/*++ Copyright (c) 1993 Microsoft Corporation Module Name: sppartit.h Abstract: Public header file for partitioning module in text setup. Author: Ted Miller (tedm) 27-Aug-1993 Revision History: --*/ #ifndef _SPPARTIT_ #define _SPPARTIT_ // // Number of entries in a partition table. // #define NUM_PARTITION_TABLE_ENTRIES_NEC98 16 //#if (NUM_PARTITION_TABLE_ENTRIES < NUM_PARTITION_TABLE_ENTRIES_NEC98) #if defined(NEC_98) //NEC98 #define PTABLE_DIMENSION NUM_PARTITION_TABLE_ENTRIES_NEC98 # else //NEC98 #define PTABLE_DIMENSION NUM_PARTITION_TABLE_ENTRIES # endif //NEC98 // // The following table contains offsets from SP_TEXT_PARTITION_NAME_BASE // to get the message id of the name of each type of partition. // extern UCHAR PartitionNameIds[256]; // // Original ordinal is the ordinal the partition had when we started. // OnDisk ordinal is the ordinal the partition will have when the system // is rebooted. // Current ordinal is the ordinal the partition has now, if we want to // address it. This may be different then OnDisk ordinal because of // how dynamic repartitioning is implemented. // typedef enum { PartitionOrdinalOriginal, PartitionOrdinalOnDisk, PartitionOrdinalCurrent } PartitionOrdinalType; // // Define structure for an on-disk partition table entry. // typedef struct _REAL_DISK_PTE_NEC98 { UCHAR ActiveFlag; UCHAR SystemId; UCHAR Reserved[2]; UCHAR IPLSector; UCHAR IPLHead; UCHAR IPLCylinderLow; UCHAR IPLCylinderHigh; UCHAR StartSector; UCHAR StartHead; UCHAR StartCylinderLow; UCHAR StartCylinderHigh; UCHAR EndSector; UCHAR EndHead; UCHAR EndCylinderLow; UCHAR EndCylinderHigh; UCHAR SystemName[16]; } REAL_DISK_PTE_NEC98, *PREAL_DISK_PTE_NEC98; typedef struct _REAL_DISK_PTE { UCHAR ActiveFlag; UCHAR StartHead; UCHAR StartSector; UCHAR StartCylinder; UCHAR SystemId; UCHAR EndHead; UCHAR EndSector; UCHAR EndCylinder; UCHAR RelativeSectors[4]; UCHAR SectorCount[4]; } REAL_DISK_PTE, *PREAL_DISK_PTE; typedef struct _ON_DISK_PTE { UCHAR ActiveFlag; UCHAR StartHead; UCHAR StartSector; UCHAR StartCylinder; UCHAR SystemId; UCHAR EndHead; UCHAR EndSector; UCHAR EndCylinder; UCHAR RelativeSectors[4]; UCHAR SectorCount[4]; #if defined(NEC_98) //NEC98 // // add following entry for NEC98 // UCHAR StartCylinderLow; // add NEC98 original value UCHAR StartCylinderHigh; // not convert int13 format UCHAR EndCylinderLow; // add NEC98 original value UCHAR EndCylinderHigh; // not convert int13 format UCHAR IPLSector; // add NEC98 original value UCHAR IPLHead; // UCHAR IPLCylinderLow; // UCHAR IPLCylinderHigh; // UCHAR IPLSectors[4]; // for PC-PTOS UCHAR Reserved[2]; // UCHAR SystemName[16]; // UCHAR OldSystemId; // reverse conversion for Sleep partition UCHAR RealDiskPosition; // for Dynamic Partitioning on NEC98 #endif //NEC98 } ON_DISK_PTE, *PON_DISK_PTE; // // Define structure for an REAL on-disk master boot record. // typedef struct _REAL_DISK_MBR_NEC98 { UCHAR JumpCode[4]; UCHAR IPLSignature[4]; UCHAR BootCode[502]; UCHAR AA55Signature[2]; //REAL_DISK_PTE_NEC98 PartitionTable[NUM_PARTITION_TABLE_ENTRIES_NEC98]; REAL_DISK_PTE_NEC98 PartitionTable[16]; } REAL_DISK_MBR_NEC98, *PREAL_DISK_MBR_NEC98; // // Define structure for an REAL on-disk master boot record. // typedef struct _REAL_DISK_MBR { UCHAR BootCode[440]; UCHAR NTFTSignature[4]; UCHAR Filler[2]; REAL_DISK_PTE PartitionTable[NUM_PARTITION_TABLE_ENTRIES]; UCHAR AA55Signature[2]; } REAL_DISK_MBR, *PREAL_DISK_MBR; // // Define structure for an DUMMY on-disk master boot record. // typedef struct _ON_DISK_MBR { UCHAR BootCode[440]; UCHAR NTFTSignature[4]; UCHAR Filler[2]; ON_DISK_PTE PartitionTable[PTABLE_DIMENSION]; UCHAR AA55Signature[2]; } ON_DISK_MBR, *PON_DISK_MBR; typedef struct _MBR_INFO { struct _MBR_INFO *Next; ON_DISK_MBR OnDiskMbr; BOOLEAN Dirty[PTABLE_DIMENSION]; BOOLEAN ZapBootSector[PTABLE_DIMENSION]; USHORT OriginalOrdinals[PTABLE_DIMENSION]; USHORT OnDiskOrdinals[PTABLE_DIMENSION]; USHORT CurrentOrdinals[PTABLE_DIMENSION]; // // Fields that can be used locally for any purpose. // PVOID UserData[PTABLE_DIMENSION]; ULONGLONG OnDiskSector; } MBR_INFO, *PMBR_INFO; typedef enum { EPTNone = 0, EPTContainerPartition, EPTLogicalDrive } EXTENDED_PARTITION_TYPE; // // Define structure that is used to track partitions and // free (unpartitioned) spaces. // typedef struct _DISK_REGION { struct _DISK_REGION *Next; ULONG DiskNumber; ULONGLONG StartSector; ULONGLONG SectorCount; BOOLEAN PartitionedSpace; ULONG PartitionNumber; // // The following fields are used only if PartitionedSpace is TRUE. // PMBR_INFO MbrInfo; ULONG TablePosition; BOOLEAN IsSystemPartition; BOOLEAN IsLocalSource; FilesystemType Filesystem; WCHAR TypeName[128]; // XENIX, FAT, NTFS, etc. ULONGLONG FreeSpaceKB; // -1 if can't determine. ULONG BytesPerCluster; // Number of bytes per cluster // (-1 if can't determine). ULONGLONG AdjustedFreeSpaceKB; // -1 if can't determine. // if the region contains the Local Source // then this field should contain // FreeSpaceKB + LocalSourceSize WCHAR VolumeLabel[20]; // First few chars of volume label WCHAR DriveLetter; // Always uppercase; 0 if none. BOOLEAN FtPartition; BOOLEAN DynamicVolume; BOOLEAN DynamicVolumeSuitableForOS; EXTENDED_PARTITION_TYPE ExtendedType; struct _DISK_REGION *Container; BOOLEAN Dirty; BOOLEAN Delete; PARTITION_INFORMATION_EX PartInfo; BOOLEAN PartInfoDirty; BOOLEAN IsReserved; // // The following fields are used to identify double space drives // They are valid only if the file system type is FilesystemFat // or FilesystemDoubleSpace // // If the file system type is FilesystemFat and NextCompressed is not NULL, // then the structure describes the host drive for compressed drives. // In this case, the following fields are valid: // // NextCompressed .... Points to a linked list of compressed drives // HostDrive.......... Contains the drive letter for the drive represented // by this structure. Note that HostDrive will be // not necessarily be equal to DriveLetter // // If the file system type is FilesystemDoubleSpace, then the structure // describes a compressed drive. // In this case the following fields are valid: // // NextCompressed ..... Points to the next compressed drive in the // linked list // PreviousCompressed.. Points to the previous compressed drive in // the linked list // HostRegion ......... Points to the structure that describes the // host drive for the compressed drive represented // by this structure // MountDrive ......... Drive letter of the drive described by this // structure (should be the same as HostRegion->HostDrive) // HostDrive .......... Drive where the CVF file that represents the // this compressed drive is located. // SeqNumber .......... Sequence number of the CVF file that representd // this compressed drive. // struct _DISK_REGION *NextCompressed; struct _DISK_REGION *PreviousCompressed; struct _DISK_REGION *HostRegion; WCHAR MountDrive; WCHAR HostDrive; USHORT SeqNumber; } DISK_REGION, *PDISK_REGION; // // There will be one of these structures per disk. // typedef struct _PARTITIONED_DISK { PHARD_DISK HardDisk; // // // BOOLEAN MbrWasValid; // // We can just store the MBR here since there is only one of them. // MBR_INFO MbrInfo; // // EBRs are stored in a linked list since there are an arbitrary number // of them. The one contained within this structure is a dummy and is // always zeroed out. // MBR_INFO FirstEbrInfo; // // Lists of regions (partitions and free spaces) // on the disk and within the extended partition. // PDISK_REGION PrimaryDiskRegions; PDISK_REGION ExtendedDiskRegions; } PARTITIONED_DISK, *PPARTITIONED_DISK; extern PPARTITIONED_DISK PartitionedDisks; // // Disk region containing the local source directory // in the winnt.exe setup case. // // If WinntSetup is TRUE, then this should be non-null. // If it is not non-null, then we couldn't locate the local source. // extern PDISK_REGION LocalSourceRegion; // // GPT partition type strings // #define PARTITION_MSFT_RESERVED_STR L"Microsoft reserved partition" #define PARTITION_LDM_METADATA_STR L"LDM metadata partition" #define PARTITION_LDM_DATA_STR L"LDM data partition" #define PARTITION_BASIC_DATA_STR L"Basic data partition" #define PARTITION_SYSTEM_STR L"EFI system partition" #if defined(REMOTE_BOOT) // // For remote boot, we create a fake disk region for the net(0) device. // extern PDISK_REGION RemoteBootTargetRegion; #endif // defined(REMOTE_BOOT) NTSTATUS SpPtInitialize( VOID ); BOOLEAN SpPtDelete( IN ULONG DiskNumber, IN ULONGLONG StartSector ); BOOLEAN SpPtCreate( IN ULONG DiskNumber, IN ULONGLONG StartSector, IN ULONGLONG SizeMB, IN BOOLEAN InExtended, IN PPARTITION_INFORMATION_EX PartInfo, OUT PDISK_REGION *ActualDiskRegion OPTIONAL ); BOOLEAN SpPtExtend( IN PDISK_REGION Region, IN ULONGLONG SizeMB OPTIONAL ); VOID SpPtQueryMinMaxCreationSizeMB( IN ULONG DiskNumber, IN ULONGLONG StartSector, IN BOOLEAN ForExtended, IN BOOLEAN InExtended, OUT PULONGLONG MinSize, OUT PULONGLONG MaxSize, OUT PBOOLEAN ReservedRegion ); VOID SpPtGetSectorLayoutInformation( IN PDISK_REGION Region, OUT PULONGLONG HiddenSectors, OUT PULONGLONG VolumeSectorCount ); NTSTATUS SpPtPrepareDisks( IN PVOID SifHandle, OUT PDISK_REGION *InstallRegion, OUT PDISK_REGION *SystemPartitionRegion, IN PWSTR SetupSourceDevicePath, IN PWSTR DirectoryOnSetupSource, IN BOOLEAN RemoteBootRepartition ); PDISK_REGION SpPtAllocateDiskRegionStructure( IN ULONG DiskNumber, IN ULONGLONG StartSector, IN ULONGLONG SectorCount, IN BOOLEAN PartitionedSpace, IN PMBR_INFO MbrInfo, IN ULONG TablePosition ); ULONG SpPtGetOrdinal( IN PDISK_REGION Region, IN PartitionOrdinalType OrdinalType ); ULONGLONG SpPtSectorCountToMB( IN PHARD_DISK pHardDisk, IN ULONGLONG SectorCount ); typedef BOOL (*PSPENUMERATEDISKREGIONS)( IN PPARTITIONED_DISK Disk, IN PDISK_REGION Region, IN ULONG_PTR Context ); void SpEnumerateDiskRegions( IN PSPENUMERATEDISKREGIONS EnumRoutine, IN ULONG_PTR Context ); BOOLEAN SpPtRegionDescription( IN PPARTITIONED_DISK pDisk, IN PDISK_REGION pRegion, OUT PWCHAR Buffer, IN ULONG BufferSize ); PDISK_REGION SpPtLookupRegionByStart( IN PPARTITIONED_DISK pDisk, IN BOOLEAN ExtendedPartition, IN ULONGLONG StartSector ); ULONG SpPtAlignStart( IN PHARD_DISK pHardDisk, IN ULONGLONG StartSector, IN BOOLEAN ForExtended ); VOID SpPtInitializeCHSFields( IN PHARD_DISK HardDisk, IN ULONGLONG AbsoluteStartSector, IN ULONGLONG AbsoluteSectorCount, OUT PON_DISK_PTE pte ); VOID SpPtAssignOrdinals( IN PPARTITIONED_DISK pDisk, IN BOOLEAN InitCurrentOrdinals, IN BOOLEAN InitOnDiskOrdinals, IN BOOLEAN InitOriginalOrdinals ); ULONG SpGetMaxNtDirLen(VOID); VOID SpPtLocateSystemPartitions(VOID); VOID SpPtCountPrimaryPartitions( IN PPARTITIONED_DISK pDisk, OUT PULONG TotalPrimaryPartitionCount, OUT PULONG RecognizedPrimaryPartitionCount, OUT PBOOLEAN ExtendedExists); PDISK_REGION SpRegionFromNtName( IN PWSTR NtDeviceName, IN PartitionOrdinalType Type); VOID SppRepairWinntFiles( IN PVOID LogFileHandle, IN PVOID MasterSifHandle, IN PWSTR SourceDevicePath, IN PWSTR DirectoryOnSourceDevice, IN PWSTR SystemPartition, IN PWSTR SystemPartitionDirectory, IN PWSTR WinntPartition, IN PWSTR WinntPartitionDirectory); VOID SppRepairStartMenuGroupsAndItems( IN PWSTR WinntPartition, IN PWSTR WinntDirectory); VOID SppRepairHives( PVOID MasterSifHandle, PWSTR WinntPartition, PWSTR WinntPartitionDirectory, PWSTR SourceDevicePath, PWSTR DirectoryOnSourceDevice); NTSTATUS SpDoFormat( IN PWSTR RegionDescr, IN PDISK_REGION Region, IN ULONG FilesystemType, IN BOOLEAN IsFailureFatal, IN BOOLEAN CheckFatSize, IN BOOLEAN QuickFormat, IN PVOID SifHandle, IN DWORD ClusterSize, IN PWSTR SetupSourceDevicePath, IN PWSTR DirectoryOnSetupSource ); NTSTATUS SpPtPartitionDiskForRemoteBoot( IN ULONG DiskNumber, OUT PDISK_REGION *RemainingRegion ); VOID SpPtDeleteBootSetsForRegion( PDISK_REGION region ); VOID SpPtDeletePartitionsForRemoteBoot( PPARTITIONED_DISK pDisk, PDISK_REGION startRegion, PDISK_REGION endRegion, BOOLEAN Extended ); WCHAR SpGetDriveLetter( IN PWSTR DeviceName, OUT PMOUNTMGR_MOUNT_POINT * MountPoint OPTIONAL ); WCHAR SpDeleteDriveLetter( IN PWSTR DeviceName ); VOID SpPtDeleteDriveLetters( VOID ); BOOL SpPtIsSystemPartitionRecognizable( VOID ); VOID SpPtDetermineRegionSpace( IN PDISK_REGION pRegion ); VOID SpCreateNewGuid( IN GUID *Guid ); UCHAR SpPtGetPartitionType( IN PDISK_REGION Region ); BOOLEAN SpPtnIsRawDiskDriveLayout( IN PDRIVE_LAYOUT_INFORMATION_EX DriveLayout ); BOOLEAN SpPtnIsRegionSpecialMBRPartition( IN PDISK_REGION Region ); extern ULONG RandomSeed; extern BOOLEAN ValidArcSystemPartition; // // Only on IA64 by default the RAW disk is marked as GPT disk // #if defined(_IA64_) #define SPPT_DEFAULT_PARTITION_STYLE PARTITION_STYLE_GPT #define SPPT_DEFAULT_DISK_STYLE DISK_FORMAT_TYPE_GPT #else #define SPPT_DEFAULT_PARTITION_STYLE PARTITION_STYLE_MBR #define SPPT_DEFAULT_DISK_STYLE DISK_FORMAT_TYPE_PCAT #endif #define SPPT_MINIMUM_ESP_SIZE_MB 100 #define SPPT_MAXIMUM_ESP_SIZE_MB 1000 // // // Various Disk, Partition, Region related Macros // // NB. These are used, because it makes code more readable and // in future these macros can represent potential interface for // accessing the opaque in memory partition structure // // #define SPPT_GET_NEW_DISK_SIGNATURE() RtlRandom(&RandomSeed) #define SPPT_DISK_CYLINDER_COUNT(_DiskId) (HardDisks[(_DiskId)].CylinderCount) #define SPPT_DISK_TRACKS_PER_CYLINDER(_DiskId) (HardDisks[(_DiskId)].Geometry.TracksPerCylinder) #define SPPT_DISK_CYLINDER_SIZE(_DiskId) (HardDisks[(_DiskId)].SectorsPerCylinder) #define SPPT_DISK_TRACK_SIZE(_DiskId) (HardDisks[(_DiskId)].Geometry.SectorsPerTrack) #define SPPT_DISK_SECTOR_SIZE(_DiskId) (HardDisks[(_DiskId)].Geometry.BytesPerSector) #define SPPT_DISK_IS_REMOVABLE(_DiskId) (HardDisks[(_DiskId)].Characteristics & FILE_REMOVABLE_MEDIA) #define SPPT_REGION_SECTOR_SIZE(_Region) (SPPT_DISK_SECTOR_SIZE((_Region)->DiskNumber)) #define SPPT_DISK_SIZE(_DiskId) \ (SPPT_DISK_SECTOR_SIZE((_DiskId)) * \ HardDisks[(_DiskId)].DiskSizeSectors) #define SPPT_DISK_SIZE_KB(_DiskId) (SPPT_DISK_SIZE((_DiskId)) / 1024) #define SPPT_DISK_SIZE_MB(_DiskId) (SPPT_DISK_SIZE_KB((_DiskId)) / 1024) #define SPPT_DISK_SIZE_GB(_DiskId) (SPPT_DISK_SIZE_MB((_DiskId)) / 1024) #define SPPT_REGION_FREESPACE(_Region) \ ((_Region)->SectorCount * SPPT_REGION_SECTOR_SIZE((_Region))) #define SPPT_REGION_FREESPACE_KB(_Region) (SPPT_REGION_FREESPACE((_Region)) / 1024) #define SPPT_REGION_FREESPACE_MB(_Region) (SPPT_REGION_FREESPACE_KB((_Region)) / 1024) #define SPPT_REGION_FREESPACE_GB(_Region) (SPPT_REGION_FREESPACE_MB((_Region)) / 1024) #define SPPT_IS_REGION_PARTITIONED(_Region) \ ((_Region)->PartitionedSpace) #define SPPT_IS_REGION_FREESPACE(_Region) \ (((_Region)->PartitionedSpace == FALSE) && \ ((_Region)->ExtendedType == EPTNone)) #define SPPT_SET_REGION_PARTITIONED(_Region, _Type) \ ((_Region)->PartitionedSpace = (_Type)) #define SPPT_IS_REGION_DIRTY(_Region) ((_Region)->Dirty) #define SPPT_SET_REGION_DIRTY(_Region, _Type) ((_Region)->Dirty = (_Type)) #define SPPT_GET_PARTITION_TYPE(_Region) ((_Region)->PartInfo.Mbr.PartitionType) #define SPPT_SET_PARTITION_TYPE(_Region, _Type) \ ((_Region)->PartInfo.Mbr.PartitionType = (_Type)) #define SPPT_IS_VALID_PRIMARY_PARTITION_TYPE(_TypeId) \ (IsRecognizedPartition((_TypeId)) && !IsFTPartition((_TypeId))) #define SPPT_IS_REGION_SYSTEMPARTITION(_Region) \ (SPPT_IS_REGION_PARTITIONED(_Region) && ((_Region)->IsSystemPartition)) #define SPPT_GET_PRIMARY_DISK_REGION(_HardDisk) \ (PartitionedDisks[(_HardDisk)].PrimaryDiskRegions) #define SPPT_GET_EXTENDED_DISK_REGION(_HardDisk) \ (PartitionedDisks[(_HardDisk)].ExtendedDiskRegions) #define SPPT_GET_HARDDISK(_DiskNumber) (HardDisks + (_DiskNumber)) #define SPPT_GET_PARTITIONED_DISK(_DiskNumber) (PartitionedDisks + (_DiskNumber)) #define SPPT_IS_RAW_DISK(_DiskNumber) \ (HardDisks[(_DiskNumber)].FormatType == DISK_FORMAT_TYPE_RAW) #define SPPT_IS_GPT_DISK(_DiskNumber) \ (HardDisks[(_DiskNumber)].FormatType == DISK_FORMAT_TYPE_GPT) #define SPPT_GET_DISK_TYPE(_DiskNumber) (HardDisks[(_DiskNumber)].FormatType) #define SPPT_IS_MBR_DISK(_DiskNumber) \ (!SPPT_IS_GPT_DISK(_DiskNumber)) #define SPPT_IS_REMOVABLE_DISK(_DiskNumber) \ (SPPT_GET_HARDDISK(_DiskNumber)->Geometry.MediaType == RemovableMedia) #define SPPT_IS_REGION_EFI_SYSTEM_PARTITION(_Region) \ (SPPT_IS_GPT_DISK((_Region)->DiskNumber) && \ (RtlEqualMemory(&((_Region)->PartInfo.Gpt.PartitionType), \ &PARTITION_SYSTEM_GUID, \ sizeof(GUID)))) #define SPPT_IS_EFI_SYSTEM_PARTITION(_PartInfo) \ (((_PartInfo)->PartitionStyle == PARTITION_STYLE_GPT) && \ (RtlEqualMemory(&((_PartInfo)->Gpt.PartitionType), \ &PARTITION_SYSTEM_GUID, \ sizeof(GUID)))) #define SPPT_IS_REGION_RESERVED_PARTITION(_Region) \ (SPPT_IS_REGION_PARTITIONED(_Region) && ((_Region)->IsReserved)) #define SPPT_IS_REGION_MSFT_RESERVED(_Region) \ (SPPT_IS_GPT_DISK((_Region)->DiskNumber) && \ (RtlEqualMemory(&((_Region)->PartInfo.Gpt.PartitionType), \ &PARTITION_MSFT_RESERVED_GUID, \ sizeof(GUID)))) #define SPPT_IS_PARTITION_MSFT_RESERVED(_PartInfo) \ (((_PartInfo)->PartitionStyle == PARTITION_STYLE_GPT) && \ (RtlEqualMemory(&((_PartInfo)->Gpt.PartitionType), \ &PARTITION_MSFT_RESERVED_GUID, \ sizeof(GUID)))) #define SPPT_PARTITION_NEEDS_NUMBER(_PartInfo) \ ((((_PartInfo)->PartitionNumber == 0) && \ ((_PartInfo)->PartitionLength.QuadPart != 0)) && \ (((_PartInfo)->PartitionStyle == PARTITION_STYLE_GPT) ? \ (SPPT_IS_PARTITION_MSFT_RESERVED((_PartInfo))) : \ ((IsContainerPartition((_PartInfo)->Mbr.PartitionType) == FALSE)))) #define SPPT_IS_BLANK_DISK(_DiskId) (SPPT_GET_HARDDISK((_DiskId))->NewDisk) #define SPPT_SET_DISK_BLANK(_DiskId, _Blank) \ (SPPT_GET_HARDDISK((_DiskId))->NewDisk = (_Blank)) #define SPPT_IS_REGION_LOGICAL_DRIVE(_Region) \ (SPPT_IS_MBR_DISK((_Region)->DiskNumber) && \ ((_Region)->ExtendedType == EPTLogicalDrive)) #define SPPT_IS_REGION_CONTAINER_PARTITION(_Region) \ (SPPT_IS_MBR_DISK((_Region)->DiskNumber) && \ ((_Region)->ExtendedType == EPTContainerPartition) && \ IsContainerPartition((_Region)->PartInfo.Mbr.PartitionType)) #define SPPT_IS_REGION_FIRST_CONTAINER_PARTITION(_Region) \ (SPPT_IS_REGION_CONTAINER_PARTITION((_Region)) && \ ((_Region)->Container == NULL)) #define SPPT_IS_REGION_INSIDE_CONTAINER(_Region) ((_Region)->Container != NULL) #define SPPT_IS_REGION_INSIDE_FIRST_CONTAINER(_Region) \ (((_Region)->Container != NULL) && ((_Region)->Container->Container == NULL)) #define SPPT_IS_REGION_NEXT_TO_FIRST_CONTAINER(_Region) \ ((_Region)->Container && \ SPPT_IS_REGION_FIRST_CONTAINER_PARTITION((_Region)->Container) && \ ((_Region)->Container->Next == (_Region))) #define SPPT_IS_REGION_PRIMARY_PARTITION(_Region) \ (SPPT_IS_MBR_DISK((_Region)->DiskNumber) && \ SPPT_IS_REGION_PARTITIONED((_Region)) && \ ((_Region)->ExtendedType == EPTNone)) #define SPPT_SET_REGION_EPT(_Region, _Type) \ ((_Region)->ExtendedType = (_Type)) #define SPPT_IS_REGION_ACTIVE_PARTITION(_Region) \ (SPPT_IS_REGION_PRIMARY_PARTITION((_Region)) && \ ((_Region)->PartInfo.Mbr.BootIndicator)) #define SPPT_GET_REGION_LASTSECTOR(_Region) \ ((_Region)->StartSector + (_Region)->SectorCount) #define SPPT_IS_REGION_DYNAMIC_VOLUME(_Region) \ ((_Region)->DynamicVolume) #define SPPT_IS_REGION_LDM_METADATA(_Region) \ (PARTITION_STYLE_GPT == (_Region)->PartInfo.PartitionStyle && \ IsEqualGUID(&PARTITION_LDM_METADATA_GUID, &(_Region)->PartInfo.Gpt.PartitionType)) #define SPPT_IS_REGION_CONTAINED(_Container, _Contained) \ (((_Container)->StartSector <= (_Contained)->StartSector) && \ ((_Container)->SectorCount >= (_Contained)->SectorCount) && \ (SPPT_GET_REGION_LASTSECTOR((_Container)) > \ (_Contained)->StartSector)) #define SPPT_IS_REGION_MARKED_DELETE(_Region) ((_Region)->Delete) #define SPPT_SET_REGION_DELETED(_Region, _Type) ((_Region)->Delete = (_Type)) #define SPPT_IS_VALID_SYSPART_FILESYSTEM(_FileSys) \ (((_FileSys) == FilesystemFat) || \ ((_FileSys) == FilesystemFat32)) #define SPPT_IS_RECOGNIZED_FILESYSTEM(_FileSys) \ (((_FileSys) == FilesystemFat) || \ ((_FileSys) == FilesystemFat32) || \ ((_FileSys) == FilesystemNtfs)) #define SPPT_IS_REGION_FORMATTED(_Region) \ (SPPT_IS_REGION_PARTITIONED(_Region) && \ SPPT_IS_RECOGNIZED_FILESYSTEM((_Region)->Filesystem)) #define SPPT_IS_NT_UPGRADE() (IsNTUpgrade == UpgradeFull) #define SPPT_MARK_REGION_AS_SYSTEMPARTITION(_Region, _Value) \ (_Region)->IsSystemPartition = (_Value) #define SPPT_MARK_REGION_AS_ACTIVE(_Region, _Value) \ (_Region)->PartInfo.Mbr.BootIndicator = (_Value) #define SPPT_IS_REGION_RESERVED_GPT_PARTITION(_Region) \ (SPPT_IS_REGION_PARTITIONED(_Region) && \ SPPT_IS_GPT_DISK((_Region)->DiskNumber) && \ SPPT_IS_REGION_RESERVED_PARTITION(_Region)) __inline ULONGLONG SpPtnGetDiskMSRSizeMB( IN ULONG DiskId ) { return (SPPT_DISK_SIZE_GB(DiskId) >= 16) ? 128 : 32; } __inline BOOLEAN SpPtnIsValidMSRRegion( IN PDISK_REGION Region ) { return (Region && SPPT_IS_REGION_FREESPACE(Region) && (SpPtnGetDiskMSRSizeMB(Region->DiskNumber) <= SPPT_REGION_FREESPACE_MB(Region))); } __inline ULONGLONG SpPtnGetDiskESPSizeMB( IN ULONG DiskId ) { return (max(SPPT_MINIMUM_ESP_SIZE_MB, min(SPPT_MAXIMUM_ESP_SIZE_MB, SPPT_DISK_SIZE_MB(DiskId) / 100))); } __inline BOOLEAN SpPtnIsValidESPRegionSize( IN PDISK_REGION Region ) { BOOLEAN Result = FALSE; if (Region) { ULONGLONG EspSizeMB = SpPtnGetDiskESPSizeMB(Region->DiskNumber); ULONGLONG EspSizeSectors = (EspSizeMB * 1024 * 1024) / SPPT_DISK_SECTOR_SIZE(Region->DiskNumber); // // Align down required ESP size if possible // if (EspSizeSectors > SPPT_DISK_CYLINDER_SIZE(Region->DiskNumber)) { EspSizeSectors -= (EspSizeSectors % SPPT_DISK_CYLINDER_SIZE(Region->DiskNumber)); } // // Take into account that the partition may start on the second track of the disk // if(EspSizeSectors > SPPT_DISK_TRACK_SIZE(Region->DiskNumber)) { EspSizeSectors -= SPPT_DISK_TRACK_SIZE(Region->DiskNumber); } Result = (EspSizeSectors <= Region->SectorCount); } return Result; } __inline BOOLEAN SpPtnIsValidESPRegion( IN PDISK_REGION Region ) { return (Region && SPPT_IS_GPT_DISK(Region->DiskNumber) && SPPT_IS_REGION_FREESPACE(Region) && (Region == SPPT_GET_PRIMARY_DISK_REGION(Region->DiskNumber)) && SpPtnIsValidESPRegionSize(Region)); } __inline BOOLEAN SpPtnIsValidESPPartition( IN PDISK_REGION Region ) { return (Region && SPPT_IS_GPT_DISK(Region->DiskNumber) && SPPT_IS_REGION_PARTITIONED(Region) && (Region == SPPT_GET_PRIMARY_DISK_REGION(Region->DiskNumber)) && SpPtnIsValidESPRegionSize(Region)); } __inline VOID SpPtnSetRegionPartitionInfo( IN PDISK_REGION Region, IN PPARTITION_INFORMATION_EX PartInfo ) { if (Region && PartInfo) { if (SPPT_IS_MBR_DISK(Region->DiskNumber)) { Region->PartInfo.Mbr.PartitionType = PartInfo->Mbr.PartitionType; Region->PartInfo.Mbr.BootIndicator = PartInfo->Mbr.BootIndicator; Region->PartInfoDirty = TRUE; } else if (SPPT_IS_GPT_DISK(Region->DiskNumber)) { Region->PartInfo.Gpt = PartInfo->Gpt; Region->PartInfoDirty = TRUE; } } } __inline PWSTR SpPtnGetPartitionNameFromGUID( IN GUID *Guid, OUT PWSTR NameBuffer ) { PWSTR Name = NULL; if (Guid && NameBuffer) { PWSTR PartitionName = NULL; if (IsEqualGUID(Guid, &PARTITION_MSFT_RESERVED_GUID)) { PartitionName = PARTITION_MSFT_RESERVED_STR; } else if (IsEqualGUID(Guid, &PARTITION_LDM_METADATA_GUID)) { PartitionName = PARTITION_LDM_METADATA_STR; } else if (IsEqualGUID(Guid, &PARTITION_LDM_DATA_GUID)) { PartitionName = PARTITION_LDM_DATA_STR; } else if (IsEqualGUID(Guid, &PARTITION_BASIC_DATA_GUID)) { PartitionName = PARTITION_BASIC_DATA_STR; } else if (IsEqualGUID(Guid, &PARTITION_SYSTEM_GUID)) { PartitionName = PARTITION_SYSTEM_STR; } if (PartitionName) { PARTITION_INFORMATION_GPT GptPart; Name = NameBuffer; wcsncpy(NameBuffer, PartitionName, sizeof(GptPart.Name)/sizeof(WCHAR)); } else { *NameBuffer = UNICODE_NULL; } } return Name; } #endif // ndef _SPPARTIT_