This file contains thin wrappers around Windows-specific APIs, with these specific goals in mind:
//! This file contains thin wrappers around Windows-specific APIs, with these
//! specific goals in mind:
//! * Convert "errno"-style error codes into Zig errors.
//! * When null-terminated or WTF16LE byte buffers are required, provide APIs which accept
//! slices as well as APIs which accept null-terminated WTF16LE byte buffers.
const builtin = @import("builtin");
const native_arch = builtin.cpu.arch;
const std = @import("../std.zig");
const Io = std.Io;
const mem = std.mem;
const assert = std.debug.assert;
const math = std.math;
const maxInt = std.math.maxInt;
const UnexpectedError = std.posix.UnexpectedError;
pub const kernel32 = @import("windows/kernel32.zig");
pub const ntdll = @import("windows/ntdll.zig");
pub const ws2_32 = @import("windows/ws2_32.zig");
pub const crypt32 = @import("windows/crypt32.zig");
pub const nls = @import("windows/nls.zig");
pub const current_process: HANDLE = @ptrFromInt(@as(usize, @bitCast(@as(isize, -1))));
pub const PS = struct {
pub const ATTRIBUTE = extern struct {
Attribute: Type,
Size: SIZE_T,
u: extern union {
Value: ULONG_PTR,
ValuePtr: PVOID,
},
ReturnLength: ?*SIZE_T,
/// https://ntdoc.m417z.com/ps_attribute_num
/// Tag type is `u16` based on PS_ATTRIBUTE_NUMBER_MASK being 0xFFFF
pub const NUM = enum(u16) {
ParentProcess = 0,
DebugObject,
Token,
ClientId,
TebAddress,
ImageName,
ImageInfo,
MemoryReserve,
PriorityClass,
ErrorMode,
StdHandleInfo,
HandleList,
GroupAffinity,
PreferredNode,
IdealProcessor,
UmsThread,
MitigationOptions,
ProtectionLevel,
SecureProcess,
JobList,
ChildProcessPolicy,
AllApplicationPackagesPolicy,
Win32kFilter,
SafeOpenPromptOriginClaim,
BnoIsolation,
DesktopAppPolicy,
Chpe,
MitigationAuditOptions,
MachineType,
ComponentFilter,
EnableOptionalXStateFeatures,
SupportedMachines,
SveVectorLength,
};
/// https://ntdoc.m417z.com/psattributevalue
pub const Type = enum(ULONG_PTR) {
TEB_ADDRESS = construct(.TebAddress, true, false, false),
_,
pub fn construct(num: NUM, thread: bool, input: bool, additive: bool) ULONG_PTR {
var val: ULONG_PTR = @backingInt(num);
if (thread) val |= 0x10000;
if (input) val |= 0x20000;
if (additive) val |= 0x40000;
return val;
}
};
pub const LIST = extern struct {
TotalLength: SIZE_T,
Attributes: [1]ATTRIBUTE,
};
};
};
pub const OBJECT = struct {
// ref: um/winternl.h
pub const ATTRIBUTES = extern struct {
Length: ULONG = @sizeOf(ATTRIBUTES),
RootDirectory: ?HANDLE = null,
ObjectName: ?*UNICODE_STRING = @constCast(&UNICODE_STRING.empty),
Attributes: Flags = .{},
SecurityDescriptor: ?*anyopaque = null,
SecurityQualityOfService: ?*anyopaque = null,
// Valid values for the Attributes field
pub const Flags = packed struct(ULONG) {
Reserved0: u1 = 0,
INHERIT: bool = false,
Reserved2: u2 = 0,
PERMANENT: bool = false,
EXCLUSIVE: bool = false,
/// If name-lookup code should ignore the case of the ObjectName member rather than performing an exact-match search.
CASE_INSENSITIVE: bool = true,
OPENIF: bool = false,
OPENLINK: bool = false,
KERNEL_HANDLE: bool = false,
FORCE_ACCESS_CHECK: bool = false,
IGNORE_IMPERSONATED_DEVICEMAP: bool = false,
DONT_REPARSE: bool = false,
Reserved13: u19 = 0,
pub const VALID_ATTRIBUTES: ATTRIBUTES = .{
.INHERIT = true,
.PERMANENT = true,
.EXCLUSIVE = true,
.CASE_INSENSITIVE = true,
.OPENIF = true,
.OPENLINK = true,
.KERNEL_HANDLE = true,
.FORCE_ACCESS_CHECK = true,
.IGNORE_IMPERSONATED_DEVICEMAP = true,
.DONT_REPARSE = true,
};
};
};
pub const INFORMATION_CLASS = enum(c_int) {
Basic = 0,
Name = 1,
Type = 2,
Types = 3,
HandleFlag = 4,
Session = 5,
_,
pub const Max: @typeInfo(@This()).@"enum".tag_type = @typeInfo(@This()).@"enum".field_names.len;
};
pub const NAME_INFORMATION = extern struct {
Name: UNICODE_STRING,
};
};
pub const FILE = struct {
// ref: km/ntddk.h
pub const END_OF_FILE_INFORMATION = extern struct {
EndOfFile: LARGE_INTEGER,
};
pub const ALIGNMENT_INFORMATION = extern struct {
AlignmentRequirement: ULONG,
};
pub const NAME_INFORMATION = extern struct {
FileNameLength: ULONG,
FileName: [1]WCHAR,
};
pub const DISPOSITION = packed struct(ULONG) {
DELETE: bool = false,
POSIX_SEMANTICS: bool = false,
FORCE_IMAGE_SECTION_CHECK: bool = false,
ON_CLOSE: bool = false,
IGNORE_READONLY_ATTRIBUTE: bool = false,
Reserved5: u27 = 0,
pub const DO_NOT_DELETE: DISPOSITION = .{};
pub const INFORMATION = extern struct {
DeleteFile: BOOLEAN,
pub const EX = extern struct {
Flags: DISPOSITION,
};
};
};
pub const FS_VOLUME_INFORMATION = extern struct {
VolumeCreationTime: LARGE_INTEGER,
VolumeSerialNumber: ULONG,
VolumeLabelLength: ULONG,
SupportsObjects: BOOLEAN,
VolumeLabel: [0]WCHAR,
pub fn getVolumeLabel(fvi: *const FS_VOLUME_INFORMATION) []const WCHAR {
return (&fvi).ptr[0..@divExact(fvi.VolumeLabelLength, @sizeOf(WCHAR))];
}
};
// ref: km/ntifs.h
pub const NAME_FLAGS = packed struct(UCHAR) {
NTFS: bool = false,
DOS: bool = false,
Reserved2: u5 = 0,
UNSPECIFIED: bool = false,
};
pub const NOTIFY = struct {
pub const CHANGE = packed struct(ULONG) {
FILE_NAME: bool = false,
DIR_NAME: bool = false,
ATTRIBUTES: bool = false,
SIZE: bool = false,
LAST_WRITE: bool = false,
LAST_ACCESS: bool = false,
CREATION: bool = false,
EA: bool = false,
SECURITY: bool = false,
STREAM_NAME: bool = false,
STREAM_SIZE: bool = false,
STREAM_WRITE: bool = false,
Reserved12: u20 = 0,
};
pub const INFORMATION = extern struct {
NextEntryOffset: ULONG,
Action: ULONG,
FileNameLength: ULONG,
FileName: [0]WCHAR,
pub fn fileName(info: *INFORMATION) []WCHAR {
const ptr: [*]WCHAR = @ptrCast(&info.FileName);
return ptr[0..@divExact(info.FileNameLength, @sizeOf(WCHAR))];
}
};
pub const EXTENDED_INFORMATION = extern struct {
NextEntryOffset: ULONG,
Action: ULONG,
CreationTime: LARGE_INTEGER,
LastModificationTime: LARGE_INTEGER,
LastChangeTime: LARGE_INTEGER,
LastAccessTime: LARGE_INTEGER,
AllocatedLength: LARGE_INTEGER,
FileSize: LARGE_INTEGER,
FileAttributes: ATTRIBUTE,
u: extern union {
ReparsePointTag: ULONG,
EaSize: ULONG,
},
FileId: LARGE_INTEGER,
ParentFileId: LARGE_INTEGER,
FileNameLength: ULONG,
FileName: [0]WCHAR,
pub fn fileName(info: *INFORMATION) []WCHAR {
const ptr: [*]WCHAR = @ptrCast(&info.FileName);
return ptr[0..@divExact(info.FileNameLength, @sizeOf(WCHAR))];
}
};
pub const FULL_INFORMATION = extern struct {
NextEntryOffset: ULONG,
Action: ULONG,
CreationTime: LARGE_INTEGER,
LastModificationTime: LARGE_INTEGER,
LastChangeTime: LARGE_INTEGER,
LastAccessTime: LARGE_INTEGER,
AllocatedLength: LARGE_INTEGER,
FileSize: LARGE_INTEGER,
FileAttributes: ATTRIBUTE,
u: extern union {
ReparsePointTag: ULONG,
EaSize: ULONG,
},
FileId: LARGE_INTEGER,
ParentFileId: LARGE_INTEGER,
FileNameLength: ULONG,
FileNameFlags: NAME_FLAGS,
FileName: [0]WCHAR,
pub fn fileName(info: *INFORMATION) []WCHAR {
const ptr: [*]WCHAR = @ptrCast(&info.FileName);
return ptr[0..@divExact(info.FileNameLength, @sizeOf(WCHAR))];
}
};
};
pub const PIPE = struct {
/// Define the `NamedPipeType` flags for `NtCreateNamedPipeFile`
pub const TYPE = packed struct(ULONG) {
TYPE: enum(u1) {
BYTE_STREAM = 0b0,
MESSAGE = 0b1,
} = .BYTE_STREAM,
REMOTE_CLIENTS: enum(u1) {
ACCEPT = 0b0,
REJECT = 0b1,
} = .ACCEPT,
Reserved2: u30 = 0,
pub const VALID_MASK: TYPE = .{
.TYPE = .MESSAGE,
.REMOTE_CLIENTS = .REJECT,
};
};
/// Define the `CompletionMode` flags for `NtCreateNamedPipeFile`
pub const COMPLETION_MODE = packed struct(ULONG) {
OPERATION: enum(u1) {
QUEUE = 0b0,
COMPLETE = 0b1,
} = .QUEUE,
Reserved1: u31 = 0,
};
/// Define the `ReadMode` flags for `NtCreateNamedPipeFile`
pub const READ_MODE = packed struct(ULONG) {
MODE: enum(u1) {
BYTE_STREAM = 0b0,
MESSAGE = 0b1,
},
Reserved1: u31 = 0,
};
/// Define the `NamedPipeConfiguration` flags for `NtQueryInformationFile`
pub const CONFIGURATION = enum(ULONG) {
INBOUND = 0x00000000,
OUTBOUND = 0x00000001,
FULL_DUPLEX = 0x00000002,
};
/// Define the `NamedPipeState` flags for `NtQueryInformationFile`
pub const STATE = enum(ULONG) {
DISCONNECTED = 0x00000001,
LISTENING = 0x00000002,
CONNECTED = 0x00000003,
CLOSING = 0x00000004,
};
/// Define the `NamedPipeEnd` flags for `NtQueryInformationFile`
pub const END = enum(ULONG) {
CLIENT = 0x00000000,
SERVER = 0x00000001,
};
pub const INFORMATION = extern struct {
ReadMode: READ_MODE,
CompletionMode: COMPLETION_MODE,
};
pub const LOCAL_INFORMATION = extern struct {
NamedPipeType: TYPE,
NamedPipeConfiguration: CONFIGURATION,
MaximumInstances: ULONG,
CurrentInstances: ULONG,
InboundQuota: ULONG,
ReadDataAvailable: ULONG,
OutboundQuota: ULONG,
WriteQuotaAvailable: ULONG,
NamedPipeState: STATE,
NamedPipeEnd: END,
};
pub const REMOTE_INFORMATION = extern struct {
CollectDataTime: LARGE_INTEGER,
MaximumCollectionCount: ULONG,
};
pub const WAIT_FOR_BUFFER = extern struct {
Timeout: LARGE_INTEGER,
NameLength: ULONG,
TimeoutSpecified: BOOLEAN,
Name: [PATH_MAX_WIDE]WCHAR,
pub const WAIT_FOREVER: LARGE_INTEGER = std.math.minInt(LARGE_INTEGER);
pub fn init(opts: struct {
Timeout: ?LARGE_INTEGER = null,
Name: []const WCHAR,
}) WAIT_FOR_BUFFER {
var fpwfb: WAIT_FOR_BUFFER = .{
.Timeout = opts.Timeout orelse undefined,
.NameLength = @intCast(@sizeOf(WCHAR) * opts.Name.len),
.TimeoutSpecified = @intFromBool(opts.Timeout != null),
.Name = undefined,
};
@memcpy(fpwfb.Name[0..opts.Name.len], opts.Name);
return fpwfb;
}
pub fn getName(fpwfb: *const WAIT_FOR_BUFFER) []const WCHAR {
return fpwfb.Name[0..@divExact(fpwfb.NameLength, @sizeOf(WCHAR))];
}
pub fn toBuffer(fpwfb: *const WAIT_FOR_BUFFER) []const u8 {
const start: [*]const u8 = @ptrCast(fpwfb);
return start[0 .. @offsetOf(WAIT_FOR_BUFFER, "Name") + fpwfb.NameLength];
}
};
};
pub const ALL_INFORMATION = extern struct {
BasicInformation: BASIC_INFORMATION,
StandardInformation: STANDARD_INFORMATION,
InternalInformation: INTERNAL_INFORMATION,
EaInformation: EA_INFORMATION,
AccessInformation: ACCESS_INFORMATION,
PositionInformation: POSITION_INFORMATION,
ModeInformation: MODE.INFORMATION,
AlignmentInformation: ALIGNMENT_INFORMATION,
NameInformation: NAME_INFORMATION,
};
pub const INTERNAL_INFORMATION = extern struct {
IndexNumber: LARGE_INTEGER,
};
pub const EA_INFORMATION = extern struct {
EaSize: ULONG,
};
pub const ACCESS_INFORMATION = extern struct {
AccessFlags: ACCESS_MASK,
};
/// This is not separated into RENAME_INFORMATION and RENAME_INFORMATION_EX because
/// the only difference is the `Flags` type (BOOLEAN before _EX, ULONG in the _EX),
/// which doesn't affect the struct layout--the offset of RootDirectory is the same
/// regardless.
pub const RENAME_INFORMATION = extern struct {
Flags: FLAGS,
RootDirectory: ?HANDLE,
FileNameLength: ULONG,
FileName: [PATH_MAX_WIDE]WCHAR,
pub fn init(opts: struct {
Flags: FLAGS = .{},
RootDirectory: ?HANDLE = null,
FileName: []const WCHAR,
}) RENAME_INFORMATION {
var fri: RENAME_INFORMATION = .{
.Flags = opts.Flags,
.RootDirectory = opts.RootDirectory,
.FileNameLength = @intCast(@sizeOf(WCHAR) * opts.FileName.len),
.FileName = undefined,
};
@memcpy(fri.FileName[0..opts.FileName.len], opts.FileName);
return fri;
}
pub const FLAGS = packed struct(ULONG) {
REPLACE_IF_EXISTS: bool = false,
POSIX_SEMANTICS: bool = false,
SUPPRESS_PIN_STATE_INHERITANCE: bool = false,
SUPPRESS_STORAGE_RESERVE_INHERITANCE: bool = false,
AVAILABLE_SPACE: enum(u2) {
NO_PRESERVE = 0b00,
NO_INCREASE = 0b01,
NO_DECREASE = 0b10,
PRESERVE = 0b11,
} = .NO_PRESERVE,
IGNORE_READONLY_ATTRIBUTE: bool = false,
RESIZE_SR: enum(u2) {
NO_FORCE = 0b00,
FORCE_TARGET = 0b01,
FORCE_SOURCE = 0b10,
FORCE = 0b11,
} = .NO_FORCE,
Reserved9: u23 = 0,
};
pub fn getFileName(ri: *const RENAME_INFORMATION) []const WCHAR {
return ri.FileName[0..@divExact(ri.FileNameLength, @sizeOf(WCHAR))];
}
pub fn toBuffer(fri: *RENAME_INFORMATION) []u8 {
const start: [*]u8 = @ptrCast(fri);
// The ABI size of the documented struct is 24 bytes, and attempting to use any size
// less than that will trigger INFO_LENGTH_MISMATCH, so enforce a minimum in cases where,
// for example, FileNameLength is 1 so only 22 bytes are technically needed.
const size = @max(24, @offsetOf(RENAME_INFORMATION, "FileName") + fri.FileNameLength);
return start[0..size];
}
};
// ref: km/wdm.h
pub const INFORMATION_CLASS = enum(c_int) {
Directory = 1,
FullDirectory = 2,
BothDirectory = 3,
Basic = 4,
Standard = 5,
Internal = 6,
Ea = 7,
Access = 8,
Name = 9,
Rename = 10,
Link = 11,
Names = 12,
Disposition = 13,
Position = 14,
FullEa = 15,
Mode = 16,
Alignment = 17,
All = 18,
Allocation = 19,
EndOfFile = 20,
AlternateName = 21,
Stream = 22,
Pipe = 23,
PipeLocal = 24,
PipeRemote = 25,
MailslotQuery = 26,
MailslotSet = 27,
Compression = 28,
ObjectId = 29,
Completion = 30,
MoveCluster = 31,
Quota = 32,
ReparsePoint = 33,
NetworkOpen = 34,
AttributeTag = 35,
Tracking = 36,
IdBothDirectory = 37,
IdFullDirectory = 38,
ValidDataLength = 39,
ShortName = 40,
IoCompletionNotification = 41,
IoStatusBlockRange = 42,
IoPriorityHint = 43,
SfioReserve = 44,
SfioVolume = 45,
HardLink = 46,
ProcessIdsUsingFile = 47,
NormalizedName = 48,
NetworkPhysicalName = 49,
IdGlobalTxDirectory = 50,
IsRemoteDevice = 51,
Unused = 52,
NumaNode = 53,
StandardLink = 54,
RemoteProtocol = 55,
RenameBypassAccessCheck = 56,
LinkBypassAccessCheck = 57,
VolumeName = 58,
Id = 59,
IdExtdDirectory = 60,
ReplaceCompletion = 61,
HardLinkFullId = 62,
IdExtdBothDirectory = 63,
DispositionEx = 64,
RenameEx = 65,
RenameExBypassAccessCheck = 66,
DesiredStorageClass = 67,
Stat = 68,
MemoryPartition = 69,
StatLx = 70,
CaseSensitive = 71,
LinkEx = 72,
LinkExBypassAccessCheck = 73,
StorageReserveId = 74,
CaseSensitiveForceAccessCheck = 75,
KnownFolder = 76,
StatBasic = 77,
Id64ExtdDirectory = 78,
Id64ExtdBothDirectory = 79,
IdAllExtdDirectory = 80,
IdAllExtdBothDirectory = 81,
StreamReservation = 82,
MupProvider = 83,
_,
pub const Maximum: @typeInfo(@This()).@"enum".tag_type = 1 + @typeInfo(@This()).@"enum".field_names.len;
};
pub const BASIC_INFORMATION = extern struct {
CreationTime: LARGE_INTEGER,
LastAccessTime: LARGE_INTEGER,
LastWriteTime: LARGE_INTEGER,
ChangeTime: LARGE_INTEGER,
FileAttributes: ATTRIBUTE,
};
pub const STANDARD_INFORMATION = extern struct {
AllocationSize: LARGE_INTEGER,
EndOfFile: LARGE_INTEGER,
NumberOfLinks: ULONG,
DeletePending: BOOLEAN,
Directory: BOOLEAN,
};
pub const POSITION_INFORMATION = extern struct {
CurrentByteOffset: LARGE_INTEGER,
};
pub const FULL_EA_INFORMATION = extern struct {
NextEntryOffset: ULONG,
Flags: UCHAR,
EaNameLength: UCHAR,
EaValueLength: USHORT,
EaName: [0]CHAR,
};
pub const FS_DEVICE_INFORMATION = extern struct {
DeviceType: DEVICE_TYPE,
Characteristics: ULONG,
};
pub const USE_FILE_POINTER_POSITION = -2;
// ref: um/WinBase.h
pub const ATTRIBUTE_TAG_INFO = extern struct {
FileAttributes: DWORD,
ReparseTag: IO_REPARSE_TAG,
};
// ref: um/winnt.h
pub const SHARE = packed struct(ULONG) {
/// The file can be opened for read access by other threads.
READ: bool = false,
/// The file can be opened for write access by other threads.
WRITE: bool = false,
/// The file can be opened for delete access by other threads.
DELETE: bool = false,
Reserved3: u29 = 0,
pub const VALID_FLAGS: SHARE = .{
.READ = true,
.WRITE = true,
.DELETE = true,
};
};
pub const ATTRIBUTE = packed struct(ULONG) {
/// The file is read only. Applications can read the file, but cannot write to or delete it.
READONLY: bool = false,
/// The file is hidden. Do not include it in an ordinary directory listing.
HIDDEN: bool = false,
/// The file is part of or used exclusively by an operating system.
SYSTEM: bool = false,
Reserved3: u1 = 0,
DIRECTORY: bool = false,
/// The file should be archived. Applications use this attribute to mark files for backup or removal.
ARCHIVE: bool = false,
DEVICE: bool = false,
/// The file does not have other attributes set. This attribute is valid only if used alone.
NORMAL: bool = false,
/// The file is being used for temporary storage.
TEMPORARY: bool = false,
SPARSE_FILE: bool = false,
REPARSE_POINT: bool = false,
COMPRESSED: bool = false,
/// The data of a file is not immediately available. This attribute indicates that file data is physically moved to offline storage.
/// This attribute is used by Remote Storage, the hierarchical storage management software. Applications should not arbitrarily change this attribute.
OFFLINE: bool = false,
NOT_CONTENT_INDEXED: bool = false,
/// The file or directory is encrypted. For a file, this means that all data in the file is encrypted. For a directory, this means that encryption is
/// the default for newly created files and subdirectories. For more information, see File Encryption.
///
/// This flag has no effect if `SYSTEM` is also specified.
///
/// This flag is not supported on Home, Home Premium, Starter, or ARM editions of Windows.
ENCRYPTED: bool = false,
INTEGRITY_STREAM: bool = false,
VIRTUAL: bool = false,
NO_SCRUB_DATA: bool = false,
EA_or_RECALL_ON_OPEN: bool = false,
PINNED: bool = false,
UNPINNED: bool = false,
Reserved21: u1 = 0,
RECALL_ON_DATA_ACCESS: bool = false,
Reserved23: u6 = 0,
STRICTLY_SEQUENTIAL: bool = false,
Reserved30: u2 = 0,
};
// ref: um/winternl.h
/// Define the create disposition values
pub const CREATE_DISPOSITION = enum(ULONG) {
/// If the file already exists, replace it with the given file. If it does not, create the given file.
SUPERSEDE = 0x00000000,
/// If the file already exists, open it instead of creating a new file.
/// If it does not, fail the request and do not create a new file.
OPEN = 0x00000001,
/// If the file already exists, fail the request and do not create or
/// open the given file. If it does not, create the given file.
CREATE = 0x00000002,
/// If the file already exists, open it. If it does not, create the given file.
OPEN_IF = 0x00000003,
/// If the file already exists, open it and overwrite it. If it does not, fail the request.
OVERWRITE = 0x00000004,
/// If the file already exists, open it and overwrite it. If it does not, create the given file.
OVERWRITE_IF = 0x00000005,
pub const MAXIMUM_DISPOSITION: CREATE_DISPOSITION = .OVERWRITE_IF;
};
/// Define the create/open option flags
pub const MODE = packed struct(ULONG) {
/// The file being created or opened is a directory file. With this
/// flag, the CreateDisposition parameter must be set to `.CREATE`,
/// `.FILE_OPEN`, or `.OPEN_IF`. With this flag, other compatible
/// CreateOptions flags include only the following: `SYNCHRONOUS_IO`,
/// `WRITE_THROUGH`, `OPEN_FOR_BACKUP_INTENT`, and `OPEN_BY_FILE_ID`.
DIRECTORY_FILE: bool = false,
/// Applications that write data to the file must actually transfer the
/// data into the file before any requested write operation is
/// considered complete. This flag is automatically set if the
/// CreateOptions flag `NO_INTERMEDIATE_BUFFERING` is set.
WRITE_THROUGH: bool = false,
/// All accesses to the file are sequential.
SEQUENTIAL_ONLY: bool = false,
/// The file cannot be cached or buffered in a driver's internal
/// buffers. This flag is incompatible with the DesiredAccess
/// `FILE_APPEND_DATA` flag.
NO_INTERMEDIATE_BUFFERING: bool = false,
IO: enum(u2) {
/// All operations on the file are performed asynchronously.
ASYNCHRONOUS = 0b00,
/// All operations on the file are performed synchronously. Any
/// wait on behalf of the caller is subject to premature
/// termination from alerts. This flag also causes the I/O system
/// to maintain the file position context. If this flag is set, the
/// DesiredAccess `SYNCHRONIZE` flag also must be set.
SYNCHRONOUS_ALERT = 0b01,
/// All operations on the file are performed synchronously. Waits
/// in the system to synchronize I/O queuing and completion are not
/// subject to alerts. This flag also causes the I/O system to
/// maintain the file position context. If this flag is set, the
/// DesiredAccess `SYNCHRONIZE` flag also must be set.
SYNCHRONOUS_NONALERT = 0b10,
_,
pub const VALID_FLAGS: @This() = @fromBackingInt(@intCast(0b11));
},
/// The file being opened must not be a directory file or this call
/// fails. The file object being opened can represent a data file, a
/// logical, virtual, or physical device, or a volume.
NON_DIRECTORY_FILE: bool = false,
/// Create a tree connection for this file in order to open it over the
/// network. This flag is not used by device and intermediate drivers.
CREATE_TREE_CONNECTION: bool = false,
/// Complete this operation immediately with an alternate success code
/// of `STATUS_OPLOCK_BREAK_IN_PROGRESS` if the target file is
/// oplocked, rather than blocking the caller's thread. If the file is
/// oplocked, another caller already has access to the file. This flag
/// is not used by device and intermediate drivers.
COMPLETE_IF_OPLOCKED: bool = false,
/// If the extended attributes on an existing file being opened
/// indicate that the caller must understand EAs to properly interpret
/// the file, fail this request because the caller does not understand
/// how to deal with EAs. This flag is irrelevant for device and
/// intermediate drivers.
NO_EA_KNOWLEDGE: bool = false,
OPEN_REMOTE_INSTANCE: bool = false,
/// Accesses to the file can be random, so no sequential read-ahead
/// operations should be performed on the file by FSDs or the system.
RANDOM_ACCESS: bool = false,
/// Delete the file when the last handle to it is passed to `NtClose`.
/// If this flag is set, the `DELETE` flag must be set in the
/// DesiredAccess parameter.
DELETE_ON_CLOSE: bool = false,
/// The file name that is specified by the `ObjectAttributes` parameter
/// includes the 8-byte file reference number for the file. This number
/// is assigned by and specific to the particular file system. If the
/// file is a reparse point, the file name will also include the name
/// of a device. Note that the FAT file system does not support this
/// flag. This flag is not used by device and intermediate drivers.
OPEN_BY_FILE_ID: bool = false,
/// The file is being opened for backup intent. Therefore, the system
/// should check for certain access rights and grant the caller the
/// appropriate access to the file before checking the DesiredAccess
/// parameter against the file's security descriptor. This flag not
/// used by device and intermediate drivers.
OPEN_FOR_BACKUP_INTENT: bool = false,
/// Suppress inheritance of `FILE_ATTRIBUTE.COMPRESSED` from the parent
/// directory. This allows creation of a non-compressed file in a
/// directory that is marked compressed.
NO_COMPRESSION: bool = false,
/// The file is being opened and an opportunistic lock on the file is
/// being requested as a single atomic operation. The file system
/// checks for oplocks before it performs the create operation and will
/// fail the create with a return code of STATUS_CANNOT_BREAK_OPLOCK if
/// the result would be to break an existing oplock. For more
/// information, see the Remarks section.
///
/// Windows Server 2008, Windows Vista, Windows Server 2003 and Windows
/// XP: This flag is not supported.
///
/// This flag is supported on the following file systems: NTFS, FAT,
/// and exFAT.
OPEN_REQUIRING_OPLOCK: bool = false,
Reserved17: u3 = 0,
/// This flag allows an application to request a filter opportunistic
/// lock to prevent other applications from getting share violations.
/// If there are already open handles, the create request will fail
/// with STATUS_OPLOCK_NOT_GRANTED. For more information, see the
/// Remarks section.
RESERVE_OPFILTER: bool = false,
/// Open a file with a reparse point and bypass normal reparse point
/// processing for the file. For more information, see the Remarks
/// section.
OPEN_REPARSE_POINT: bool = false,
/// Instructs any filters that perform offline storage or
/// virtualization to not recall the contents of the file as a result
/// of this open.
OPEN_NO_RECALL: bool = false,
/// This flag instructs the file system to capture the user associated
/// with the calling thread. Any subsequent calls to
/// `FltQueryVolumeInformation` or `ZwQueryVolumeInformationFile` using
/// the returned handle will assume the captured user, rather than the
/// calling user at the time, for purposes of computing the free space
/// available to the caller. This applies to the following
/// FsInformationClass values: `FileFsSizeInformation`,
/// `FileFsFullSizeInformation`, and `FileFsFullSizeInformationEx`.
OPEN_FOR_FREE_SPACE_QUERY: bool = false,
Reserved24: u8 = 0,
pub const VALID_OPTION_FLAGS: MODE = .{
.DIRECTORY_FILE = true,
.WRITE_THROUGH = true,
.SEQUENTIAL_ONLY = true,
.NO_INTERMEDIATE_BUFFERING = true,
.IO = .VALID_FLAGS,
.NON_DIRECTORY_FILE = true,
.CREATE_TREE_CONNECTION = true,
.COMPLETE_IF_OPLOCKED = true,
.NO_EA_KNOWLEDGE = true,
.OPEN_REMOTE_INSTANCE = true,
.RANDOM_ACCESS = true,
.DELETE_ON_CLOSE = true,
.OPEN_BY_FILE_ID = true,
.OPEN_FOR_BACKUP_INTENT = true,
.NO_COMPRESSION = true,
.OPEN_REQUIRING_OPLOCK = true,
.Reserved17 = 0b111,
.RESERVE_OPFILTER = true,
.OPEN_REPARSE_POINT = true,
.OPEN_NO_RECALL = true,
.OPEN_FOR_FREE_SPACE_QUERY = true,
};
pub const VALID_PIPE_OPTION_FLAGS: MODE = .{
.WRITE_THROUGH = true,
.IO = .VALID_FLAGS,
};
pub const VALID_MAILSLOT_OPTION_FLAGS: MODE = .{
.WRITE_THROUGH = true,
.IO = .VALID_FLAGS,
};
pub const VALID_SET_OPTION_FLAGS: MODE = .{
.WRITE_THROUGH = true,
.SEQUENTIAL_ONLY = true,
.IO = .VALID_FLAGS,
};
// ref: km/ntifs.h
pub const INFORMATION = extern struct {
/// The set of flags that specify the mode in which the file can be
/// accessed. These flags are a subset of `MODE`.
Mode: MODE,
};
};
};
pub const DIRECTORY = struct {
pub const NOTIFY_INFORMATION_CLASS = enum(c_int) {
Notify = 1,
NotifyExtended = 2,
NotifyFull = 3,
_,
pub const Maximum: @typeInfo(@This()).@"enum".tag_type = 1 + @typeInfo(@This()).@"enum".field_names.len;
};
};
pub const CONSOLE = struct {
pub const USER_IO = struct {
pub const INFO = struct {
pub const CP = extern struct {
/// GetCP: output
/// SetCP: input
CodePage: UINT,
/// input
Mode: MODE,
pub const MODE = enum(BOOLEAN.Backing) {
Input,
Output,
};
};
pub const WRITE = extern struct {
/// output, in bytes
Size: DWORD,
/// input
Mode: MODE,
pub const MODE = enum(BOOLEAN.Backing) {
Character,
WideCharacter,
};
};
pub const FILL = extern struct {
/// input
dwWriteCoord: COORD,
/// input
Tag: WITH.Tag,
/// input
With: WITH.Payload,
/// input/output, in characters
nLength: DWORD,
pub const WITH = union(enum(DWORD)) {
Character: CHAR = 1,
WideCharacter: WCHAR = 2,
Attribute: WORD = 3,
pub const Tag = @typeInfo(WITH).@"union".tag_type.?;
pub const Payload = PAYLOAD: {
const with_info = @typeInfo(WITH).@"union";
break :PAYLOAD @Union(.@"extern", null, with_info.field_names, with_info.field_types[0..], &@splat(.{}));
};
};
};
/// all output
pub const SCREEN_BUFFER = extern struct {
dwSize: COORD,
dwCursorPosition: COORD,
dwWindowPosition: COORD,
wAttributes: WORD,
dwWindowSize: COORD,
dwMaximumWindowSize: COORD,
wPopupAttributes: WORD,
bFullscreenSupported: BOOL,
ColorTable: [16]COLORREF,
};
pub const READ_OUTPUT_CHARACTER = extern struct {
/// input
dwReadCoord: COORD,
Mode: MODE,
/// output, in characters
nLength: DWORD,
pub const MODE = enum(DWORD) {
Character = 1,
WideCharacter = 2,
};
};
};
pub fn GET_CP(mode: INFO.CP.MODE) Header.With(INFO.CP) {
return .init(.GetCP, .{ .CodePage = undefined, .Mode = mode });
}
pub const GET_MODE: Header.With(DWORD) = .init(.GetMode, undefined);
pub fn SET_MODE(mode: DWORD) Header.With(DWORD) {
return .init(.SetMode, mode);
}
pub fn WRITE(mode: INFO.WRITE.MODE) Header.With(INFO.WRITE) {
return .init(.Write, .{ .Size = undefined, .Mode = mode });
}
pub fn FILL(with: INFO.FILL.WITH, len: DWORD, coord: COORD) Header.With(INFO.FILL) {
return .init(.Fill, .{
.dwWriteCoord = coord,
.Tag = with,
.With = switch (with) {
inline else => |payload, tag| @unionInit(
INFO.FILL.WITH.Payload,
@tagName(tag),
payload,
),
},
.nLength = len,
});
}
pub fn SET_CP(mode: INFO.CP.MODE, cp: UINT) Header.With(INFO.CP) {
return .init(.SetCP, .{ .CodePage = cp, .Mode = mode });
}
pub const GET_SCREEN_BUFFER_INFO: Header.With(INFO.SCREEN_BUFFER) =
.init(.GetScreenBufferInfo, undefined);
pub fn SET_CURSOR_POSITION(coord: COORD) Header.With(COORD) {
return .init(.SetCursorPosition, coord);
}
pub fn SET_TEXT_ATTRIBUTE(attribute: WORD) Header.With(WORD) {
return .init(.SetTextAttribute, attribute);
}
pub fn READ_OUTPUT_CHARACTER(
coord: COORD,
mode: INFO.READ_OUTPUT_CHARACTER.MODE,
) Header.With(INFO.READ_OUTPUT_CHARACTER) {
return .init(.ReadOutputCharacter, .{
.dwReadCoord = coord,
.Mode = mode,
.nLength = undefined,
});
}
pub const InputBuffer = extern struct {
Size: u32,
Pointer: *const anyopaque,
};
pub const OutputBuffer = extern struct {
Size: u32,
Pointer: *anyopaque,
};
pub fn Request(comptime in_len: u32, comptime out_len: u32) type {
return extern struct {
Handle: ?HANDLE,
InputBuffersLength: u32,
OutputBuffersLength: u32,
InputBuffers: [in_len]InputBuffer,
OutputBuffers: [out_len]OutputBuffer,
pub fn init(
handle: ?HANDLE,
in: [in_len]InputBuffer,
out: [out_len]OutputBuffer,
) @This() {
return .{
.Handle = handle,
.InputBuffersLength = in_len,
.OutputBuffersLength = out_len,
.InputBuffers = in,
.OutputBuffers = out,
};
}
};
}
pub const Header = extern struct {
Operation: Operation,
Size: u32,
pub fn With(comptime Data: type) type {
return extern struct {
Header: Header,
Data: Data,
pub fn init(operation: Operation, data: Data) @This() {
return .{
.Header = .{ .Operation = operation, .Size = @sizeOf(Data) },
.Data = data,
};
}
pub fn request(
with: *@This(),
file: ?Io.File,
comptime in_len: u32,
in: [in_len]InputBuffer,
comptime out_len: u32,
out: [out_len]OutputBuffer,
) Request(1 + in_len, 1 + out_len) {
return .init(
if (file) |f| f.handle else null,
[1]InputBuffer{.{
.Size = @offsetOf(@This(), "Data") + @sizeOf(Data),
.Pointer = with,
}} ++ in,
[1]OutputBuffer{.{ .Size = @sizeOf(Data), .Pointer = &with.Data }} ++ out,
);
}
pub fn operate(with: *@This(), io: Io, file: ?Io.File) Io.Cancelable!NTSTATUS {
return (try io.operate(.{ .device_io_control = .{
.file = .{
.handle = peb().ProcessParameters.ConsoleHandle,
.flags = .{ .nonblocking = false },
},
.code = IOCTL.CONDRV.ISSUE_USER_IO,
.in = @ptrCast(&with.request(file, 0, .{}, 0, .{})),
} })).device_io_control.u.Status;
}
};
}
};
pub const Operation = enum(u32) {
GetCP = 0x1000000,
GetMode = 0x1000001,
SetMode = 0x1000002,
Read = 0x1000005,
Write = 0x1000006,
Fill = 0x2000000,
SetCP = 0x2000004,
GetScreenBufferInfo = 0x2000007,
SetCursorPosition = 0x200000a,
SetTextAttribute = 0x200000d,
ReadOutputCharacter = 0x200000f,
_,
};
};
};
pub const AFD = packed struct(ULONG) {
NO_FAST_IO: bool = false,
OVERLAPPED: bool = false,
Reserved0: u30 = 0,
pub const Mutability = enum { @"const", @"var" };
pub fn WSABUF(comptime mutability: Mutability) type {
return extern struct {
len: ULONG,
buf: switch (mutability) {
.@"const" => [*]const u8,
.@"var" => [*]u8,
},
};
}
pub const GUARANTEE = enum(c_int) {
BestEffort,
ControlledLoad,
Predictive,
GuaranteedDelay,
Guaranteed,
_,
};
pub const DEVICE_NAME: []const u16 = &.{ '\\', 'D', 'e', 'v', 'i', 'c', 'e', '\\', 'A', 'f', 'd' };
pub const ENDPOINT_TYPE = packed struct(ULONG) {
CONNECTIONLESS: bool = false,
Reserved1: u3 = 0,
MESSAGEMODE: bool = false,
Reserved5: u3 = 0,
RAW: bool = false,
Reserved9: u22 = 0,
REGISTERED_IO: bool = false,
};
pub const OPEN_PACKET = extern struct {
EndpointType: ENDPOINT_TYPE,
GroupID: LONG,
AddressFamily: LONG,
SocketType: LONG,
Protocol: LONG,
TransportDeviceNameLength: ULONG,
TransportDeviceName: [1]WCHAR,
pub const NAME = "AfdOpenPacketXX";
pub const FULL_EA_INFORMATION = extern struct {
Header: FILE.FULL_EA_INFORMATION = .{
.NextEntryOffset = 0,
.Flags = 0,
.EaNameLength = NAME.len,
.EaValueLength = @sizeOf(OPEN_PACKET),
.EaName = .{},
},
Name: [NAME.len:0]u8 = NAME.*,
Value: OPEN_PACKET,
};
};
pub const BIND_INFO = extern struct {
Mode: MODE,
pub const MODE = enum(ULONG) {
Unix = 0,
Passive = 1,
Active = 2,
_,
};
};
pub const LISTEN_INFO = extern struct {
UseSAN: BOOLEAN,
MaximumConnectionQueue: ULONG,
UseDelayedAcceptance: BOOLEAN,
};
pub const LISTEN_RESPONSE_INFO = extern struct {
Sequence: ULONG,
};
pub const ACCEPT_INFO = extern struct {
UseSAN: BOOLEAN,
Sequence: ULONG,
AcceptHandle: HANDLE,
};
pub const SUPER_ACCEPT_INFO = extern struct {
UseSAN: BOOLEAN,
AcceptHandle: HANDLE,
AcceptEndpoint: PVOID,
AcceptFileObject: PVOID,
ReceiveDataLength: ULONG,
LocalAddressLength: ULONG,
RemoteAddressLength: ULONG,
ListenResponseInfo: LISTEN_RESPONSE_INFO,
};
pub const DEFER_ACCEPT_INFO = extern struct {
Sequence: ULONG,
Reject: BOOLEAN,
};
pub const PARTIAL_DISCONNECT_INFO = extern struct {
DisconnectMode: MODE,
Timeout: LARGE_INTEGER,
pub const MODE = packed struct(ULONG) {
SEND: bool = false,
RECEIVE: bool = false,
ABORTIVE: bool = false,
UNCONNECT_DATAGRAM: bool = false,
Reserved4: u28 = 0,
};
};
pub const RECEIVE_INFORMATION = extern struct {
BytesAvailable: ULONG,
ExpeditedBytesAvailable: ULONG,
};
pub const HANDLE_INFO = extern struct {
TdiAddressHandle: HANDLE,
TdiConnectionHandle: HANDLE,
};
pub const INFORMATION = extern struct {
InformationType: TYPE,
Information: extern union {
Boolean: BOOLEAN,
Ulong: ULONG,
LargeInteger: LARGE_INTEGER,
},
pub const TYPE = enum(ULONG) {
INLINE_MODE = 0x01,
NONBLOCKING_MODE = 0x02,
MAX_SEND_SIZE = 0x03,
SENDS_PENDING = 0x04,
MAX_PATH_SEND_SIZE = 0x05,
RECEIVE_WINDOW_SIZE = 0x06,
SEND_WINDOW_SIZE = 0x07,
CONNECT_TIME = 0x08,
CIRCULAR_QUEUEING = 0x09,
GROUP_ID_AND_TYPE = 0x0A,
_,
};
};
pub const TRANSMIT_FILE_INFO = extern struct {
Offset: LARGE_INTEGER,
WriteLength: LARGE_INTEGER,
SendPacketLength: ULONG,
FileHandle: HANDLE,
Head: PVOID,
HeadLength: ULONG,
Tail: PVOID,
TailLength: ULONG,
Flags: FLAGS,
pub const FLAGS = packed struct(ULONG) {
DISCONNECT: bool = false,
REUSE_SOCKET: bool = false,
WRITE_BEHIND: bool = false,
Reserved3: u25 = 0,
};
};
pub const QUEUE_APC_INFO = extern struct {
Thread: HANDLE,
ApcRoutine: PVOID,
ApcContext: PVOID,
SystemArgument1: PVOID,
SystemArgument2: PVOID,
};
pub const SEND_INFO = extern struct {
BufferArray: [*]const WSABUF(.@"const"),
BufferCount: ULONG,
AfdFlags: AFD,
TdiFlags: TDI.SEND,
};
pub const SEND_DATAGRAM_INFO = extern struct {
BufferArray: [*]const WSABUF(.@"const"),
BufferCount: ULONG,
AfdFlags: AFD,
TdiRequest: TDI.REQUEST.SEND_DATAGRAM,
TdiConnInfo: TDI.CONNECTION.INFORMATION,
};
pub const RECV_INFO = extern struct {
BufferArray: [*]const WSABUF(.@"var"),
BufferCount: ULONG,
AfdFlags: AFD,
TdiFlags: TDI.RECEIVE,
};
pub const RECV_DATAGRAM_INFO = extern struct {
BufferArray: [*]const WSABUF(.@"var"),
BufferCount: ULONG,
AfdFlags: AFD,
TdiFlags: TDI.RECEIVE,
Address: PVOID,
AddressLength: *ULONG,
};
pub const SOCKOPT_INFO = extern struct {
mode: Mode,
level: i32,
optname: u32,
ding: u32 = 1,
optval: *const anyopaque,
optlen: usize,
pub const Mode = enum(u32) { set = 1, get = 2, special = 3, _ };
pub const UNIX_PATH = extern struct { Unknown0: usize = 0, Path: [PATH_MAX_WIDE:0]u16 };
};
};
pub const TDI = struct {
pub const STATUS = NTSTATUS;
pub const CONNECTION = struct {
pub const CONTEXT = PVOID;
pub const INFORMATION = extern struct {
/// length of user data buffer
UserDataLength: LONG,
/// pointer to user data buffer
UserData: PVOID,
/// length of following buffer
OptionsLength: LONG,
/// pointer to buffer containing options
Options: PVOID,
/// length of following buffer
RemoteAddressLength: LONG,
/// buffer containing the remote address
RemoteAddress: PVOID,
};
};
pub const ADDRESS = struct {
pub const TYPE = enum(USHORT) {
/// unspecified
UNSPEC = 0,
/// local to host (pipes, portals,
UNIX = 1,
/// internetwork: UDP, TCP, etc.
IP = 2,
/// arpanet imp addresses
IMPLINK = 3,
/// pup protocols: e.g. BSP
PUP = 4,
/// mit CHAOS protocols
CHAOS = 5,
/// XEROX NS protocols
NS = 6,
/// Netware IPX
IPX = 6,
/// nbs protocols
NBS = 7,
/// european computer manufacturers
ECMA = 8,
/// datakit protocols
DATAKIT = 9,
/// CCITT protocols, X.25 etc
CCITT = 10,
/// IBM SNA
SNA = 11,
/// DECnet
DECnet = 12,
/// Direct data link interface
DLI = 13,
/// LAT
LAT = 14,
/// NSC Hyperchannel
HYLINK = 15,
/// AppleTalk
APPLETALK = 16,
/// Netbios Addresses
NETBIOS = 17,
@"8022" = 18,
OSI_TSAP = 19,
/// for WzMail
NETONE = 20,
/// Banyan VINES IP
VNS = 21,
/// NETBIOS address extensions
NETBIOS_EX = 22,
/// IP version 6
IP6 = 23,
/// WCHAR Netbios address
NETBIOS_UNICODE_EX = 24,
_,
};
pub const IP = extern struct {
sin_port: USHORT,
in_addr: ULONG,
sin_zero: [8]UCHAR,
};
pub const IP6 = extern struct {
sin_port: USHORT,
flowinfo: ULONG,
addr: [8]USHORT,
scope_id: ULONG,
};
};
pub const REQUEST = extern struct {
Handle: extern union {
AddressHandle: HANDLE,
ConnectionContext: CONNECTION.CONTEXT,
ControlChannel: HANDLE,
},
RequestNotifyObject: PVOID,
RequestContext: PVOID,
TdiStatus: TDI.STATUS,
pub const STATUS = extern struct {
/// status of request completion
Status: TDI.STATUS,
/// the request context
RequestContext: PVOID,
/// number of bytes transferred in the request
BytesTransferred: ULONG,
};
pub const ASSOCIATE = extern struct {
Request: REQUEST,
AddressHandle: HANDLE,
};
pub const CONNECT = extern struct {
Request: REQUEST,
RequestConnectionInformation: *CONNECTION.INFORMATION,
ReturnConnectionInformation: *CONNECTION.INFORMATION,
Timeout: LARGE_INTEGER,
};
pub const ACCEPT = extern struct {
Request: REQUEST,
RequestConnectionInformation: *CONNECTION.INFORMATION,
ReturnConnectionInformation: *CONNECTION.INFORMATION,
};
pub const LISTEN = extern struct {
Request: REQUEST,
RequestConnectionInformation: *CONNECTION.INFORMATION,
ReturnConnectionInformation: *CONNECTION.INFORMATION,
ListenFlags: USHORT,
};
pub const DISCONNECT = extern struct {
Request: REQUEST,
Timeout: LARGE_INTEGER,
};
pub const SEND = extern struct {
Request: REQUEST,
SendFlags: USHORT,
};
pub const RECEIVE = extern struct {
Request: REQUEST,
ReceiveFlags: USHORT,
};
pub const SEND_DATAGRAM = extern struct {
Request: REQUEST,
SendDatagramInformation: *CONNECTION.INFORMATION,
};
};
pub const RECEIVE = packed struct(ULONG) {
Reserved0: u2 = 0,
BROADCAST: bool = false,
MULTICAST: bool = false,
PARTIAL: bool = false,
NORMAL: bool = false,
EXPEDITED: bool = false,
PEEK: bool = false,
NO_RESPONSE_EXP: bool = false,
COPY_LOOKAHEAD: bool = false,
ENTIRE_MESSAGE: bool = false,
AT_DISPATCH_LEVEL: bool = false,
CONTROL_INFO: bool = false,
FORCE_INDICATION: bool = false,
NO_PUSH: bool = false,
Reserved12: u17 = 0,
};
pub const SEND = packed struct(ULONG) {
Reserved0: u5 = 0,
EXPEDITED: bool = false,
PARTIAL: bool = false,
NO_RESPONSE_EXPECTED: bool = false,
NON_BLOCKING: bool = false,
AND_DISCONNECT: bool = false,
Reserved10: u22 = 0,
};
};
pub const NET = struct {
pub const LUID = packed struct(ULONG64) { Reserved: u24 = 0, Index: u24, IfType: u16 };
pub const IFINDEX = enum(ULONG) { _ };
};
pub const DNS = struct {
pub const INTERFACE_SETTINGS = extern struct {
Version: ULONG,
Flags: ULONG64,
Domain: PWSTR,
NameServer: PWSTR,
SearchList: PWSTR,
RegistrationEnabled: ULONG,
RegisterAdapterName: ULONG,
EnableLLMNR: ULONG,
QueryAdapterName: ULONG,
ProfileNameServer: PWSTR,
};
// ref: shared/windnsdef.h
pub const ADDR_MAX_SOCKADDR_LENGTH = 32;
pub const ADDR = extern struct {
MaxSa: [ADDR_MAX_SOCKADDR_LENGTH]CHAR,
DnsAddrUserDword: [8]DWORD,
pub const ARRAY = extern struct {
MaxCount: DWORD,
AddrCount: DWORD,
Tag: DWORD,
Family: WORD,
WordReserved: WORD,
Flags: DWORD,
MatchFlag: DWORD,
Reserved1: DWORD,
Reserved2: DWORD,
AddrArray: [0]ADDR,
};
};
pub const CUSTOM_SERVER = extern struct {
ServerType: CUSTOM_SERVER.TYPE,
Flags: FLAGS,
Info: extern union {
UDP: void,
DOH: extern struct { Template: PWSTR },
DOT: extern struct { Hostname: PWSTR },
},
MaxSa: [ADDR_MAX_SOCKADDR_LENGTH]CHAR,
pub const TYPE = enum(DWORD) { UDP = 0x1, DOH = 0x2, DOT = 0x3, _ };
pub const FLAGS = packed struct(ULONG64) {
UDP_FALLBACK: bool = false,
UPGRADE_FROM_WELL_KNOWN_SERVERS: bool = false,
Reserved2: u62 = 0,
};
};
// ref: um/WinDNS.h
pub const STATUS = Win32Error;
pub const TYPE = enum(WORD) {
A = 0x0001,
NS = 0x0002,
MD = 0x0003,
MF = 0x0004,
CNAME = 0x0005,
SOA = 0x0006,
MB = 0x0007,
MG = 0x0008,
MR = 0x0009,
NULL = 0x000a,
WKS = 0x000b,
PTR = 0x000c,
HINFO = 0x000d,
MINFO = 0x000e,
MX = 0x000f,
TEXT = 0x0010,
RP = 0x0011,
AFSDB = 0x0012,
X25 = 0x0013,
ISDN = 0x0014,
RT = 0x0015,
NSAP = 0x0016,
NSAPPTR = 0x0017,
SIG = 0x0018,
KEY = 0x0019,
PX = 0x001a,
GPOS = 0x001b,
AAAA = 0x001c,
LOC = 0x001d,
NXT = 0x001e,
EID = 0x001f,
NIMLOC = 0x0020,
SRV = 0x0021,
ATMA = 0x0022,
NAPTR = 0x0023,
KX = 0x0024,
CERT = 0x0025,
A6 = 0x0026,
DNAME = 0x0027,
SINK = 0x0028,
OPT = 0x0029,
DS = 0x002B,
RRSIG = 0x002E,
NSEC = 0x002F,
DNSKEY = 0x0030,
DHCID = 0x0031,
UINFO = 0x0064,
UID = 0x0065,
GID = 0x0066,
UNSPEC = 0x0067,
ADDRS = 0x00f8,
TKEY = 0x00f9,
TSIG = 0x00fa,
IXFR = 0x00fb,
AXFR = 0x00fc,
MAILB = 0x00fd,
MAILA = 0x00fe,
ALL = 0x00ff,
WINS = 0xff01,
WINSR = 0xff02,
TLSA = 0x0034,
SVCB = 0x0040,
HTTPS = 0x0041,
pub const NBSTAT: TYPE = .WINSR;
pub const ANY: TYPE = .ALL;
};
pub const QUERY = packed struct(ULONG64) {
pub const STANDARD: QUERY = .{};
ACCEPT_TRUNCATED_RESPONSE: bool = false,
USE_TCP_ONLY: bool = false,
NO_RECURSION: bool = false,
BYPASS_CACHE: bool = false,
NO_WIRE_QUERY: bool = false,
NO_LOCAL_NAME: bool = false,
NO_HOSTS_FILE: bool = false,
NO_NETBT: bool = false,
WIRE_ONLY: bool = false,
RETURN_MESSAGE: bool = false,
MULTICAST_ONLY: bool = false,
NO_MULTICAST: bool = false,
TREAT_AS_FQDN: bool = false,
ADDRCONFIG: bool = false,
DUAL_ADDR: bool = false,
Reserved15: u2 = 0,
MULTICAST_WAIT: bool = false,
MULTICAST_VERIFY: bool = false,
Reserved19: u1 = 0,
DONT_RESET_TTL_VALUES: bool = false,
DISABLE_IDN_ENCODING: bool = false,
Reserved22: u1 = 0,
APPEND_MULTILABEL: bool = false,
Reserved24: u34 = 0,
PARSE_ALL_RECORDS: bool = false,
Reserved59: u5 = 0,
pub const REQUEST = extern struct {
Version: DWORD,
QueryName: PCWSTR,
QueryType: TYPE,
QueryOptions: QUERY = .STANDARD,
pDnsServerList: ?*ADDR.ARRAY = null,
InterfaceIndex: ULONG = 0,
pQueryCompletionCallback: ?*const COMPLETION_ROUTINE = null,
pQueryContext: ?*anyopaque = null,
pub const @"3" = extern struct {
Base: REQUEST,
IsNetworkQueryRequired: BOOL = .FALSE,
RequiredNetworkIndex: DWORD = 0,
cCustomServers: DWORD = 0,
pCustomServers: ?*CUSTOM_SERVER = null,
};
};
pub const RESULT = extern struct {
Version: ULONG,
QueryStatus: STATUS,
QueryOptions: QUERY,
pQueryRecords: ?*RECORD,
Reserved: ?*anyopaque,
};
pub const CANCEL = extern struct {
Reserved: [32]CHAR align(8),
};
pub const COMPLETION_ROUTINE = fn (
pQueryContext: ?*anyopaque,
pQueryResults: *RESULT,
) callconv(.winapi) void;
};
pub const FREE_TYPE = enum(c_int) { Flat = 0, RecordList, ParsedMessageFields };
pub const RECORD = extern struct {
pNext: ?*RECORD,
pName: *anyopaque,
wType: TYPE,
wDataLength: WORD,
Flags: FLAGS,
dwTtl: DWORD,
dwReserved: DWORD,
Data: extern union { A: [4]u8, AAAA: [16]u8 },
pub const FLAGS = packed struct(DWORD) {
Section: SECTION,
Delete: u1,
CharSet: u2,
Unused: u3,
Reserved: u24,
};
};
pub const SECTION = enum(u2) { Question, Answer, Authority, Additional };
};
// ref: km/ntddk.h
pub const SYSTEM = struct {
pub const INFORMATION_CLASS = enum(c_int) {
Basic = 0,
Performance = 2,
TimeOfDay = 3,
Process = 5,
ProcessorPerformance = 8,
Interrupt = 23,
Exception = 33,
RegistryQuota = 37,
Lookaside = 45,
CodeIntegrity = 103,
Policy = 134,
_,
};
pub const BASIC_INFORMATION = extern struct {
Reserved: ULONG,
TimerResolution: ULONG,
PageSize: ULONG,
NumberOfPhysicalPages: ULONG,
LowestPhysicalPageNumber: ULONG,
HighestPhysicalPageNumber: ULONG,
AllocationGranularity: ULONG,
MinimumUserModeAddress: ULONG_PTR,
MaximumUserModeAddress: ULONG_PTR,
ActiveProcessorsAffinityMask: KAFFINITY,
NumberOfProcessors: UCHAR,
};
};
pub const PROCESS = struct {
pub const INFORMATION = extern struct {
hProcess: HANDLE,
hThread: HANDLE,
dwProcessId: DWORD,
dwThreadId: DWORD,
};
pub const INFOCLASS = enum(c_int) {
BasicInformation = 0,
QuotaLimits = 1,
IoCounters = 2,
VmCounters = 3,
Times = 4,
BasePriority = 5,
RaisePriority = 6,
DebugPort = 7,
ExceptionPort = 8,
AccessToken = 9,
LdtInformation = 10,
LdtSize = 11,
DefaultHardErrorMode = 12,
IoPortHandlers = 13,
PooledUsageAndLimits = 14,
WorkingSetWatch = 15,
UserModeIOPL = 16,
EnableAlignmentFaultFixup = 17,
PriorityClass = 18,
Wx86Information = 19,
HandleCount = 20,
AffinityMask = 21,
PriorityBoost = 22,
DeviceMap = 23,
SessionInformation = 24,
ForegroundInformation = 25,
Wow64Information = 26,
ImageFileName = 27,
LUIDDeviceMapsEnabled = 28,
BreakOnTermination = 29,
DebugObjectHandle = 30,
DebugFlags = 31,
HandleTracing = 32,
IoPriority = 33,
ExecuteFlags = 34,
TlsInformation = 35,
Cookie = 36,
ImageInformation = 37,
CycleTime = 38,
PagePriority = 39,
InstrumentationCallback = 40,
ThreadStackAllocation = 41,
WorkingSetWatchEx = 42,
ImageFileNameWin32 = 43,
ImageFileMapping = 44,
AffinityUpdateMode = 45,
MemoryAllocationMode = 46,
GroupInformation = 47,
TokenVirtualizationEnabled = 48,
OwnerInformation = 49,
WindowInformation = 50,
HandleInformation = 51,
MitigationPolicy = 52,
DynamicFunctionTableInformation = 53,
HandleCheckingMode = 54,
KeepAliveCount = 55,
RevokeFileHandles = 56,
WorkingSetControl = 57,
HandleTable = 58,
CheckStackExtentsMode = 59,
CommandLineInformation = 60,
ProtectionInformation = 61,
MemoryExhaustion = 62,
FaultInformation = 63,
TelemetryIdInformation = 64,
CommitReleaseInformation = 65,
Reserved1Information = 66,
Reserved2Information = 67,
SubsystemProcess = 68,
InPrivate = 70,
RaiseUMExceptionOnInvalidHandleClose = 71,
SubsystemInformation = 75,
Win32kSyscallFilterInformation = 79,
EnergyTrackingState = 82,
NetworkIoCounters = 114,
_,
pub const Max: @typeInfo(@This()).@"enum".tag_type = 117;
};
pub const BASIC_INFORMATION = extern struct {
ExitStatus: NTSTATUS,
PebBaseAddress: *PEB,
AffinityMask: ULONG_PTR,
BasePriority: KPRIORITY,
UniqueProcessId: ULONG_PTR,
InheritedFromUniqueProcessId: ULONG_PTR,
};
pub const VM_COUNTERS = extern struct {
PeakVirtualSize: SIZE_T,
VirtualSize: SIZE_T,
PageFaultCount: ULONG,
PeakWorkingSetSize: SIZE_T,
WorkingSetSize: SIZE_T,
QuotaPeakPagedPoolUsage: SIZE_T,
QuotaPagedPoolUsage: SIZE_T,
QuotaPeakNonPagedPoolUsage: SIZE_T,
QuotaNonPagedPoolUsage: SIZE_T,
PagefileUsage: SIZE_T,
PeakPagefileUsage: SIZE_T,
};
};
pub const THREAD = struct {
pub const INFOCLASS = enum(c_int) {
BasicInformation = 0,
Times = 1,
Priority = 2,
BasePriority = 3,
AffinityMask = 4,
ImpersonationToken = 5,
DescriptorTableEntry = 6,
EnableAlignmentFaultFixup = 7,
EventPair_Reusable = 8,
QuerySetWin32StartAddress = 9,
ZeroTlsCell = 10,
PerformanceCount = 11,
AmILastThread = 12,
IdealProcessor = 13,
PriorityBoost = 14,
SetTlsArrayAddress = 15,
IsIoPending = 16,
// Windows 2000+ from here
HideFromDebugger = 17,
// Windows XP+ from here
BreakOnTermination = 18,
SwitchLegacyState = 19,
IsTerminated = 20,
// Windows Vista+ from here
LastSystemCall = 21,
IoPriority = 22,
CycleTime = 23,
PagePriority = 24,
ActualBasePriority = 25,
TebInformation = 26,
CSwitchMon = 27,
// Windows 7+ from here
CSwitchPmu = 28,
Wow64Context = 29,
GroupInformation = 30,
UmsInformation = 31,
CounterProfiling = 32,
IdealProcessorEx = 33,
// Windows 8+ from here
CpuAccountingInformation = 34,
// Windows 8.1+ from here
SuspendCount = 35,
// Windows 10+ from here
HeterogeneousCpuPolicy = 36,
ContainerId = 37,
NameInformation = 38,
SelectedCpuSets = 39,
SystemThreadInformation = 40,
ActualGroupAffinity = 41,
DynamicCodePolicyInfo = 42,
SubsystemInformation = 45,
_,
pub const Max: @typeInfo(@This()).@"enum".tag_type = 60;
};
pub const BASIC_INFORMATION = extern struct {
ExitStatus: NTSTATUS,
TebBaseAddress: PVOID,
ClientId: CLIENT_ID,
AffinityMask: KAFFINITY,
Priority: KPRIORITY,
BasePriority: KPRIORITY,
};
pub const CREATE_FLAGS = packed struct(ULONG) {
CREATE_SUSPENDED: bool = false,
SKIP_THREAD_ATTACH: bool = false,
HIDE_FROM_DEBUGGER: bool = false,
LOADER_WORKER: bool = false,
SKIP_LOADER_INIT: bool = false,
BYPASS_PROCESS_FREEZE: bool = false,
Reserved6: u26 = 0,
pub const NONE: CREATE_FLAGS = .{};
};
pub const StackSize = enum(SIZE_T) {
/// The default size specified in the executable header
default = 0,
_,
};
};
// ref: km/ntifs.h
pub const HEAP = opaque {
pub const FLAGS = packed struct(u8) {
/// Serialized access is not used when the heap functions access this heap. This option
/// applies to all subsequent heap function calls. Alternatively, you can specify this
/// option on individual heap function calls.
///
/// The low-fragmentation heap (LFH) cannot be enabled for a heap created with this option.
///
/// A heap created with this option cannot be locked.
NO_SERIALIZE: bool = false,
/// Specifies that the heap is growable. Must be specified if `HeapBase` is `NULL`.
GROWABLE: bool = false,
/// The system raises an exception to indicate failure (for example, an out-of-memory
/// condition) for calls to `HeapAlloc` and `HeapReAlloc` instead of returning `NULL`.
///
/// To ensure that exceptions are generated for all calls to an allocation function, specify
/// `GENERATE_EXCEPTIONS` in the call to `HeapCreate`. In this case, it is not necessary to
/// additionally specify `GENERATE_EXCEPTIONS` in the allocation function calls.
GENERATE_EXCEPTIONS: bool = false,
/// The allocated memory will be initialized to zero. Otherwise, the memory is not
/// initialized to zero.
ZERO_MEMORY: bool = false,
REALLOC_IN_PLACE_ONLY: bool = false,
TAIL_CHECKING_ENABLED: bool = false,
FREE_CHECKING_ENABLED: bool = false,
DISABLE_COALESCE_ON_FREE: bool = false,
pub const CLASS = enum(u4) {
/// process heap
PROCESS,
/// private heap
PRIVATE,
/// Kernel Heap
KERNEL,
/// GDI heap
GDI,
/// User heap
USER,
/// Console heap
CONSOLE,
/// User Desktop heap
USER_DESKTOP,
/// Csrss Shared heap
CSRSS_SHARED,
/// Csr Port heap
CSR_PORT,
_,
pub const MASK: CLASS = @fromBackingInt(@intCast(maxInt(@typeInfo(CLASS).@"enum".tag_type)));
};
pub const CREATE = packed struct(ULONG) {
COMMON: FLAGS = .{},
SEGMENT_HEAP: bool = false,
/// Only applies to segment heap. Applies pointer obfuscation which is
/// generally excessive and unnecessary but is necessary for certain insecure
/// heaps in win32k.
///
/// Specifying HEAP_CREATE_HARDENED prevents the heap from using locks as
/// pointers would potentially be exposed in heap metadata lock variables.
/// Callers are therefore responsible for synchronizing access to hardened heaps.
HARDENED: bool = false,
Reserved10: u2 = 0,
CLASS: CLASS = @fromBackingInt(@intCast(0)),
/// Create heap with 16 byte alignment (obsolete)
ALIGN_16: bool = false,
/// Create heap call tracing enabled (obsolete)
ENABLE_TRACING: bool = false,
/// Create heap with executable pages
///
/// All memory blocks that are allocated from this heap allow code execution, if the
/// hardware enforces data execution prevention. Use this flag heap in applications that
/// run code from the heap. If `ENABLE_EXECUTE` is not specified and an application
/// attempts to run code from a protected page, the application receives an exception
/// with the status code `STATUS_ACCESS_VIOLATION`.
ENABLE_EXECUTE: bool = false,
Reserved19: u13 = 0,
pub const VALID_MASK: CREATE = .{
.COMMON = .{
.NO_SERIALIZE = true,
.GROWABLE = true,
.GENERATE_EXCEPTIONS = true,
.ZERO_MEMORY = true,
.REALLOC_IN_PLACE_ONLY = true,
.TAIL_CHECKING_ENABLED = true,
.FREE_CHECKING_ENABLED = true,
.DISABLE_COALESCE_ON_FREE = true,
},
.CLASS = .MASK,
.ALIGN_16 = true,
.ENABLE_TRACING = true,
.ENABLE_EXECUTE = true,
.SEGMENT_HEAP = true,
.HARDENED = true,
};
};
pub const ALLOCATION = packed struct(ULONG) {
COMMON: FLAGS = .{},
SETTABLE_USER: packed struct(u4) {
VALUE: u1 = 0,
FLAGS: packed struct(u3) {
FLAG1: bool = false,
FLAG2: bool = false,
FLAG3: bool = false,
} = .{},
} = .{},
CLASS: CLASS = @fromBackingInt(@intCast(0)),
Reserved16: u2 = 0,
TAG: u12 = 0,
Reserved30: u2 = 0,
};
};
pub const RTL_PARAMETERS = extern struct {
Length: ULONG,
SegmentReserve: SIZE_T,
SegmentCommit: SIZE_T,
DeCommitFreeBlockThreshold: SIZE_T,
DeCommitTotalFreeThreshold: SIZE_T,
MaximumAllocationSize: SIZE_T,
VirtualMemoryThreshold: SIZE_T,
InitialCommit: SIZE_T,
InitialReserve: SIZE_T,
CommitRoutine: *const COMMIT_ROUTINE,
Reserved: [2]SIZE_T = @splat(0),
pub const COMMIT_ROUTINE = fn (
Base: PVOID,
CommitAddress: *PVOID,
CommitSize: *SIZE_T,
) callconv(.winapi) NTSTATUS;
pub const SEGMENT = extern struct {
Version: VERSION,
Size: USHORT,
Flags: FLG,
MemorySource: MEMORY_SOURCE,
Reserved: [4]SIZE_T,
pub const VERSION = enum(USHORT) {
CURRENT = 3,
_,
};
pub const FLG = packed struct(ULONG) {
USE_PAGE_HEAP: bool = false,
NO_LFH: bool = false,
Reserved2: u30 = 0,
pub const VALID_FLAGS: FLG = .{
.USE_PAGE_HEAP = true,
.NO_LFH = true,
};
};
pub const MEMORY_SOURCE = extern struct {
Flags: ULONG,
MemoryTypeMask: TYPE,
NumaNode: ULONG,
u: extern union {
PartitionHandle: HANDLE,
Callbacks: *const VA_CALLBACKS,
},
Reserved: [2]SIZE_T = @splat(0),
pub const TYPE = enum(ULONG) {
Paged,
NonPaged,
@"64KPage",
LargePage,
HugePage,
Custom,
_,
pub const Max: @typeInfo(@This()).@"enum".tag_type = @typeInfo(@This()).@"enum".field_names.len;
};
pub const VA_CALLBACKS = extern struct {
CallbackContext: HANDLE,
AllocateVirtualMemory: *const ALLOCATE_VIRTUAL_MEMORY_EX_CALLBACK,
FreeVirtualMemory: *const FREE_VIRTUAL_MEMORY_EX_CALLBACK,
QueryVirtualMemory: *const QUERY_VIRTUAL_MEMORY_CALLBACK,
pub const ALLOCATE_VIRTUAL_MEMORY_EX_CALLBACK = fn (
CallbackContext: HANDLE,
BaseAddress: *PVOID,
RegionSize: *SIZE_T,
AllocationType: ULONG,
PageProtection: ULONG,
ExtendedParameters: ?[*]MEM.EXTENDED_PARAMETER,
ExtendedParameterCount: ULONG,
) callconv(.c) NTSTATUS;
pub const FREE_VIRTUAL_MEMORY_EX_CALLBACK = fn (
CallbackContext: HANDLE,
ProcessHandle: HANDLE,
BaseAddress: *PVOID,
RegionSize: *SIZE_T,
FreeType: ULONG,
) callconv(.c) NTSTATUS;
pub const QUERY_VIRTUAL_MEMORY_CALLBACK = fn (
CallbackContext: HANDLE,
ProcessHandle: HANDLE,
BaseAddress: *PVOID,
MemoryInformationClass: MEMORY_INFO_CLASS,
MemoryInformation: PVOID,
MemoryInformationLength: SIZE_T,
ReturnLength: ?*SIZE_T,
) callconv(.c) NTSTATUS;
pub const MEMORY_INFO_CLASS = enum(c_int) {
Basic,
_,
};
};
};
};
};
};
pub const CTL_CODE = packed struct(ULONG) {
Method: METHOD,
Function: u12,
Access: FILE_ACCESS,
DeviceType: FILE_DEVICE,
pub const METHOD = enum(u2) {
BUFFERED = 0,
IN_DIRECT = 1,
OUT_DIRECT = 2,
NEITHER = 3,
};
pub const FILE_ACCESS = packed struct(u2) {
READ: bool = false,
WRITE: bool = false,
pub const ANY: FILE_ACCESS = .{ .READ = false, .WRITE = false };
pub const SPECIAL = ANY;
};
pub const FILE_DEVICE = enum(u16) {
BEEP = 0x00000001,
CD_ROM = 0x00000002,
CD_ROM_FILE_SYSTEM = 0x00000003,
CONTROLLER = 0x00000004,
DATALINK = 0x00000005,
DFS = 0x00000006,
DISK = 0x00000007,
DISK_FILE_SYSTEM = 0x00000008,
FILE_SYSTEM = 0x00000009,
INPORT_PORT = 0x0000000a,
KEYBOARD = 0x0000000b,
MAILSLOT = 0x0000000c,
MIDI_IN = 0x0000000d,
MIDI_OUT = 0x0000000e,
MOUSE = 0x0000000f,
MULTI_UNC_PROVIDER = 0x00000010,
NAMED_PIPE = 0x00000011,
NETWORK = 0x00000012,
NETWORK_BROWSER = 0x00000013,
NETWORK_FILE_SYSTEM = 0x00000014,
NULL = 0x00000015,
PARALLEL_PORT = 0x00000016,
PHYSICAL_NETCARD = 0x00000017,
PRINTER = 0x00000018,
SCANNER = 0x00000019,
SERIAL_MOUSE_PORT = 0x0000001a,
SERIAL_PORT = 0x0000001b,
SCREEN = 0x0000001c,
SOUND = 0x0000001d,
STREAMS = 0x0000001e,
TAPE = 0x0000001f,
TAPE_FILE_SYSTEM = 0x00000020,
TRANSPORT = 0x00000021,
UNKNOWN = 0x00000022,
VIDEO = 0x00000023,
VIRTUAL_DISK = 0x00000024,
WAVE_IN = 0x00000025,
WAVE_OUT = 0x00000026,
@"8042_PORT" = 0x00000027,
NETWORK_REDIRECTOR = 0x00000028,
BATTERY = 0x00000029,
BUS_EXTENDER = 0x0000002a,
MODEM = 0x0000002b,
VDM = 0x0000002c,
MASS_STORAGE = 0x0000002d,
SMB = 0x0000002e,
KS = 0x0000002f,
CHANGER = 0x00000030,
SMARTCARD = 0x00000031,
ACPI = 0x00000032,
DVD = 0x00000033,
FULLSCREEN_VIDEO = 0x00000034,
DFS_FILE_SYSTEM = 0x00000035,
DFS_VOLUME = 0x00000036,
SERENUM = 0x00000037,
TERMSRV = 0x00000038,
KSEC = 0x00000039,
FIPS = 0x0000003A,
INFINIBAND = 0x0000003B,
VMBUS = 0x0000003E,
CRYPT_PROVIDER = 0x0000003F,
WPD = 0x00000040,
BLUETOOTH = 0x00000041,
MT_COMPOSITE = 0x00000042,
MT_TRANSPORT = 0x00000043,
BIOMETRIC = 0x00000044,
PMI = 0x00000045,
EHSTOR = 0x00000046,
DEVAPI = 0x00000047,
GPIO = 0x00000048,
USBEX = 0x00000049,
CONSOLE = 0x00000050,
NFP = 0x00000051,
SYSENV = 0x00000052,
VIRTUAL_BLOCK = 0x00000053,
POINT_OF_SERVICE = 0x00000054,
STORAGE_REPLICATION = 0x00000055,
TRUST_ENV = 0x00000056,
UCM = 0x00000057,
UCMTCPCI = 0x00000058,
PERSISTENT_MEMORY = 0x00000059,
NVDIMM = 0x0000005a,
HOLOGRAPHIC = 0x0000005b,
SDFXHCI = 0x0000005c,
UCMUCSI = 0x0000005d,
PRM = 0x0000005e,
EVENT_COLLECTOR = 0x0000005f,
USB4 = 0x00000060,
SOUNDWIRE = 0x00000061,
MOUNTMGRCONTROLTYPE = 'm',
_,
};
pub const SET_REPARSE_POINT: CTL_CODE = .{ .DeviceType = .FILE_SYSTEM, .Function = 41, .Method = .BUFFERED, .Access = .SPECIAL };
pub const GET_REPARSE_POINT: CTL_CODE = .{ .DeviceType = .FILE_SYSTEM, .Function = 42, .Method = .BUFFERED, .Access = .ANY };
pub const PIPE = struct {
pub const ASSIGN_EVENT: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 0, .Method = .BUFFERED, .Access = .ANY };
pub const DISCONNECT: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 1, .Method = .BUFFERED, .Access = .ANY };
pub const LISTEN: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 2, .Method = .BUFFERED, .Access = .ANY };
pub const PEEK: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 3, .Method = .BUFFERED, .Access = .{ .READ = true } };
pub const QUERY_EVENT: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 4, .Method = .BUFFERED, .Access = .ANY };
pub const TRANSCEIVE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 5, .Method = .NEITHER, .Access = .{ .READ = true, .WRITE = true } };
pub const WAIT: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 6, .Method = .BUFFERED, .Access = .ANY };
pub const IMPERSONATE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 7, .Method = .BUFFERED, .Access = .ANY };
pub const SET_CLIENT_PROCESS: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 8, .Method = .BUFFERED, .Access = .ANY };
pub const QUERY_CLIENT_PROCESS: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 9, .Method = .BUFFERED, .Access = .ANY };
pub const GET_PIPE_ATTRIBUTE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 10, .Method = .BUFFERED, .Access = .ANY };
pub const SET_PIPE_ATTRIBUTE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 11, .Method = .BUFFERED, .Access = .ANY };
pub const GET_CONNECTION_ATTRIBUTE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 12, .Method = .BUFFERED, .Access = .ANY };
pub const SET_CONNECTION_ATTRIBUTE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 13, .Method = .BUFFERED, .Access = .ANY };
pub const GET_HANDLE_ATTRIBUTE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 14, .Method = .BUFFERED, .Access = .ANY };
pub const SET_HANDLE_ATTRIBUTE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 15, .Method = .BUFFERED, .Access = .ANY };
pub const FLUSH: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 16, .Method = .BUFFERED, .Access = .{ .WRITE = true } };
pub const INTERNAL_READ: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 2045, .Method = .BUFFERED, .Access = .{ .READ = true } };
pub const INTERNAL_WRITE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 2046, .Method = .BUFFERED, .Access = .{ .WRITE = true } };
pub const INTERNAL_TRANSCEIVE: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 2047, .Method = .NEITHER, .Access = .{ .READ = true, .WRITE = true } };
pub const INTERNAL_READ_OVFLOW: CTL_CODE = .{ .DeviceType = .NAMED_PIPE, .Function = 2048, .Method = .BUFFERED, .Access = .{ .READ = true } };
};
};
pub const IOCTL = struct {
pub const AFD = struct {
const CONTROL_CODE = packed struct {
Method: CTL_CODE.METHOD,
Function: u10,
DeviceType: CTL_CODE.FILE_DEVICE,
Reserved28: u4 = 0,
};
pub const BIND: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 0, .Method = .NEITHER });
pub const CONNECT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 1, .Method = .NEITHER });
pub const START_LISTEN: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 2, .Method = .NEITHER });
pub const WAIT_FOR_LISTEN: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 3, .Method = .BUFFERED });
pub const ACCEPT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 4, .Method = .BUFFERED });
pub const RECEIVE: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 5, .Method = .NEITHER });
pub const RECEIVE_DATAGRAM: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 6, .Method = .NEITHER });
pub const SEND: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 7, .Method = .NEITHER });
pub const SEND_DATAGRAM: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 8, .Method = .NEITHER });
pub const POLL: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 9, .Method = .BUFFERED });
pub const PARTIAL_DISCONNECT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 10, .Method = .NEITHER });
pub const GET_ADDRESS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 11, .Method = .NEITHER });
pub const QUERY_RECEIVE_INFO: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 12, .Method = .NEITHER });
pub const QUERY_HANDLES: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 13, .Method = .NEITHER });
pub const SET_INFORMATION: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 14, .Method = .NEITHER });
pub const GET_CONTEXT_LENGTH: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 15, .Method = .NEITHER });
pub const GET_CONTEXT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 16, .Method = .NEITHER });
pub const SET_CONTEXT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 17, .Method = .NEITHER });
pub const SET_CONNECT_DATA: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 18, .Method = .BUFFERED });
pub const SET_CONNECT_OPTIONS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 19, .Method = .BUFFERED });
pub const SET_DISCONNECT_DATA: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 20, .Method = .BUFFERED });
pub const SET_DISCONNECT_OPTIONS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 21, .Method = .BUFFERED });
pub const GET_CONNECT_DATA: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 22, .Method = .BUFFERED });
pub const GET_CONNECT_OPTIONS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 23, .Method = .BUFFERED });
pub const GET_DISCONNECT_DATA: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 24, .Method = .BUFFERED });
pub const GET_DISCONNECT_OPTIONS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 25, .Method = .BUFFERED });
pub const SIZE_CONNECT_DATA: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 26, .Method = .BUFFERED });
pub const SIZE_CONNECT_OPTIONS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 27, .Method = .BUFFERED });
pub const SIZE_DISCONNECT_DATA: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 28, .Method = .BUFFERED });
pub const SIZE_DISCONNECT_OPTIONS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 29, .Method = .BUFFERED });
pub const GET_INFORMATION: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 30, .Method = .NEITHER });
pub const TRANSMIT_FILE: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 31, .Method = .NEITHER });
pub const SUPER_ACCEPT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 32, .Method = .NEITHER });
pub const EVENT_SELECT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 33, .Method = .BUFFERED });
pub const ENUM_NETWORK_EVENTS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 34, .Method = .BUFFERED });
pub const DEFER_ACCEPT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 35, .Method = .BUFFERED });
pub const WAIT_FOR_LISTEN_LIFO: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 36, .Method = .BUFFERED });
pub const SET_QOS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 37, .Method = .BUFFERED });
pub const GET_QOS: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 38, .Method = .BUFFERED });
pub const NO_OPERATION: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 39, .Method = .NEITHER });
pub const VALIDATE_GROUP: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 40, .Method = .BUFFERED });
pub const GET_UNACCEPTED_CONNECT_DATA: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 41, .Method = .BUFFERED });
pub const QUEUE_APC: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 42, .Method = .BUFFERED });
pub const SOCKOPT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 47, .Method = .NEITHER });
pub const SUPER_CONNECT: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 49, .Method = .NEITHER });
pub const RECV_MSG: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 51, .Method = .NEITHER });
pub const RIO: CTL_CODE = @bitCast(CONTROL_CODE{ .DeviceType = .NETWORK, .Function = 70, .Method = .NEITHER });
};
pub const CONDRV = struct {
pub const READ_IO: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 1, .Method = .OUT_DIRECT, .Access = .ANY };
pub const COMPLETE_IO: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 2, .Method = .NEITHER, .Access = .ANY };
pub const READ_INPUT: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 3, .Method = .NEITHER, .Access = .ANY };
pub const WRITE_OUTPUT: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 4, .Method = .NEITHER, .Access = .ANY };
pub const ISSUE_USER_IO: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 5, .Method = .OUT_DIRECT, .Access = .ANY };
pub const DISCONNECT_PIPE: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 6, .Method = .NEITHER, .Access = .ANY };
pub const SET_SERVER_INFORMATION: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 7, .Method = .NEITHER, .Access = .ANY };
pub const GET_SERVER_PID: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 8, .Method = .NEITHER, .Access = .ANY };
pub const GET_DISPLAY_SIZE: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 9, .Method = .NEITHER, .Access = .ANY };
pub const UPDATE_DISPLAY: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 10, .Method = .NEITHER, .Access = .ANY };
pub const SET_CURSOR: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 11, .Method = .NEITHER, .Access = .ANY };
pub const ALLOW_VIA_UIACCESS: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 12, .Method = .NEITHER, .Access = .ANY };
pub const LAUNCH_SERVER: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 13, .Method = .NEITHER, .Access = .ANY };
pub const GET_FONT_SIZE: CTL_CODE = .{ .DeviceType = .CONSOLE, .Function = 14, .Method = .NEITHER, .Access = .ANY };
};
pub const KSEC = struct {
pub const GEN_RANDOM: CTL_CODE = .{ .DeviceType = .KSEC, .Function = 2, .Method = .BUFFERED, .Access = .ANY };
};
pub const MOUNTMGR = struct {
pub const QUERY_POINTS: CTL_CODE = .{ .DeviceType = .MOUNTMGRCONTROLTYPE, .Function = 2, .Method = .BUFFERED, .Access = .ANY };
pub const QUERY_DOS_VOLUME_PATH: CTL_CODE = .{ .DeviceType = .MOUNTMGRCONTROLTYPE, .Function = 12, .Method = .BUFFERED, .Access = .ANY };
};
};
pub const MAXIMUM_REPARSE_DATA_BUFFER_SIZE: ULONG = 16 * 1024;
pub const IO_REPARSE_TAG = packed struct(ULONG) {
Value: u12,
Index: u4 = 0,
ReservedBits: u12 = 0,
/// Can have children if a directory.
IsDirectory: bool = false,
/// Represents another named entity in the system.
IsSurrogate: bool = false,
/// Must be `false` for non-Microsoft tags.
IsReserved: bool = false,
/// Owned by Microsoft.
IsMicrosoft: bool = false,
pub const RESERVED_INVALID: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsReserved = true, .Index = 0x8, .Value = 0x000 };
pub const MOUNT_POINT: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsSurrogate = true, .Value = 0x003 };
pub const HSM: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsReserved = true, .Value = 0x004 };
pub const DRIVE_EXTENDER: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x005 };
pub const HSM2: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x006 };
pub const SIS: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x007 };
pub const WIM: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x008 };
pub const CSV: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x009 };
pub const DFS: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x00A };
pub const FILTER_MANAGER: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x00B };
pub const SYMLINK: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsSurrogate = true, .Value = 0x00C };
pub const IIS_CACHE: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsSurrogate = true, .Value = 0x010 };
pub const DFSR: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x012 };
pub const DEDUP: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x013 };
pub const APPXSTRM: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsReserved = true, .Value = 0x014 };
pub const NFS: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x014 };
pub const FILE_PLACEHOLDER: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x015 };
pub const DFM: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x016 };
pub const WOF: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x017 };
pub inline fn WCI(index: u1) IO_REPARSE_TAG {
return .{ .IsMicrosoft = true, .IsDirectory = index == 0x1, .Index = index, .Value = 0x018 };
}
pub const GLOBAL_REPARSE: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsSurrogate = true, .Value = 0x0019 };
pub inline fn CLOUD(index: u4) IO_REPARSE_TAG {
return .{ .IsMicrosoft = true, .IsDirectory = true, .Index = index, .Value = 0x01A };
}
pub const APPEXECLINK: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x01B };
pub const PROJFS: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsDirectory = true, .Value = 0x01C };
pub const LX_SYMLINK: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsSurrogate = true, .Value = 0x01D };
pub const STORAGE_SYNC: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x01E };
pub const WCI_TOMBSTONE: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsSurrogate = true, .Value = 0x01F };
pub const UNHANDLED: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x020 };
pub const ONEDRIVE: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x021 };
pub const PROJFS_TOMBSTONE: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsSurrogate = true, .Value = 0x022 };
pub const AF_UNIX: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x023 };
pub const LX_FIFO: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x024 };
pub const LX_CHR: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x025 };
pub const LX_BLK: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .Value = 0x026 };
pub const LX_STORAGE_SYNC_FOLDER: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsDirectory = true, .Value = 0x027 };
pub inline fn WCI_LINK(index: u1) IO_REPARSE_TAG {
return .{ .IsMicrosoft = true, .IsSurrogate = true, .Index = index, .Value = 0x027 };
}
pub const DATALESS_CIM: IO_REPARSE_TAG = .{ .IsMicrosoft = true, .IsSurrogate = true, .Value = 0x28 };
};
// ref: km/wdm.h
pub const ACCESS_MASK = packed struct(DWORD) {
SPECIFIC: Specific = .{ .bits = 0 },
STANDARD: Standard = .{},
Reserved21: u3 = 0,
ACCESS_SYSTEM_SECURITY: bool = false,
MAXIMUM_ALLOWED: bool = false,
Reserved26: u2 = 0,
GENERIC: Generic = .{},
pub const Specific = packed union {
bits: u16,
// ref: km/wdm.h
/// Define access rights to files and directories
FILE: File,
FILE_DIRECTORY: File.Directory,
FILE_PIPE: File.Pipe,
/// Registry Specific Access Rights.
KEY: Key,
/// Object Manager Object Type Specific Access Rights.
OBJECT_TYPE: ObjectType,
/// Object Manager Directory Specific Access Rights.
DIRECTORY: Directory,
/// Object Manager Symbolic Link Specific Access Rights.
SYMBOLIC_LINK: SymbolicLink,
/// Section Access Rights.
SECTION: Section,
/// Session Specific Access Rights.
SESSION: Session,
/// Process Specific Access Rights.
PROCESS: Process,
/// Thread Specific Access Rights.
THREAD: Thread,
/// Partition Specific Access Rights.
MEMORY_PARTITION: MemoryPartition,
/// Generic mappings for transaction manager rights.
TRANSACTIONMANAGER: TransactionManager,
/// Generic mappings for transaction rights.
TRANSACTION: Transaction,
/// Generic mappings for resource manager rights.
RESOURCEMANAGER: ResourceManager,
/// Generic mappings for enlistment rights.
ENLISTMENT: Enlistment,
/// Event Specific Access Rights.
EVENT: Event,
/// Semaphore Specific Access Rights.
SEMAPHORE: Semaphore,
// ref: km/ntifs.h
/// Token Specific Access Rights.
TOKEN: Token,
// um/winnt.h
/// Job Object Specific Access Rights.
JOB_OBJECT: JobObject,
/// Mutant Specific Access Rights.
MUTANT: Mutant,
/// Timer Specific Access Rights.
TIMER: Timer,
/// I/O Completion Specific Access Rights.
IO_COMPLETION: IoCompletion,
pub const File = packed struct(u16) {
READ_DATA: bool = false,
WRITE_DATA: bool = false,
APPEND_DATA: bool = false,
READ_EA: bool = false,
WRITE_EA: bool = false,
EXECUTE: bool = false,
Reserved6: u1 = 0,
READ_ATTRIBUTES: bool = false,
WRITE_ATTRIBUTES: bool = false,
Reserved9: u7 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .FILE = .{
.READ_DATA = true,
.WRITE_DATA = true,
.APPEND_DATA = true,
.READ_EA = true,
.WRITE_EA = true,
.EXECUTE = true,
.Reserved6 = maxInt(@FieldType(File, "Reserved6")),
.READ_ATTRIBUTES = true,
.WRITE_ATTRIBUTES = true,
} },
};
pub const GENERIC_READ: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .READ,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .FILE = .{
.READ_DATA = true,
.READ_ATTRIBUTES = true,
.READ_EA = true,
} },
};
pub const GENERIC_WRITE: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .WRITE,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .FILE = .{
.WRITE_DATA = true,
.WRITE_ATTRIBUTES = true,
.WRITE_EA = true,
.APPEND_DATA = true,
} },
};
pub const GENERIC_EXECUTE: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .EXECUTE,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .FILE = .{
.READ_ATTRIBUTES = true,
.EXECUTE = true,
} },
};
pub const Directory = packed struct(u16) {
LIST: bool = false,
ADD_FILE: bool = false,
ADD_SUBDIRECTORY: bool = false,
READ_EA: bool = false,
WRITE_EA: bool = false,
TRAVERSE: bool = false,
DELETE_CHILD: bool = false,
READ_ATTRIBUTES: bool = false,
WRITE_ATTRIBUTES: bool = false,
Reserved9: u7 = 0,
};
pub const Pipe = packed struct(u16) {
READ_DATA: bool = false,
WRITE_DATA: bool = false,
CREATE_PIPE_INSTANCE: bool = false,
Reserved3: u4 = 0,
READ_ATTRIBUTES: bool = false,
WRITE_ATTRIBUTES: bool = false,
Reserved9: u7 = 0,
};
};
pub const Key = packed struct(u16) {
/// Required to query the values of a registry key.
QUERY_VALUE: bool = false,
/// Required to create, delete, or set a registry value.
SET_VALUE: bool = false,
/// Required to create a subkey of a registry key.
CREATE_SUB_KEY: bool = false,
/// Required to enumerate the subkeys of a registry key.
ENUMERATE_SUB_KEYS: bool = false,
/// Required to request change notifications for a registry key or for subkeys of a registry key.
NOTIFY: bool = false,
/// Reserved for system use.
CREATE_LINK: bool = false,
Reserved6: u2 = 0,
/// Indicates that an application on 64-bit Windows should operate on the 64-bit registry view.
/// This flag is ignored by 32-bit Windows.
WOW64_64KEY: bool = false,
/// Indicates that an application on 64-bit Windows should operate on the 32-bit registry view.
/// This flag is ignored by 32-bit Windows.
WOW64_32KEY: bool = false,
Reserved10: u6 = 0,
pub const WOW64_RES: ACCESS_MASK = .{
.SPECIFIC = .{ .KEY = .{
.WOW64_32KEY = true,
.WOW64_64KEY = true,
} },
};
/// Combines the STANDARD_RIGHTS_READ, KEY_QUERY_VALUE, KEY_ENUMERATE_SUB_KEYS, and KEY_NOTIFY values.
pub const READ: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .READ,
.SYNCHRONIZE = false,
},
.SPECIFIC = .{ .KEY = .{
.QUERY_VALUE = true,
.ENUMERATE_SUB_KEYS = true,
.NOTIFY = true,
} },
};
/// Combines the STANDARD_RIGHTS_WRITE, KEY_SET_VALUE, and KEY_CREATE_SUB_KEY access rights.
pub const WRITE: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .WRITE,
.SYNCHRONIZE = false,
},
.SPECIFIC = .{ .KEY = .{
.SET_VALUE = true,
.CREATE_SUB_KEY = true,
} },
};
/// Equivalent to KEY_READ.
pub const EXECUTE = READ;
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .ALL,
.SYNCHRONIZE = false,
},
.SPECIFIC = .{ .KEY = .{
.QUERY_VALUE = true,
.SET_VALUE = true,
.CREATE_SUB_KEY = true,
.ENUMERATE_SUB_KEYS = true,
.NOTIFY = true,
.CREATE_LINK = true,
} },
};
};
pub const ObjectType = packed struct(u16) {
CREATE: bool = false,
Reserved1: u15 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .OBJECT_TYPE = .{
.CREATE = true,
} },
};
};
pub const Directory = packed struct(u16) {
QUERY: bool = false,
TRAVERSE: bool = false,
CREATE_OBJECT: bool = false,
CREATE_SUBDIRECTORY: bool = false,
Reserved3: u12 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .DIRECTORY = .{
.QUERY = true,
.TRAVERSE = true,
.CREATE_OBJECT = true,
.CREATE_SUBDIRECTORY = true,
} },
};
};
pub const SymbolicLink = packed struct(u16) {
QUERY: bool = false,
SET: bool = false,
Reserved2: u14 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .SYMBOLIC_LINK = .{
.QUERY = true,
} },
};
pub const ALL_ACCESS_EX: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .SYMBOLIC_LINK = .{
.QUERY = true,
.SET = true,
.Reserved2 = maxInt(@FieldType(SymbolicLink, "Reserved2")),
} },
};
};
pub const Section = packed struct(u16) {
QUERY: bool = false,
MAP_WRITE: bool = false,
MAP_READ: bool = false,
MAP_EXECUTE: bool = false,
EXTEND_SIZE: bool = false,
/// not included in `ALL_ACCESS`
MAP_EXECUTE_EXPLICIT: bool = false,
Reserved6: u10 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .SECTION = .{
.QUERY = true,
.MAP_WRITE = true,
.MAP_READ = true,
.MAP_EXECUTE = true,
.EXTEND_SIZE = true,
} },
};
};
pub const Session = packed struct(u16) {
QUERY_ACCESS: bool = false,
MODIFY_ACCESS: bool = false,
Reserved2: u14 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .SESSION = .{
.QUERY_ACCESS = true,
.MODIFY_ACCESS = true,
} },
};
};
pub const Process = packed struct(u16) {
TERMINATE: bool = false,
CREATE_THREAD: bool = false,
SET_SESSIONID: bool = false,
VM_OPERATION: bool = false,
VM_READ: bool = false,
VM_WRITE: bool = false,
DUP_HANDLE: bool = false,
CREATE_PROCESS: bool = false,
SET_QUOTA: bool = false,
SET_INFORMATION: bool = false,
QUERY_INFORMATION: bool = false,
SUSPEND_RESUME: bool = false,
QUERY_LIMITED_INFORMATION: bool = false,
SET_LIMITED_INFORMATION: bool = false,
Reserved14: u2 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .PROCESS = .{
.TERMINATE = true,
.CREATE_THREAD = true,
.SET_SESSIONID = true,
.VM_OPERATION = true,
.VM_READ = true,
.VM_WRITE = true,
.DUP_HANDLE = true,
.CREATE_PROCESS = true,
.SET_QUOTA = true,
.SET_INFORMATION = true,
.QUERY_INFORMATION = true,
.SUSPEND_RESUME = true,
.QUERY_LIMITED_INFORMATION = true,
.SET_LIMITED_INFORMATION = true,
.Reserved14 = maxInt(@FieldType(Process, "Reserved14")),
} },
};
};
pub const Thread = packed struct(u16) {
TERMINATE: bool = false,
SUSPEND_RESUME: bool = false,
ALERT: bool = false,
GET_CONTEXT: bool = false,
SET_CONTEXT: bool = false,
SET_INFORMATION: bool = false,
QUERY_INFORMATION: bool = false,
SET_THREAD_TOKEN: bool = false,
IMPERSONATE: bool = false,
DIRECT_IMPERSONATION: bool = false,
SET_LIMITED_INFORMATION: bool = false,
QUERY_LIMITED_INFORMATION: bool = false,
RESUME: bool = false,
Reserved13: u3 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .THREAD = .{
.TERMINATE = true,
.SUSPEND_RESUME = true,
.ALERT = true,
.GET_CONTEXT = true,
.SET_CONTEXT = true,
.SET_INFORMATION = true,
.QUERY_INFORMATION = true,
.SET_THREAD_TOKEN = true,
.IMPERSONATE = true,
.DIRECT_IMPERSONATION = true,
.SET_LIMITED_INFORMATION = true,
.QUERY_LIMITED_INFORMATION = true,
.RESUME = true,
.Reserved13 = maxInt(@FieldType(Thread, "Reserved13")),
} },
};
};
pub const MemoryPartition = packed struct(u16) {
QUERY_ACCESS: bool = false,
MODIFY_ACCESS: bool = false,
Required2: u14 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .MEMORY_PARTITION = .{
.QUERY_ACCESS = true,
.MODIFY_ACCESS = true,
} },
};
};
pub const TransactionManager = packed struct(u16) {
QUERY_INFORMATION: bool = false,
SET_INFORMATION: bool = false,
RECOVER: bool = false,
RENAME: bool = false,
CREATE_RM: bool = false,
/// The following right is intended for DTC's use only; it will be deprecated, and no one else should take a dependency on it.
BIND_TRANSACTION: bool = false,
Reserved6: u10 = 0,
pub const GENERIC_READ: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .READ },
.SPECIFIC = .{ .TRANSACTIONMANAGER = .{
.QUERY_INFORMATION = true,
} },
};
pub const GENERIC_WRITE: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .WRITE },
.SPECIFIC = .{ .TRANSACTIONMANAGER = .{
.SET_INFORMATION = true,
.RECOVER = true,
.RENAME = true,
.CREATE_RM = true,
} },
};
pub const GENERIC_EXECUTE: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .EXECUTE },
.SPECIFIC = .{ .TRANSACTIONMANAGER = .{} },
};
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .TRANSACTIONMANAGER = .{
.QUERY_INFORMATION = true,
.SET_INFORMATION = true,
.RECOVER = true,
.RENAME = true,
.CREATE_RM = true,
.BIND_TRANSACTION = true,
} },
};
};
pub const Transaction = packed struct(u16) {
QUERY_INFORMATION: bool = false,
SET_INFORMATION: bool = false,
ENLIST: bool = false,
COMMIT: bool = false,
ROLLBACK: bool = false,
PROPAGATE: bool = false,
RIGHT_RESERVED1: bool = false,
Reserved7: u9 = 0,
pub const GENERIC_READ: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .READ,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .TRANSACTION = .{
.QUERY_INFORMATION = true,
} },
};
pub const GENERIC_WRITE: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .WRITE,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .TRANSACTION = .{
.SET_INFORMATION = true,
.COMMIT = true,
.ENLIST = true,
.ROLLBACK = true,
.PROPAGATE = true,
} },
};
pub const GENERIC_EXECUTE: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .EXECUTE,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .TRANSACTION = .{
.COMMIT = true,
.ROLLBACK = true,
} },
};
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .TRANSACTION = .{
.QUERY_INFORMATION = true,
.SET_INFORMATION = true,
.COMMIT = true,
.ENLIST = true,
.ROLLBACK = true,
.PROPAGATE = true,
} },
};
pub const RESOURCE_MANAGER_RIGHTS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .{
.READ_CONTROL = true,
},
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .TRANSACTION = .{
.QUERY_INFORMATION = true,
.SET_INFORMATION = true,
.ENLIST = true,
.ROLLBACK = true,
.PROPAGATE = true,
} },
};
};
pub const ResourceManager = packed struct(u16) {
QUERY_INFORMATION: bool = false,
SET_INFORMATION: bool = false,
RECOVER: bool = false,
ENLIST: bool = false,
GET_NOTIFICATION: bool = false,
REGISTER_PROTOCOL: bool = false,
COMPLETE_PROPAGATION: bool = false,
Reserved7: u9 = 0,
pub const GENERIC_READ: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .READ,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .RESOURCEMANAGER = .{
.QUERY_INFORMATION = true,
} },
};
pub const GENERIC_WRITE: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .WRITE,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .RESOURCEMANAGER = .{
.SET_INFORMATION = true,
.RECOVER = true,
.ENLIST = true,
.GET_NOTIFICATION = true,
.REGISTER_PROTOCOL = true,
.COMPLETE_PROPAGATION = true,
} },
};
pub const GENERIC_EXECUTE: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .EXECUTE,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .RESOURCEMANAGER = .{
.RECOVER = true,
.ENLIST = true,
.GET_NOTIFICATION = true,
.COMPLETE_PROPAGATION = true,
} },
};
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .RESOURCEMANAGER = .{
.QUERY_INFORMATION = true,
.SET_INFORMATION = true,
.RECOVER = true,
.ENLIST = true,
.GET_NOTIFICATION = true,
.REGISTER_PROTOCOL = true,
.COMPLETE_PROPAGATION = true,
} },
};
};
pub const Enlistment = packed struct(u16) {
QUERY_INFORMATION: bool = false,
SET_INFORMATION: bool = false,
RECOVER: bool = false,
SUBORDINATE_RIGHTS: bool = false,
SUPERIOR_RIGHTS: bool = false,
Reserved5: u11 = 0,
pub const GENERIC_READ: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .READ },
.SPECIFIC = .{ .ENLISTMENT = .{
.QUERY_INFORMATION = true,
} },
};
pub const GENERIC_WRITE: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .WRITE },
.SPECIFIC = .{ .ENLISTMENT = .{
.SET_INFORMATION = true,
.RECOVER = true,
.SUBORDINATE_RIGHTS = true,
.SUPERIOR_RIGHTS = true,
} },
};
pub const GENERIC_EXECUTE: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .EXECUTE },
.SPECIFIC = .{ .ENLISTMENT = .{
.RECOVER = true,
.SUBORDINATE_RIGHTS = true,
.SUPERIOR_RIGHTS = true,
} },
};
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .ENLISTMENT = .{
.QUERY_INFORMATION = true,
.SET_INFORMATION = true,
.RECOVER = true,
.SUBORDINATE_RIGHTS = true,
.SUPERIOR_RIGHTS = true,
} },
};
};
pub const Event = packed struct(u16) {
QUERY_STATE: bool = false,
MODIFY_STATE: bool = false,
Reserved2: u14 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .EVENT = .{
.QUERY_STATE = true,
.MODIFY_STATE = true,
} },
};
};
pub const Semaphore = packed struct(u16) {
QUERY_STATE: bool = false,
MODIFY_STATE: bool = false,
Reserved2: u14 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .SEMAPHORE = .{
.QUERY_STATE = true,
.MODIFY_STATE = true,
} },
};
};
pub const Token = packed struct(u16) {
ASSIGN_PRIMARY: bool = false,
DUPLICATE: bool = false,
IMPERSONATE: bool = false,
QUERY: bool = false,
QUERY_SOURCE: bool = false,
ADJUST_PRIVILEGES: bool = false,
ADJUST_GROUPS: bool = false,
ADJUST_DEFAULT: bool = false,
ADJUST_SESSIONID: bool = false,
Reserved9: u7 = 0,
pub const ALL_ACCESS_P: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .TOKEN = .{
.ASSIGN_PRIMARY = true,
.DUPLICATE = true,
.IMPERSONATE = true,
.QUERY = true,
.QUERY_SOURCE = true,
.ADJUST_PRIVILEGES = true,
.ADJUST_GROUPS = true,
.ADJUST_DEFAULT = true,
} },
};
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED },
.SPECIFIC = .{ .TOKEN = .{
.ASSIGN_PRIMARY = true,
.DUPLICATE = true,
.IMPERSONATE = true,
.QUERY = true,
.QUERY_SOURCE = true,
.ADJUST_PRIVILEGES = true,
.ADJUST_GROUPS = true,
.ADJUST_DEFAULT = true,
.ADJUST_SESSIONID = true,
} },
};
pub const READ: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .READ },
.SPECIFIC = .{ .TOKEN = .{
.QUERY = true,
} },
};
pub const WRITE: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .WRITE },
.SPECIFIC = .{ .TOKEN = .{
.ADJUST_PRIVILEGES = true,
.ADJUST_GROUPS = true,
.ADJUST_DEFAULT = true,
} },
};
pub const EXECUTE: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .EXECUTE },
.SPECIFIC = .{ .TOKEN = .{} },
};
pub const TRUST_CONSTRAINT_MASK: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .READ },
.SPECIFIC = .{ .TOKEN = .{
.QUERY = true,
.QUERY_SOURCE = true,
} },
};
pub const TRUST_ALLOWED_MASK: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .READ },
.SPECIFIC = .{ .TOKEN = .{
.QUERY = true,
.QUERY_SOURCE = true,
.DUPLICATE = true,
.IMPERSONATE = true,
} },
};
};
pub const JobObject = packed struct(u16) {
ASSIGN_PROCESS: bool = false,
SET_ATTRIBUTES: bool = false,
QUERY: bool = false,
TERMINATE: bool = false,
SET_SECURITY_ATTRIBUTES: bool = false,
IMPERSONATE: bool = false,
Reserved6: u10 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .JOB_OBJECT = .{
.ASSIGN_PROCESS = true,
.SET_ATTRIBUTES = true,
.QUERY = true,
.TERMINATE = true,
.SET_SECURITY_ATTRIBUTES = true,
.IMPERSONATE = true,
} },
};
};
pub const Mutant = packed struct(u16) {
QUERY_STATE: bool = false,
Reserved1: u15 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .MUTANT = .{
.QUERY_STATE = true,
} },
};
};
pub const Timer = packed struct(u16) {
QUERY_STATE: bool = false,
MODIFY_STATE: bool = false,
Reserved2: u14 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{
.RIGHTS = .REQUIRED,
.SYNCHRONIZE = true,
},
.SPECIFIC = .{ .TIMER = .{
.QUERY_STATE = true,
.MODIFY_STATE = true,
} },
};
};
pub const IoCompletion = packed struct(u16) {
Reserved0: u1 = 0,
MODIFY_STATE: bool = false,
Reserved2: u14 = 0,
pub const ALL_ACCESS: ACCESS_MASK = .{
.STANDARD = .{ .RIGHTS = .REQUIRED, .SYNCHRONIZE = true },
.SPECIFIC = .{ .IO_COMPLETION = .{
.Reserved0 = maxInt(@FieldType(IoCompletion, "Reserved0")),
.MODIFY_STATE = true,
} },
};
};
pub const RIGHTS_ALL: Specific = .{ .bits = maxInt(@FieldType(Specific, "bits")) };
};
pub const Standard = packed struct(u5) {
RIGHTS: Rights = .{},
SYNCHRONIZE: bool = false,
pub const RIGHTS_ALL: Standard = .{
.RIGHTS = .ALL,
.SYNCHRONIZE = true,
};
pub const Rights = packed struct(u4) {
DELETE: bool = false,
READ_CONTROL: bool = false,
WRITE_DAC: bool = false,
WRITE_OWNER: bool = false,
pub const REQUIRED: Rights = .{
.DELETE = true,
.READ_CONTROL = true,
.WRITE_DAC = true,
.WRITE_OWNER = true,
};
pub const READ: Rights = .{
.READ_CONTROL = true,
};
pub const WRITE: Rights = .{
.READ_CONTROL = true,
};
pub const EXECUTE: Rights = .{
.READ_CONTROL = true,
};
pub const ALL = REQUIRED;
};
};
pub const Generic = packed struct(u4) {
ALL: bool = false,
EXECUTE: bool = false,
WRITE: bool = false,
READ: bool = false,
};
};
pub const DEVICE_TYPE = packed struct(ULONG) {
FileDevice: CTL_CODE.FILE_DEVICE,
Reserved16: u16 = 0,
};
pub const FS_INFORMATION_CLASS = enum(c_int) {
Volume = 1,
Label = 2,
Size = 3,
Device = 4,
Attribute = 5,
Control = 6,
FullSize = 7,
ObjectId = 8,
DriverPath = 9,
VolumeFlags = 10,
SectorSize = 11,
DataCopy = 12,
MetadataSize = 13,
FullSizeEx = 14,
Guid = 15,
_,
pub const Maximum: @typeInfo(@This()).@"enum".tag_type = 1 + @typeInfo(@This()).@"enum".field_names.len;
};
pub const SECTION_INHERIT = enum(c_int) {
Share = 1,
Unmap = 2,
};
pub const PAGE = packed struct(ULONG) {
NOACCESS: bool = false,
READONLY: bool = false,
READWRITE: bool = false,
WRITECOPY: bool = false,
EXECUTE: bool = false,
EXECUTE_READ: bool = false,
EXECUTE_READWRITE: bool = false,
EXECUTE_WRITECOPY: bool = false,
GUARD: bool = false,
NOCACHE: bool = false,
WRITECOMBINE: bool = false,
GRAPHICS_NOACCESS: bool = false,
GRAPHICS_READONLY: bool = false,
GRAPHICS_READWRITE: bool = false,
GRAPHICS_EXECUTE: bool = false,
GRAPHICS_EXECUTE_READ: bool = false,
GRAPHICS_EXECUTE_READWRITE: bool = false,
GRAPHICS_COHERENT: bool = false,
GRAPHICS_NOCACHE: bool = false,
Reserved19: u12 = 0,
REVERT_TO_FILE_MAP: bool = false,
pub fn fromProtection(protection: std.process.MemoryProtection) ?PAGE {
// TODO https://github.com/ziglang/zig/issues/22214
return switch (@as(u3, @bitCast(protection))) {
0b000 => .{ .NOACCESS = true },
0b001 => .{ .READONLY = true },
0b010 => null,
0b011 => .{ .READWRITE = true },
0b100 => .{ .EXECUTE = true },
0b101 => .{ .EXECUTE_READ = true },
0b110 => null,
0b111 => .{ .EXECUTE_READWRITE = true },
};
}
};
pub const MEM = struct {
pub const ALLOCATE = packed struct(ULONG) {
Reserved0: u12 = 0,
COMMIT: bool = false,
RESERVE: bool = false,
REPLACE_PLACEHOLDER: bool = false,
Reserved15: u3 = 0,
RESERVE_PLACEHOLDER: bool = false,
RESET: bool = false,
TOP_DOWN: bool = false,
WRITE_WATCH: bool = false,
PHYSICAL: bool = false,
Reserved23: u1 = 0,
RESET_UNDO: bool = false,
Reserved25: u4 = 0,
LARGE_PAGES: bool = false,
Reserved30: u1 = 0,
@"4MB_PAGES": bool = false,
pub const @"64K_PAGES": ALLOCATE = .{
.LARGE_PAGES = true,
.PHYSICAL = true,
};
};
pub const FREE = packed struct(ULONG) {
COALESCE_PLACEHOLDERS: bool = false,
PRESERVE_PLACEHOLDER: bool = false,
Reserved2: u12 = 0,
DECOMMIT: bool = false,
RELEASE: bool = false,
FREE: bool = false,
Reserved17: u15 = 0,
};
pub const MAP = packed struct(ULONG) {
Reserved0: u13 = 0,
RESERVE: bool = false,
REPLACE_PLACEHOLDER: bool = false,
Reserved15: u14 = 0,
LARGE_PAGES: bool = false,
Reserved30: u2 = 0,
};
pub const UNMAP = packed struct(ULONG) {
WITH_TRANSIENT_BOOST: bool = false,
PRESERVE_PLACEHOLDER: bool = false,
Reserved2: u30 = 0,
};
pub const EXTENDED_PARAMETER = extern struct {
s: packed struct(ULONG64) {
Type: TYPE,
Reserved: u56,
},
u: extern union {
ULong64: ULONG64,
Pointer: PVOID,
Size: SIZE_T,
Handle: HANDLE,
ULong: ULONG,
},
pub const TYPE = enum(u8) {
InvalidType = 0,
AddressRequirements,
NumaNode,
PartitionHandle,
UserPhysicalHandle,
AttributeFlags,
ImageMachine,
_,
pub const Max: @typeInfo(@This()).@"enum".tag_type = @typeInfo(@This()).@"enum".field_names.len;
};
};
};
pub const SEC = packed struct(ULONG) {
Reserved0: u17 = 0,
HUGE_PAGES: bool = false,
PARTITION_OWNER_HANDLE: bool = false,
@"64K_PAGES": bool = false,
Reserved19: u3 = 0,
FILE: bool = false,
IMAGE: bool = false,
PROTECTED_IMAGE: bool = false,
RESERVE: bool = false,
COMMIT: bool = false,
NOCACHE: bool = false,
Reserved29: u1 = 0,
WRITECOMBINE: bool = false,
LARGE_PAGES: bool = false,
pub const IMAGE_NO_EXECUTE: SEC = .{
.IMAGE = true,
.NOCACHE = true,
};
};
pub const ERESOURCE = opaque {};
// ref: shared/ntdef.h
pub const EVENT_TYPE = enum(c_int) {
Notification,
Synchronization,
};
pub const TIMER_TYPE = enum(c_int) {
Notification,
Synchronization,
};
pub const WAIT_TYPE = enum(c_int) {
All,
Any,
};
pub const LOGICAL = ULONG;
pub const NTSTATUS = @import("windows/ntstatus.zig").NTSTATUS;
// ref: um/heapapi.h
pub fn GetProcessHeap() ?*HEAP {
return peb().ProcessHeap;
}
// ref none
pub fn GetCurrentProcess() HANDLE {
const process_pseudo_handle: usize = @bitCast(@as(isize, -1));
return @ptrFromInt(process_pseudo_handle);
}
pub fn GetCurrentProcessId() DWORD {
return @truncate(@intFromPtr(teb().ClientId.UniqueProcess));
}
pub fn GetCurrentThread() HANDLE {
const thread_pseudo_handle: usize = @bitCast(@as(isize, -2));
return @ptrFromInt(thread_pseudo_handle);
}
pub fn GetCurrentThreadId() DWORD {
return @truncate(@intFromPtr(teb().ClientId.UniqueThread));
}
pub fn GetLastError() Win32Error {
return teb().LastErrorValue;
}
pub fn CloseHandle(hObject: HANDLE) void {
switch (ntdll.NtClose(hObject)) {
.SUCCESS => {},
else => |status| unexpectedStatus(status) catch {},
}
}
pub const CreateProcessError = error{
FileNotFound,
AccessDenied,
InvalidName,
NameTooLong,
InvalidExe,
SystemResources,
FileBusy,
Unexpected,
};
pub const CreateProcessFlags = packed struct(u32) {
debug_process: bool = false,
debug_only_this_process: bool = false,
create_suspended: bool = false,
detached_process: bool = false,
create_new_console: bool = false,
normal_priority_class: bool = false,
idle_priority_class: bool = false,
high_priority_class: bool = false,
realtime_priority_class: bool = false,
create_new_process_group: bool = false,
create_unicode_environment: bool = false,
create_separate_wow_vdm: bool = false,
create_shared_wow_vdm: bool = false,
create_forcedos: bool = false,
below_normal_priority_class: bool = false,
above_normal_priority_class: bool = false,
inherit_parent_affinity: bool = false,
inherit_caller_priority: bool = false,
create_protected_process: bool = false,
extended_startupinfo_present: bool = false,
process_mode_background_begin: bool = false,
process_mode_background_end: bool = false,
create_secure_process: bool = false,
_reserved: bool = false,
create_breakaway_from_job: bool = false,
create_preserve_code_authz_level: bool = false,
create_default_error_mode: bool = false,
create_no_window: bool = false,
profile_user: bool = false,
profile_kernel: bool = false,
profile_server: bool = false,
create_ignore_system_default: bool = false,
};
pub fn teb() *TEB {
if (builtin.zig_backend == .stage2_c) return @ptrCast(@alignCast(struct {
/// This is a workaround for the C backend until zig has the ability to put
/// C code in inline assembly.
extern fn zig_windows_teb() callconv(.c) *anyopaque;
}.zig_windows_teb()));
switch (native_arch) {
.thumb => return asm (
\\ mrc p15, 0, %[ptr], c13, c0, 2
: [ptr] "=r" (-> *TEB),
),
.aarch64 => return asm (
\\ mov %[ptr], x18
: [ptr] "=r" (-> *TEB),
),
.x86 => {
comptime assert(
@offsetOf(TEB, "NtTib") + @offsetOf(@FieldType(TEB, "NtTib"), "Self") == 0x18,
);
return asm (
\\ movl %%fs:0x18, %[ptr]
: [ptr] "=r" (-> *TEB),
);
},
.x86_64 => {
comptime assert(
@offsetOf(TEB, "NtTib") + @offsetOf(@FieldType(TEB, "NtTib"), "Self") == 0x30,
);
return asm (
\\ movq %%gs:0x30, %[ptr]
: [ptr] "=r" (-> *TEB),
);
},
else => @compileError("unsupported arch"),
}
}
pub fn peb() *PEB {
if (builtin.zig_backend == .stage2_c) switch (native_arch) {
.x86, .x86_64 => return @ptrCast(@alignCast(struct {
/// This is a workaround for the C backend until zig has the ability to put
/// C code in inline assembly.
extern fn zig_windows_peb() callconv(.c) *anyopaque;
}.zig_windows_peb())),
else => {},
} else switch (native_arch) {
.aarch64 => {
comptime assert(@offsetOf(TEB, "ProcessEnvironmentBlock") == 0x60);
return asm (
\\ ldr %[ptr], [x18, #0x60]
: [ptr] "=r" (-> *PEB),
);
},
.x86 => {
comptime assert(@offsetOf(TEB, "ProcessEnvironmentBlock") == 0x30);
return asm (
\\ movl %%fs:0x30, %[ptr]
: [ptr] "=r" (-> *PEB),
);
},
.x86_64 => {
comptime assert(@offsetOf(TEB, "ProcessEnvironmentBlock") == 0x60);
return asm (
\\ movq %%gs:0x60, %[ptr]
: [ptr] "=r" (-> *PEB),
);
},
else => {},
}
return teb().ProcessEnvironmentBlock;
}
/// A file time is a 64-bit value that represents the number of 100-nanosecond
/// intervals that have elapsed since 12:00 A.M. January 1, 1601 Coordinated
/// Universal Time (UTC).
/// This function returns the number of nanoseconds since the canonical epoch,
/// which is the POSIX one (Jan 01, 1970 AD).
pub fn fromSysTime(hns: i64) Io.Timestamp {
const adjusted_epoch: i128 = hns + std.time.epoch.windows * (std.time.ns_per_s / 100);
return .fromNanoseconds(@intCast(adjusted_epoch * 100));
}
pub fn toSysTime(ns: Io.Timestamp) i64 {
const hns = @divFloor(ns.nanoseconds, 100);
return @as(i64, @intCast(hns)) - std.time.epoch.windows * (std.time.ns_per_s / 100);
}
/// Use RtlUpcaseUnicodeChar on Windows when not in comptime to avoid including a
/// redundant copy of the uppercase data.
pub inline fn toUpperWtf16(c: u16) u16 {
return (if (builtin.os.tag != .windows or @inComptime()) nls.upcaseW else ntdll.RtlUpcaseUnicodeChar)(c);
}
/// Compares two WTF16 strings using the equivalent functionality of
/// `RtlEqualUnicodeString` (with case insensitive comparison enabled).
/// This function can be called on any target.
pub fn eqlIgnoreCaseWtf16(a: []const u16, b: []const u16) bool {
if (@inComptime() or builtin.os.tag != .windows) {
// This function compares the strings code unit by code unit (aka u16-to-u16),
// so any length difference implies inequality. In other words, there's no possible
// conversion that changes the number of WTF-16 code units needed for the uppercase/lowercase
// version in the conversion table since only codepoints <= max(u16) are eligible
// for conversion at all.
if (a.len != b.len) return false;
for (a, b) |a_c, b_c| {
// The slices are always WTF-16 LE, so need to convert the elements to native
// endianness for the uppercasing
const a_c_native = std.mem.littleToNative(u16, a_c);
const b_c_native = std.mem.littleToNative(u16, b_c);
if (a_c != b_c and toUpperWtf16(a_c_native) != toUpperWtf16(b_c_native)) {
return false;
}
}
return true;
}
// Use RtlEqualUnicodeString on Windows when not in comptime to avoid including a
// redundant copy of the uppercase data.
return ntdll.RtlEqualUnicodeString(&.init(a), &.init(b), .TRUE).toBool();
}
/// Compares two WTF-8 strings using the equivalent functionality of
/// `RtlEqualUnicodeString` (with case insensitive comparison enabled).
/// This function can be called on any target.
/// Assumes `a` and `b` are valid WTF-8.
pub fn eqlIgnoreCaseWtf8(a: []const u8, b: []const u8) bool {
// A length equality check is not possible here because there are
// some codepoints that have a different length uppercase UTF-8 representations
// than their lowercase counterparts, e.g. U+0250 (2 bytes) <-> U+2C6F (3 bytes).
// There are 7 such codepoints in the uppercase data used by Windows.
var a_wtf8_it = std.unicode.Wtf8View.initUnchecked(a).iterator();
var b_wtf8_it = std.unicode.Wtf8View.initUnchecked(b).iterator();
while (true) {
const a_cp = a_wtf8_it.nextCodepoint() orelse break;
const b_cp = b_wtf8_it.nextCodepoint() orelse return false;
if (a_cp <= maxInt(u16) and b_cp <= maxInt(u16)) {
if (a_cp != b_cp and toUpperWtf16(@intCast(a_cp)) != toUpperWtf16(@intCast(b_cp))) {
return false;
}
} else if (a_cp != b_cp) {
return false;
}
}
// Make sure there are no leftover codepoints in b
if (b_wtf8_it.nextCodepoint() != null) return false;
return true;
}
fn testEqlIgnoreCase(comptime expect_eql: bool, comptime a: []const u8, comptime b: []const u8) !void {
try std.testing.expectEqual(expect_eql, eqlIgnoreCaseWtf8(a, b));
try std.testing.expectEqual(expect_eql, eqlIgnoreCaseWtf16(
std.unicode.utf8ToUtf16LeStringLiteral(a),
std.unicode.utf8ToUtf16LeStringLiteral(b),
));
try comptime std.testing.expect(expect_eql == eqlIgnoreCaseWtf8(a, b));
try comptime std.testing.expect(expect_eql == eqlIgnoreCaseWtf16(
std.unicode.utf8ToUtf16LeStringLiteral(a),
std.unicode.utf8ToUtf16LeStringLiteral(b),
));
}
test "eqlIgnoreCaseWtf16/Wtf8" {
try testEqlIgnoreCase(true, "\x01 a B Λ ɐ", "\x01 A b λ Ɐ");
// does not do case-insensitive comparison for codepoints >= U+10000
try testEqlIgnoreCase(false, "𐓏", "𐓷");
}
/// The error type for `removeDotDirsSanitized`
pub const RemoveDotDirsError = error{TooManyParentDirs};
/// Removes '.' and '..' path components from a "sanitized relative path".
/// A "sanitized path" is one where:
/// 1) all forward slashes have been replaced with back slashes
/// 2) all repeating back slashes have been collapsed
/// 3) the path is a relative one (does not start with a back slash)
pub fn removeDotDirsSanitized(comptime T: type, path: []T) RemoveDotDirsError!usize {
assert(path.len == 0 or path[0] != '\\');
var write_idx: usize = 0;
var read_idx: usize = 0;
while (read_idx < path.len) {
if (path[read_idx] == '.') {
if (read_idx + 1 == path.len)
return write_idx;
const after_dot = path[read_idx + 1];
if (after_dot == '\\') {
read_idx += 2;
continue;
}
if (after_dot == '.' and (read_idx + 2 == path.len or path[read_idx + 2] == '\\')) {
if (write_idx == 0) return error.TooManyParentDirs;
assert(write_idx >= 2);
write_idx -= 1;
while (true) {
write_idx -= 1;
if (write_idx == 0) break;
if (path[write_idx] == '\\') {
write_idx += 1;
break;
}
}
if (read_idx + 2 == path.len)
return write_idx;
read_idx += 3;
continue;
}
}
// skip to the next path separator
while (true) : (read_idx += 1) {
if (read_idx == path.len)
return write_idx;
path[write_idx] = path[read_idx];
write_idx += 1;
if (path[read_idx] == '\\')
break;
}
read_idx += 1;
}
return write_idx;
}
/// Normalizes a Windows path with the following steps:
/// 1) convert all forward slashes to back slashes
/// 2) collapse duplicate back slashes
/// 3) remove '.' and '..' directory parts
/// Returns the length of the new path.
pub fn normalizePath(comptime T: type, path: []T) RemoveDotDirsError!usize {
mem.replaceScalar(T, path, '/', '\\');
const new_len = mem.collapseRepeatsLen(T, path, '\\');
const prefix_len: usize = init: {
if (new_len >= 1 and path[0] == '\\') break :init 1;
if (new_len >= 2 and path[1] == ':')
break :init if (new_len >= 3 and path[2] == '\\') @as(usize, 3) else @as(usize, 2);
break :init 0;
};
return prefix_len + try removeDotDirsSanitized(T, path[prefix_len..new_len]);
}
/// Returns true if the path starts with `\??\`, which is indicative of an NT path
/// but is not enough to fully distinguish between NT paths and Win32 paths, as
/// `\??\` is not actually a distinct prefix but rather the path to a special virtual
/// folder in the Object Manager.
///
/// For example, `\Device\HarddiskVolume2` and `\DosDevices\C:` are also NT paths but
/// cannot be distinguished as such by their prefix.
///
/// So, inferring whether a path is an NT path or a Win32 path is usually a mistake;
/// that information should instead be known ahead-of-time.
///
/// If `T` is `u16`, then `path` should be encoded as WTF-16LE.
pub fn hasCommonNtPrefix(comptime T: type, path: []const T) bool {
// Must be exactly \??\, forward slashes are not allowed
const expected_wtf8_prefix = "\\??\\";
const expected_prefix = switch (T) {
u8 => expected_wtf8_prefix,
u16 => std.unicode.wtf8ToWtf16LeStringLiteral(expected_wtf8_prefix),
else => @compileError("unsupported type: " ++ @typeName(T)),
};
return mem.startsWith(T, path, expected_prefix);
}
/// Similar to `RtlNtPathNameToDosPathName` but does not do any heap allocation.
/// The possible transformations are:
/// \??\C:\Some\Path -> C:\Some\Path
/// \??\UNC\server\share\foo -> \\server\share\foo
/// If the path does not have the NT namespace prefix, then `error.NotNtPath` is returned.
///
/// Functionality is based on the ReactOS test cases found here:
/// https://github.com/reactos/reactos/blob/master/modules/rostests/apitests/ntdll/RtlNtPathNameToDosPathName.c
///
/// `path` should be encoded as WTF-16LE.
///
/// Supports in-place modification (`path` and `out` may refer to the same slice).
pub fn ntToWin32Namespace(path: []const u16, out: []u16) error{ NameTooLong, NotNtPath }![]u16 {
if (path.len > PATH_MAX_WIDE) return error.NameTooLong;
if (!hasCommonNtPrefix(u16, path)) return error.NotNtPath;
var dest_index: usize = 0;
var after_prefix = path[4..]; // after the `\??\`
// The prefix \??\UNC\ means this is a UNC path, in which case the
// `\??\UNC\` should be replaced by `\\` (two backslashes)
const is_unc = after_prefix.len >= 4 and
eqlIgnoreCaseWtf16(after_prefix[0..3], std.unicode.utf8ToUtf16LeStringLiteral("UNC")) and
std.fs.path.PathType.windows.isSep(u16, after_prefix[3]);
const win32_len = path.len - @as(usize, if (is_unc) 6 else 4);
if (out.len < win32_len) return error.NameTooLong;
if (is_unc) {
out[0] = comptime std.mem.nativeToLittle(u16, '\\');
dest_index += 1;
// We want to include the last `\` of `\??\UNC\`
after_prefix = path[7..];
}
@memmove(out[dest_index..][0..after_prefix.len], after_prefix);
return out[0..win32_len];
}
test ntToWin32Namespace {
const L = std.unicode.utf8ToUtf16LeStringLiteral;
var mutable_unc_path_buf = L("\\??\\UNC\\path1\\path2").*;
try std.testing.expectEqualSlices(u16, L("\\\\path1\\path2"), try ntToWin32Namespace(&mutable_unc_path_buf, &mutable_unc_path_buf));
var mutable_path_buf = L("\\??\\C:\\test\\").*;
try std.testing.expectEqualSlices(u16, L("C:\\test\\"), try ntToWin32Namespace(&mutable_path_buf, &mutable_path_buf));
var too_small_buf: [6]u16 = undefined;
try std.testing.expectError(error.NameTooLong, ntToWin32Namespace(L("\\??\\C:\\test"), &too_small_buf));
}
inline fn MAKELANGID(p: c_ushort, s: c_ushort) LANGID {
return (s << 10) | p;
}
/// Call this when you made a windows DLL call or something that does SetLastError
/// and you get an unexpected error.
pub fn unexpectedError(err: Win32Error) UnexpectedError {
@branchHint(.cold);
if (std.options.unexpected_error_tracing) {
std.debug.print("error.Unexpected: GetLastError({d}): {t}\n", .{ err, err });
std.debug.dumpCurrentStackTrace(.{ .first_address = @returnAddress() });
}
return error.Unexpected;
}
/// Call this when you made a windows NtDll call
/// and you get an unexpected status.
pub fn unexpectedStatus(status: NTSTATUS) UnexpectedError {
if (std.options.unexpected_error_tracing) {
std.debug.print("error.Unexpected NTSTATUS=0x{x} ({s})\n", .{
@backingInt(status),
std.enums.tagName(NTSTATUS, status) orelse "<unnamed>",
});
std.debug.dumpCurrentStackTrace(.{ .first_address = @returnAddress() });
}
return error.Unexpected;
}
pub fn statusBug(status: NTSTATUS) UnexpectedError {
switch (builtin.mode) {
.Debug => std.debug.panic("programmer bug caused syscall status: 0x{x} ({s})", .{
@backingInt(status),
std.enums.tagName(NTSTATUS, status) orelse "<unnamed>",
}),
else => return error.Unexpected,
}
}
pub fn errorBug(err: Win32Error) UnexpectedError {
switch (builtin.mode) {
.Debug => std.debug.panic("programmer bug caused syscall error: 0x{x} ({s})", .{
@backingInt(err),
std.enums.tagName(Win32Error, err) orelse "<unnamed>",
}),
else => return error.Unexpected,
}
}
pub const Win32Error = @import("windows/win32error.zig").Win32Error;
pub const LANG = @import("windows/lang.zig");
pub const SUBLANG = @import("windows/sublang.zig");
pub const BOOL = Bool(c_int);
pub const BOOLEAN = Bool(BYTE);
pub const BYTE = u8;
pub const CHAR = u8;
pub const UCHAR = u8;
pub const FLOAT = f32;
pub const HANDLE = *anyopaque;
pub const HCRYPTPROV = ULONG_PTR;
pub const ATOM = u16;
pub const HBRUSH = *opaque {};
pub const HCURSOR = *opaque {};
pub const HICON = *opaque {};
pub const HINSTANCE = *opaque {};
pub const HMENU = *opaque {};
pub const HMODULE = *opaque {};
pub const HWND = *opaque {};
pub const HDC = *opaque {};
pub const HGLRC = *opaque {};
pub const FARPROC = *opaque {};
pub const PROC = *opaque {};
pub const INT = c_int;
pub const LPCSTR = [*:0]const CHAR;
pub const LPCVOID = *const anyopaque;
pub const LPSTR = [*:0]CHAR;
pub const LPVOID = *anyopaque;
pub const LPWSTR = [*:0]WCHAR;
pub const LPCWSTR = [*:0]const WCHAR;
pub const PVOID = *anyopaque;
pub const PWSTR = [*:0]WCHAR;
pub const PCWSTR = [*:0]const WCHAR;
/// Allocated by SysAllocString, freed by SysFreeString
pub const BSTR = [*:0]WCHAR;
pub const SIZE_T = usize;
pub const UINT = c_uint;
pub const ULONG_PTR = usize;
pub const LONG_PTR = isize;
pub const DWORD_PTR = ULONG_PTR;
pub const WCHAR = u16;
pub const WORD = u16;
pub const DWORD = u32;
pub const DWORD64 = u64;
pub const LARGE_INTEGER = i64;
pub const ULARGE_INTEGER = u64;
pub const USHORT = u16;
pub const SHORT = i16;
pub const ULONG = u32;
pub const LONG = i32;
pub const ULONG64 = u64;
pub const ULONGLONG = u64;
pub const LONGLONG = i64;
pub const LANGID = c_ushort;
pub const COLORREF = DWORD;
pub const LPARAM = LONG_PTR;
pub const va_list = *opaque {};
pub const TCHAR = @compileError("Deprecated: choose between `CHAR` or `WCHAR` directly instead.");
pub const LPTSTR = @compileError("Deprecated: choose between `LPSTR` or `LPWSTR` directly instead.");
pub const LPCTSTR = @compileError("Deprecated: choose between `LPCSTR` or `LPCWSTR` directly instead.");
pub const PTSTR = @compileError("Deprecated: choose between `PSTR` or `PWSTR` directly instead.");
pub const PCTSTR = @compileError("Deprecated: choose between `PCSTR` or `PCWSTR` directly instead.");
fn STRING(comptime C: type) type {
return extern struct {
Length: USHORT,
MaximumLength: USHORT,
Buffer: ?[*]C,
pub const empty: @This() = .{ .Length = 0, .MaximumLength = 0, .Buffer = null };
pub fn init(string: []const C) @This() {
const len: USHORT = @intCast(@sizeOf(C) * string.len);
return .{
.Length = len,
.MaximumLength = len,
.Buffer = @constCast(string.ptr),
};
}
pub fn initZ(string: [:0]const C) @This() {
const len: USHORT = @intCast(@sizeOf(C) * string.len);
return .{
.Length = len,
.MaximumLength = len + @sizeOf(C),
.Buffer = @constCast(string.ptr),
};
}
pub fn isEmpty(string: *const @This()) bool {
return string.Length == 0;
}
pub fn slice(string: *const @This()) []C {
return if (string.isEmpty()) &.{} else string.Buffer.?[0..@divExact(string.Length, @sizeOf(C))];
}
pub fn sliceZ(string: *const @This()) [:0]C {
assert(string.Length + @sizeOf(C) <= string.MaximumLength);
return string.Buffer.?[0..@divExact(string.Length, @sizeOf(C)) :0];
}
};
}
pub const ANSI_STRING = STRING(CHAR);
pub const UNICODE_STRING = STRING(WCHAR);
fn Bool(comptime BackingInteger: type) type {
return enum(Backing) {
/// false
FALSE = 0,
/// true
_,
/// This is not the only truthy value, comparisons against this value are always a bug.
pub const TRUE: @This() = @fromBackingInt(@intCast(1));
pub const Backing = BackingInteger;
pub fn toBool(b: @This()) bool {
return b != .FALSE;
}
pub fn fromBool(b: bool) @This() {
return @fromBackingInt(@intCast(@intFromBool(b)));
}
};
}
pub const INVALID_HANDLE_VALUE: HANDLE = @ptrFromInt(maxInt(usize));
pub const INVALID_FILE_ATTRIBUTES: DWORD = maxInt(DWORD);
pub const IO_STATUS_BLOCK = extern struct {
// "DUMMYUNIONNAME" expands to "u"
u: extern union {
Status: NTSTATUS,
Pointer: ?*anyopaque,
},
Information: ULONG_PTR,
};
pub const MAX_PATH = 260;
pub const SECURITY_ATTRIBUTES = extern struct {
nLength: DWORD,
lpSecurityDescriptor: ?*anyopaque,
bInheritHandle: BOOL,
};
pub const STARTUPINFOW = extern struct {
cb: DWORD,
lpReserved: ?LPWSTR,
lpDesktop: ?LPWSTR,
lpTitle: ?LPWSTR,
dwX: DWORD,
dwY: DWORD,
dwXSize: DWORD,
dwYSize: DWORD,
dwXCountChars: DWORD,
dwYCountChars: DWORD,
dwFillAttribute: DWORD,
dwFlags: DWORD,
wShowWindow: WORD,
cbReserved2: WORD,
lpReserved2: ?*BYTE,
hStdInput: ?HANDLE,
hStdOutput: ?HANDLE,
hStdError: ?HANDLE,
};
pub const STARTF_FORCEONFEEDBACK = 0x00000040;
pub const STARTF_FORCEOFFFEEDBACK = 0x00000080;
pub const STARTF_PREVENTPINNING = 0x00002000;
pub const STARTF_RUNFULLSCREEN = 0x00000020;
pub const STARTF_TITLEISAPPID = 0x00001000;
pub const STARTF_TITLEISLINKNAME = 0x00000800;
pub const STARTF_UNTRUSTEDSOURCE = 0x00008000;
pub const STARTF_USECOUNTCHARS = 0x00000008;
pub const STARTF_USEFILLATTRIBUTE = 0x00000010;
pub const STARTF_USEHOTKEY = 0x00000200;
pub const STARTF_USEPOSITION = 0x00000004;
pub const STARTF_USESHOWWINDOW = 0x00000001;
pub const STARTF_USESIZE = 0x00000002;
pub const STARTF_USESTDHANDLES = 0x00000100;
pub const THREAD_START_ROUTINE = fn (LPVOID) callconv(.winapi) DWORD;
pub const USER_THREAD_START_ROUTINE = fn (LPVOID) callconv(.winapi) NTSTATUS;
pub const FILETIME = extern struct {
dwLowDateTime: DWORD,
dwHighDateTime: DWORD,
};
pub const GUID = extern struct {
Data1: u32,
Data2: u16,
Data3: u16,
Data4: [8]u8,
const hex_offsets: [16]u6 = .{
6, 4, 2, 0,
11, 9, 16, 14,
19, 21, 24, 26,
28, 30, 32, 34,
};
pub fn parse(s: []const u8) GUID {
assert(s[0] == '{');
assert(s[37] == '}');
return parseNoBraces(s[1 .. s.len - 1]) catch @panic("invalid GUID string");
}
pub fn parseNoBraces(s: []const u8) !GUID {
assert(s.len == 36);
assert(s[8] == '-');
assert(s[13] == '-');
assert(s[18] == '-');
assert(s[23] == '-');
var raw1: [4]u8 = undefined;
var raw2: [2]u8 = undefined;
var raw3: [2]u8 = undefined;
var raw4: [8]u8 = undefined;
assert((try std.fmt.hexToBytes(&raw1, s[0..8])).len == raw1.len);
assert((try std.fmt.hexToBytes(&raw2, s[9..13])).len == raw2.len);
assert((try std.fmt.hexToBytes(&raw3, s[14..18])).len == raw3.len);
assert((try std.fmt.hexToBytes(raw4[0..2], s[19..23])).len == 2);
assert((try std.fmt.hexToBytes(raw4[2..8], s[24..36])).len == 6);
return .{
.Data1 = @byteSwap(@as(u32, @bitCast(raw1))),
.Data2 = @byteSwap(@as(u16, @bitCast(raw2))),
.Data3 = @byteSwap(@as(u16, @bitCast(raw3))),
.Data4 = raw4,
};
}
pub fn format(self: GUID, w: *std.Io.Writer) std.Io.Writer.Error!void {
return w.print("{{{x:0>8}-{x:0>4}-{x:0>4}-{x}-{x}}}", .{
self.Data1,
self.Data2,
self.Data3,
self.Data4[0..2],
self.Data4[2..8],
});
}
test parse {
const expected: GUID = .{
.Data1 = 0x01234567,
.Data2 = 0x89ab,
.Data3 = 0xef10,
.Data4 = "\x32\x54\x76\x98\xba\xdc\xfe\x91".*,
};
try std.testing.expectEqual(expected, GUID.parse("{01234567-89AB-EF10-3254-7698badcfe91}"));
}
test format {
const guid0: GUID = .{ .Data1 = 1, .Data2 = 1, .Data3 = 1, .Data4 = .{ 0, 1, 0, 0, 0, 0, 0, 1 } };
try std.testing.expectFmt("{00000001-0001-0001-0001-000000000001}", "{f}", .{guid0});
const guid1: GUID = .parse("{01234567-89AB-EF10-3254-7698badcfe91}");
try std.testing.expectFmt("{01234567-89ab-ef10-3254-7698badcfe91}", "{f}", .{guid1});
}
};
test {
_ = GUID;
}
pub const COORD = extern struct {
X: SHORT,
Y: SHORT,
};
pub const TLS_OUT_OF_INDEXES = 4294967295;
pub const IMAGE_TLS_DIRECTORY = extern struct {
StartAddressOfRawData: usize,
EndAddressOfRawData: usize,
AddressOfIndex: usize,
AddressOfCallBacks: usize,
SizeOfZeroFill: u32,
Characteristics: u32,
};
pub const IMAGE_TLS_DIRECTORY64 = IMAGE_TLS_DIRECTORY;
pub const IMAGE_TLS_DIRECTORY32 = IMAGE_TLS_DIRECTORY;
pub const PIMAGE_TLS_CALLBACK = ?*const fn (PVOID, DWORD, PVOID) callconv(.winapi) void;
pub const REGSAM = ACCESS_MASK;
pub const LSTATUS = LONG;
pub const HKEY = *opaque {};
pub const HKEY_CLASSES_ROOT: HKEY = @ptrFromInt(0x80000000);
pub const HKEY_CURRENT_USER: HKEY = @ptrFromInt(0x80000001);
pub const HKEY_LOCAL_MACHINE: HKEY = @ptrFromInt(0x80000002);
pub const HKEY_USERS: HKEY = @ptrFromInt(0x80000003);
pub const HKEY_PERFORMANCE_DATA: HKEY = @ptrFromInt(0x80000004);
pub const HKEY_PERFORMANCE_TEXT: HKEY = @ptrFromInt(0x80000050);
pub const HKEY_PERFORMANCE_NLSTEXT: HKEY = @ptrFromInt(0x80000060);
pub const HKEY_CURRENT_CONFIG: HKEY = @ptrFromInt(0x80000005);
pub const HKEY_DYN_DATA: HKEY = @ptrFromInt(0x80000006);
pub const HKEY_CURRENT_USER_LOCAL_SETTINGS: HKEY = @ptrFromInt(0x80000007);
pub const RTL_QUERY_REGISTRY_TABLE = extern struct {
QueryRoutine: RTL_QUERY_REGISTRY_ROUTINE,
Flags: ULONG,
Name: ?PWSTR,
EntryContext: ?*anyopaque,
DefaultType: REG.ValueType,
DefaultData: ?*anyopaque,
DefaultLength: ULONG,
};
pub const RTL_QUERY_REGISTRY_ROUTINE = ?*const fn (
PWSTR,
ULONG,
?*anyopaque,
ULONG,
?*anyopaque,
?*anyopaque,
) callconv(.winapi) NTSTATUS;
/// Path is a full path
pub const RTL_REGISTRY_ABSOLUTE = 0;
/// \Registry\Machine\System\CurrentControlSet\Services
pub const RTL_REGISTRY_SERVICES = 1;
/// \Registry\Machine\System\CurrentControlSet\Control
pub const RTL_REGISTRY_CONTROL = 2;
/// \Registry\Machine\Software\Microsoft\Windows NT\CurrentVersion
pub const RTL_REGISTRY_WINDOWS_NT = 3;
/// \Registry\Machine\Hardware\DeviceMap
pub const RTL_REGISTRY_DEVICEMAP = 4;
/// \Registry\User\CurrentUser
pub const RTL_REGISTRY_USER = 5;
pub const RTL_REGISTRY_MAXIMUM = 6;
/// Low order bits are registry handle
pub const RTL_REGISTRY_HANDLE = 0x40000000;
/// Indicates the key node is optional
pub const RTL_REGISTRY_OPTIONAL = 0x80000000;
/// Name is a subkey and remainder of table or until next subkey are value
/// names for that subkey to look at.
pub const RTL_QUERY_REGISTRY_SUBKEY = 0x00000001;
/// Reset current key to original key for this and all following table entries.
pub const RTL_QUERY_REGISTRY_TOPKEY = 0x00000002;
/// Fail if no match found for this table entry.
pub const RTL_QUERY_REGISTRY_REQUIRED = 0x00000004;
/// Used to mark a table entry that has no value name, just wants a call out, not
/// an enumeration of all values.
pub const RTL_QUERY_REGISTRY_NOVALUE = 0x00000008;
/// Used to suppress the expansion of REG_MULTI_SZ into multiple callouts or
/// to prevent the expansion of environment variable values in REG_EXPAND_SZ.
pub const RTL_QUERY_REGISTRY_NOEXPAND = 0x00000010;
/// QueryRoutine field ignored. EntryContext field points to location to store value.
/// For null terminated strings, EntryContext points to UNICODE_STRING structure that
/// that describes maximum size of buffer. If .Buffer field is NULL then a buffer is
/// allocated.
pub const RTL_QUERY_REGISTRY_DIRECT = 0x00000020;
/// Used to delete value keys after they are queried.
pub const RTL_QUERY_REGISTRY_DELETE = 0x00000040;
/// Use this flag with the RTL_QUERY_REGISTRY_DIRECT flag to verify that the REG_XXX type
/// of the stored registry value matches the type expected by the caller.
/// If the types do not match, the call fails.
pub const RTL_QUERY_REGISTRY_TYPECHECK = 0x00000100;
/// REG_ is a crowded namespace with a lot of overlapping and unrelated
/// defines in the Windows headers, so instead of strictly following the
/// Windows headers names, extra namespaces are added here for clarity.
pub const REG = struct {
pub const ValueType = enum(ULONG) {
/// No value type
NONE = 0,
/// Unicode nul terminated string
SZ = 1,
/// Unicode nul terminated string (with environment variable references)
EXPAND_SZ = 2,
/// Free form binary
BINARY = 3,
/// 32-bit number
DWORD = 4,
/// 32-bit number
DWORD_BIG_ENDIAN = 5,
/// Symbolic Link (unicode)
LINK = 6,
/// Multiple Unicode strings
MULTI_SZ = 7,
/// Resource list in the resource map
RESOURCE_LIST = 8,
/// Resource list in the hardware description
FULL_RESOURCE_DESCRIPTOR = 9,
RESOURCE_REQUIREMENTS_LIST = 10,
/// 64-bit number
QWORD = 11,
_,
/// 32-bit number (same as REG_DWORD)
pub const DWORD_LITTLE_ENDIAN: ValueType = .DWORD;
/// 64-bit number (same as REG_QWORD)
pub const QWORD_LITTLE_ENDIAN: ValueType = .QWORD;
};
/// Used with NtOpenKeyEx, maybe others
pub const OpenOptions = packed struct(ULONG) {
Reserved0: u2 = 0,
/// Open for backup or restore
/// special access rules privilege required
BACKUP_RESTORE: bool = false,
/// Open symbolic link
OPEN_LINK: bool = false,
Reserved3: u28 = 0,
};
/// Used with NtLoadKeyEx, maybe others
pub const LoadOptions = packed struct(ULONG) {
/// Restore whole hive volatile
WHOLE_HIVE_VOLATILE: bool = false,
/// Unwind changes to last flush
REFRESH_HIVE: bool = false,
/// Never lazy flush this hive
NO_LAZY_FLUSH: bool = false,
/// Force the restore process even when we have open handles on subkeys
FORCE_RESTORE: bool = false,
/// Loads the hive visible to the calling process
APP_HIVE: bool = false,
/// Hive cannot be mounted by any other process while in use
PROCESS_PRIVATE: bool = false,
/// Starts Hive Journal
START_JOURNAL: bool = false,
/// Grow hive file in exact 4k increments
HIVE_EXACT_FILE_GROWTH: bool = false,
/// No RM is started for this hive (no transactions)
HIVE_NO_RM: bool = false,
/// Legacy single logging is used for this hive
HIVE_SINGLE_LOG: bool = false,
/// This hive might be used by the OS loader
BOOT_HIVE: bool = false,
/// Load the hive and return a handle to its root kcb
LOAD_HIVE_OPEN_HANDLE: bool = false,
/// Flush changes to primary hive file size as part of all flushes
FLUSH_HIVE_FILE_GROWTH: bool = false,
/// Open a hive's files in read-only mode
/// The same flag is used for REG_APP_HIVE_OPEN_READ_ONLY:
/// Open an app hive's files in read-only mode (if the hive was not previously loaded).
OPEN_READ_ONLY: bool = false,
/// Load the hive, but don't allow any modification of it
IMMUTABLE: bool = false,
/// Do not fall back to impersonating the caller if hive file access fails
NO_IMPERSONATION_FALLBACK: bool = false,
Reserved16: u16 = 0,
};
};
pub const KEY = struct {
pub const VALUE = struct {
/// https://learn.microsoft.com/en-us/windows-hardware/drivers/ddi/wdm/ne-wdm-_key_value_information_class
pub const INFORMATION_CLASS = enum(c_int) {
Basic = 0,
Full = 1,
Partial = 2,
FullAlign64 = 3,
PartialAlign64 = 4,
Layer = 5,
_,
pub const Max: @typeInfo(@This()).@"enum".tag_type = @typeInfo(@This()).@"enum".field_names.len;
};
pub const PARTIAL_INFORMATION = extern struct {
TitleIndex: ULONG,
Type: REG.ValueType,
DataLength: ULONG,
Data: [0]UCHAR,
pub fn data(info: *const PARTIAL_INFORMATION) []const UCHAR {
const ptr: [*]const UCHAR = @ptrCast(&info.Data);
return ptr[0..info.DataLength];
}
};
};
};
pub const ENABLE_VIRTUAL_TERMINAL_PROCESSING = 0x4;
pub const DISABLE_NEWLINE_AUTO_RETURN = 0x8;
pub const FOREGROUND_BLUE = 0x0001;
pub const FOREGROUND_GREEN = 0x0002;
pub const FOREGROUND_RED = 0x0004;
pub const FOREGROUND_INTENSITY = 0x0008;
pub const BACKGROUND_BLUE = 0x0010;
pub const BACKGROUND_GREEN = 0x0020;
pub const BACKGROUND_RED = 0x0040;
pub const BACKGROUND_INTENSITY = 0x0080;
pub const LIST_ENTRY = extern struct {
Flink: *LIST_ENTRY,
Blink: *LIST_ENTRY,
};
pub const RTL_CRITICAL_SECTION_DEBUG = extern struct {
Type: WORD,
CreatorBackTraceIndex: WORD,
CriticalSection: *RTL_CRITICAL_SECTION,
ProcessLocksList: LIST_ENTRY,
EntryCount: DWORD,
ContentionCount: DWORD,
Flags: DWORD,
CreatorBackTraceIndexHigh: WORD,
SpareWORD: WORD,
};
pub const RTL_CRITICAL_SECTION = extern struct {
DebugInfo: *RTL_CRITICAL_SECTION_DEBUG,
LockCount: LONG,
RecursionCount: LONG,
OwningThread: HANDLE,
LockSemaphore: HANDLE,
SpinCount: ULONG_PTR,
};
pub const CRITICAL_SECTION = RTL_CRITICAL_SECTION;
pub const INIT_ONCE = RTL_RUN_ONCE;
pub const INIT_ONCE_STATIC_INIT = RTL_RUN_ONCE_INIT;
pub const INIT_ONCE_FN = *const fn (InitOnce: *INIT_ONCE, Parameter: ?*anyopaque, Context: ?*anyopaque) callconv(.winapi) BOOL;
pub const RTL_RUN_ONCE = extern struct {
Ptr: ?*anyopaque,
};
pub const RTL_RUN_ONCE_INIT = RTL_RUN_ONCE{ .Ptr = null };
/// > The maximum path of 32,767 characters is approximate, because the "\\?\"
/// > prefix may be expanded to a longer string by the system at run time, and
/// > this expansion applies to the total length.
/// from https://docs.microsoft.com/en-us/windows/desktop/FileIO/naming-a-file#maximum-path-length-limitation
pub const PATH_MAX_WIDE = 32767;
/// > [Each file name component can be] up to the value returned in the
/// > lpMaximumComponentLength parameter of the GetVolumeInformation function
/// > (this value is commonly 255 characters)
/// from https://learn.microsoft.com/en-us/windows/win32/fileio/maximum-file-path-limitation
///
/// > The value that is stored in the variable that *lpMaximumComponentLength points to is
/// > used to indicate that a specified file system supports long names. For example, for
/// > a FAT file system that supports long names, the function stores the value 255, rather
/// > than the previous 8.3 indicator. Long names can also be supported on systems that use
/// > the NTFS file system.
/// from https://learn.microsoft.com/en-us/windows/win32/api/fileapi/nf-fileapi-getvolumeinformationw
///
/// The assumption being made here is that while lpMaximumComponentLength may vary, it will never
/// be larger than 255.
///
/// TODO: More verification of this assumption.
pub const NAME_MAX = 255;
pub const EXCEPTION_DATATYPE_MISALIGNMENT = 0x80000002;
pub const EXCEPTION_ACCESS_VIOLATION = 0xc0000005;
pub const EXCEPTION_ILLEGAL_INSTRUCTION = 0xc000001d;
pub const EXCEPTION_STACK_OVERFLOW = 0xc00000fd;
pub const EXCEPTION_CONTINUE_SEARCH = 0;
pub const EXCEPTION_RECORD = extern struct {
ExceptionCode: u32,
ExceptionFlags: u32,
ExceptionRecord: *EXCEPTION_RECORD,
ExceptionAddress: *anyopaque,
NumberParameters: u32,
ExceptionInformation: [15]usize,
};
pub const FLOATING_SAVE_AREA = switch (native_arch) {
.x86 => extern struct {
ControlWord: DWORD,
StatusWord: DWORD,
TagWord: DWORD,
ErrorOffset: DWORD,
ErrorSelector: DWORD,
DataOffset: DWORD,
DataSelector: DWORD,
RegisterArea: [80]BYTE,
Cr0NpxState: DWORD,
},
else => @compileError("FLOATING_SAVE_AREA only defined on x86"),
};
pub const M128A = switch (native_arch) {
.x86_64 => extern struct {
Low: ULONGLONG,
High: LONGLONG,
},
else => @compileError("M128A only defined on x86_64"),
};
pub const XMM_SAVE_AREA32 = switch (native_arch) {
.x86_64 => extern struct {
ControlWord: WORD,
StatusWord: WORD,
TagWord: BYTE,
Reserved1: BYTE,
ErrorOpcode: WORD,
ErrorOffset: DWORD,
ErrorSelector: WORD,
Reserved2: WORD,
DataOffset: DWORD,
DataSelector: WORD,
Reserved3: WORD,
MxCsr: DWORD,
MxCsr_Mask: DWORD,
FloatRegisters: [8]M128A,
XmmRegisters: [16]M128A,
Reserved4: [96]BYTE,
},
else => @compileError("XMM_SAVE_AREA32 only defined on x86_64"),
};
pub const NEON128 = switch (native_arch) {
.thumb => extern struct {
Low: ULONGLONG,
High: LONGLONG,
},
.aarch64 => extern union {
DUMMYSTRUCTNAME: extern struct {
Low: ULONGLONG,
High: LONGLONG,
},
D: [2]f64,
S: [4]f32,
H: [8]WORD,
B: [16]BYTE,
},
else => @compileError("NEON128 only defined on aarch64"),
};
pub const CONTEXT = switch (native_arch) {
.x86 => extern struct {
ContextFlags: DWORD,
Dr0: DWORD,
Dr1: DWORD,
Dr2: DWORD,
Dr3: DWORD,
Dr6: DWORD,
Dr7: DWORD,
FloatSave: FLOATING_SAVE_AREA,
SegGs: DWORD,
SegFs: DWORD,
SegEs: DWORD,
SegDs: DWORD,
Edi: DWORD,
Esi: DWORD,
Ebx: DWORD,
Edx: DWORD,
Ecx: DWORD,
Eax: DWORD,
Ebp: DWORD,
Eip: DWORD,
SegCs: DWORD,
EFlags: DWORD,
Esp: DWORD,
SegSs: DWORD,
ExtendedRegisters: [512]BYTE,
pub fn getRegs(ctx: *const CONTEXT) struct { bp: usize, ip: usize, sp: usize } {
return .{ .bp = ctx.Ebp, .ip = ctx.Eip, .sp = ctx.Esp };
}
},
.x86_64 => extern struct {
P1Home: DWORD64 align(16),
P2Home: DWORD64,
P3Home: DWORD64,
P4Home: DWORD64,
P5Home: DWORD64,
P6Home: DWORD64,
ContextFlags: DWORD,
MxCsr: DWORD,
SegCs: WORD,
SegDs: WORD,
SegEs: WORD,
SegFs: WORD,
SegGs: WORD,
SegSs: WORD,
EFlags: DWORD,
Dr0: DWORD64,
Dr1: DWORD64,
Dr2: DWORD64,
Dr3: DWORD64,
Dr6: DWORD64,
Dr7: DWORD64,
Rax: DWORD64,
Rcx: DWORD64,
Rdx: DWORD64,
Rbx: DWORD64,
Rsp: DWORD64,
Rbp: DWORD64,
Rsi: DWORD64,
Rdi: DWORD64,
R8: DWORD64,
R9: DWORD64,
R10: DWORD64,
R11: DWORD64,
R12: DWORD64,
R13: DWORD64,
R14: DWORD64,
R15: DWORD64,
Rip: DWORD64,
DUMMYUNIONNAME: extern union {
FltSave: XMM_SAVE_AREA32,
FloatSave: XMM_SAVE_AREA32,
DUMMYSTRUCTNAME: extern struct {
Header: [2]M128A,
Legacy: [8]M128A,
Xmm0: M128A,
Xmm1: M128A,
Xmm2: M128A,
Xmm3: M128A,
Xmm4: M128A,
Xmm5: M128A,
Xmm6: M128A,
Xmm7: M128A,
Xmm8: M128A,
Xmm9: M128A,
Xmm10: M128A,
Xmm11: M128A,
Xmm12: M128A,
Xmm13: M128A,
Xmm14: M128A,
Xmm15: M128A,
},
},
VectorRegister: [26]M128A,
VectorControl: DWORD64,
DebugControl: DWORD64,
LastBranchToRip: DWORD64,
LastBranchFromRip: DWORD64,
LastExceptionToRip: DWORD64,
LastExceptionFromRip: DWORD64,
pub fn getRegs(ctx: *const CONTEXT) struct { bp: usize, ip: usize, sp: usize } {
return .{ .bp = ctx.Rbp, .ip = ctx.Rip, .sp = ctx.Rsp };
}
pub fn setIp(ctx: *CONTEXT, ip: usize) void {
ctx.Rip = ip;
}
pub fn setSp(ctx: *CONTEXT, sp: usize) void {
ctx.Rsp = sp;
}
},
.thumb => extern struct {
ContextFlags: ULONG,
R0: ULONG,
R1: ULONG,
R2: ULONG,
R3: ULONG,
R4: ULONG,
R5: ULONG,
R6: ULONG,
R7: ULONG,
R8: ULONG,
R9: ULONG,
R10: ULONG,
R11: ULONG,
R12: ULONG,
Sp: ULONG,
Lr: ULONG,
Pc: ULONG,
Cpsr: ULONG,
Fpcsr: ULONG,
Padding: ULONG,
DUMMYUNIONNAME: extern union {
Q: [16]NEON128,
D: [32]ULONGLONG,
S: [32]ULONG,
},
Bvr: [8]ULONG,
Bcr: [8]ULONG,
Wvr: [1]ULONG,
Wcr: [1]ULONG,
Padding2: [2]ULONG,
pub fn getRegs(ctx: *const CONTEXT) struct { bp: usize, ip: usize, sp: usize } {
return .{
.bp = ctx.DUMMYUNIONNAME.S[11],
.ip = ctx.Pc,
.sp = ctx.Sp,
};
}
pub fn setIp(ctx: *CONTEXT, ip: usize) void {
ctx.Pc = ip;
}
pub fn setSp(ctx: *CONTEXT, sp: usize) void {
ctx.Sp = sp;
}
},
.aarch64 => extern struct {
ContextFlags: ULONG align(16),
Cpsr: ULONG,
DUMMYUNIONNAME: extern union {
DUMMYSTRUCTNAME: extern struct {
X0: DWORD64,
X1: DWORD64,
X2: DWORD64,
X3: DWORD64,
X4: DWORD64,
X5: DWORD64,
X6: DWORD64,
X7: DWORD64,
X8: DWORD64,
X9: DWORD64,
X10: DWORD64,
X11: DWORD64,
X12: DWORD64,
X13: DWORD64,
X14: DWORD64,
X15: DWORD64,
X16: DWORD64,
X17: DWORD64,
X18: DWORD64,
X19: DWORD64,
X20: DWORD64,
X21: DWORD64,
X22: DWORD64,
X23: DWORD64,
X24: DWORD64,
X25: DWORD64,
X26: DWORD64,
X27: DWORD64,
X28: DWORD64,
Fp: DWORD64,
Lr: DWORD64,
},
X: [31]DWORD64,
},
Sp: DWORD64,
Pc: DWORD64,
V: [32]NEON128,
Fpcr: DWORD,
Fpsr: DWORD,
Bcr: [8]DWORD,
Bvr: [8]DWORD64,
Wcr: [2]DWORD,
Wvr: [2]DWORD64,
pub fn getRegs(ctx: *const CONTEXT) struct { bp: usize, ip: usize, sp: usize } {
return .{
.bp = ctx.DUMMYUNIONNAME.DUMMYSTRUCTNAME.Fp,
.ip = ctx.Pc,
.sp = ctx.Sp,
};
}
pub fn setIp(ctx: *CONTEXT, ip: usize) void {
ctx.Pc = ip;
}
pub fn setSp(ctx: *CONTEXT, sp: usize) void {
ctx.Sp = sp;
}
},
else => @compileError("CONTEXT is not defined for this architecture"),
};
pub const RUNTIME_FUNCTION = switch (native_arch) {
.x86_64 => extern struct {
BeginAddress: DWORD,
EndAddress: DWORD,
UnwindData: DWORD,
},
.thumb => extern struct {
BeginAddress: DWORD,
DUMMYUNIONNAME: extern union {
UnwindData: DWORD,
DUMMYSTRUCTNAME: packed struct(u32) {
Flag: u2,
FunctionLength: u11,
Ret: u2,
H: u1,
Reg: u3,
R: u1,
L: u1,
C: u1,
StackAdjust: u10,
},
},
},
.aarch64 => extern struct {
BeginAddress: DWORD,
DUMMYUNIONNAME: extern union {
UnwindData: DWORD,
DUMMYSTRUCTNAME: packed struct(u32) {
Flag: u2,
FunctionLength: u11,
RegF: u3,
RegI: u4,
H: u1,
CR: u2,
FrameSize: u9,
},
},
},
else => @compileError("RUNTIME_FUNCTION is not defined for this architecture"),
};
pub const KNONVOLATILE_CONTEXT_POINTERS = switch (native_arch) {
.x86_64 => extern struct {
FloatingContext: [16]?*M128A,
IntegerContext: [16]?*ULONG64,
},
.thumb => extern struct {
R4: ?*DWORD,
R5: ?*DWORD,
R6: ?*DWORD,
R7: ?*DWORD,
R8: ?*DWORD,
R9: ?*DWORD,
R10: ?*DWORD,
R11: ?*DWORD,
Lr: ?*DWORD,
D8: ?*ULONGLONG,
D9: ?*ULONGLONG,
D10: ?*ULONGLONG,
D11: ?*ULONGLONG,
D12: ?*ULONGLONG,
D13: ?*ULONGLONG,
D14: ?*ULONGLONG,
D15: ?*ULONGLONG,
},
.aarch64 => extern struct {
X19: ?*DWORD64,
X20: ?*DWORD64,
X21: ?*DWORD64,
X22: ?*DWORD64,
X23: ?*DWORD64,
X24: ?*DWORD64,
X25: ?*DWORD64,
X26: ?*DWORD64,
X27: ?*DWORD64,
X28: ?*DWORD64,
Fp: ?*DWORD64,
Lr: ?*DWORD64,
D8: ?*DWORD64,
D9: ?*DWORD64,
D10: ?*DWORD64,
D11: ?*DWORD64,
D12: ?*DWORD64,
D13: ?*DWORD64,
D14: ?*DWORD64,
D15: ?*DWORD64,
},
else => @compileError("KNONVOLATILE_CONTEXT_POINTERS is not defined for this architecture"),
};
pub const EXCEPTION_POINTERS = extern struct {
ExceptionRecord: *EXCEPTION_RECORD,
ContextRecord: *CONTEXT,
};
pub const VECTORED_EXCEPTION_HANDLER = *const fn (ExceptionInfo: *EXCEPTION_POINTERS) callconv(.winapi) c_long;
pub const EXCEPTION_DISPOSITION = i32;
pub const EXCEPTION_ROUTINE = *const fn (
ExceptionRecord: ?*EXCEPTION_RECORD,
EstablisherFrame: PVOID,
ContextRecord: *CONTEXT,
DispatcherContext: PVOID,
) callconv(.winapi) EXCEPTION_DISPOSITION;
pub const UNWIND_HISTORY_TABLE_SIZE = 12;
pub const UNWIND_HISTORY_TABLE_ENTRY = extern struct {
ImageBase: ULONG64,
FunctionEntry: *RUNTIME_FUNCTION,
};
pub const UNWIND_HISTORY_TABLE = extern struct {
Count: ULONG,
LocalHint: BYTE,
GlobalHint: BYTE,
Search: BYTE,
Once: BYTE,
LowAddress: ULONG64,
HighAddress: ULONG64,
Entry: [UNWIND_HISTORY_TABLE_SIZE]UNWIND_HISTORY_TABLE_ENTRY,
};
pub const UNW_FLAG_NHANDLER = 0x0;
pub const UNW_FLAG_EHANDLER = 0x1;
pub const UNW_FLAG_UHANDLER = 0x2;
pub const UNW_FLAG_CHAININFO = 0x4;
pub const ACTIVATION_CONTEXT_DATA = opaque {};
pub const ASSEMBLY_STORAGE_MAP = opaque {};
pub const FLS_CALLBACK_INFO = opaque {};
pub const RTL_BITMAP = opaque {};
pub const KAFFINITY = usize;
pub const KPRIORITY = i32;
pub const CLIENT_ID = extern struct {
UniqueProcess: ?HANDLE,
UniqueThread: ?HANDLE,
};
pub const TEB = extern struct {
NtTib: NT_TIB,
EnvironmentPointer: PVOID,
ClientId: CLIENT_ID,
ActiveRpcHandle: PVOID,
ThreadLocalStoragePointer: PVOID,
ProcessEnvironmentBlock: *PEB,
LastErrorValue: Win32Error,
Reserved2: [399 * @sizeOf(PVOID) - @sizeOf(ULONG)]u8,
Reserved3: [1952]u8,
TlsSlots: [64]PVOID,
Reserved4: [8]u8,
Reserved5: [26]PVOID,
ReservedForOle: PVOID,
Reserved6: [4]PVOID,
TlsExpansionSlots: PVOID,
};
comptime {
// XXX: Without this check we cannot use `std.Io.Writer` on 16-bit platforms. `std.fmt.bufPrint` will hit the unreachable in `PEB.GdiHandleBuffer` without this guard.
if (builtin.os.tag == .windows) {
// Offsets taken from WinDbg info and Geoff Chappell[1] (RIP)
// [1]: https://www.geoffchappell.com/studies/windows/km/ntoskrnl/inc/api/pebteb/teb/index.htm
assert(@offsetOf(TEB, "NtTib") == 0x00);
if (@sizeOf(usize) == 4) {
assert(@offsetOf(TEB, "EnvironmentPointer") == 0x1C);
assert(@offsetOf(TEB, "ClientId") == 0x20);
assert(@offsetOf(TEB, "ActiveRpcHandle") == 0x28);
assert(@offsetOf(TEB, "ThreadLocalStoragePointer") == 0x2C);
assert(@offsetOf(TEB, "ProcessEnvironmentBlock") == 0x30);
assert(@offsetOf(TEB, "LastErrorValue") == 0x34);
assert(@offsetOf(TEB, "TlsSlots") == 0xe10);
} else if (@sizeOf(usize) == 8) {
assert(@offsetOf(TEB, "EnvironmentPointer") == 0x38);
assert(@offsetOf(TEB, "ClientId") == 0x40);
assert(@offsetOf(TEB, "ActiveRpcHandle") == 0x50);
assert(@offsetOf(TEB, "ThreadLocalStoragePointer") == 0x58);
assert(@offsetOf(TEB, "ProcessEnvironmentBlock") == 0x60);
assert(@offsetOf(TEB, "LastErrorValue") == 0x68);
assert(@offsetOf(TEB, "TlsSlots") == 0x1480);
}
}
}
pub const EXCEPTION_REGISTRATION_RECORD = extern struct {
Next: ?*EXCEPTION_REGISTRATION_RECORD,
Handler: ?*EXCEPTION_DISPOSITION,
};
pub const NT_TIB = extern struct {
ExceptionList: ?*EXCEPTION_REGISTRATION_RECORD,
StackBase: PVOID,
StackLimit: PVOID,
SubSystemTib: PVOID,
DUMMYUNIONNAME: extern union { FiberData: PVOID, Version: DWORD },
ArbitraryUserPointer: PVOID,
Self: ?*@This(),
};
/// Process Environment Block
/// Microsoft documentation of this is incomplete, the fields here are taken from various resources including:
/// - https://github.com/wine-mirror/wine/blob/1aff1e6a370ee8c0213a0fd4b220d121da8527aa/include/winternl.h#L269
/// - https://www.geoffchappell.com/studies/windows/win32/ntdll/structs/peb/index.htm
pub const PEB = extern struct {
// Versions: All
InheritedAddressSpace: BOOLEAN,
// Versions: 3.51+
ReadImageFileExecOptions: BOOLEAN,
BeingDebugged: BOOLEAN,
// Versions: 5.2+ (previously was padding)
BitField: UCHAR,
// Versions: all
Mutant: HANDLE,
ImageBaseAddress: HMODULE,
Ldr: *PEB_LDR_DATA,
ProcessParameters: *RTL_USER_PROCESS_PARAMETERS,
SubSystemData: PVOID,
ProcessHeap: ?*HEAP,
// Versions: 5.1+
FastPebLock: *RTL_CRITICAL_SECTION,
// Versions: 5.2+
AtlThunkSListPtr: PVOID,
IFEOKey: PVOID,
// Versions: 6.0+
/// https://www.geoffchappell.com/studies/windows/win32/ntdll/structs/peb/crossprocessflags.htm
CrossProcessFlags: ULONG,
// Versions: 6.0+
union1: extern union {
KernelCallbackTable: PVOID,
UserSharedInfoPtr: PVOID,
},
// Versions: 5.1+
SystemReserved: ULONG,
// Versions: 5.1, (not 5.2, not 6.0), 6.1+
AtlThunkSListPtr32: ULONG,
// Versions: 6.1+
ApiSetMap: PVOID,
// Versions: all
TlsExpansionCounter: ULONG,
// note: there is padding here on 64 bit
TlsBitmap: *RTL_BITMAP,
TlsBitmapBits: [2]ULONG,
/// Our base address of the memory region shared with the CSR server.
ReadOnlySharedMemoryBase: PVOID,
// Versions: 1703+
SharedData: PVOID,
// Versions: all
ReadOnlyStaticServerData: *UnknownStaticServerDataIndirection,
AnsiCodePageData: PVOID,
OemCodePageData: PVOID,
UnicodeCaseTableData: PVOID,
// Versions: 3.51+
NumberOfProcessors: ULONG,
NtGlobalFlag: ULONG,
// Versions: all
CriticalSectionTimeout: LARGE_INTEGER,
// End of Original PEB size
// Fields appended in 3.51:
HeapSegmentReserve: ULONG_PTR,
HeapSegmentCommit: ULONG_PTR,
HeapDeCommitTotalFreeThreshold: ULONG_PTR,
HeapDeCommitFreeBlockThreshold: ULONG_PTR,
NumberOfHeaps: ULONG,
MaximumNumberOfHeaps: ULONG,
ProcessHeaps: *PVOID,
// Fields appended in 4.0:
GdiSharedHandleTable: PVOID,
ProcessStarterHelper: PVOID,
GdiDCAttributeList: ULONG,
// note: there is padding here on 64 bit
LoaderLock: *RTL_CRITICAL_SECTION,
OSMajorVersion: ULONG,
OSMinorVersion: ULONG,
OSBuildNumber: USHORT,
OSCSDVersion: USHORT,
OSPlatformId: ULONG,
ImageSubSystem: ULONG,
ImageSubSystemMajorVersion: ULONG,
ImageSubSystemMinorVersion: ULONG,
// note: there is padding here on 64 bit
ActiveProcessAffinityMask: KAFFINITY,
GdiHandleBuffer: [
switch (@sizeOf(usize)) {
4 => 0x22,
8 => 0x3C,
else => unreachable,
}
]ULONG,
// Fields appended in 5.0 (Windows 2000):
PostProcessInitRoutine: PVOID,
TlsExpansionBitmap: *RTL_BITMAP,
TlsExpansionBitmapBits: [32]ULONG,
SessionId: ULONG,
// note: there is padding here on 64 bit
// Versions: 5.1+
AppCompatFlags: ULARGE_INTEGER,
AppCompatFlagsUser: ULARGE_INTEGER,
ShimData: PVOID,
// Versions: 5.0+
AppCompatInfo: PVOID,
CSDVersion: UNICODE_STRING,
// Fields appended in 5.1 (Windows XP):
ActivationContextData: *const ACTIVATION_CONTEXT_DATA,
ProcessAssemblyStorageMap: *ASSEMBLY_STORAGE_MAP,
SystemDefaultActivationData: *const ACTIVATION_CONTEXT_DATA,
SystemAssemblyStorageMap: *ASSEMBLY_STORAGE_MAP,
MinimumStackCommit: ULONG_PTR,
// Fields appended in 5.2 (Windows Server 2003):
FlsCallback: *FLS_CALLBACK_INFO,
FlsListHead: LIST_ENTRY,
FlsBitmap: *RTL_BITMAP,
FlsBitmapBits: [4]ULONG,
FlsHighIndex: ULONG,
// Fields appended in 6.0 (Windows Vista):
WerRegistrationData: PVOID,
WerShipAssertPtr: PVOID,
// Fields appended in 6.1 (Windows 7):
pUnused: PVOID, // previously pContextData
pImageHeaderHash: PVOID,
/// TODO: https://www.geoffchappell.com/studies/windows/win32/ntdll/structs/peb/tracingflags.htm
TracingFlags: ULONG,
// Fields appended in 6.2 (Windows 8):
/// Base address in the CSRSS address space of the memory region shared with the CSR server.
CsrServerReadOnlySharedMemoryBase: ULONGLONG,
// Fields appended in 1511:
TppWorkerpListLock: ULONG,
TppWorkerpList: LIST_ENTRY,
WaitOnAddressHashTable: [0x80]PVOID,
// Fields appended in 1709:
TelemetryCoverageHeader: PVOID,
CloudFileFlags: ULONG,
/// Details of this structure are unknown, but the existence of the field at offset 8 is known
/// from experimentation and from reverse-engineering kernelbase.dll.
const UnknownStaticServerDataIndirection = extern struct {
unknown: u64,
/// In the CSRSS address space.
base_static_server_data_addr: u64,
};
};
/// The `PEB_LDR_DATA` structure is the main record of what modules are loaded in a process.
/// It is essentially the head of three double-linked lists of `LDR.DATA_TABLE_ENTRY` structures which each represent one loaded module.
///
/// Microsoft documentation of this is incomplete, the fields here are taken from various resources including:
/// - https://www.geoffchappell.com/studies/windows/win32/ntdll/structs/peb_ldr_data.htm
pub const PEB_LDR_DATA = extern struct {
// Versions: 3.51 and higher
/// The size in bytes of the structure
Length: ULONG,
/// TRUE if the structure is prepared.
Initialized: BOOLEAN,
SsHandle: PVOID,
InLoadOrderModuleList: LIST_ENTRY,
InMemoryOrderModuleList: LIST_ENTRY,
InInitializationOrderModuleList: LIST_ENTRY,
// Versions: 5.1 and higher
/// No known use of this field is known in Windows 8 and higher.
EntryInProgress: PVOID,
// Versions: 6.0 from Windows Vista SP1, and higher
ShutdownInProgress: BOOLEAN,
/// Though ShutdownThreadId is declared as a HANDLE,
/// it is indeed the thread ID as suggested by its name.
/// It is picked up from the UniqueThread member of the CLIENT_ID in the
/// TEB of the thread that asks to terminate the process.
ShutdownThreadId: HANDLE,
};
pub const LDR = struct {
/// Microsoft documentation of this is incomplete, the fields here are taken from various resources including:
/// - https://docs.microsoft.com/en-us/windows/win32/api/winternl/ns-winternl-peb_ldr_data
/// - https://www.geoffchappell.com/studies/windows/km/ntoskrnl/inc/api/ntldr/ldr_data_table_entry.htm
pub const DATA_TABLE_ENTRY = extern struct {
InLoadOrderLinks: LIST_ENTRY,
InMemoryOrderLinks: LIST_ENTRY,
InInitializationOrderLinks: LIST_ENTRY,
DllBase: PVOID,
EntryPoint: PVOID,
SizeOfImage: ULONG,
FullDllName: UNICODE_STRING,
BaseDllName: UNICODE_STRING,
Reserved5: [3]PVOID,
DUMMYUNIONNAME: extern union {
CheckSum: ULONG,
Reserved6: PVOID,
},
TimeDateStamp: ULONG,
};
pub const DLL_NOTIFICATION = struct {
pub const REASON = enum(ULONG) { LOADED = 1, UNLOADED = 2 };
pub const DATA = extern union {
Loaded: LOADED,
Unloaded: UNLOADED,
pub const LOADED = extern struct {
Flags: REGISTER,
FullDllName: *const UNICODE_STRING,
BaseDllName: *const UNICODE_STRING,
DllBase: PVOID,
SizeOfImage: ULONG,
};
pub const UNLOADED = extern struct {
Flags: REGISTER,
FullDllName: *const UNICODE_STRING,
BaseDllName: *const UNICODE_STRING,
DllBase: PVOID,
SizeOfImage: ULONG,
};
};
pub const COOKIE = *opaque {};
pub const FUNCTION = fn (
NotificationReason: REASON,
NotificationData: *const DATA,
Context: ?PVOID,
) callconv(.winapi) void;
pub const REGISTER = packed struct(ULONG) {
Reserved0: u32 = 0,
};
};
pub const GET_DLL_HANDLE_EX = packed struct(ULONG) {
UNCHANGED_REFCOUNT: bool = false,
PIN: bool = false,
Reserved2: u30 = 0,
};
pub const GET_PROCEDURE_ADDRESS = packed struct(ULONG) {
DONT_RECORD_FORWARDER: bool = false,
Reserved1: u31 = 0,
};
pub const LOAD = packed struct(ULONG) {
DONT_RESOLVE_DLL_REFERENCES: bool = false,
LIBRARY_AS_DATAFILE: bool = false,
PACKAGED_LIBRARY: bool = false,
WITH_ALTERED_SEARCH_PATH: bool = false,
IGNORE_CODE_AUTHZ_LEVEL: bool = false,
LIBRARY_AS_IMAGE_RESOURCE: bool = false,
LIBRARY_AS_DATAFILE_EXCLUSIVE: bool = false,
LIBRARY_REQUERE_SIGNED_TARGET: bool = false,
LIBRARY_SEARCH_DLL_LOAD_DIR: bool = false,
LIBRARY_SEARCH_USER_DIRS: bool = false,
LIBRARY_SEARCH_SYSTEM32: bool = false,
LIBRARY_SEARCH_DEFAULT_DIRS: bool = false,
};
};
pub const RTL_USER_PROCESS_PARAMETERS = extern struct {
AllocationSize: ULONG,
Size: ULONG,
Flags: ULONG,
DebugFlags: ULONG,
ConsoleHandle: HANDLE,
ConsoleFlags: ULONG,
hStdInput: HANDLE,
hStdOutput: HANDLE,
hStdError: HANDLE,
CurrentDirectory: CURDIR,
DllPath: UNICODE_STRING,
ImagePathName: UNICODE_STRING,
CommandLine: UNICODE_STRING,
/// Points to a NUL-terminated sequence of NUL-terminated
/// WTF-16 LE encoded `name=value` sequences.
/// Example using string literal syntax:
/// `"NAME=value\x00foo=bar\x00\x00"`
Environment: [*:0]WCHAR,
dwX: ULONG,
dwY: ULONG,
dwXSize: ULONG,
dwYSize: ULONG,
dwXCountChars: ULONG,
dwYCountChars: ULONG,
dwFillAttribute: ULONG,
dwFlags: ULONG,
dwShowWindow: ULONG,
WindowTitle: UNICODE_STRING,
Desktop: UNICODE_STRING,
ShellInfo: UNICODE_STRING,
RuntimeInfo: UNICODE_STRING,
DLCurrentDirectory: [0x20]RTL_DRIVE_LETTER_CURDIR,
};
pub const RTL_DRIVE_LETTER_CURDIR = extern struct {
Flags: c_ushort,
Length: c_ushort,
TimeStamp: ULONG,
DosPath: UNICODE_STRING,
};
pub const PPS_POST_PROCESS_INIT_ROUTINE = ?*const fn () callconv(.winapi) void;
pub const FILE_DIRECTORY_INFORMATION = extern struct {
NextEntryOffset: ULONG,
FileIndex: ULONG,
CreationTime: LARGE_INTEGER,
LastAccessTime: LARGE_INTEGER,
LastWriteTime: LARGE_INTEGER,
ChangeTime: LARGE_INTEGER,
EndOfFile: LARGE_INTEGER,
AllocationSize: LARGE_INTEGER,
FileAttributes: FILE.ATTRIBUTE,
FileNameLength: ULONG,
FileName: [1]WCHAR,
};
pub const FILE_BOTH_DIR_INFORMATION = extern struct {
NextEntryOffset: ULONG,
FileIndex: ULONG,
CreationTime: LARGE_INTEGER,
LastAccessTime: LARGE_INTEGER,
LastWriteTime: LARGE_INTEGER,
ChangeTime: LARGE_INTEGER,
EndOfFile: LARGE_INTEGER,
AllocationSize: LARGE_INTEGER,
FileAttributes: FILE.ATTRIBUTE,
FileNameLength: ULONG,
EaSize: ULONG,
ShortNameLength: CHAR,
ShortName: [12]WCHAR,
FileName: [1]WCHAR,
};
pub const FILE_BOTH_DIRECTORY_INFORMATION = FILE_BOTH_DIR_INFORMATION;
/// Helper for iterating a byte buffer of FILE_*_INFORMATION structures (from
/// things like NtQueryDirectoryFile calls).
pub fn FileInformationIterator(comptime FileInformationType: type) type {
return struct {
byte_offset: usize = 0,
buf: []u8 align(@alignOf(FileInformationType)),
pub fn next(self: *@This()) ?*FileInformationType {
if (self.byte_offset >= self.buf.len) return null;
const cur: *FileInformationType = @ptrCast(@alignCast(&self.buf[self.byte_offset]));
if (cur.NextEntryOffset == 0) {
self.byte_offset = self.buf.len;
} else {
self.byte_offset += cur.NextEntryOffset;
}
return cur;
}
};
}
pub const IO_APC_ROUTINE = fn (?*anyopaque, *IO_STATUS_BLOCK, ULONG) callconv(.winapi) void;
pub const CURDIR = extern struct {
DosPath: UNICODE_STRING,
Handle: HANDLE,
};
pub const DUPLICATE_SAME_ACCESS = 2;
pub const MODULEINFO = extern struct {
lpBaseOfDll: LPVOID,
SizeOfImage: DWORD,
EntryPoint: LPVOID,
};
pub const OSVERSIONINFOW = extern struct {
dwOSVersionInfoSize: ULONG,
dwMajorVersion: ULONG,
dwMinorVersion: ULONG,
dwBuildNumber: ULONG,
dwPlatformId: ULONG,
szCSDVersion: [128]WCHAR,
};
pub const RTL_OSVERSIONINFOW = OSVERSIONINFOW;
pub const REPARSE_DATA_BUFFER = extern struct {
ReparseTag: IO_REPARSE_TAG,
ReparseDataLength: USHORT,
Reserved: USHORT,
DataBuffer: [1]UCHAR,
};
pub const SYMBOLIC_LINK_REPARSE_BUFFER = extern struct {
SubstituteNameOffset: USHORT,
SubstituteNameLength: USHORT,
PrintNameOffset: USHORT,
PrintNameLength: USHORT,
Flags: ULONG,
PathBuffer: [1]WCHAR,
};
pub const MOUNT_POINT_REPARSE_BUFFER = extern struct {
SubstituteNameOffset: USHORT,
SubstituteNameLength: USHORT,
PrintNameOffset: USHORT,
PrintNameLength: USHORT,
PathBuffer: [1]WCHAR,
};
pub const SYMLINK_FLAG_RELATIVE: ULONG = 0x1;
pub const SYMBOLIC_LINK_FLAG_DIRECTORY: DWORD = 0x1;
pub const SYMBOLIC_LINK_FLAG_ALLOW_UNPRIVILEGED_CREATE: DWORD = 0x2;
pub const MOUNTMGR_MOUNT_POINT = extern struct {
SymbolicLinkNameOffset: ULONG,
SymbolicLinkNameLength: USHORT,
Reserved1: USHORT,
UniqueIdOffset: ULONG,
UniqueIdLength: USHORT,
Reserved2: USHORT,
DeviceNameOffset: ULONG,
DeviceNameLength: USHORT,
Reserved3: USHORT,
};
pub const MOUNTMGR_MOUNT_POINTS = extern struct {
Size: ULONG,
NumberOfMountPoints: ULONG,
MountPoints: [1]MOUNTMGR_MOUNT_POINT,
};
pub const MOUNTMGR_TARGET_NAME = extern struct {
DeviceNameLength: USHORT,
DeviceName: [1]WCHAR,
};
pub const MOUNTMGR_VOLUME_PATHS = extern struct {
MultiSzLength: ULONG,
MultiSz: [1]WCHAR,
};
pub const SRWLOCK_INIT = SRWLOCK{};
pub const SRWLOCK = extern struct {
Ptr: ?PVOID = null,
};
pub const CONDITION_VARIABLE_INIT = CONDITION_VARIABLE{};
pub const CONDITION_VARIABLE = extern struct {
Ptr: ?PVOID = null,
};
/// Processor feature enumeration.
pub const PF = enum(DWORD) {
/// On a Pentium, a floating-point precision error can occur in rare circumstances.
FLOATING_POINT_PRECISION_ERRATA = 0,
/// Floating-point operations are emulated using software emulator.
/// This function returns a nonzero value if floating-point operations are emulated; otherwise, it returns zero.
FLOATING_POINT_EMULATED = 1,
/// The atomic compare and exchange operation (cmpxchg) is available.
COMPARE_EXCHANGE_DOUBLE = 2,
/// The MMX instruction set is available.
MMX_INSTRUCTIONS_AVAILABLE = 3,
PPC_MOVEMEM_64BIT_OK = 4,
ALPHA_BYTE_INSTRUCTIONS = 5,
/// The SSE instruction set is available.
XMMI_INSTRUCTIONS_AVAILABLE = 6,
/// The 3D-Now instruction is available.
@"3DNOW_INSTRUCTIONS_AVAILABLE" = 7,
/// The RDTSC instruction is available.
RDTSC_INSTRUCTION_AVAILABLE = 8,
/// The processor is PAE-enabled.
PAE_ENABLED = 9,
/// The SSE2 instruction set is available.
XMMI64_INSTRUCTIONS_AVAILABLE = 10,
SSE_DAZ_MODE_AVAILABLE = 11,
/// Data execution prevention is enabled.
NX_ENABLED = 12,
/// The SSE3 instruction set is available.
SSE3_INSTRUCTIONS_AVAILABLE = 13,
/// The atomic compare and exchange 128-bit operation (cmpxchg16b) is available.
COMPARE_EXCHANGE128 = 14,
/// The atomic compare 64 and exchange 128-bit operation (cmp8xchg16) is available.
COMPARE64_EXCHANGE128 = 15,
/// The processor channels are enabled.
CHANNELS_ENABLED = 16,
/// The processor implements the XSAVI and XRSTOR instructions.
XSAVE_ENABLED = 17,
/// The VFP/Neon: 32 x 64bit register bank is present.
/// This flag has the same meaning as PF_ARM_VFP_EXTENDED_REGISTERS.
ARM_VFP_32_REGISTERS_AVAILABLE = 18,
/// This ARM processor implements the ARM v8 NEON instruction set.
ARM_NEON_INSTRUCTIONS_AVAILABLE = 19,
/// Second Level Address Translation is supported by the hardware.
SECOND_LEVEL_ADDRESS_TRANSLATION = 20,
/// Virtualization is enabled in the firmware and made available by the operating system.
VIRT_FIRMWARE_ENABLED = 21,
/// RDFSBASE, RDGSBASE, WRFSBASE, and WRGSBASE instructions are available.
RDWRFSGBASE_AVAILABLE = 22,
/// _fastfail() is available.
FASTFAIL_AVAILABLE = 23,
/// The divide instruction_available.
ARM_DIVIDE_INSTRUCTION_AVAILABLE = 24,
/// The 64-bit load/store atomic instructions are available.
ARM_64BIT_LOADSTORE_ATOMIC = 25,
/// The external cache is available.
ARM_EXTERNAL_CACHE_AVAILABLE = 26,
/// The floating-point multiply-accumulate instruction is available.
ARM_FMAC_INSTRUCTIONS_AVAILABLE = 27,
RDRAND_INSTRUCTION_AVAILABLE = 28,
/// This ARM processor implements the ARM v8 instructions set.
ARM_V8_INSTRUCTIONS_AVAILABLE = 29,
/// This ARM processor implements the ARM v8 extra cryptographic instructions (i.e., AES, SHA1 and SHA2).
ARM_V8_CRYPTO_INSTRUCTIONS_AVAILABLE = 30,
/// This ARM processor implements the ARM v8 extra CRC32 instructions.
ARM_V8_CRC32_INSTRUCTIONS_AVAILABLE = 31,
RDTSCP_INSTRUCTION_AVAILABLE = 32,
RDPID_INSTRUCTION_AVAILABLE = 33,
/// This ARM processor implements the ARM v8.1 atomic instructions (e.g., CAS, SWP).
ARM_V81_ATOMIC_INSTRUCTIONS_AVAILABLE = 34,
MONITORX_INSTRUCTION_AVAILABLE = 35,
/// The SSSE3 instruction set is available.
SSSE3_INSTRUCTIONS_AVAILABLE = 36,
/// The SSE4_1 instruction set is available.
SSE4_1_INSTRUCTIONS_AVAILABLE = 37,
/// The SSE4_2 instruction set is available.
SSE4_2_INSTRUCTIONS_AVAILABLE = 38,
/// The AVX instruction set is available.
AVX_INSTRUCTIONS_AVAILABLE = 39,
/// The AVX2 instruction set is available.
AVX2_INSTRUCTIONS_AVAILABLE = 40,
/// The AVX512F instruction set is available.
AVX512F_INSTRUCTIONS_AVAILABLE = 41,
ERMS_AVAILABLE = 42,
/// This ARM processor implements the ARM v8.2 Dot Product (DP) instructions.
ARM_V82_DP_INSTRUCTIONS_AVAILABLE = 43,
/// This ARM processor implements the ARM v8.3 JavaScript conversion (JSCVT) instructions.
ARM_V83_JSCVT_INSTRUCTIONS_AVAILABLE = 44,
/// This Arm processor implements the Arm v8.3 LRCPC instructions (for example, LDAPR). Note that certain Arm v8.2 CPUs may optionally support the LRCPC instructions.
ARM_V83_LRCPC_INSTRUCTIONS_AVAILABLE = 45,
/// This Arm processor implements the SVE (Scalable Vector Extension) instructions (FEAT_SVE).
ARM_SVE_INSTRUCTIONS_AVAILABLE = 46,
/// This Arm processor implements the SVE2 instructions (FEAT_SVE2).
ARM_SVE2_INSTRUCTIONS_AVAILABLE = 47,
/// This Arm processor implements the SVE2.1 instructions (FEAT_SVE2p1).
ARM_SVE2_1_INSTRUCTIONS_AVAILABLE = 48,
/// This Arm processor implements the SVE AES instructions (FEAT_SVE_AES).
ARM_SVE_AES_INSTRUCTIONS_AVAILABLE = 49,
/// This Arm processor implements the SVE 128-bit polynomial multiply long instructions (FEAT_SVE_PMULL128).
ARM_SVE_PMULL128_INSTRUCTIONS_AVAILABLE = 50,
/// This Arm processor implements the SVE bit permute instructions (FEAT_SVE_BitPerm).
ARM_SVE_BITPERM_INSTRUCTIONS_AVAILABLE = 51,
/// This Arm processor implements the SVE BF16 (BFloat16) instructions (FEAT_BF16).
ARM_SVE_BF16_INSTRUCTIONS_AVAILABLE = 52,
/// This Arm processor implements the SVE EBF16 (Extended BFloat16) instructions (FEAT_EBF16).
ARM_SVE_EBF16_INSTRUCTIONS_AVAILABLE = 53,
/// This Arm processor implements the SVE B16B16 instructions (FEAT_SVE_B16B16).
ARM_SVE_B16B16_INSTRUCTIONS_AVAILABLE = 54,
/// This Arm processor implements the SVE SHA-3 cryptographic instructions (FEAT_SVE_SHA3).
ARM_SVE_SHA3_INSTRUCTIONS_AVAILABLE = 55,
/// This Arm processor implements the SVE SM4 cryptographic instructions (FEAT_SVE_SM4).
ARM_SVE_SM4_INSTRUCTIONS_AVAILABLE = 56,
/// This Arm processor implements the SVE I8MM (Int8 matrix multiply) instructions (FEAT_I8MM).
ARM_SVE_I8MM_INSTRUCTIONS_AVAILABLE = 57,
/// This Arm processor implements the SVE F32MM (FP32 matrix multiply) instructions (FEAT_F32MM).
ARM_SVE_F32MM_INSTRUCTIONS_AVAILABLE = 58,
/// This Arm processor implements the SVE F64MM (FP64 matrix multiply) instructions (FEAT_F64MM).
ARM_SVE_F64MM_INSTRUCTIONS_AVAILABLE = 59,
/// This x64 processor implements the BMI2 instruction set.
BMI2_INSTRUCTIONS_AVAILABLE = 60,
/// This x64 processor implements the MOVDIR64B instruction.
MOVDIR64B_INSTRUCTION_AVAILABLE = 61,
/// This Arm processor implements the LSE2 atomic instructions (FEAT_LSE2).
ARM_LSE2_AVAILABLE = 62,
/// This Arm processor implements the SHA-3 cryptographic instructions (FEAT_SHA3).
ARM_SHA3_INSTRUCTIONS_AVAILABLE = 64,
/// This Arm processor implements the SHA-512 cryptographic instructions (FEAT_SHA512).
ARM_SHA512_INSTRUCTIONS_AVAILABLE = 65,
/// This Arm processor implements the I8MM (Int8 matrix multiply) NEON instructions (FEAT_I8MM).
ARM_V82_I8MM_INSTRUCTIONS_AVAILABLE = 66,
/// This Arm processor implements the FP16 (half-precision floating point) NEON instructions (FEAT_FP16).
ARM_V82_FP16_INSTRUCTIONS_AVAILABLE = 67,
/// This Arm processor implements the BF16 (BFloat16) NEON instructions (FEAT_BF16).
ARM_V86_BF16_INSTRUCTIONS_AVAILABLE = 68,
/// This Arm processor implements the EBF16 (Extended BFloat16) NEON instructions (FEAT_EBF16).
ARM_V86_EBF16_INSTRUCTIONS_AVAILABLE = 69,
/// This Arm processor implements the SME (Scalable Matrix Extension) instructions (FEAT_SME).
ARM_SME_INSTRUCTIONS_AVAILABLE = 70,
/// This Arm processor implements the SME2 instructions (FEAT_SME2).
ARM_SME2_INSTRUCTIONS_AVAILABLE = 71,
/// This Arm processor implements the SME2.1 instructions (FEAT_SME2p1).
ARM_SME2_1_INSTRUCTIONS_AVAILABLE = 72,
/// This Arm processor implements the SME2.2 instructions (FEAT_SME2p2).
ARM_SME2_2_INSTRUCTIONS_AVAILABLE = 73,
/// This Arm processor implements the SVE AES instructions when in Streaming SVE mode (FEAT_SSVE_AES).
ARM_SME_AES_INSTRUCTIONS_AVAILABLE = 74,
/// This Arm processor implements the SVE bit permute instructions when in Streaming SVE mode (FEAT_SSVE_BitPerm).
ARM_SME_SBITPERM_INSTRUCTIONS_AVAILABLE = 75,
/// This Arm processor implements the SVE FMMLA (widening, 4-way, FP8 to FP16) instruction when in Streaming SVE mode (FEAT_SSVE_F8F16MM).
ARM_SME_SF8MM4_INSTRUCTIONS_AVAILABLE = 76,
/// This Arm processor implements the SVE FMMLA (widening, 8-way, FP8 to FP32) instruction when in Streaming SVE mode (FEAT_SSVE_F8F32MM).
ARM_SME_SF8MM8_INSTRUCTIONS_AVAILABLE = 77,
/// This Arm processor implements the SVE2 FP8DOT2 instructions when in Streaming SVE mode (FEAT_SSVE_FP8DOT2).
ARM_SME_SF8DP2_INSTRUCTIONS_AVAILABLE = 78,
/// This Arm processor implements the SVE2 FP8DOT4 instructions when in Streaming SVE mode (FEAT_SSVE_FP8DOT4).
ARM_SME_SF8DP4_INSTRUCTIONS_AVAILABLE = 79,
/// This Arm processor implements the SVE2 FP8FMA instructions when in Streaming SVE mode (FEAT_SSVE_FP8FMA).
ARM_SME_SF8FMA_INSTRUCTIONS_AVAILABLE = 80,
/// This Arm processor implements the SME F8F32 instructions (FEAT_SME_F8F32).
ARM_SME_F8F32_INSTRUCTIONS_AVAILABLE = 81,
/// This Arm processor implements the SME F8F16 instructions (FEAT_SME_F8F16).
ARM_SME_F8F16_INSTRUCTIONS_AVAILABLE = 82,
/// This Arm processor implements the SME F16F16 instructions (FEAT_SME_F16F16).
ARM_SME_F16F16_INSTRUCTIONS_AVAILABLE = 83,
/// This Arm processor implements the SME B16B16 instructions (FEAT_SME_B16B16).
ARM_SME_B16B16_INSTRUCTIONS_AVAILABLE = 84,
/// This Arm processor implements the SME F64F64 instructions (FEAT_SME_F64F64).
ARM_SME_F64F64_INSTRUCTIONS_AVAILABLE = 85,
/// This Arm processor implements the SME I16I64 instructions (FEAT_SME_I16I64).
ARM_SME_I16I64_INSTRUCTIONS_AVAILABLE = 86,
/// This Arm processor implements the SME LUTv2 instructions (FEAT_SME_LUTv2).
ARM_SME_LUTv2_INSTRUCTIONS_AVAILABLE = 87,
/// This Arm processor implements SME FA64 (Full AArch64 instruction set when in Streaming SVE mode) (FEAT_SME_FA64).
ARM_SME_FA64_INSTRUCTIONS_AVAILABLE = 88,
/// This x64 processor implements the UMONITOR instruction.
UMONITOR_INSTRUCTION_AVAILABLE = 89,
};
pub const MAX_WOW64_SHARED_ENTRIES = 16;
pub const PROCESSOR_FEATURE_MAX = 64;
pub const MAXIMUM_XSTATE_FEATURES = 64;
pub const KSYSTEM_TIME = extern struct {
LowPart: ULONG,
High1Time: LONG,
High2Time: LONG,
};
pub const NT_PRODUCT_TYPE = enum(INT) {
NtProductWinNt = 1,
NtProductLanManNt,
NtProductServer,
};
pub const ALTERNATIVE_ARCHITECTURE_TYPE = enum(INT) {
StandardDesign,
NEC98x86,
EndAlternatives,
};
pub const XSTATE_FEATURE = extern struct {
Offset: ULONG,
Size: ULONG,
};
pub const XSTATE_CONFIGURATION = extern struct {
EnabledFeatures: ULONG64,
Size: ULONG,
OptimizedSave: ULONG,
Features: [MAXIMUM_XSTATE_FEATURES]XSTATE_FEATURE,
};
/// Shared Kernel User Data
pub const KUSER_SHARED_DATA = extern struct {
TickCountLowDeprecated: ULONG,
TickCountMultiplier: ULONG,
InterruptTime: KSYSTEM_TIME,
SystemTime: KSYSTEM_TIME,
TimeZoneBias: KSYSTEM_TIME,
ImageNumberLow: USHORT,
ImageNumberHigh: USHORT,
NtSystemRoot: [260]WCHAR,
MaxStackTraceDepth: ULONG,
CryptoExponent: ULONG,
TimeZoneId: ULONG,
LargePageMinimum: ULONG,
AitSamplingValue: ULONG,
AppCompatFlag: ULONG,
RNGSeedVersion: ULONGLONG,
GlobalValidationRunlevel: ULONG,
TimeZoneBiasStamp: LONG,
NtBuildNumber: ULONG,
NtProductType: NT_PRODUCT_TYPE,
ProductTypeIsValid: BOOLEAN,
Reserved0: [1]BOOLEAN,
NativeProcessorArchitecture: USHORT,
NtMajorVersion: ULONG,
NtMinorVersion: ULONG,
ProcessorFeatures: [PROCESSOR_FEATURE_MAX]BOOLEAN,
Reserved1: ULONG,
Reserved3: ULONG,
TimeSlip: ULONG,
AlternativeArchitecture: ALTERNATIVE_ARCHITECTURE_TYPE,
BootId: ULONG,
SystemExpirationDate: LARGE_INTEGER,
SuiteMaskY: ULONG,
KdDebuggerEnabled: BOOLEAN,
DummyUnion1: extern union {
MitigationPolicies: UCHAR,
Alt: packed struct(u8) {
NXSupportPolicy: u2,
SEHValidationPolicy: u2,
CurDirDevicesSkippedForDlls: u2,
Reserved: u2,
},
},
CyclesPerYield: USHORT,
ActiveConsoleId: ULONG,
DismountCount: ULONG,
ComPlusPackage: ULONG,
LastSystemRITEventTickCount: ULONG,
NumberOfPhysicalPages: ULONG,
SafeBootMode: BOOLEAN,
DummyUnion2: extern union {
VirtualizationFlags: UCHAR,
Alt: packed struct(u8) {
ArchStartedInEl2: u1,
QcSlIsSupported: u1,
SpareBits: u6,
},
},
Reserved12: [2]UCHAR,
DummyUnion3: extern union {
SharedDataFlags: ULONG,
Alt: packed struct(u32) {
DbgErrorPortPresent: u1,
DbgElevationEnabled: u1,
DbgVirtEnabled: u1,
DbgInstallerDetectEnabled: u1,
DbgLkgEnabled: u1,
DbgDynProcessorEnabled: u1,
DbgConsoleBrokerEnabled: u1,
DbgSecureBootEnabled: u1,
DbgMultiSessionSku: u1,
DbgMultiUsersInSessionSku: u1,
DbgStateSeparationEnabled: u1,
SpareBits: u21,
},
},
DataFlagsPad: [1]ULONG,
TestRetInstruction: ULONGLONG,
QpcFrequency: LONGLONG,
SystemCall: ULONG,
Reserved2: ULONG,
SystemCallPad: [2]ULONGLONG,
DummyUnion4: extern union {
TickCount: KSYSTEM_TIME,
TickCountQuad: ULONG64,
Alt: extern struct {
ReservedTickCountOverlay: [3]ULONG,
TickCountPad: [1]ULONG,
},
},
Cookie: ULONG,
CookiePad: [1]ULONG,
ConsoleSessionForegroundProcessId: LONGLONG,
TimeUpdateLock: ULONGLONG,
BaselineSystemTimeQpc: ULONGLONG,
BaselineInterruptTimeQpc: ULONGLONG,
QpcSystemTimeIncrement: ULONGLONG,
QpcInterruptTimeIncrement: ULONGLONG,
QpcSystemTimeIncrementShift: UCHAR,
QpcInterruptTimeIncrementShift: UCHAR,
UnparkedProcessorCount: USHORT,
EnclaveFeatureMask: [4]ULONG,
TelemetryCoverageRound: ULONG,
UserModeGlobalLogger: [16]USHORT,
ImageFileExecutionOptions: ULONG,
LangGenerationCount: ULONG,
Reserved4: ULONGLONG,
InterruptTimeBias: ULONGLONG,
QpcBias: ULONGLONG,
ActiveProcessorCount: ULONG,
ActiveGroupCount: UCHAR,
Reserved9: UCHAR,
DummyUnion5: extern union {
QpcData: USHORT,
Alt: extern struct {
QpcBypassEnabled: UCHAR,
QpcShift: UCHAR,
},
},
TimeZoneBiasEffectiveStart: LARGE_INTEGER,
TimeZoneBiasEffectiveEnd: LARGE_INTEGER,
XState: XSTATE_CONFIGURATION,
FeatureConfigurationChangeStamp: KSYSTEM_TIME,
Spare: ULONG,
UserPointerAuthMask: ULONG64,
};
/// Read-only user-mode address for the shared data.
/// https://www.geoffchappell.com/studies/windows/km/ntoskrnl/inc/api/ntexapi_x/kuser_shared_data/index.htm
/// https://msrc-blog.microsoft.com/2022/04/05/randomizing-the-kuser_shared_data-structure-on-windows/
pub const SharedUserData: *const KUSER_SHARED_DATA = @ptrFromInt(0x7FFE0000);
pub fn IsProcessorFeaturePresent(feature: PF) bool {
if (@backingInt(feature) >= PROCESSOR_FEATURE_MAX) return false;
return SharedUserData.ProcessorFeatures[@backingInt(feature)].toBool();
}
// https://github.com/reactos/reactos/blob/master/sdk/include/ndk/pstypes.h#L977-L983
pub const KERNEL_USER_TIMES = extern struct {
CreationTime: LARGE_INTEGER,
ExitTime: LARGE_INTEGER,
KernelTime: LARGE_INTEGER,
UserTime: LARGE_INTEGER,
};
pub fn wtf8ToWtf16Le(wtf16le: []u16, wtf8: []const u8) error{ BadPathName, NameTooLong }!usize {
// Each u8 in UTF-8/WTF-8 correlates to at most one u16 in UTF-16LE/WTF-16LE.
if (wtf16le.len < wtf8.len) {
const utf16_len = std.unicode.calcUtf16LeLenImpl(wtf8, .can_encode_surrogate_half) catch
return error.BadPathName;
if (utf16_len > wtf16le.len)
return error.NameTooLong;
}
return std.unicode.wtf8ToWtf16Le(wtf16le, wtf8) catch |err| switch (err) {
error.InvalidWtf8 => return error.BadPathName,
};
}
/// Returns the path to the system directory, typically "C:\\WINDOWS\\System32".
///
/// Equivalent to `GetSystemDirectoryW` in kernel32.
pub fn getSystemDirectoryWtf16Le() [:0]const u16 {
const ssd: *const BASE_STATIC_SERVER_DATA = @ptrCast(@alignCast(relocateCsrssAddress(
peb().ReadOnlyStaticServerData.base_static_server_data_addr,
)));
return ssd.windows_system_directory.relocate().sliceZ();
}
// https://github.com/reactos/reactos/blob/4b75ec5508d47b726d1210e24f5a849dae4e3bda/sdk/include/reactos/subsys/win/base.h#L119
const BASE_STATIC_SERVER_DATA = extern struct {
windows_directory: ForeignString,
windows_system_directory: ForeignString,
named_object_directory: ForeignString,
/// This matches the 64-bit version of `UNICODE_STRING`---even on 32-bit targets, this string is
/// from 64-bit code (since it comes from CSRSS which is running outside of WOW64).
const ForeignString = extern struct {
length: u16,
maximum_length: u16,
/// Address in the CSRSS address space. To convert this to a valid pointer in *our* address
/// space, see `relocateCsrssAddress` (or the `ForeignString.relocate` wrapper function).
buffer_address: u64,
fn relocate(str: ForeignString) UNICODE_STRING {
return .{
.Length = str.length,
.MaximumLength = str.maximum_length,
.Buffer = @ptrCast(@alignCast(@constCast(relocateCsrssAddress(str.buffer_address)))),
};
}
};
};
/// Takes an address in the CSRSS address space's mapped view of the shared memory region, and
/// returns the corresponding address in *our* mapped view of the shared memory region.
fn relocateCsrssAddress(addr: u64) *const anyopaque {
const base: [*]const u8 = @ptrCast(peb().ReadOnlySharedMemoryBase);
const offset: usize = @intCast(addr - peb().CsrServerReadOnlySharedMemoryBase);
return base + offset;
}