// Copyright (c) 2005 DMTF. All rights reserved. // Add UmlPackagePath // qualifier values to CIM Schema. // ================================================================== // CIM_FilterList // ================================================================== [Version ( "2.7.0" ), UMLPackagePath ( "CIM::Network::Filtering" ), Description ( "A FilterList is used by network devices to identify routes by " "aggregating a set of FilterEntries into a unit, called a " "FilterList. FilterLists can also be used to accept or deny " "routing updates. \n" "\n" "A FilterList is weak to the network device (i.e., the " "ComputerSystem) that contains it. Hence, the ComputerSystem " "keys are propagated to this class." )] class CIM_FilterList : CIM_LogicalElement { [Key, Description ( "The scoping ComputerSystem\'s CreationClassName." ), MaxLen ( 256 ), Propagated ( "CIM_ComputerSystem.CreationClassName" )] string SystemCreationClassName; [Key, Description ( "The scoping ComputerSystem\'s Name." ), MaxLen ( 256 ), Propagated ( "CIM_ComputerSystem.Name" )] string SystemName; [Key, Description ( "The type of class that this instance is." )] string CreationClassName; [Key, Override ( "Name" ), Description ( "This is the name of the FilterList." ), MaxLen ( 256 )] string Name; [Description ( "This defines whether the FilterList is used for input, " "output, or both input and output filtering. All values " "are used with respect to the interface for which the " "FilterList applies. \n" "\n" "\"Not Applicable\" (0) is used when there is no " "direction applicable to the FilterList. \"Input\" (1) is " "used when the FilterList applies to packets that are " "inbound on the related interface. \"Output\" (2) is used " "when the FilterList applies to packets that are outbound " "on the related interface. \"Both\" (3) is used to " "indicate that the direction is immaterial, e.g., to " "filter on a source subnet regardless of whether the flow " "is inbound or outbound. \"Mirrored\" (4) is also " "applicable to both inbound and outbound flow processing, " "but indicates that the filter criteria are applied " "asymmetrically to traffic in both directions and, thus, " "specifies the reversal of source and destination " "criteria (as opposed to the equality of these criteria " "as indicated by \"Both\"). The match conditions in the " "aggregated FilterEntryBase subclass instances are " "defined from the perspective of outbound flows and " "applied to inbound flows as well by reversing the source " "and destination criteria. So, for example, consider a " "FilterList with 3 FilterEntries indicating destination " "port = 80, and source and destination addresses of a and " "b, respectively. Then, for the outbound direction, the " "filter entries match as specified and the \'mirror\' " "(for the inbound direction) matches on source port = 80 " "and source and destination addresses of b and a, " "respectively." ), ValueMap { "0", "1", "2", "3", "4" }, Values { "Not Applicable", "Input", "Output", "Both", "Mirrored" }] uint16 Direction; };