (This is job-specific.) Terminate (4) stops the job cleanly, saving data, preserving the state, and shutting down all underlying processes in an orderly manner. Kill (5) terminates the job immediately with no requirement to save data or preserve the state. Service (6) puts the job into a vendor-specific service state. It might be possible to restart the job.
868	Start	Start
869	Suspend	Suspend
870	Terminate	Terminate
871	Kill	Kill
872	A timeout period that specifies the maximum amount of time that the client expects the transition to the new state to take. The interval format must be used to specify the TimeoutPeriod. A value of 0 or a null parameter indicates that the client has no time requirements for the transition. If this property does not contain 0 or null and the implementation does not support this parameter, a return code of \'Use Of Timeout Parameter Not Supported\' must be returned.	A timeout period that specifies the maximum amount of time that the client expects the transition to the new state to take. The interval format must be used to specify the TimeoutPeriod. A value of 0 or a null parameter indicates that the client has no time requirements for the transition. If this property does not contain 0 or null and the implementation does not support this parameter, a return code of \'Use Of Timeout Parameter Not Supported\' must be returned.
873	When the job is executing or has terminated without error, then this method returns no CIM_Error instance. However, if the job has failed because of some internal problem or because the job has been terminated by a client, then a CIM_Error instance is returned.	When the job is executing or has terminated without error, then this method returns no CIM_Error instance. However, if the job has failed because of some internal problem or because the job has been terminated by a client, then a CIM_Error instance is returned.
874	Unspecified Error	Unspecified Error
875	If the OperationalStatus on the Job is not "OK", then this method will return a CIM Error instance. Otherwise, when the Job is "OK", null is returned.	If the OperationalStatus on the Job is not "OK", then this method will return a CIM Error instance. Otherwise, when the Job is "OK", null is returned.
876	A concrete version of Job. This class represents a generic and instantiable unit of work, such as a batch or a print job.	A concrete version of Job. This class represents a generic and instantiable unit of work, such as a batch or a print job.
877	EnabledState is an integer enumeration that indicates the enabled and disabled states of an element. It can also indicate the transitions between these requested states. For example, shutting down (value=4) and starting (value=10) are transient states between enabled and disabled. The following text briefly summarizes the various enabled and disabled states: Enabled (2) indicates that the element is or could be executing commands, will process any queued commands, and queues new requests. Disabled (3) indicates that the element will not execute commands and will drop any new requests. Shutting Down (4) indicates that the element is in the process of going to a Disabled state. Not Applicable (5) indicates the element does not support being enabled or disabled. Enabled but Offline (6) indicates that the element might be completing commands, and will drop any new requests. Test (7) indicates that the element is in a test state. Deferred (8) indicates that the element might be completing commands, but will queue any new requests. Quiesce (9) indicates that the element is enabled but in a restricted mode. Starting (10) indicates that the element is in the process of going to an Enabled state. New requests are queued.	EnabledState is an integer enumeration that indicates the enabled and disabled states of an element. It can also indicate the transitions between these requested states. For example, shutting down (value=4) and starting (value=10) are transient states between enabled and disabled. The following text briefly summarizes the various enabled and disabled states: Enabled (2) indicates that the element is or could be executing commands, will process any queued commands, and queues new requests. Disabled (3) indicates that the element will not execute commands and will drop any new requests. Shutting Down (4) indicates that the element is in the process of going to a Disabled state. Not Applicable (5) indicates the element does not support being enabled or disabled. Enabled but Offline (6) indicates that the element might be completing commands, and will drop any new requests. Test (7) indicates that the element is in a test state. Deferred (8) indicates that the element might be completing commands, but will queue any new requests. Quiesce (9) indicates that the element is enabled but in a restricted mode. Starting (10) indicates that the element is in the process of going to an Enabled state. New requests are queued.
878	Enabled but Offline	Enabled but Offline
879	Deferred	Deferred
880	Quiesce	Quiesce
881	A string that describes the enabled or disabled state of the element when the EnabledState property is set to 1 ("Other"). This property must be set to null when EnabledState is any value other than 1.	A string that describes the enabled or disabled state of the element when the EnabledState property is set to 1 ("Other"). This property must be set to null when EnabledState is any value other than 1.
882	RequestedState is an integer enumeration that indicates the last requested or desired state for the element, irrespective of the mechanism through which it was requested. The actual state of the element is represented by EnabledState. This property is provided to compare the last requested and current enabled or disabled states. Note that when EnabledState is set to 5 ("Not Applicable"), then this property has no meaning. Refer to the EnabledState property description for explanations of the values in the RequestedState enumeration. "Unknown" (0) indicates the last requested state for the element is unknown. Note that the value "No Change" (5) has been deprecated in lieu of indicating the last requested state is "Unknown" (0). If the last requested or desired state is unknown, RequestedState should have the value "Unknown" (0), but may have the value "No Change" (5).Offline (6) indicates that the element has been requested to transition to the Enabled but Offline EnabledState. It should be noted that there are two new values in RequestedState that build on the statuses of EnabledState. These are "Reboot" (10) and "Reset" (11). Reboot refers to doing a "Shut Down" and then moving to an "Enabled" state. Reset indicates that the element is first "Disabled" and then "Enabled". The distinction between requesting "Shut Down" and "Disabled" should also be noted. Shut Down requests an orderly transition to the Disabled state, and might involve removing power, to completely erase any existing state. The Disabled state requests an immediate disabling of the element, such that it will not execute or accept any commands or processing requests. This property is set as the result of a method invocation (such as Start or StopService on CIM_Service), or can be overridden and defined as WRITEable in a subclass. The method approach is considered superior to a WRITEable property, because it allows an explicit invocation of the operation and the return of a result code. If knowledge of the last RequestedState is not supported for the EnabledLogicalElement, the property shall be NULL or have the value 12 "Not Applicable".	RequestedState is an integer enumeration that indicates the last requested or desired state for the element, irrespective of the mechanism through which it was requested. The actual state of the element is represented by EnabledState. This property is provided to compare the last requested and current enabled or disabled states. Note that when EnabledState is set to 5 ("Not Applicable"), then this property has no meaning. Refer to the EnabledState property description for explanations of the values in the RequestedState enumeration. "Unknown" (0) indicates the last requested state for the element is unknown. Note that the value "No Change" (5) has been deprecated in lieu of indicating the last requested state is "Unknown" (0). If the last requested or desired state is unknown, RequestedState should have the value "Unknown" (0), but may have the value "No Change" (5).Offline (6) indicates that the element has been requested to transition to the Enabled but Offline EnabledState. It should be noted that there are two new values in RequestedState that build on the statuses of EnabledState. These are "Reboot" (10) and "Reset" (11). Reboot refers to doing a "Shut Down" and then moving to an "Enabled" state. Reset indicates that the element is first "Disabled" and then "Enabled". The distinction between requesting "Shut Down" and "Disabled" should also be noted. Shut Down requests an orderly transition to the Disabled state, and might involve removing power, to completely erase any existing state. The Disabled state requests an immediate disabling of the element, such that it will not execute or accept any commands or processing requests. This property is set as the result of a method invocation (such as Start or StopService on CIM_Service), or can be overridden and defined as WRITEable in a subclass. The method approach is considered superior to a WRITEable property, because it allows an explicit invocation of the operation and the return of a result code. If knowledge of the last RequestedState is not supported for the EnabledLogicalElement, the property shall be NULL or have the value 12 "Not Applicable".
883	Shut Down	Shut Down
884	No Change	No Change
885	Offline	Offline
886	Test	Test
887	Reboot	Reboot
888	Reset	Reset
889	An enumerated value indicating an administrator\'s default or startup configuration for the Enabled State of an element. By default, the element is "Enabled" (value=2).	An enumerated value indicating an administrator\'s default or startup configuration for the Enabled State of an element. By default, the element is "Enabled" (value=2).
890	No Default	No Default
891	The date or time when the EnabledState of the element last changed. If the state of the element has not changed and this property is populated, then it must be set to a 0 interval value. If a state change was requested, but rejected or not yet processed, the property must not be updated.	The date or time when the EnabledState of the element last changed. If the state of the element has not changed and this property is populated, then it must be set to a 0 interval value. If a state change was requested, but rejected or not yet processed, the property must not be updated.
892	AvailableRequestedStates indicates the possible values for the RequestedState parameter of the method RequestStateChange, used to initiate a state change. The values listed shall be a subset of the values contained in the RequestedStatesSupported property of the associated instance of CIM_EnabledLogicalElementCapabilities where the values selected are a function of the current state of the CIM_EnabledLogicalElement. This property may be non-null if an implementation is able to advertise the set of possible values as a function of the current state. This property shall be null if an implementation is unable to determine the set of possible values as a function of the current state.	AvailableRequestedStates indicates the possible values for the RequestedState parameter of the method RequestStateChange, used to initiate a state change. The values listed shall be a subset of the values contained in the RequestedStatesSupported property of the associated instance of CIM_EnabledLogicalElementCapabilities where the values selected are a function of the current state of the CIM_EnabledLogicalElement. This property may be non-null if an implementation is able to advertise the set of possible values as a function of the current state. This property shall be null if an implementation is unable to determine the set of possible values as a function of the current state.
893	Defer	Defer
894	TransitioningToState indicates the target state to which the instance is transitioning. A value of 5 "No Change" shall indicate that no transition is in progress.A value of 12 "Not Applicable" shall indicate the implementation does not support representing ongoing transitions. A value other than 5 or 12 shall identify the state to which the element is in the process of transitioning.	TransitioningToState indicates the target state to which the instance is transitioning. A value of 5 "No Change" shall indicate that no transition is in progress.A value of 12 "Not Applicable" shall indicate the implementation does not support representing ongoing transitions. A value other than 5 or 12 shall identify the state to which the element is in the process of transitioning.
895	Requests that the state of the element be changed to the value specified in the RequestedState parameter. When the requested state change takes place, the EnabledState and RequestedState of the element will be the same. Invoking the RequestStateChange method multiple times could result in earlier requests being overwritten or lost. A return code of 0 shall indicate the state change was successfully initiated. A return code of 3 shall indicate that the state transition cannot complete within the interval specified by the TimeoutPeriod parameter. A return code of 4096 (0x1000) shall indicate the state change was successfully initiated, a ConcreteJob has been created, and its reference returned in the output parameter Job. Any other return code indicates an error condition.	Requests that the state of the element be changed to the value specified in the RequestedState parameter. When the requested state change takes place, the EnabledState and RequestedState of the element will be the same. Invoking the RequestStateChange method multiple times could result in earlier requests being overwritten or lost. A return code of 0 shall indicate the state change was successfully initiated. A return code of 3 shall indicate that the state transition cannot complete within the interval specified by the TimeoutPeriod parameter. A return code of 4096 (0x1000) shall indicate the state change was successfully initiated, a ConcreteJob has been created, and its reference returned in the output parameter Job. Any other return code indicates an error condition.
896	Unknown or Unspecified Error	Unknown or Unspecified Error
897	Cannot complete within Timeout Period	Cannot complete within Timeout Period
898	Method Parameters Checked - Job Started	Method Parameters Checked - Job Started
899	The state requested for the element. This information will be placed into the RequestedState property of the instance if the return code of the RequestStateChange method is 0 (\'Completed with No Error\'), or 4096 (0x1000) (\'Job Started\'). Refer to the description of the EnabledState and RequestedState properties for the detailed explanations of the RequestedState values.	The state requested for the element. This information will be placed into the RequestedState property of the instance if the return code of the RequestStateChange method is 0 (\'Completed with No Error\'), or 4096 (0x1000) (\'Job Started\'). Refer to the description of the EnabledState and RequestedState properties for the detailed explanations of the RequestedState values.
900	May contain a reference to the ConcreteJob created to track the state transition initiated by the method invocation.	May contain a reference to the ConcreteJob created to track the state transition initiated by the method invocation.
901	A timeout period that specifies the maximum amount of time that the client expects the transition to the new state to take. The interval format must be used to specify the TimeoutPeriod. A value of 0 or a null parameter indicates that the client has no time requirements for the transition. If this property does not contain 0 or null and the implementation does not support this parameter, a return code of \'Use Of Timeout Parameter Not Supported\' shall be returned.	A timeout period that specifies the maximum amount of time that the client expects the transition to the new state to take. The interval format must be used to specify the TimeoutPeriod. A value of 0 or a null parameter indicates that the client has no time requirements for the transition. If this property does not contain 0 or null and the implementation does not support this parameter, a return code of \'Use Of Timeout Parameter Not Supported\' shall be returned.
902	This class extends LogicalElement to abstract the concept of an element that is enabled and disabled, such as a LogicalDevice or a ServiceAccessPoint.	This class extends LogicalElement to abstract the concept of an element that is enabled and disabled, such as a LogicalDevice or a ServiceAccessPoint.
903	The Name property uniquely identifies the ServiceAccessPoint and provides an indication of the functionality that is managed. This functionality is described in more detail in the Description property of the object.	The Name property uniquely identifies the ServiceAccessPoint and provides an indication of the functionality that is managed. This functionality is described in more detail in the Description property of the object.
904	The CreationClassName of the scoping System.	The CreationClassName of the scoping System.
905	The Name of the scoping System.	The Name of the scoping System.
906	CIM_ServiceAccessPoint represents the ability to utilize or invoke a Service. Access points represent that a Service is made available for other entities to use.	CIM_ServiceAccessPoint represents the ability to utilize or invoke a Service. Access points represent that a Service is made available for other entities to use.
907	A string that identifies this ProtocolEndpoint with either a port or an interface on a device. To ensure uniqueness, the Name property should be prepended or appended with information from the Type or OtherTypeDescription properties. The method selected is described in the NameFormat property of this class.	A string that identifies this ProtocolEndpoint with either a port or an interface on a device. To ensure uniqueness, the Name property should be prepended or appended with information from the Type or OtherTypeDescription properties. The method selected is described in the NameFormat property of this class.
908	NameFormat contains the naming heuristic that is selected to ensure that the value of the Name property is unique. For example, you might choose to prepend the name of the port or interface with the Type of ProtocolEndpoint (for example, IPv4) of this instance followed by an underscore.	NameFormat contains the naming heuristic that is selected to ensure that the value of the Name property is unique. For example, you might choose to prepend the name of the port or interface with the Type of ProtocolEndpoint (for example, IPv4) of this instance followed by an underscore.
909	Note: This property is deprecated in lieu of the ProtocolIFType enumeration. This deprecation was done to have better alignment between the IF-MIB of the IETF and this CIM class. Deprecated description: ProtocolType is an enumeration that provides information to categorize and classify different instances of this class. For most instances, information in this enumeration and the definition of the subclass overlap. However, there are several cases where a specific subclass of ProtocolEndpoint is not required (for example, there is no Fibre Channel subclass of ProtocolEndpoint). Therefore, this property is needed to define the type of Endpoint.	Note: This property is deprecated in lieu of the ProtocolIFType enumeration. This deprecation was done to have better alignment between the IF-MIB of the IETF and this CIM class. Deprecated description: ProtocolType is an enumeration that provides information to categorize and classify different instances of this class. For most instances, information in this enumeration and the definition of the subclass overlap. However, there are several cases where a specific subclass of ProtocolEndpoint is not required (for example, there is no Fibre Channel subclass of ProtocolEndpoint). Therefore, this property is needed to define the type of Endpoint.
910	IPX	IPX
911	AppleTalk	AppleTalk
912	DECnet	DECnet
913	SNA	SNA
914	CONP	CONP
915	CLNP	CLNP
916	VINES	VINES
917	XNS	XNS
918	ATM	ATM
919	Frame Relay	Frame Relay
920	Ethernet	Ethernet
921	TokenRing	TokenRing
922	FDDI	FDDI
923	Infiniband	Infiniband
924	Fibre Channel	Fibre Channel
925	ISDN BRI Endpoint	ISDN BRI Endpoint
926	ISDN B Channel Endpoint	ISDN B Channel Endpoint
927	ISDN D Channel Endpoint	ISDN D Channel Endpoint
928	IPv4/v6	IPv4/v6
929	BGP	BGP
930	OSPF	OSPF
931	MPLS	MPLS
932	UDP	UDP
933	TCP	TCP
934	ProtocolIFType is an enumeration that is synchronized with the IANA ifType MIB. The ifType MIB is maintained at the URL, http://www.iana.org/assignments/ianaiftype-mib. Also, additional values defined by the DMTF are included. The property is used to categorize and classify instances of the ProtocolEndpoint class. Note that if the ProtocolIFType is set to 1 (Other), then the type information should be provided in the OtherTypeDescription string property.	ProtocolIFType is an enumeration that is synchronized with the IANA ifType MIB. The ifType MIB is maintained at the URL, http://www.iana.org/assignments/ianaiftype-mib. Also, additional values defined by the DMTF are included. The property is used to categorize and classify instances of the ProtocolEndpoint class. Note that if the ProtocolIFType is set to 1 (Other), then the type information should be provided in the OtherTypeDescription string property.
935	Regular 1822	Regular 1822
936	HDH 1822	HDH 1822
937	DDN X.25	DDN X.25
938	RFC877 X.25	RFC877 X.25
939	Ethernet CSMA/CD	Ethernet CSMA/CD
940	ISO 802.3 CSMA/CD	ISO 802.3 CSMA/CD
941	ISO 802.4 Token Bus	ISO 802.4 Token Bus
942	ISO 802.5 Token Ring	ISO 802.5 Token Ring
943	ISO 802.6 MAN	ISO 802.6 MAN
944	StarLAN	StarLAN
945	Proteon 10Mbit	Proteon 10Mbit
946	Proteon 80Mbit	Proteon 80Mbit
947	HyperChannel	HyperChannel
948	LAP-B	LAP-B
949	SDLC	SDLC
950	DS1	DS1
951	E1	E1
952	Basic ISDN	Basic ISDN
953	Primary ISDN	Primary ISDN
954	Proprietary Point-to-Point Serial	Proprietary Point-to-Point Serial
955	PPP	PPP
956	Software Loopback	Software Loopback
957	EON	EON
958	Ethernet 3Mbit	Ethernet 3Mbit
959	NSIP	NSIP
960	SLIP	SLIP
961	Ultra	Ultra
962	DS3	DS3
963	SIP	SIP
964	RS-232	RS-232
965	Parallel	Parallel
966	ARCNet	ARCNet
967	ARCNet Plus	ARCNet Plus
968	MIO X.25	MIO X.25
969	SONET	SONET
970	X.25 PLE	X.25 PLE
971	ISO 802.211c	ISO 802.211c
972	LocalTalk	LocalTalk
973	SMDS DXI	SMDS DXI
974	Frame Relay Service	Frame Relay Service
975	V.35	V.35
976	HSSI	HSSI
977	HIPPI	HIPPI
978	Modem	Modem
979	AAL5	AAL5
980	SONET Path	SONET Path
981	SONET VT	SONET VT
982	SMDS ICIP	SMDS ICIP
983	Proprietary Virtual/Internal	Proprietary Virtual/Internal
984	Proprietary Multiplexor	Proprietary Multiplexor
985	IEEE 802.12	IEEE 802.12
986	HIPPI Interface	HIPPI Interface
987	Frame Relay Interconnect	Frame Relay Interconnect
988	ATM Emulated LAN for 802.3	ATM Emulated LAN for 802.3
989	ATM Emulated LAN for 802.5	ATM Emulated LAN for 802.5
990	ATM Emulated Circuit	ATM Emulated Circuit
991	Fast Ethernet (100BaseT)	Fast Ethernet (100BaseT)
992	ISDN	ISDN
993	V.11	V.11
994	V.36	V.36
995	G703 at 64K	G703 at 64K
996	G703 at 2Mb	G703 at 2Mb
997	QLLC	QLLC
998	Fast Ethernet 100BaseFX	Fast Ethernet 100BaseFX
999	Channel	Channel
1000	IEEE 802.11	IEEE 802.11
1001	IBM 260/370 OEMI Channel	IBM 260/370 OEMI Channel
1002	ESCON	ESCON
1003	Data Link Switching	Data Link Switching
1004	ISDN S/T Interface	ISDN S/T Interface
1005	ISDN U Interface	ISDN U Interface
1006	LAP-D	LAP-D
1007	IP Switch	IP Switch
1008	Remote Source Route Bridging	Remote Source Route Bridging
1009	ATM Logical	ATM Logical
1010	DS0	DS0
1011	DS0 Bundle	DS0 Bundle
1012	BSC	BSC
1013	Async	Async
1014	Combat Net Radio	Combat Net Radio
1015	ISO 802.5r DTR	ISO 802.5r DTR
1016	Ext Pos Loc Report System	Ext Pos Loc Report System
1017	AppleTalk Remote Access Protocol	AppleTalk Remote Access Protocol
1018	Proprietary Connectionless	Proprietary Connectionless
1019	ITU X.29 Host PAD	ITU X.29 Host PAD
1020	ITU X.3 Terminal PAD	ITU X.3 Terminal PAD
1021	Frame Relay MPI	Frame Relay MPI
1022	ITU X.213	ITU X.213
1023	ADSL	ADSL
1024	RADSL	RADSL
1025	SDSL	SDSL
1026	VDSL	VDSL
1027	ISO 802.5 CRFP	ISO 802.5 CRFP
1028	Myrinet	Myrinet
1029	Voice Receive and Transmit	Voice Receive and Transmit
1030	Voice Foreign Exchange Office	Voice Foreign Exchange Office
1031	Voice Foreign Exchange Service	Voice Foreign Exchange Service
1032	Voice Encapsulation	Voice Encapsulation
1033	Voice over IP	Voice over IP
1034	ATM DXI	ATM DXI
1035	ATM FUNI	ATM FUNI
1036	ATM IMA	ATM IMA
1037	PPP Multilink Bundle	PPP Multilink Bundle
1038	IP over CDLC	IP over CDLC
1039	IP over CLAW	IP over CLAW
1040	Stack to Stack	Stack to Stack
1041	Virtual IP Address	Virtual IP Address
1042	MPC	MPC
1043	IP over ATM	IP over ATM
1044	ISO 802.5j Fibre Token Ring	ISO 802.5j Fibre Token Ring
1045	TDLC	TDLC
1046	Gigabit Ethernet	Gigabit Ethernet
1047	HDLC	HDLC
1048	LAP-F	LAP-F
1049	V.37	V.37
1050	X.25 MLP	X.25 MLP
1051	X.25 Hunt Group	X.25 Hunt Group
1052	Transp HDLC	Transp HDLC
1053	Interleave Channel	Interleave Channel
1054	FAST Channel	FAST Channel
1055	IP (for APPN HPR in IP Networks)	IP (for APPN HPR in IP Networks)
1056	CATV MAC Layer	CATV MAC Layer
1057	CATV Downstream	CATV Downstream
1058	CATV Upstream	CATV Upstream
1059	Avalon 12MPP Switch	Avalon 12MPP Switch
1060	Tunnel	Tunnel
1061	Coffee	Coffee
1062	Circuit Emulation Service	Circuit Emulation Service
1063	ATM SubInterface	ATM SubInterface
1064	Layer 2 VLAN using 802.1Q	Layer 2 VLAN using 802.1Q
1065	Layer 3 VLAN using IP	Layer 3 VLAN using IP
1066	Layer 3 VLAN using IPX	Layer 3 VLAN using IPX
1067	Digital Power Line	Digital Power Line
1068	Multimedia Mail over IP	Multimedia Mail over IP
1069	DTM	DTM
1070	DCN	DCN
1071	IP Forwarding	IP Forwarding
1072	MSDSL	MSDSL
1073	IEEE 1394	IEEE 1394
1074	IF-GSN/HIPPI-6400	IF-GSN/HIPPI-6400
1075	DVB-RCC MAC Layer	DVB-RCC MAC Layer
1076	DVB-RCC Downstream	DVB-RCC Downstream
1077	DVB-RCC Upstream	DVB-RCC Upstream
1078	ATM Virtual	ATM Virtual
1079	MPLS Tunnel	MPLS Tunnel
1080	SRP	SRP
1081	Voice over ATM	Voice over ATM
1082	Voice over Frame Relay	Voice over Frame Relay
1083	ISDL	ISDL
1084	Composite Link	Composite Link
1085	SS7 Signaling Link	SS7 Signaling Link
1086	Proprietary P2P Wireless	Proprietary P2P Wireless
1087	Frame Forward	Frame Forward
1088	RFC1483 Multiprotocol over ATM	RFC1483 Multiprotocol over ATM
1089	USB	USB
1090	IEEE 802.3ad Link Aggregate	IEEE 802.3ad Link Aggregate
1091	BGP Policy Accounting	BGP Policy Accounting
1092	FRF .16 Multilink FR	FRF .16 Multilink FR
1093	H.323 Gatekeeper	H.323 Gatekeeper
1094	H.323 Proxy	H.323 Proxy
1095	Multi-Frequency Signaling Link	Multi-Frequency Signaling Link
1096	HDSL-2	HDSL-2
1097	S-HDSL	S-HDSL
1098	DS1 Facility Data Link	DS1 Facility Data Link
1099	Packet over SONET/SDH	Packet over SONET/SDH
1100	DVB-ASI Input	DVB-ASI Input
1101	DVB-ASI Output	DVB-ASI Output
1102	Power Line	Power Line
1103	Non Facility Associated Signaling	Non Facility Associated Signaling
1104	TR008	TR008
1105	GR303 RDT	GR303 RDT
1106	GR303 IDT	GR303 IDT
1107	ISUP	ISUP
1108	Proprietary Wireless MAC Layer	Proprietary Wireless MAC Layer
1109	Proprietary Wireless Downstream	Proprietary Wireless Downstream
1110	Proprietary Wireless Upstream	Proprietary Wireless Upstream
1111	HIPERLAN Type 2	HIPERLAN Type 2
1112	Proprietary Broadband Wireless Access Point to Mulipoint	Proprietary Broadband Wireless Access Point to Mulipoint
1113	SONET Overhead Channel	SONET Overhead Channel
1114	Digital Wrapper Overhead Channel	Digital Wrapper Overhead Channel
1115	ATM Adaptation Layer 2	ATM Adaptation Layer 2
1116	Radio MAC	Radio MAC
1117	ATM Radio	ATM Radio
1118	Inter Machine Trunk	Inter Machine Trunk
1119	MVL DSL	MVL DSL
1120	Long Read DSL	Long Read DSL
1121	Frame Relay DLCI Endpoint	Frame Relay DLCI Endpoint
1122	ATM VCI Endpoint	ATM VCI Endpoint
1123	Optical Channel	Optical Channel
1124	Optical Transport	Optical Transport
1125	Proprietary ATM	Proprietary ATM
1126	Voice over Cable	Voice over Cable
1127	TE Link	TE Link
1128	Q.2931	Q.2931
1129	Virtual Trunk Group	Virtual Trunk Group
1130	SIP Trunk Group	SIP Trunk Group
1131	SIP Signaling	SIP Signaling
1132	CATV Upstream Channel	CATV Upstream Channel
1133	Econet	Econet
1134	FSAN 155Mb PON	FSAN 155Mb PON
1135	FSAN 622Mb PON	FSAN 622Mb PON
1136	Transparent Bridge	Transparent Bridge
1137	Line Group	Line Group
1138	Voice E&M Feature Group	Voice E&M Feature Group
1139	Voice FGD EANA	Voice FGD EANA
1140	Voice DID	Voice DID
1141	MPEG Transport	MPEG Transport
1142	6To4	6To4
1143	GTP	GTP
1144	Paradyne EtherLoop 1	Paradyne EtherLoop 1
1145	Paradyne EtherLoop 2	Paradyne EtherLoop 2
1146	Optical Channel Group	Optical Channel Group
1147	HomePNA	HomePNA
1148	GFP	GFP
1149	ciscoISLvlan	ciscoISLvlan
1150	actelisMetaLOOP	actelisMetaLOOP
1151	Fcip	Fcip
1152	IANA Reserved	IANA Reserved
1153	802.11a	802.11a
1154	802.11b	802.11b
1155	802.11g	802.11g
1156	802.11h	802.11h
1157	NFS	NFS
1158	CIFS	CIFS
1159	DAFS	DAFS
1160	WebDAV	WebDAV
1161	HTTP	HTTP
1162	FTP	FTP
1163	NDMP	NDMP
1164	Telnet	Telnet
1165	SSH	SSH
1166	SM CLP	SM CLP
1167	SMTP	SMTP
1168	LDAP	LDAP
1169	RDP	RDP
1170	HTTPS	HTTPS
1171	A string that describes the type of ProtocolEndpoint when the Type property of this class (or any of its subclasses) is set to 1 (Other). This property should be set to null when the Type property is any value other than 1.	A string that describes the type of ProtocolEndpoint when the Type property of this class (or any of its subclasses) is set to 1 (Other). This property should be set to null when the Type property is any value other than 1.
1172	A communication point from which data can be sent or received. ProtocolEndpoints link system or computer interfaces to LogicalNetworks.	A communication point from which data can be sent or received. ProtocolEndpoints link system or computer interfaces to LogicalNetworks.
1173	2.15.0	2.15.0
1174	InstallDate records when the SA (and its endpoint) was created.	InstallDate records when the SA (and its endpoint) was created.
1175	LifetimeSeconds specifies the maximum time that the SA will be considered valid after it has been created. A value of zero indicates that the default of 8 hours be used. A non-zero value indicates the seconds lifetime.	LifetimeSeconds specifies the maximum time that the SA will be considered valid after it has been created. A value of zero indicates that the default of 8 hours be used. A non-zero value indicates the seconds lifetime.
1176	RefreshThresholdSecondsPercentage is the lifetime percentage after which a new SA should be acquired, before the existing SA expires. A random period may be added to a calculated threshold to reduce network thrashing.	RefreshThresholdSecondsPercentage is the lifetime percentage after which a new SA should be acquired, before the existing SA expires. A random period may be added to a calculated threshold to reduce network thrashing.
1177	IdleDurationSeconds specifies how long the SA can be idle before it is deleted. The default value, 0, indicates that there is no idle timeout period.	IdleDurationSeconds specifies how long the SA can be idle before it is deleted. The default value, 0, indicates that there is no idle timeout period.
1178	LifetimeKilobytes specifies the maximum number of kilobytes of data traffic to be protected by the SA. A value of zero (the default) indicates that there should be no maximum kilobyte lifetime. A non-zero value specifies the desired kilobyte lifetime. The SA is deleted when the LifetimeKilobyte value is exceeded.	LifetimeKilobytes specifies the maximum number of kilobytes of data traffic to be protected by the SA. A value of zero (the default) indicates that there should be no maximum kilobyte lifetime. A non-zero value specifies the desired kilobyte lifetime. The SA is deleted when the LifetimeKilobyte value is exceeded.
1179	RefreshThresholdKbytesPercentage is the lifetime percentage of kilobytes processed, at which a new SA should be acquired. A random value may be added to the calculated threshold to reduce network thrashing.	RefreshThresholdKbytesPercentage is the lifetime percentage of kilobytes processed, at which a new SA should be acquired. A random value may be added to the calculated threshold to reduce network thrashing.
1180	PacketLoggingActive causes a log to be kept of traffic processed by the SAEndpoint.	PacketLoggingActive causes a log to be kept of traffic processed by the SAEndpoint.
1181	SecurityAssociationEndpoint (SAEndpoint) represents the endpoint of a secure connection. This is typically an IP connection, although the model allows more flexibility than just IP. The SecurityAssociationEndpoint is tied to an IPProtocolEndpoint (or possibly other endpoint) using the LogicalIdentity association. Note that an endpoint is defined at both ends of the connection.	SecurityAssociationEndpoint (SAEndpoint) represents the endpoint of a secure connection. This is typically an IP connection, although the model allows more flexibility than just IP. The SecurityAssociationEndpoint is tied to an IPProtocolEndpoint (or possibly other endpoint) using the LogicalIdentity association. Note that an endpoint is defined at both ends of the connection.
1182	Identifier of the IKE phase 1 negotiation initiator. Combined with the ResponderCookie, this value, in string form, may be used to construct the value of the key field \'Name\', inherited from ServiceAccessPoint.	Identifier of the IKE phase 1 negotiation initiator. Combined with the ResponderCookie, this value, in string form, may be used to construct the value of the key field \'Name\', inherited from ServiceAccessPoint.
1183	Identifier of the IKE phase 1 negotiation responder. Combined with the InitiatorCookie, this value, in string form, may be used to construct the value of the key field \'Name\', inherited from ServiceAccessPoint.	Identifier of the IKE phase 1 negotiation responder. Combined with the InitiatorCookie, this value, in string form, may be used to construct the value of the key field \'Name\', inherited from ServiceAccessPoint.
1184	CipherAlgorithm is an enumeration that specifies the encryption algorithm used by the IKESAEndpoint. The list of algorithms was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list, since the values of Unknown and Other are taken into account.	CipherAlgorithm is an enumeration that specifies the encryption algorithm used by the IKESAEndpoint. The list of algorithms was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list, since the values of Unknown and Other are taken into account.
1185	HashAlgorithm is an enumeration that specifies the hash function used by the IKESAEndpoint. The list of algorithms was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list, since the values of Unknown and Other are taken into account.	HashAlgorithm is an enumeration that specifies the hash function used by the IKESAEndpoint. The list of algorithms was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list, since the values of Unknown and Other are taken into account.
1186	AuthenticationMethod is an enumeration that specifies the operation of the IKESAEndpoint. The list of methods was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list, since the values of Unknown and Other are taken into account.	AuthenticationMethod is an enumeration that specifies the operation of the IKESAEndpoint. The list of methods was generated from Appendix A of RFC2409. Note that the enumeration is different than the RFC list, since the values of Unknown and Other are taken into account.
1187	GroupId specifies the key exchange group ID. If the GroupID number is from the vendor-specific range (32768-65535), the VendorID qualifies the group number. Well-known group identifiers from RFC2412, Appendix E, are: Group 1=\'768 bit prime\', Group 2=\'1024 bit prime\', Group 3= \'Elliptic Curve Group with 155 bit field element\', Group 4= \'Large Elliptic Curve Group with 185 bit field element\', and Group 5=\'1536 bit prime\'.	GroupId specifies the key exchange group ID. If the GroupID number is from the vendor-specific range (32768-65535), the VendorID qualifies the group number. Well-known group identifiers from RFC2412, Appendix E, are: Group 1=\'768 bit prime\', Group 2=\'1024 bit prime\', Group 3= \'Elliptic Curve Group with 155 bit field element\', Group 4= \'Large Elliptic Curve Group with 185 bit field element\', and Group 5=\'1536 bit prime\'.
1188	IKESAEndpoint is created in the first phase of SA negotiation and protects the key negotiation traffic. This endpoint is only created when IKE is the key exchange protocol. Other protocols and their endpoints will be defined in a future release.	IKESAEndpoint is created in the first phase of SA negotiation and protects the key negotiation traffic. This endpoint is only created when IKE is the key exchange protocol. Other protocols and their endpoints will be defined in a future release.
1189	The actual encryption algorithm used by the SA.	The actual encryption algorithm used by the SA.
1190	The actual hash algorithm used by the SA.	The actual hash algorithm used by the SA.
1191	The property GroupId gives the phase 1 security association key exchange group. Well-known group identifiers from RFC2412, Appendix E, are: Group 1='768 bit prime', Group 2='1024 bit prime', Group 3 ='Elliptic Curve Group with 155 bit field element', Group 4= 'Large Elliptic Curve Group with 185 bit field element', and Group 5='1536 bit prime'. Note that only groups 1, 2, 14, 19, 20, and 24 are acceptable in Windows 8.	The property GroupId gives the phase 1 security association key exchange group. Well-known group identifiers from RFC2412, Appendix E, are: Group 1='768 bit prime', Group 2='1024 bit prime', Group 3 ='Elliptic Curve Group with 155 bit field element', Group 4= 'Large Elliptic Curve Group with 185 bit field element', and Group 5='1536 bit prime'. Note that only groups 1, 2, 14, 19, 20, and 24 are acceptable in Windows 8.
1192	The Key Module used to negotiate the SA and its child SA's.	The Key Module used to negotiate the SA and its child SA's.
1193	The address of the local endpoint the SA applies to.	The address of the local endpoint the SA applies to.
1194	The address of the remote endpoint the SA applies to.	The address of the remote endpoint the SA applies to.
1195	The maximum number of Quick Mode SA's that may be established with this SA before it must be renegotiated.	The maximum number of Quick Mode SA's that may be established with this SA before it must be renegotiated.
1196	The first authentication local identity	The first authentication local identity
1197	The second authentication local identity	The second authentication local identity
1198	The first authentication remote identity	The first authentication remote identity
1199	The second authentication remote identity	The second authentication remote identity
1200	Extensions to GroupId	Extensions to GroupId
1201	Filter ID from the QM policy matching the extended mode filter	Filter ID from the QM policy matching the extended mode filter
1202	Local UDP encapsulation port for NAT-T	Local UDP encapsulation port for NAT-T
1203	Remote UDP encapsulation port for NAT-T	Remote UDP encapsulation port for NAT-T
1204	GUID of the main mode policy provider context corresponding to this SA	GUID of the main mode policy provider context corresponding to this SA
1205	ID/Handle to virtual interface tunneling state	ID/Handle to virtual interface tunneling state
1206	A MainMode SA.	A MainMode SA.
1207	SPI contains the Security Parameter Index of the SA. This value in string form may also be used in the key field \'Name\' inherited from ServiceAccessPoint.	SPI contains the Security Parameter Index of the SA. This value in string form may also be used in the key field \'Name\' inherited from ServiceAccessPoint.
1208	InboundDirection specifies whether the SA applies to inbound (TRUE) or outbound (FALSE) traffic.	InboundDirection specifies whether the SA applies to inbound (TRUE) or outbound (FALSE) traffic.
1209	EncapsulationMode indicates whether the IPsecSAEndpoint uses transport or tunnel encapsulation.	EncapsulationMode indicates whether the IPsecSAEndpoint uses transport or tunnel encapsulation.
1210	Transport	Transport
1211	DFHandling controls how the \'Don\'t Fragment\' bit is managed by the IPsecSAEndpoint.	DFHandling controls how the \'Don\'t Fragment\' bit is managed by the IPsecSAEndpoint.
1212	Copy from Internal to External IP Header	Copy from Internal to External IP Header
1213	Set DF Bit in External Header to 1	Set DF Bit in External Header to 1
1214	Set DF Bit in External Header to 0	Set DF Bit in External Header to 0
1215	PFSInUse indicates whether perfect forward secrecy is required when refreshing keys.	PFSInUse indicates whether perfect forward secrecy is required when refreshing keys.
1216	IPsecSAEndpoints are types of SecurityAssociationEndpoints representing both negotiated and static SAs that correspond to AH, ESP, or IPCOMP transforms.	IPsecSAEndpoints are types of SecurityAssociationEndpoints representing both negotiated and static SAs that correspond to AH, ESP, or IPCOMP transforms.
1217	The local machine port the SA applies to, or 0 for all ports.	The local machine port the SA applies to, or 0 for all ports.
1218	The remote machine port the SA applies to, or 0 for all ports.	The remote machine port the SA applies to, or 0 for all ports.
1219	If traffic type is transport mode, this is the LUID of the FWPS transport layer filter corresponding to this traffic. If traffic type is tunnel mode, this is the LUID of the associated QM policy. In tunnel mode, this represents the QM traffic selectors for the tunnel	If traffic type is transport mode, this is the LUID of the FWPS transport layer filter corresponding to this traffic. If traffic type is tunnel mode, this is the LUID of the associated QM policy. In tunnel mode, this represents the QM traffic selectors for the tunnel
1220	IP protocol for this traffic. Only specified if the traffic is more general than the matching filter	IP protocol for this traffic. Only specified if the traffic is more general than the matching filter
1221	Local interface alias	Local interface alias
1222	The profile ID corresponding to the actual interface that the traffic is going out on or coming in from the wire.	The profile ID corresponding to the actual interface that the traffic is going out on or coming in from the wire.
1223	Local Udp encapsulation port for NAT traversal	Local Udp encapsulation port for NAT traversal
1224	Remote Udp encapsulation port for NAT traversal	Remote Udp encapsulation port for NAT traversal
1225	SA Flags	SA Flags
1226	NdSecure	NdSecure
1227	NdBoundary	NdBoundary
1228	NdPeerNatBoundary	NdPeerNatBoundary
1229	GuaranteeEncryption	GuaranteeEncryption
1230	NLB	NLB
1231	NoMachineLuidVerify	NoMachineLuidVerify
1232	NoImpersonationLuidVerify	NoImpersonationLuidVerify
1233	NoExplicitCredMatch	NoExplicitCredMatch
1234	AllowNullTargetNameMatch	AllowNullTargetNameMatch
1235	ClearDfOnTunnel	ClearDfOnTunnel
1236	AssumeUdpContextOutbound	AssumeUdpContextOutbound
1237	NdPeerBoundary	NdPeerBoundary
1238	SuppressDuplicateDeletion	SuppressDuplicateDeletion
1239	PeerSupportsGuaranteeEncryption	PeerSupportsGuaranteeEncryption
1240	ForceInboundConnections	ForceInboundConnections
1241	ForceOutboundConnections	ForceOutboundConnections
1242	ForwardPathInitiator	ForwardPathInitiator
1243	Name of the matching transport filter	Name of the matching transport filter
1244	Id of the associated Main Mode	Id of the associated Main Mode
1245	First Transform type	First Transform type
1246	Ah	Ah
1247	Esp-auth	Esp-auth
1248	Esp-cipher	Esp-cipher
1249	Esp-auth-and-cipher	Esp-auth-and-cipher
1250	Esp-auth-firewall	Esp-auth-firewall
1251	The integrity algorithm for the first operation	The integrity algorithm for the first operation
1252	The cipher algorithm for the first operation	The cipher algorithm for the first operation
1253	Second Transform type	Second Transform type
1254	The integrity algorithm for the second operation	The integrity algorithm for the second operation
1255	The cipher algorithm for the second operation	The cipher algorithm for the second operation
1256	The spi for the first operation	The spi for the first operation
1257	Private address of peer behind NAT	Private address of peer behind NAT
1258	Perfect forward secrecy group id	Perfect forward secrecy group id
1259	Same as Main Mode	Same as Main Mode
1260	LUID of the FWPS_LAYER_IPSEC_XX layer FWPS filter corresponding to this SA	LUID of the FWPS_LAYER_IPSEC_XX layer FWPS filter corresponding to this SA
1261	Liftime by number of packets	Liftime by number of packets
1262	Timeout after which the IPsec SA should stop accepting packets coming in the clear in negotiation discovery mode	Timeout after which the IPsec SA should stop accepting packets coming in the clear in negotiation discovery mode
1263	Network Access Protection context	Network Access Protection context
1264	Identifier for tiebraking simultaneous SAs	Identifier for tiebraking simultaneous SAs
1265	ID/Handle to Virtual-IF tunnel state	ID/Handle to Virtual-IF tunnel state
1266	ID/Handle to Virtual-IF traffic selector(s)	ID/Handle to Virtual-IF traffic selector(s)
1267	Main Mode target SPN	Main Mode target SPN
1268	Extended Mode target SPN	Extended Mode target SPN
1269	Optional handle to explicit credentials	Optional handle to explicit credentials
1270	A Quick Mode SA.	A Quick Mode SA.
1271	Antecedent represents the independent object in this association.	Antecedent represents the independent object in this association.
1272	Dependent represents the object that is dependent on the Antecedent.	Dependent represents the object that is dependent on the Antecedent.
1273	CIM_Dependency is a generic association used to establish dependency relationships between ManagedElements.	CIM_Dependency is a generic association used to establish dependency relationships between ManagedElements.
1274	Phase 1 SAEndpoint that protected the negotiation of the phase 2 Security Association. An example of a phase 1 endpoint is an IKESAEndpoint.	Phase 1 SAEndpoint that protected the negotiation of the phase 2 Security Association. An example of a phase 1 endpoint is an IKESAEndpoint.
1275	The phase 2 SAEndpoint.	The phase 2 SAEndpoint.
1276	Phase1SAUsedForPhase2 associates a phase 1 endpoint (such as an IKESAEndpoint) with an IPsecSAEndpoint that was negotiated using that phase 1 Security Association.	Phase1SAUsedForPhase2 associates a phase 1 endpoint (such as an IKESAEndpoint) with an IPsecSAEndpoint that was negotiated using that phase 1 Security Association.
1277	Read a GPO, and cache results locally	Read a GPO, and cache results locally
1278	Output GPO Session identifier	Output GPO Session identifier
1279	Write the local cached GPO info back to AD	Write the local cached GPO info back to AD
1280	This class does not have any instances. It is used to manage locally-cached Group Policy Objects.	This class does not have any instances. It is used to manage locally-cached Group Policy Objects.
0x1	The IPsec DoSP settings are corrupt for the NetIPsecDoSPSetting WMI Object with name: %1Please use %2 to restore them.	The IPsec DoSP settings are corrupt for the NetIPsecDoSPSetting WMI Object with name: %1Please use %2 to restore them.
0x2	Fragment grouping must be enabled in order for DoSP settings to function correctly. Please run these commands to enable fragment grouping.%1%2	Fragment grouping must be enabled in order for DoSP settings to function correctly. Please run these commands to enable fragment grouping.%1%2
0x3	At least one server or domain name must be specified.	At least one server or domain name must be specified.
0x4	The specified EndpointType is invalid.	The specified EndpointType is invalid.
0x5	This edition of Windows does not support the requested functionality.	This edition of Windows does not support the requested functionality.
0x6	%1 %2: %3	%1 %2: %3
0x7	%1-%2 %3: %4	%1-%2 %3: %4
0x8	Cannot access the remote domain %1. This may be caused by not having credentials configured for multiple hops over the network.	Cannot access the remote domain %1. This may be caused by not having credentials configured for multiple hops over the network.
0x9	The OutboundSecurity/InboundSecurity combination is invalid. Acceptable values for transport mode are None/None, Request/Request, Request/Require, andRequire/Require.	The OutboundSecurity/InboundSecurity combination is invalid. Acceptable values for transport mode are None/None, Request/Request, Request/Require, andRequire/Require.
0xA	The OutboundSecurity/InboundSecurity combination is invalid. Acceptable values for tunnel mode are None/None, Require/Require, and None/Require.	The OutboundSecurity/InboundSecurity combination is invalid. Acceptable values for tunnel mode are None/None, Require/Require, and None/Require.
0xB	The Authentication/Encryption combination is invalid. Acceptable values are:NotRequired/NotRequiredRequired/RequiredRequired/NotRequiredRequired/DynamicNoEncap/NotRequired	The Authentication/Encryption combination is invalid. Acceptable values are:NotRequired/NotRequiredRequired/RequiredRequired/NotRequiredRequired/DynamicNoEncap/NotRequired
0xC	The Key Module is invalid.	The Key Module is invalid.
0xD	A local tunnel endpoint can only be an IPv4 address and/or an IPv6 address. Subnets and ranges are not allowed.	A local tunnel endpoint can only be an IPv4 address and/or an IPv6 address. Subnets and ranges are not allowed.
0xE	A remote tunnel endpoint can only contain addresses. Subnets and ranges are not allowed.	A remote tunnel endpoint can only contain addresses. Subnets and ranges are not allowed.
0xF	Tunnel mode properties cannot be applied to transport-mode rules.	Tunnel mode properties cannot be applied to transport-mode rules.
0x10	User and machine authentication may only be applied to Allow rules.	User and machine authentication may only be applied to Allow rules.
0x11	The run-time type of the field does not match the declared type. This indicates that theprovider is incorrectly registered in the WMI store.	The run-time type of the field does not match the declared type. This indicates that theprovider is incorrectly registered in the WMI store.
0x12	An error occurred while retrieving information about the Group Policy container from the Domain Controller.	An error occurred while retrieving information about the Group Policy container from the Domain Controller.
0x13	Invalid Parameter: %1	Invalid Parameter: %1
0x14	Unable to parse the GUID.	Unable to parse the GUID.
0x15	Unable to parse Platform string. The format is X[.Y][+], where X is the OS major version, and Y is anoptional minor version. + means \"or greater\". For example, these are valid platform strings: 6, 6.0, 6.0+	Unable to parse Platform string. The format is X[.Y][+], where X is the OS major version, and Y is anoptional minor version. + means \"or greater\". For example, these are valid platform strings: 6, 6.0, 6.0+
0x16	The address is invalid. Addresses may be specified as IP addresses, ranges, or subnets. Also, the following address keywords are allowed in certain places: LocalSubnet, DNS, DHCP, WINS, DefaultGateway, Internet, Intranet, IntranetRemoteAccess, PlayToDevice. Keywords can be restricted to IPv4 or IPv6 by appending a 4 or 6.	The address is invalid. Addresses may be specified as IP addresses, ranges, or subnets. Also, the following address keywords are allowed in certain places: LocalSubnet, DNS, DHCP, WINS, DefaultGateway, Internet, Intranet, IntranetRemoteAccess, PlayToDevice. Keywords can be restricted to IPv4 or IPv6 by appending a 4 or 6.
0x17	The port is invalid. When Protocol is TCP or UDP, individual ports or ranges are allowed. Also, the following port keywords are allowed on Firewall Rules: RPC, RPCEPMap, Teredo, IPHTTPSIn, IPHTTPSOut, PlayToDiscovery.	The port is invalid. When Protocol is TCP or UDP, individual ports or ranges are allowed. Also, the following port keywords are allowed on Firewall Rules: RPC, RPCEPMap, Teredo, IPHTTPSIn, IPHTTPSOut, PlayToDiscovery.
0x18	The protocol is invalid.	The protocol is invalid.
0x19	ICMP Type:Code pairs are only supported in Firewall rules.	ICMP Type:Code pairs are only supported in Firewall rules.
0x1A	The default object %1 is not present in the current store. To find this object, execute the query against the %2.	The default object %1 is not present in the current store. To find this object, execute the query against the %2.
0x1B	The specified interface was not found on the system.	The specified interface was not found on the system.
0x1C	The ICMP type/code entry is invalid. When Protocol is ICMPv4 or ICMPv6, type:code pairs are allowed.	The ICMP type/code entry is invalid. When Protocol is ICMPv4 or ICMPv6, type:code pairs are allowed.
0x1D	When specifying Auth or Crypto Sets, you must use the Name of the set. You cannot pass the object directly.	When specifying Auth or Crypto Sets, you must use the Name of the set. You cannot pass the object directly.
0x1E	DynamicTransport is only valid for firewall rules.	DynamicTransport is only valid for firewall rules.
0x1F	The key encoding is invalid.	The key encoding is invalid.
0x20	The cert validation level is invalid.	The cert validation level is invalid.
0x21	The IPsec NAT traversal setting is invalid.	The IPsec NAT traversal setting is invalid.
0x22	The ID is invalid.	The ID is invalid.
0x23	The packet queuing flags are invalid.	The packet queuing flags are invalid.
0x24	RemoteAddress must be specified.	RemoteAddress must be specified.
0x25	Both IP addresses must be from the same address family.	Both IP addresses must be from the same address family.

File Name:	wfascim.dll.mui
Directory:	%WINDIR%\WinSxS\amd64_networking-mpssvc-wmi.resources_31bf3856ad364e35_10.0.15063.0_hu-hu_0e86cb2e621d3b5e\
File Size:	238 kB
File Permissions:	rw-rw-rw-
File Type:	Win32 DLL
File Type Extension:	dll
MIME Type:	application/octet-stream
Machine Type:	Intel 386 or later, and compatibles
Time Stamp:	0000:00:00 00:00:00
PE Type:	PE32
Linker Version:	14.10
Code Size:	0
Initialized Data Size:	242688
Uninitialized Data Size:	0
Entry Point:	0x0000
OS Version:	10.0
Image Version:	10.0
Subsystem Version:	6.0
Subsystem:	Windows GUI
File Version Number:	10.0.15063.0
Product Version Number:	10.0.15063.0
File Flags Mask:	0x003f
File Flags:	(none)
File OS:	Windows NT 32-bit
Object File Type:	Dynamic link library
File Subtype:	0
Language Code:	Hungarian
Character Set:	Unicode
Company Name:	Microsoft Corporation
File Description:	Network Management Value Objects
File Version:	10.0.15063.0 (WinBuild.160101.0800)
Internal Name:	wfascim.dll
Legal Copyright:	© Microsoft Corporation. All rights reserved.
Original File Name:	wfascim.dll.mui
Product Name:	Microsoft® Windows® Operating System
Product Version:	10.0.15063.0

wfascim.dll.mui is Multilingual User Interface resource file that contain Hungarian language for file wfascim.dll (Network Management Value Objects).

File Description:	Network Management Value Objects
File Version:	10.0.15063.0 (WinBuild.160101.0800)
Company Name:	Microsoft Corporation
Internal Name:	wfascim.dll
Legal Copyright:	© Microsoft Corporation. All rights reserved.
Original Filename:	wfascim.dll.mui
Product Name:	Microsoft® Windows® Operating System
Product Version:	10.0.15063.0
Translation:	0x40E, 1200