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//+----------------------------------------------------------------------------
//
// Copyright (C) 1992, Microsoft Corporation.
//
// File: PKT.H
//
// Contents: This module defines the data structures that make up the
// major internal part of the Partition Knowledge Table (PKT).
// The Partition Knowledge Table is used by the Dfs file
// system to resolve a name to a specific partition (volume).
//
// Functions:
//
// History: 1 May 1992 PeterCo Created.
//-----------------------------------------------------------------------------
#ifndef _PKT_
#define _PKT_
//
// Pick up marshalling info for gluons
//
#include "dfsgluon.h"
//
// New Prefix Table Implementation
//
#include "prefix.h"
//
// For determining the status of the Uid
//
#define GuidEqual(g1, g2)\
(RtlCompareMemory((g1), (g2), sizeof(GUID)) == sizeof(GUID))
extern GUID _TheNullGuid;
#define NullGuid( guid )\
(GuidEqual(guid, &_TheNullGuid))
#define DEFAULT_PKT_ENTRY_TIMEOUT 300
//
// Defines for Create Dispositions (we mimic the io system here).
//
#define PKT_ENTRY_CREATE FILE_CREATE
#define PKT_ENTRY_REPLACE FILE_OPEN
#define PKT_ENTRY_SUPERSEDE FILE_SUPERSEDE
//
// Different kind of referrals that a DC can give out.
//
#define DFS_STORAGE_REFERRAL (0x0001)
#define DFS_REFERRAL_REFERRAL (0x0002)
//
// Types of service that can be supported by a provider.
// A disjunction of any of the following values.
//
#define DFS_SERVICE_TYPE_MASTER (0x0001)
#define DFS_SERVICE_TYPE_READONLY (0x0002)
#define DFS_SERVICE_TYPE_LOCAL (0x0004)
#define DFS_SERVICE_TYPE_REFERRAL (0x0008)
#define DFS_SERVICE_TYPE_ACTIVE (0x0010)
#define DFS_SERVICE_TYPE_DOWN_LEVEL (0x0020)
#define DFS_SERVICE_TYPE_COSTLIER (0x0040)
#define DFS_SERVICE_TYPE_OFFLINE (0x0080)
//
// The status possibilities...
//
#define DFS_SERVICE_STATUS_VERIFIED (0x0001)
#define DFS_SERVICE_STATUS_UNVERIFIED (0x0002)
//
// Types of Partition Knowledge Table Entries.
// Low-order bits in these definitions correspond to volume object
// types as defined in dfsh.idl. High-order bits are specific
// to PKT entries.
//
#define PKT_ENTRY_TYPE_CAIRO 0x0001 // Entry refers to Cairo srv
#define PKT_ENTRY_TYPE_MACHINE 0x0002 // Entry is a machine volume
#define PKT_ENTRY_TYPE_NONCAIRO 0x0004 // Entry refers to downlevel
#define PKT_ENTRY_TYPE_LEAFONLY 0x0008
#define PKT_ENTRY_TYPE_OUTSIDE_MY_DOM 0x0010 // Entry refers to volume in
// foreign domain
#define PKT_ENTRY_TYPE_INSITE_ONLY 0x0020 // Only give insite referrals.
#define PKT_ENTRY_TYPE_REFERRAL_SVC 0x0080 // Entry refers to a DC
#define PKT_ENTRY_TYPE_PERMANENT 0x0100 // Entry cannot be scavenged
#define PKT_ENTRY_TYPE_LOCAL 0x0400 // Entry refers to local vol
#define PKT_ENTRY_TYPE_LOCAL_XPOINT 0x0800 // Entry refers to exit pt
#define PKT_ENTRY_TYPE_MACH_SHARE 0x1000 // Entry refers to a private
// machine share
#define PKT_ENTRY_TYPE_OFFLINE 0x2000 // Entry refers to a volume
// that is offline
#define PKT_ENTRY_TYPE_STALE 0x4000 // Entry is stale
#define PKT_ENTRY_TYPE_INHERIT_MASK PKT_ENTRY_TYPE_INSITE_ONLY
//
// Type of messages the driver can send to DfsManager / DfsService
//
#define DFS_MSGTYPE_KNOW_INCONSISTENCY 0x0001
#define DFS_MSGTYPE_GET_DOMAIN_REFERRAL 0x0002
#if (DBG == 1) || (_CT_TEST_HOOK == 1)
#define DFS_MSGTYPE_SET_RECOVERY_BREAK_POINT 0x0003
#endif
//
// There is one DFS_MACHINE_ENTRY for every unique DS_MACHINE that the
// Dfs driver knows about. If a particular cairo server services multiple Dfs
// volumes, then multiple DFS_SERVICE structs will point to a single, ref
// counted DFS_MACHINE_ENTRY.
//
typedef struct DFS_MACHINE_ENTRY {
PDS_MACHINE pMachine; // The addressing info is here.
UNICODE_STRING MachineName; // The MachineName (principalName).
ULONG UseCount; // Number of DFS_SVC structs using this
ULONG ConnectionCount;// The number of pkt entries that are
// using this as their active machine
UNICODE_PREFIX_TABLE_ENTRY PrefixTableEntry;
} DFS_MACHINE_ENTRY, *PDFS_MACHINE_ENTRY;
//
// Marshalling info for DFS_MACHINE_ENTRY
//
extern MARSHAL_INFO MiMachineEntry;
#define INIT_DFS_MACHINE_ENTRY_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_Machine_Entry[] = { \ _MCode_pstruct(DFS_MACHINE_ENTRY, pMachine, &MiDSMachine) \ }; \ MARSHAL_INFO MiMachineEntry = _mkMarshalInfo(DFS_SERVICE, _MCode_Machine_Entry);
//
// A DFS_SERVICE structure is used to describe the provider and
// network address to be contacted for a specific partition of
// the distributed file system.
//
typedef struct _DFS_SERVICE {
ULONG Type; // type of service (see above)
ULONG Capability; // capability of this service
ULONG Status; // current status
ULONG ProviderId; // identifies which provider
UNICODE_STRING Name; // service name (for authentication)
PFILE_OBJECT ConnFile; // pointer to tree conn. file if active connection
struct _PROVIDER_DEF* pProvider; // pointer to provider definition
UNICODE_STRING Address; // network address
UNICODE_STRING StgId; // The local storage id on the server.
PDFS_MACHINE_ENTRY pMachEntry; // The addressing info is here.
ULONG Cost; // The site based cost of this service.
} DFS_SERVICE, *PDFS_SERVICE;
//
// Marshalling information for DFS_SERVICE
//
// NOTE: ConnFile and pProvider have significance only to the driver and
// are not marshalled.
//
extern MARSHAL_INFO MiService;
#define INIT_DFS_SERVICE_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_Service[] = { \ _MCode_ul(DFS_SERVICE, Type), \ _MCode_ul(DFS_SERVICE, Capability), \ _MCode_ul(DFS_SERVICE, Status), \ _MCode_ul(DFS_SERVICE, ProviderId), \ _MCode_ustr(DFS_SERVICE, Name), \ _MCode_ustr(DFS_SERVICE, Address), \ _MCode_ustr(DFS_SERVICE, StgId), \ _MCode_pstruct(DFS_SERVICE, pMachEntry, &MiMachineEntry) \ }; \ MARSHAL_INFO MiService = _mkMarshalInfo(DFS_SERVICE, _MCode_Service);
//
// Structure used in FSCTL_DFS_UPDATE_MACH_ADDRESS
//
typedef struct _DFS_MACHINE_INFO {
UNICODE_STRING MachineName; // Name of Machine (prefix alone).
PDS_MACHINE pMachine; // The new addressing info is here
} DFS_MACHINE_INFO, *PDFS_MACHINE_INFO;
//
// Marshalling info for DFS_MACHINE_INFO
//
extern MARSHAL_INFO MiDfsMachineInfo;
#define INIT_DFS_MACHINE_INFO() \
static MARSHAL_TYPE_INFO _MCode_MachineInfo[] = { \ _MCode_ustr(DFS_MACHINE_INFO, MachineName), \ _MCode_pstruct(DFS_MACHINE_INFO, pMachine, &MiDSMachine) \ }; \ MARSHAL_INFO MiDfsMachineInfo = \ _mkMarshalInfo(DFS_MACHINE_INFO, _MCode_MachineInfo);
//
// How a partition table entry is identified.
//
typedef struct _DFS_PKT_ENTRY_ID {
GUID Uid; // a unique identifier for this partition
UNICODE_STRING Prefix; // The entry path prefix of this partition
UNICODE_STRING ShortPrefix; // 8.3 version of entry path
} DFS_PKT_ENTRY_ID, *PDFS_PKT_ENTRY_ID;
//
// Marshalling information for DFS_PKT_ENTRY_ID
//
extern MARSHAL_INFO MiPktEntryId;
#define INIT_DFS_PKT_ENTRY_ID_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_PktEntryId[] = { \ _MCode_guid(DFS_PKT_ENTRY_ID, Uid), \ _MCode_ustr(DFS_PKT_ENTRY_ID, Prefix), \ _MCode_ustr(DFS_PKT_ENTRY_ID, ShortPrefix) \ }; \ MARSHAL_INFO MiPktEntryId = \ _mkMarshalInfo(DFS_PKT_ENTRY_ID, _MCode_PktEntryId);
//
// The DfsCreate/DeleteExitPoint FSCTRLs arguments are passed through
// following structure.
//
typedef struct _DFS_EXIT_POINT_ARG {
DFS_PKT_ENTRY_ID Id; ULONG Type;
} DFS_EXIT_POINT_ARG, *PDFS_EXIT_POINT_ARG;
//
// Marshalling information for DFS_EXIT_POINT_ARG
//
extern MARSHAL_INFO MiExitPointArg;
#define INIT_DFS_EXIT_POINT_ARG_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_ExitPointArg[] = { \ _MCode_struct(DFS_EXIT_POINT_ARG, Id, &MiPktEntryId), \ _MCode_ul(DFS_EXIT_POINT_ARG, Type) \ }; \ MARSHAL_INFO MiExitPointArg = \ _mkMarshalInfo(DFS_EXIT_POINT_ARG, _MCode_ExitPointArg);
//
// The DfsSetVolumeState FSCTRLs arguments are passed through the following
// structure
//
typedef DFS_EXIT_POINT_ARG DFS_SETSTATE_ARG;
#define MiSetStateArg MiExitPointArg
//
// The DfsSetVolumeTimeout FSCTRLs arguments are passed through
// following structure.
//
typedef struct _DFS_SET_VOLUME_TIMEOUT_ARG {
DFS_PKT_ENTRY_ID Id; ULONG Timeout;
} DFS_SET_VOLUME_TIMEOUT_ARG, *PDFS_SET_VOLUME_TIMEOUT_ARG;
//
// Marshalling information for DFS_SET_VOLUME_TIMEOUT_ARG
//
extern MARSHAL_INFO MiSetVolTimeoutArg;
#define INIT_DFS_SET_VOLUME_TIMEOUT_ARG_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_SetVolTimeoutArg[] = { \ _MCode_struct(DFS_SET_VOLUME_TIMEOUT_ARG, Id, &MiPktEntryId), \ _MCode_ul(DFS_SET_VOLUME_TIMEOUT_ARG, Timeout) \ }; \ MARSHAL_INFO MiSetVolTimeoutArg = \ _mkMarshalInfo(DFS_SET_VOLUME_TIMEOUT_ARG, _MCode_SetVolTimeoutArg);
//
// The DfsSetServiceState FSCTRLs arguments are passed through the following
// structure
//
typedef struct _DFS_DC_SET_SERVICE_STATE {
DFS_PKT_ENTRY_ID Id; UNICODE_STRING ServiceName; ULONG State;
} DFS_DC_SET_SERVICE_STATE, *PDFS_DC_SET_SERVICE_STATE;
//
// Marshalling information for DFS_DC_SET_SERVICE_STATE
//
extern MARSHAL_INFO MiDCSetServiceState;
#define INIT_DFS_DC_SET_SERVICE_STATE_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_DfsDCSetServiceState[] = { \ _MCode_struct(DFS_DC_SET_SERVICE_STATE, Id, &MiPktEntryId), \ _MCode_ustr(DFS_DC_SET_SERVICE_STATE, ServiceName), \ _MCode_ul(DFS_DC_SET_SERVICE_STATE, State) \ }; \ MARSHAL_INFO MiDCSetServiceState = \ _mkMarshalInfo(DFS_DC_SET_SERVICE_STATE, _MCode_DfsDCSetServiceState);
//
// The DfsVolumeVerifyArgs are passed through this marshalled structure.
//
typedef struct _DFS_VOLUME_VERIFY_ARG {
DFS_PKT_ENTRY_ID Id; UNICODE_STRING ServiceName;
} DFS_VOLUME_VERIFY_ARG, *PDFS_VOLUME_VERIFY_ARG;
//
// Marshalling information for DFS_VOLUME_VERIFY_ARG;
//
extern MARSHAL_INFO MiVolumeVerifyArg;
#define INIT_DFS_VOLUME_VERIFY_ARG_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_VolumeVerifyArg[] = { \ _MCode_struct(DFS_VOLUME_VERIFY_ARG, Id, &MiPktEntryId), \ _MCode_ustr(DFS_VOLUME_VERIFY_ARG, ServiceName) \ }; \ MARSHAL_INFO MiVolumeVerifyArg = \ _mkMarshalInfo(DFS_VOLUME_VERIFY_ARG, _MCode_VolumeVerifyArg);
//
// The guts of a partition table entry
//
typedef struct _DFS_PKT_ENTRY_INFO {
ULONG Timeout; // this entry's timeout
ULONG ServiceCount; // number of services in list
PDFS_SERVICE ServiceList; // array of servers that support the partition
} DFS_PKT_ENTRY_INFO, *PDFS_PKT_ENTRY_INFO;
//
// Marshalling information for DFS_PKT_ENTRY_INFO
//
extern MARSHAL_INFO MiPktEntryInfo;
#define INIT_DFS_PKT_ENTRY_INFO_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_PktEntryInfo[] = { \ _MCode_ul(DFS_PKT_ENTRY_INFO, Timeout), \ _MCode_ul(DFS_PKT_ENTRY_INFO, ServiceCount), \ _MCode_pcastruct(DFS_PKT_ENTRY_INFO,ServiceList,ServiceCount,&MiService)\ }; \ MARSHAL_INFO MiPktEntryInfo = \ _mkMarshalInfo(DFS_PKT_ENTRY_INFO, _MCode_PktEntryInfo);
//
// A Partition Knowledge Table Entry (PktEntry) identifies each known
// partition.
//
typedef struct _DFS_PKT_ENTRY {
NODE_TYPE_CODE NodeTypeCode; // node type -> DSFS_NTC_PKT_ENTRY
NODE_BYTE_SIZE NodeByteSize; // node size
LIST_ENTRY Link; // link for PKT EntryList
ULONG Type; // type of partition (see above)
ULONG USN; // Unique Serial Number
DFS_PKT_ENTRY_ID Id; // the Id of this entry
DFS_PKT_ENTRY_INFO Info; // info of this entry
ULONG ExpireTime; // time when partition should be deleted
ULONG UseCount; // # threads (DnrContexts) are looking at it.
ULONG FileOpenCount; // # of files opened via this entry
PDFS_SERVICE ActiveService; // pointer into info to active service
PDFS_SERVICE LocalService; // pointer to local service (if any)
struct _DFS_PKT_ENTRY *Superior;// this entrys superior (if any)
ULONG SubordinateCount; // number of subordinates (if any)
LIST_ENTRY SubordinateList; // list of subordinates (if any)
LIST_ENTRY SiblingLink; // link to other siblings (if any)
struct _DFS_PKT_ENTRY *ClosestDC; // Link to closest superiorDC in PKT.
LIST_ENTRY ChildList; // Link to subordinate PKT entries (if any)
LIST_ENTRY NextLink; // Link to link up parent's Subord list.
UNICODE_PREFIX_TABLE_ENTRY PrefixTableEntry;// prefix table entry
} DFS_PKT_ENTRY, *PDFS_PKT_ENTRY;
//
// Marshalling information for DFS_PKT_ENTRY
//
// Note that we only marshal the id and the info...no relational info
//
//
extern MARSHAL_INFO MiPktEntry;
#define INIT_DFS_PKT_ENTRY_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_PktEntry[] = { \ _MCode_ul(DFS_PKT_ENTRY, Type), \ _MCode_struct(DFS_PKT_ENTRY, Id, &MiPktEntryId), \ _MCode_struct(DFS_PKT_ENTRY, Info, &MiPktEntryInfo) \ }; \ MARSHAL_INFO MiPktEntry = _mkMarshalInfo(DFS_PKT_ENTRY, _MCode_PktEntry);
//
// A Local Volume Entry is a back pointer from the local volume name to
// a pkt entry whose local service == local volume name.
//
typedef struct _DFS_LOCAL_VOL_ENTRY { PDFS_PKT_ENTRY PktEntry; UNICODE_STRING LocalPath; UNICODE_STRING ShareName; UNICODE_PREFIX_TABLE_ENTRY PrefixTableEntry;} DFS_LOCAL_VOL_ENTRY, *PDFS_LOCAL_VOL_ENTRY;
//
// A Parition Knowledge Table encapsulates all the knowledge that has
// been obtained about partitions in the distributed file system. There
// is only one instance of this struct in the entire system, and is
// part of the DsData structure.
//
typedef struct _DFS_PKT {
NODE_TYPE_CODE NodeTypeCode; // node type -> DSFS_NTC_PKT
NODE_BYTE_SIZE NodeByteSize; // node size...
ERESOURCE Resource; // resource to guard access to Pkt
KSPIN_LOCK UseCountLock; // Use while changing UseCount
ULONG EntryCount; // number of entries in the PKT
LIST_ENTRY EntryList; // list of entries in the PKT
PDFS_PKT_ENTRY DomainPktEntry; // pointer to domain service.
DFS_PREFIX_TABLE LocalVolTable; // table of local volumes
DFS_PREFIX_TABLE PrefixTable; // prefix table
DFS_PREFIX_TABLE ShortPrefixTable; // prefix table containing 8.3 prefixes
UNICODE_PREFIX_TABLE DSMachineTable;// Table for DSMachines
ULONG DefaultTimeToLive; // Default time to live (in seconds)
ULONG MaxReferrals; // maximum referrals to return.
} DFS_PKT, *PDFS_PKT;
//
// PKT Relational Information structure
//
// This structure incapsulates the relationship between a pkt entry and
// all of its subordinates.
//
typedef struct _DFS_PKT_RELATION_INFO {
DFS_PKT_ENTRY_ID EntryId; // the Id of the parent entry
ULONG SubordinateIdCount; // number of subordinates
PDFS_PKT_ENTRY_ID SubordinateIdList; // list of subordinate Ids
} DFS_PKT_RELATION_INFO, *PDFS_PKT_RELATION_INFO;
//
// Marshalling information for DFS_PKT_RELATION_INFO
//
extern MARSHAL_INFO MiPktRelationInfo;
#define INIT_DFS_PKT_RELATION_INFO_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_PktRelationInfo[] = { \ _MCode_struct(DFS_PKT_RELATION_INFO, EntryId, &MiPktEntryId), \ _MCode_ul(DFS_PKT_RELATION_INFO, SubordinateIdCount), \ _MCode_pcastruct(DFS_PKT_RELATION_INFO, SubordinateIdList, \ SubordinateIdCount, &MiPktEntryId) \ }; \ MARSHAL_INFO MiPktRelationInfo = \ _mkMarshalInfo(DFS_PKT_RELATION_INFO, _MCode_PktRelationInfo);
//
// The Local Volume Config structure
//
// Encapsulates a local volume configuration information.
//
typedef struct _DFS_LOCAL_VOLUME_CONFIG {
ULONG EntryType; ULONG ServiceType; UNICODE_STRING StgId; UNICODE_STRING Share; DFS_PKT_RELATION_INFO RelationInfo;
} DFS_LOCAL_VOLUME_CONFIG, *PDFS_LOCAL_VOLUME_CONFIG;
//
// Marshalling information for DFS_LOCAL_VOLUME_CONFIG
//
extern MARSHAL_INFO MiLocalVolumeConfig;
#define INIT_LOCAL_VOLUME_CONFIG_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_LocalVolumeConfig[] = { \ _MCode_ul(DFS_LOCAL_VOLUME_CONFIG, EntryType), \ _MCode_ul(DFS_LOCAL_VOLUME_CONFIG, ServiceType), \ _MCode_struct(DFS_LOCAL_VOLUME_CONFIG, RelationInfo, &MiPktRelationInfo) \ }; \ MARSHAL_INFO MiLocalVolumeConfig = _mkMarshalInfo(DFS_LOCAL_VOLUME_CONFIG, _MCode_LocalVolumeConfig);
//
// The DFS_CHECK_VOLUME_ARG structure encapsulates the arguments to
// CheckRemotePartition call.
//
typedef struct _DFS_CHECK_VOLUME_ARG {
DFS_LOCAL_VOLUME_CONFIG ConfigInfo; UNICODE_STRING ServiceName;
} DFS_CHECK_VOLUME_ARG, *PDFS_CHECK_VOLUME_ARG;
//
// Marshalling information for DFS_CHECK_VOLUME_ARG.
//
extern MARSHAL_INFO MiCheckVolumeArg;
#define INIT_DFS_CHECK_VOLUME_ARG_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_CheckVolumeArg[] = { \ _MCode_struct(DFS_CHECK_VOLUME_ARG, ConfigInfo, &MiLocalVolumeConfig), \ _MCode_ustr(DFS_CHECK_VOLUME_ARG, ServiceName) \ }; \ MARSHAL_INFO MiCheckVolumeArg = \ _mkMarshalInfo(DFS_CHECK_VOLUME_ARG, _MCode_CheckVolumeArg);
//
// The DFS_PKT_CREATE_ENTRY_ARG structure encapsulates the arguments
// to the create entry call.
//
typedef struct _DFS_PKT_CREATE_ENTRY_ARG {
ULONG EntryType; DFS_PKT_ENTRY_ID EntryId; DFS_PKT_ENTRY_INFO EntryInfo; ULONG CreateDisposition;
} DFS_PKT_CREATE_ENTRY_ARG, *PDFS_PKT_CREATE_ENTRY_ARG;
//
// Marshalling information for DFS_PKT_CREATE_ENTRY_ARG
//
extern MARSHAL_INFO MiPktCreateEntryArg;
#define INIT_DFS_PKT_CREATE_ENTRY_ARG_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_PktCreateEntryArg[] = { \ _MCode_ul(DFS_PKT_CREATE_ENTRY_ARG, EntryType), \ _MCode_struct(DFS_PKT_CREATE_ENTRY_ARG, EntryId, &MiPktEntryId), \ _MCode_struct(DFS_PKT_CREATE_ENTRY_ARG, EntryInfo, &MiPktEntryInfo),\ _MCode_ul(DFS_PKT_CREATE_ENTRY_ARG, CreateDisposition) \ }; \ MARSHAL_INFO MiPktCreateEntryArg = \ _mkMarshalInfo(DFS_PKT_CREATE_ENTRY_ARG, _MCode_PktCreateEntryArg);
//
// The DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG structure encapsulates the arguments
// to the create entry call.
//
typedef struct _DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG {
DFS_PKT_ENTRY_ID EntryId; ULONG SubEntryType; DFS_PKT_ENTRY_ID SubEntryId; DFS_PKT_ENTRY_INFO SubEntryInfo; ULONG CreateDisposition;
} DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG, *PDFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG;
//
// Marshalling information for DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG
//
extern MARSHAL_INFO MiPktCreateSubordinateEntryArg;
#define INIT_DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_PktCreateSubordinateEntryArg[] = { \ _MCode_struct(DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG, EntryId, \ &MiPktEntryId), \ _MCode_ul(DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG, SubEntryType), \ _MCode_struct(DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG, SubEntryId, \ &MiPktEntryId), \ _MCode_struct(DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG, SubEntryInfo, \ &MiPktEntryInfo), \ _MCode_ul(DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG, CreateDisposition) \ }; \ MARSHAL_INFO MiPktCreateSubordinateEntryArg = \ _mkMarshalInfo(DFS_PKT_CREATE_SUBORDINATE_ENTRY_ARG, \ _MCode_PktCreateSubordinateEntryArg);
//
// The DFS_HANDLE_SERVER_INFO data structure is used to pass back the
// full file name and server DN, and server Machine ID to the caller.
//
typedef struct _DFS_HANDLE_SERVER_INFO {
UNICODE_STRING FullFileName; UNICODE_STRING ServerDN; UNICODE_STRING ServerNetBIOSName; GUID ServerID;
} DFS_HANDLE_SERVER_INFO, *PDFS_HANDLE_SERVER_INFO;
//
// Marshalling info for DFS_HANDLE_SERVER_INFO
//
extern MARSHAL_INFO MiHandleServerInfo;
#define INIT_DFS_HANDLE_SERVER_INFO_MARSHAL_INFO() \
static MARSHAL_TYPE_INFO _MCode_HandleServerInfo[] = { \ _MCode_ustr(DFS_HANDLE_SERVER_INFO, FullFileName), \ _MCode_ustr(DFS_HANDLE_SERVER_INFO, ServerDN), \ _MCode_ustr(DFS_HANDLE_SERVER_INFO, ServerNetBIOSName), \ _MCode_guid(DFS_HANDLE_SERVER_INFO, ServerID) \ }; \ MARSHAL_INFO MiHandleServerInfo = \ _mkMarshalInfo(DFS_HANDLE_SERVER_INFO, _MCode_HandleServerInfo);
#ifndef _UPKT_
//
// PARTITION KNOWLEDGE TABLE PUBLIC INLINE FUNCTIONS
//
#define _GetPkt() (&DfsData.Pkt)
//+-------------------------------------------------------------------------
//
// Function: PktAcquireShared, public inline
//
// Synopsis: PktAcquireShared acquires the partition knowledge table
// for shared access.
//
// Arguments: [Pkt] - pointer to an initialized PKT
// [WaitOk] - indicates if the call is allowed to wait for
// the PKT to become available or must return immediately.
//
// Returns: [TRUE] - is the PKT has been acquired.
// [FALSE] - the PKT could not be acquired.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktAcquireShared( pPkt, WaitOk )\
{ \ FsRtlEnterFileSystem(); \ ExAcquireResourceSharedLite( &((pPkt)->Resource), WaitOk ); \}
//+-------------------------------------------------------------------------
//
// Function: PktAcquireExclusive, public inline
//
// Synopsis: PktAcquireExclusive acquires the partition knowledge table
// for exclusive access.
//
// Arguments: [Pkt] - pointer to an initialized PKT
// [WaitOk] - indicates if the call is allowed to wait for
// the PKT to become available or must return immediately.
//
// Returns: [TRUE] - is the PKT has been acquired.
// [FALSE] - the PKT could not be acquired.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktAcquireExclusive( pPkt, WaitOk )\
{ \ FsRtlEnterFileSystem(); \ ExAcquireResourceExclusiveLite( &((pPkt)->Resource), WaitOk ); \}
//+-------------------------------------------------------------------------
//
// Function: PktRelease, public inline
//
// Synopsis: PktRelease releases the PKT. It can have been acquired
// for exclusive or shared access.
//
// Arguments: [Pkt] - pointer to an initialized PKT
//
// Returns: VOID
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktRelease( pPkt )\
{ \ ExReleaseResourceLite( &((pPkt)->Resource) ); \ FsRtlExitFileSystem(); \}
//+-------------------------------------------------------------------------
//
// Function: PktInvalidateEntry, public inline
//
// Synopsis: PktInvalidateEntry destroys a PKT Entry. The entry cannot
// be local, and it cannot be an exit point.
//
// Arguments: [Pkt] - pointer to an initialized PKT.
// [Victim] - pointer to the entry to be invalidated.
//
// Returns: [STATUS_SUCCESS] - all is well.
// [DFS_STATUS_LOCAL_ENTRY] - an attempt was made to
// invalidate a local entry, or an entry that is a
// local exit point.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktInvalidateEntry(p, e) ( \
((e)->Type & (PKT_ENTRY_TYPE_LOCAL|PKT_ENTRY_TYPE_LOCAL_XPOINT)) \ ? (DFS_STATUS_LOCAL_ENTRY) \ : (PktEntryDestroy(e, p, (BOOLEAN)TRUE), STATUS_SUCCESS) \ )
//+-------------------------------------------------------------------------
//
// Function: PktFirstEntry, public inline
//
// Synopsis: PktFirstEntry returns the first entry in the list of
// PKT entries.
//
// Arguments: [Pkt] - pointer to an initialized PKT.
//
// Returns: A pointer to the first entry in the PKT, or NULL if the
// PKT is empty.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktFirstEntry(p) ( \
((p)->EntryList.Flink != &(p)->EntryList) \ ? (CONTAINING_RECORD((p)->EntryList.Flink, DFS_PKT_ENTRY, Link)) \ : (NULL) \ )
//+-------------------------------------------------------------------------
//
// Function: PktNextEntry, public inline
//
// Synopsis: PktNextEntry returns the next entry in the list of
// PKT entries.
//
// Arguments: [Pkt] - pointer to an initialized PKT.
// [Entry] - a pointer to the previous entry.
//
// Returns: A pointer to the next entry in the PKT, or NULL if we
// are at the end of the list.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktNextEntry(p, e) ( \
((e)->Link.Flink != &(p)->EntryList) \ ? (CONTAINING_RECORD((e)->Link.Flink, DFS_PKT_ENTRY, Link)) \ : (NULL) \ )
//+-------------------------------------------------------------------------
//
// Function: PktLinkEntry, public inline
//
// Synopsis: PktLinkEntry links an entry into the list of entries
// in the PKT.
//
// Arguments: [Pkt] - pointer to an initialized PKT.
// [Entry] - a pointer to the entry to be linked in.
//
// Returns: VOID
//
// Notes: Care must be taken to insure that the entry is not already
// linked into the PKT entry list before calling this routine.
// No checking is done to prevent an entry from being linked
// twice...
//
//--------------------------------------------------------------------------
#define PktLinkEntry(p, e) { \
InsertTailList(&(p)->EntryList, &(e)->Link); \ (p)->EntryCount++; \ }
//+-------------------------------------------------------------------------
//
// Function: PktUnlinkEntry, public inline
//
// Synopsis: PktUnlinkEntry unlinks an entry from the list of entries
// in the PKT.
//
// Arguments: [Pkt] - pointer to an initialized PKT.
// [Entry] - a pointer to the entry to be unlinked.
//
// Returns: VOID
//
// Notes: Care must be taken to insure that the entry is in fact
// already linked into the PKT entry list before calling this
// routine. No checking is done to prevent an entry from being
// unlinked twice...
//
//--------------------------------------------------------------------------
#define PktUnlinkEntry(p, e) { \
RemoveEntryList(&(e)->Link); \ (p)->EntryCount--; \ }
//+----------------------------------------------------------------------------
//
// Function: PktSetDomainEntry, public inline
//
// Synopsis: Sets the Domain Pkt Entry in the Pkt to point to the given
// pkt entry.
//
// Arguments: [Pkt] -- pointer to the pkt whose DomainPktEnry field is to be
// set.
// [DCEntry] -- pointer to the pkt entry to serve as the domain
// pkt entry.
//
// Returns: Nothing
//
//-----------------------------------------------------------------------------
#define PktSetDomainEntry(p, e) { \
(p)->DomainPktEntry = e; \ if (SeRenameSd == NULL) { \ (VOID) DfspInitSecDesc(p); \ } \}
//+----------------------------------------------------------------------------
//
// Function: PktSetTypeInheritance, public inline
//
// Synopsis: Sets the Domain Pkt Entry type to inherit the main parent's type
//
// Arguments: [sup] -- Parent entry.
// [sub] -- Child entry
//
// Returns: Nothing
//
//-----------------------------------------------------------------------------
#define PktSetTypeInheritance(sup, sub) { \
(sub)->Type |= (sup)->Type & PKT_ENTRY_TYPE_INHERIT_MASK; \}
#define PktServiceListValidate(e) TRUE
//
// PARTITION KNOWLEDGE TABLE PUBLIC FUNCTIONS (pkt.c)
//
NTSTATUSPktInitialize( IN PDFS_PKT Pkt );
VOIDPktUninitialize( IN PDFS_PKT Pkt);
NTSTATUSPktInitializeLocalPartition( IN PDFS_PKT Pkt, IN PUNICODE_STRING LocalVolumeName, IN PDFS_LOCAL_VOLUME_CONFIG ConfigInfo );
NTSTATUSPktCreateEntry( IN PDFS_PKT Pkt, IN ULONG EntryType, IN PDFS_PKT_ENTRY_ID PktEntryId, IN PDFS_PKT_ENTRY_INFO PktEntryInfo OPTIONAL, IN ULONG CreateDisposition, OUT PDFS_PKT_ENTRY *ppPktEntry );
NTSTATUSPktCreateDomainEntry( IN PUNICODE_STRING DomainName);
NTSTATUSPktCreateMachineEntry( IN PUNICODE_STRING MachineName);
NTSTATUSPktCreateEntryFromReferral( IN PDFS_PKT Pkt, IN PUNICODE_STRING ReferralPath, IN ULONG ReferralSize, IN PVOID ReferralBuffer, IN ULONG CreateDisposition, OUT ULONG *ReferralType, OUT PDFS_PKT_ENTRY *ppPktEntry );
NTSTATUSPktCreateSubordinateEntry( IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY Superior, IN ULONG SubordinateType, IN PDFS_PKT_ENTRY_ID SubordinateId, IN PDFS_PKT_ENTRY_INFO SubordinateInfo OPTIONAL, IN ULONG CreateDisposition, IN OUT PDFS_PKT_ENTRY *Subordinate );
PDFS_PKT_ENTRYPktLookupEntryById( IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY_ID Id );
PDFS_PKT_ENTRYPktLookupEntryByPrefix( IN PDFS_PKT Pkt, IN PUNICODE_STRING Prefix, OUT PUNICODE_STRING Remaining );
PDFS_PKT_ENTRYPktLookupEntryByShortPrefix( IN PDFS_PKT Pkt, IN PUNICODE_STRING Prefix, OUT PUNICODE_STRING Remaining );
NTSTATUSPktEntryModifyPrefix( IN PDFS_PKT Pkt, IN PUNICODE_STRING LocalPath, IN PDFS_PKT_ENTRY Entry );
PDFS_PKT_ENTRYPktLookupEntryByUid( IN PDFS_PKT Pkt, IN GUID *Uid );
PDFS_PKT_ENTRYPktLookupReferralEntry( IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY pEntry);
PDFS_PKT_ENTRYPktGetReferralEntryForPath( PDFS_PKT Pkt, UNICODE_STRING Path, ULONG *Type);
NTSTATUSPktSetRelationInfo( IN PDFS_PKT Pkt, IN PDFS_PKT_RELATION_INFO RelationInfo );
VOIDPktTrimSubordinates( IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY Entry, IN PDFS_PKT_RELATION_INFO RInfo );
//
// DFS PKT PRIVATE FUNCTIONS (pkt.c)
//
NTSTATUSPktpRecoverLocalPartition( IN PDFS_PKT Pkt, IN PDFS_LOCAL_VOLUME_CONFIG ConfigInfo, IN PVOID Buffer, IN ULONG BufferSize, IN NTSTATUS ErrorStatus );
NTSTATUSPktpOpenDomainService( IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY PktEntry, IN OUT PHANDLE DomainServiceHandle );
NTSTATUSPktpValidateLocalPartition( IN PDFS_PKT Pkt, IN PDFS_LOCAL_VOLUME_CONFIG ConfigInfo );
NTSTATUSDfsGetMachPktEntry( UNICODE_STRING Path);
VOIDRemoveLastComponent( IN PUNICODE_STRING Prefix, OUT PUNICODE_STRING newPrefix);
VOIDRemoveFirstComponent( IN PUNICODE_STRING Prefix, OUT PUNICODE_STRING newPrefix);
//
// DFS SERVICE PUBLIC FUNCTIONS (pktsup.c)
//
NTSTATUSPktEntrySetLocalService( IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY Entry, IN PDFS_SERVICE LocalService, IN PDFS_LOCAL_VOL_ENTRY LocalVolEntry, IN PUNICODE_STRING LocalPath, IN PUNICODE_STRING ShareName);
VOIDPktEntryUnsetLocalService( IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY Entry, IN PUNICODE_STRING LocalPath);
VOIDPktEntryRemoveLocalService( IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY Entry, IN PUNICODE_STRING LocalPath);
PDFS_LOCAL_VOL_ENTRYPktEntryLookupLocalService( IN PDFS_PKT Pkt, IN PUNICODE_STRING LocalPath, OUT PUNICODE_STRING Remaining );
NTSTATUSPktServiceConstruct( OUT PDFS_SERVICE Service, IN ULONG ServiceType, IN ULONG ServiceCapability, IN ULONG ServiceStatus, IN ULONG ServiceProviderId, IN PUNICODE_STRING ServiceName OPTIONAL, IN PUNICODE_STRING ServiceAddress OPTIONAL );
VOIDPktServiceDestroy( IN PDFS_SERVICE Victim OPTIONAL, IN BOOLEAN DeallocateAll );
VOIDPktDSTransportDestroy( IN PDS_TRANSPORT Victim OPTIONAL, IN BOOLEAN DeallocateAll );
VOIDPktDSMachineDestroy( IN PDS_MACHINE Victim OPTIONAL, IN BOOLEAN DeallocateAll );
//
// PKT ENTRY ID PUBLIC FUNCTIONS (pktsup.c)
//
NTSTATUSPktEntryIdConstruct( OUT PDFS_PKT_ENTRY_ID PktEntryId, IN GUID *Uid OPTIONAL, IN UNICODE_STRING *Prefix OPTIONAL, IN UNICODE_STRING *ShortPrefix OPTIONAL );
VOIDPktEntryIdDestroy( IN PDFS_PKT_ENTRY_ID Victim OPTIONAL, IN BOOLEAN DeallocateAll );
PDFS_SERVICEPktGetService( IN PDFS_PKT_ENTRY entry, IN PUNICODE_STRING serviceName );
//
// PKT ENTRY ID PUBLIC INLINE FUNCTIONS
//
//+-------------------------------------------------------------------------
//
// Function: PktEntryIdEqual, public inline
//
// Synopsis: PktpEntryIdEqual determines if two entry Ids are equal
// or not.
//
// Arguments: [Id1] - a pointer to an Id to compare.
// [Id2] - a pointer to an Id to compare.
//
// Returns: [TRUE] - if both Ids are equal.
// [FALSE] - if the Ids are not equal.
//
// Notes: The comparison on the Prefix is done case insensitive.
//
//--------------------------------------------------------------------------
#define PktEntryIdEqual(Id1, Id2) ( \
(GuidEqual(&(Id1)->Uid, &(Id2)->Uid)) && \ (RtlEqualUnicodeString(&(Id1)->Prefix, &(Id2)->Prefix, (BOOLEAN)TRUE)) \ )
//
// PKT ENTRY ID PRIVATE INLINE FUNCTIONS
//
//+-------------------------------------------------------------------------
//
// Function: PktpEntryIdMove, private inline
//
// Synopsis: PktpEntryIdMove removes the values from the source Id and
// places them on the destination Id.
//
// Arguments: [DestId] - a pointer to an Id that is to receive the
// sources values.
// [SrcId] - a pointer to an Id that is to be stripped of
// its values.
//
// Returns: VOID
//
// Notes: Any values that are currently on the destination Id are
// overwritten. No memory is freed (either on the source,
// or the destination) by this call.
//
//--------------------------------------------------------------------------
#define PktpEntryIdMove(DestId, SrcId) { \
(*(DestId)) = (*(SrcId)); \ (SrcId)->Prefix.Length = (SrcId)->Prefix.MaximumLength = 0; \ (SrcId)->Prefix.Buffer = NULL; \ (SrcId)->ShortPrefix.Length = (SrcId)->ShortPrefix.MaximumLength = 0; \ (SrcId)->ShortPrefix.Buffer = NULL; \ }
//
// PKT ENTRY INFO PUBLIC FUNCTIONS (pktsup.c)
//
//NTSTATUS
//PktEntryInfoConstruct(
// OUT PDFS_PKT_ENTRY_INFO PktEntryInfo,
// IN PULONG ExpireTime OPTIONAL,
// IN ULONG ServiceCount,
// IN PDFS_SERVICE ServiceList OPTIONAL
// );
VOIDPktEntryInfoDestroy( IN PDFS_PKT_ENTRY_INFO Victim OPTIONAL, IN BOOLEAN DeallocateAll );
//
// PKT ENTRY INFO PRIVATE INLINE FUNCTIONS
//
//
// The following inlines operate on Entry Infos
//
//+-------------------------------------------------------------------------
//
// Function: PktpEntryInfoMove, private inline
//
// Synopsis: PktpEntryInfoMove removes the values from the source Info and
// places them on the destination Info.
//
// Arguments: [DestInfo] - a pointer to an Info that is to receive the
// sources values.
// [SrcInfo] - a pointer to an Info that is to be stripped of
// its values.
//
// Returns: VOID
//
// Notes: Any values that are currently on the destination Info are
// overwritten. No memory is freed (either on the source,
// or the destination) by this call.
//
//--------------------------------------------------------------------------
#define PktpEntryInfoMove(DestInfo, SrcInfo) { \
(*(DestInfo)) = (*(SrcInfo)); \ (SrcInfo)->ServiceCount = 0L; \ (SrcInfo)->ServiceList = NULL; \ }
//
// PKT ENTRY PUBLIC INLINE FUNCTIONS
//
//+-------------------------------------------------------------------------
//
// Function: PktEntryFirstSubordinate, public inline
//
// Synopsis: PktEntryFirstSubordinate returns the first entry in the
// list of subordinates.
//
// Arguments: [Superior] - pointer to a PKT entry.
//
// Returns: A pointer to the first entry in the list of subordinates,
// or NULL if the list is empty.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktEntryFirstSubordinate(s) ( \
((s)->SubordinateList.Flink != &(s)->SubordinateList) \ ? (CONTAINING_RECORD((s)->SubordinateList.Flink, DFS_PKT_ENTRY, \ SiblingLink)) \ : (NULL) \ )
//+-------------------------------------------------------------------------
//
// Function: PktEntryNextSubordinate, public inline
//
// Synopsis: PktEntryNextSubordinate returns the next entry in the
// list of subordinates.
//
// Arguments: [Superior] - pointer to the superior PKT entry (the one
// which we are getting the subordinates for).
// [Subordinate] - pointer to the last subordinate retreived
// via this routine (or PktEntryFirstSubordinate).
//
// Returns: A pointer to the next entry in the list of subordinates,
// or NULL if we've hit the end of the list.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktEntryNextSubordinate(s, m) ( \
((m)->SiblingLink.Flink != &(s)->SubordinateList) \ ? (CONTAINING_RECORD((m)->SiblingLink.Flink,DFS_PKT_ENTRY,SiblingLink))\ : (NULL) \ )
//+-------------------------------------------------------------------------
//
// Function: PktEntryLinkSubordinate, public inline
//
// Synopsis: PktEntryLinkSubordinate links a subordinate to a superior's
// list of subordinates.
//
// Arguments: [Superior] - pointer to the superior PKT entry.
// [Subordinate] - pointer to the subordinate to be linked in.
//
// Returns: VOID
//
// Notes: If the subordinate is part of another superior's list, it
// will be removed from that list as a by-product of being
// put on the specified Superior's list. The Superior pointer
// of the subordinate is adjusted appropriately.
//
// If the superior is a local entry, the subordinate will
// be modified to indicate that it is a local exit point.
//
//--------------------------------------------------------------------------
#define PktEntryLinkSubordinate(sup, sub) { \
while(1) { \ if((sub)->Superior == (sup)) \ break; \ if((sub)->Superior != NULL) \ PktEntryUnlinkSubordinate((sub)->Superior, (sub)); \ InsertTailList(&(sup)->SubordinateList, &(sub)->SiblingLink); \ (sup)->SubordinateCount++; \ (sub)->Superior = (sup); \ if((sup)->Type & PKT_ENTRY_TYPE_LOCAL) \ (sub)->Type |= PKT_ENTRY_TYPE_LOCAL_XPOINT; \ break; \ } \ }
//+-------------------------------------------------------------------------
//
// Function: PktEntryUnlinkSubordinate, public inline
//
// Synopsis: PktEntryUnlinkSubordinate unlinks a subordinate from a
// superior's list of subordinates.
//
// Arguments: [Superior] - pointer to the superior PKT entry.
// [Subordinate] - pointer to the subordinate to be unlinked.
//
// Returns: VOID
//
// Notes: The Superior pointer of the subordinate is NULLed as a
// by-product of this operation.
//
// By default, the subordinate is modified to indicate that
// it is not an exit point (it cannot be an exit point if it
// has no superior).
//
// Milans - We need to turn off the PKT_ENTRY_TYPE_PERMANENT
// bit if the PKT_ENTRY_TYPE_LOCAL bit is not set, and we are
// not the DC. If we decide that a machine can be a server for
// a volume in another domain, then we need to do something
// about the != DS_DC clause.
//
//--------------------------------------------------------------------------
#define PktEntryUnlinkSubordinate(sup, sub) { \
ASSERT((sub)->Superior == (sup)); \ ASSERT((sup)->SubordinateCount > 0); \ RemoveEntryList(&(sub)->SiblingLink); \ (sup)->SubordinateCount--; \ (sub)->Superior = NULL; \ (sub)->Type &= ~PKT_ENTRY_TYPE_LOCAL_XPOINT; \ if ( DfsData.MachineState != DFS_ROOT_SERVER && \ (((sub)->Type & PKT_ENTRY_TYPE_LOCAL) == 0) ) { \ (sub)->Type &= ~PKT_ENTRY_TYPE_PERMANENT; \ } \}
//
// The following set of inline functions work on the Links maintained in
// the PKT to be able to get to referral entries for interdomain stuff real
// fast. These functions are similar to the above functions.
//
//+-------------------------------------------------------------------------
//
// Function: PktEntryFirstChild, public inline
//
// Synopsis: PktEntryFirstChild returns the first entry in the
// list of child links of a PKT entry.
//
// Arguments: [SuperiorDC] - pointer to a PKT entry.
//
// Returns: A pointer to the first entry in the list of children,
// or NULL if the list is empty.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktEntryFirstChild(s) ( \
((s)->ChildList.Flink != &(s)->ChildList) \ ? (CONTAINING_RECORD((s)->ChildList.Flink,DFS_PKT_ENTRY,NextLink)) \ : (NULL) \ )
//+-------------------------------------------------------------------------
//
// Function: PktEntryNextChild, public inline
//
// Synopsis: PktEntryNextChild returns the next entry in the
// list of children.
//
// Arguments: [Superior] - pointer to the superior PKT entry (the one
// which we are getting the subordinates for).
// [Subordinate] - pointer to the last child retreived
// via this routine (or PktEntryFirstChild).
//
// Returns: A pointer to the next entry in the list of children,
// or NULL if we've hit the end of the list.
//
// Notes:
//
//--------------------------------------------------------------------------
#define PktEntryNextChild(s, m) ( \
((m)->NextLink.Flink != &(s)->ChildList) \ ? (CONTAINING_RECORD((m)->NextLink.Flink,DFS_PKT_ENTRY,NextLink)) \ : (NULL) \ )
//+-------------------------------------------------------------------------
//
// Function: PktEntryLinkChild, public inline
//
// Synopsis: PktEntryLinkChild links a child to a closestDC's
// list of children.
//
// Arguments: [Superior] - pointer to the superior PKT entry.
// [Subordinate] - pointer to the subordinate to be linked in.
//
// Returns: VOID
//
// Notes: If the child is part of another superior's list, it
// will be removed from that list as a by-product of being
// put on the specified Superior's list. The Superior pointer
// of the child is adjusted appropriately.
//
//
//--------------------------------------------------------------------------
#define PktEntryLinkChild(sup, sub) { \
while(1) { \ if (sub == sup) { \ (sub)->ClosestDC = NULL; \ break; \ } \ if((sub)->ClosestDC == (sup)) \ break; \ if((sub)->ClosestDC != NULL) \ PktEntryUnlinkChild((sub)->ClosestDC, (sub)); \ InsertTailList(&(sup)->ChildList, &(sub)->NextLink); \ (sub)->ClosestDC = (sup); \ break; \ } \ }
//+-------------------------------------------------------------------------
//
// Function: PktEntryUnlinkChild, public inline
//
// Synopsis: PktEntryUnlinkChild unlinks a child from a
// superior's list of children.
//
// Arguments: [Superior] - pointer to the superior PKT entry.
// [Subordinate] - pointer to the subordinate to be unlinked.
//
// Returns: VOID
//
// Notes: The Superior pointer of the child is NULLed as a
// by-product of this operation.
//
//
//--------------------------------------------------------------------------
#define PktEntryUnlinkChild(sup, sub) { \
ASSERT((sub)->ClosestDC == (sup)); \ RemoveEntryList(&(sub)->NextLink); \ (sub)->ClosestDC = NULL; \ }
//+-------------------------------------------------------------------------
//
// Function: PktEntryUnlinkAndRelinkChild, public inline
//
// Synopsis: PktEntryUnlinkAndRelinkChild unlinks a child from a
// superior's list of children and relinks it to the parent of
// the superior.
//
// Arguments: [Superior] - pointer to the superior PKT entry.
// [Subordinate] - pointer to the subordinate to be unlinked.
//
// Returns: VOID
//
//--------------------------------------------------------------------------
#define PktEntryUnlinkAndRelinkChild(sup, sub) { \
PktEntryUnlinkChild(sup, sub); \ if ((sup)->ClosestDC != NULL) { \ PktEntryLinkChild((sup)->ClosestDC, sub); \ } \ }
//
// PKT ENTRY PUBLIC FUNCTIONS (pktsup.c)
//
NTSTATUSPktEntryAssemble( IN OUT PDFS_PKT_ENTRY Entry, IN PDFS_PKT Pkt, IN ULONG EntryType, IN PDFS_PKT_ENTRY_ID EntryId, IN PDFS_PKT_ENTRY_INFO EntryInfo OPTIONAL );
NTSTATUSPktEntryReassemble( IN OUT PDFS_PKT_ENTRY Entry, IN PDFS_PKT Pkt OPTIONAL, IN ULONG EntryType, IN PDFS_PKT_ENTRY_ID EntryId OPTIONAL, IN PDFS_PKT_ENTRY_INFO EntryInfo OPTIONAL );
VOIDPktEntryDestroy( IN PDFS_PKT_ENTRY Victim OPTIONAL, IN PDFS_PKT Pkt, IN BOOLEAN DeallocateAll );
VOIDPktEntryClearSubordinates( IN PDFS_PKT_ENTRY PktEntry );
VOIDPktEntryClearChildren( IN PDFS_PKT_ENTRY PktEntry );
NTSTATUSPktEntryCreateReferral( IN PDFS_PKT_ENTRY PktEntry, IN ULONG ServiceTypes, IN PVOID ReferralBuffer );
//
// PKT RELATION INFO PUBLIC FUNCTIONS (pktsup.c)
//
NTSTATUSPktRelationInfoConstruct( IN OUT PDFS_PKT_RELATION_INFO RelationInfo, IN PDFS_PKT Pkt, IN PDFS_PKT_ENTRY_ID PktEntryId );
NTSTATUSPktRelationInfoValidate( IN PDFS_PKT_RELATION_INFO Local, IN PDFS_PKT_RELATION_INFO Remote, IN UNICODE_STRING ServiceName );
VOIDPktRelationInfoDestroy( IN PDFS_PKT_RELATION_INFO RelationInfo, IN BOOLEAN DeallocateAll );
VOIDLocalVolumeConfigInfoDestroy( IN PDFS_LOCAL_VOLUME_CONFIG Victim OPTIONAL, IN BOOLEAN DeallocateAll );
#endif // NOT _UPKT_
#endif // _PKT_
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