cleanup: namespace Montauk (capital M) => montauk::abi

This commit is contained in:
2026-06-16 09:09:16 +02:00
parent b091af7653
commit e3dc1e881d
165 changed files with 758 additions and 758 deletions
+1 -1
View File
@@ -46,7 +46,7 @@ namespace heap_detail {
static inline void heap_lock_acquire() {
while (__atomic_exchange_n(&g_heap_lock, 1, __ATOMIC_ACQUIRE) != 0) {
syscall0(Montauk::SYS_YIELD);
syscall0(montauk::abi::SYS_YIELD);
}
}
static inline void heap_lock_release() {
+170 -170
View File
@@ -110,519 +110,519 @@ namespace montauk {
// Process
[[noreturn]] inline void exit(int code = 0) {
syscall1(Montauk::SYS_EXIT, (uint64_t)code);
syscall1(montauk::abi::SYS_EXIT, (uint64_t)code);
__builtin_unreachable();
}
inline void yield() { syscall0(Montauk::SYS_YIELD); }
inline void sleep_ms(uint64_t ms) { syscall1(Montauk::SYS_SLEEP_MS, ms); }
inline int getpid() { return (int)syscall0(Montauk::SYS_GETPID); }
inline void yield() { syscall0(montauk::abi::SYS_YIELD); }
inline void sleep_ms(uint64_t ms) { syscall1(montauk::abi::SYS_SLEEP_MS, ms); }
inline int getpid() { return (int)syscall0(montauk::abi::SYS_GETPID); }
inline int spawn(const char* path, const char* args = nullptr) {
return (int)syscall2(Montauk::SYS_SPAWN, (uint64_t)path, (uint64_t)args);
return (int)syscall2(montauk::abi::SYS_SPAWN, (uint64_t)path, (uint64_t)args);
}
inline int chdir(const char* path) {
return (int)syscall1(Montauk::SYS_CHDIR, (uint64_t)path);
return (int)syscall1(montauk::abi::SYS_CHDIR, (uint64_t)path);
}
inline int getcwd(char* buf, uint64_t maxLen) {
return (int)syscall2(Montauk::SYS_GETCWD, (uint64_t)buf, maxLen);
return (int)syscall2(montauk::abi::SYS_GETCWD, (uint64_t)buf, maxLen);
}
// Console
inline void print(const char* text) { syscall1(Montauk::SYS_PRINT, (uint64_t)text); }
inline void putchar(char c) { syscall1(Montauk::SYS_PUTCHAR, (uint64_t)c); }
inline void print(const char* text) { syscall1(montauk::abi::SYS_PRINT, (uint64_t)text); }
inline void putchar(char c) { syscall1(montauk::abi::SYS_PUTCHAR, (uint64_t)c); }
// File I/O
inline int open(const char* path) { return (int)syscall1(Montauk::SYS_OPEN, (uint64_t)path); }
inline int open(const char* path) { return (int)syscall1(montauk::abi::SYS_OPEN, (uint64_t)path); }
inline int read(int handle, uint8_t* buf, uint64_t off, uint64_t size) {
return (int)syscall4(Montauk::SYS_READ, (uint64_t)handle, (uint64_t)buf, off, size);
return (int)syscall4(montauk::abi::SYS_READ, (uint64_t)handle, (uint64_t)buf, off, size);
}
inline uint64_t getsize(int handle) { return (uint64_t)syscall1(Montauk::SYS_GETSIZE, (uint64_t)handle); }
inline void close(int handle) { syscall1(Montauk::SYS_CLOSE, (uint64_t)handle); }
inline uint64_t getsize(int handle) { return (uint64_t)syscall1(montauk::abi::SYS_GETSIZE, (uint64_t)handle); }
inline void close(int handle) { syscall1(montauk::abi::SYS_CLOSE, (uint64_t)handle); }
inline int readdir(const char* path, const char** names, int max) {
return (int)syscall3(Montauk::SYS_READDIR, (uint64_t)path, (uint64_t)names, (uint64_t)max);
return (int)syscall3(montauk::abi::SYS_READDIR, (uint64_t)path, (uint64_t)names, (uint64_t)max);
}
// Paginated directory read: returns entries [startIndex, startIndex+max).
// Call repeatedly with increasing startIndex (advancing by the returned
// count) until it returns 0 to enumerate directories of any size.
inline int readdir_at(const char* path, const char** names, int max, int startIndex) {
return (int)syscall4(Montauk::SYS_READDIR_AT, (uint64_t)path, (uint64_t)names,
return (int)syscall4(montauk::abi::SYS_READDIR_AT, (uint64_t)path, (uint64_t)names,
(uint64_t)max, (uint64_t)startIndex);
}
// File write/create
inline int fwrite(int handle, const uint8_t* buf, uint64_t off, uint64_t size) {
return (int)syscall4(Montauk::SYS_FWRITE, (uint64_t)handle, (uint64_t)buf, off, size);
return (int)syscall4(montauk::abi::SYS_FWRITE, (uint64_t)handle, (uint64_t)buf, off, size);
}
inline int fcreate(const char* path) {
return (int)syscall1(Montauk::SYS_FCREATE, (uint64_t)path);
return (int)syscall1(montauk::abi::SYS_FCREATE, (uint64_t)path);
}
inline int fdelete(const char* path) {
return (int)syscall1(Montauk::SYS_FDELETE, (uint64_t)path);
return (int)syscall1(montauk::abi::SYS_FDELETE, (uint64_t)path);
}
inline int fmkdir(const char* path) {
return (int)syscall1(Montauk::SYS_FMKDIR, (uint64_t)path);
return (int)syscall1(montauk::abi::SYS_FMKDIR, (uint64_t)path);
}
inline int frename(const char* oldPath, const char* newPath) {
return (int)syscall2(Montauk::SYS_FRENAME, (uint64_t)oldPath, (uint64_t)newPath);
return (int)syscall2(montauk::abi::SYS_FRENAME, (uint64_t)oldPath, (uint64_t)newPath);
}
inline int drivelist(int* outDrives, int max) {
return (int)syscall2(Montauk::SYS_DRIVELIST, (uint64_t)outDrives, (uint64_t)max);
return (int)syscall2(montauk::abi::SYS_DRIVELIST, (uint64_t)outDrives, (uint64_t)max);
}
inline int drivelabel(int drive, char* outLabel, int maxLen) {
return (int)syscall3(Montauk::SYS_DRIVELABEL, (uint64_t)drive, (uint64_t)outLabel, (uint64_t)maxLen);
return (int)syscall3(montauk::abi::SYS_DRIVELABEL, (uint64_t)drive, (uint64_t)outLabel, (uint64_t)maxLen);
}
// Returns the kernel BlockDeviceKind backing the drive: 0=unknown/ramdisk,
// 1=SATA, 2=SATAPI, 3=NVMe, 4=USB MSC.
inline int drivekind(int drive) {
return (int)syscall1(Montauk::SYS_DRIVEKIND, (uint64_t)drive);
return (int)syscall1(montauk::abi::SYS_DRIVEKIND, (uint64_t)drive);
}
// Memory
inline void* alloc(uint64_t size) { return (void*)syscall1(Montauk::SYS_ALLOC, size); }
inline void free(void* ptr) { syscall1(Montauk::SYS_FREE, (uint64_t)ptr); }
inline void* alloc(uint64_t size) { return (void*)syscall1(montauk::abi::SYS_ALLOC, size); }
inline void free(void* ptr) { syscall1(montauk::abi::SYS_FREE, (uint64_t)ptr); }
// Timekeeping
inline uint64_t get_ticks() { return (uint64_t)syscall0(Montauk::SYS_GETTICKS); }
inline uint64_t get_milliseconds() { return (uint64_t)syscall0(Montauk::SYS_GETMILLISECONDS); }
inline uint64_t get_ticks() { return (uint64_t)syscall0(montauk::abi::SYS_GETTICKS); }
inline uint64_t get_milliseconds() { return (uint64_t)syscall0(montauk::abi::SYS_GETMILLISECONDS); }
// System
inline void get_info(Montauk::SysInfo* info) { syscall1(Montauk::SYS_GETINFO, (uint64_t)info); }
inline void get_info(montauk::abi::SysInfo* info) { syscall1(montauk::abi::SYS_GETINFO, (uint64_t)info); }
// Keyboard
inline bool is_key_available() { return (bool)syscall0(Montauk::SYS_ISKEYAVAILABLE); }
inline void getkey(Montauk::KeyEvent* out) { syscall1(Montauk::SYS_GETKEY, (uint64_t)out); }
inline char getchar() { return (char)syscall0(Montauk::SYS_GETCHAR); }
inline bool is_key_available() { return (bool)syscall0(montauk::abi::SYS_ISKEYAVAILABLE); }
inline void getkey(montauk::abi::KeyEvent* out) { syscall1(montauk::abi::SYS_GETKEY, (uint64_t)out); }
inline char getchar() { return (char)syscall0(montauk::abi::SYS_GETCHAR); }
inline uint64_t input_wait(uint64_t observedSerial, uint64_t timeoutMs) {
return (uint64_t)syscall2(Montauk::SYS_INPUT_WAIT, observedSerial, timeoutMs);
return (uint64_t)syscall2(montauk::abi::SYS_INPUT_WAIT, observedSerial, timeoutMs);
}
// Networking
inline int32_t ping(uint32_t ip, uint32_t timeoutMs = 3000) {
return (int32_t)syscall2(Montauk::SYS_PING, (uint64_t)ip, (uint64_t)timeoutMs);
return (int32_t)syscall2(montauk::abi::SYS_PING, (uint64_t)ip, (uint64_t)timeoutMs);
}
// DNS resolve: returns IP in network byte order, or 0 on failure
inline uint32_t resolve(const char* hostname) {
return (uint32_t)syscall1(Montauk::SYS_RESOLVE, (uint64_t)hostname);
return (uint32_t)syscall1(montauk::abi::SYS_RESOLVE, (uint64_t)hostname);
}
// Network configuration
inline void get_netcfg(Montauk::NetCfg* out) { syscall1(Montauk::SYS_GETNETCFG, (uint64_t)out); }
inline int set_netcfg(const Montauk::NetCfg* cfg) { return (int)syscall1(Montauk::SYS_SETNETCFG, (uint64_t)cfg); }
inline int net_status(Montauk::NetStatus* out) { return (int)syscall1(Montauk::SYS_NETSTATUS, (uint64_t)out); }
inline void get_netcfg(montauk::abi::NetCfg* out) { syscall1(montauk::abi::SYS_GETNETCFG, (uint64_t)out); }
inline int set_netcfg(const montauk::abi::NetCfg* cfg) { return (int)syscall1(montauk::abi::SYS_SETNETCFG, (uint64_t)cfg); }
inline int net_status(montauk::abi::NetStatus* out) { return (int)syscall1(montauk::abi::SYS_NETSTATUS, (uint64_t)out); }
// Sockets
inline int socket(int type) {
return (int)syscall1(Montauk::SYS_SOCKET, (uint64_t)type);
return (int)syscall1(montauk::abi::SYS_SOCKET, (uint64_t)type);
}
inline int connect(int fd, uint32_t ip, uint16_t port) {
return (int)syscall3(Montauk::SYS_CONNECT, (uint64_t)fd, (uint64_t)ip, (uint64_t)port);
return (int)syscall3(montauk::abi::SYS_CONNECT, (uint64_t)fd, (uint64_t)ip, (uint64_t)port);
}
inline int bind(int fd, uint16_t port) {
return (int)syscall2(Montauk::SYS_BIND, (uint64_t)fd, (uint64_t)port);
return (int)syscall2(montauk::abi::SYS_BIND, (uint64_t)fd, (uint64_t)port);
}
inline int listen(int fd) {
return (int)syscall1(Montauk::SYS_LISTEN, (uint64_t)fd);
return (int)syscall1(montauk::abi::SYS_LISTEN, (uint64_t)fd);
}
inline int accept(int fd) {
return (int)syscall1(Montauk::SYS_ACCEPT, (uint64_t)fd);
return (int)syscall1(montauk::abi::SYS_ACCEPT, (uint64_t)fd);
}
inline int send(int fd, const void* data, uint32_t len) {
return (int)syscall3(Montauk::SYS_SEND, (uint64_t)fd, (uint64_t)data, (uint64_t)len);
return (int)syscall3(montauk::abi::SYS_SEND, (uint64_t)fd, (uint64_t)data, (uint64_t)len);
}
inline int recv(int fd, void* buf, uint32_t maxLen) {
return (int)syscall3(Montauk::SYS_RECV, (uint64_t)fd, (uint64_t)buf, (uint64_t)maxLen);
return (int)syscall3(montauk::abi::SYS_RECV, (uint64_t)fd, (uint64_t)buf, (uint64_t)maxLen);
}
inline int closesocket(int fd) {
return (int)syscall1(Montauk::SYS_CLOSESOCK, (uint64_t)fd);
return (int)syscall1(montauk::abi::SYS_CLOSESOCK, (uint64_t)fd);
}
inline int sendto(int fd, const void* data, uint32_t len, uint32_t destIp, uint16_t destPort) {
return (int)syscall5(Montauk::SYS_SENDTO, (uint64_t)fd, (uint64_t)data,
return (int)syscall5(montauk::abi::SYS_SENDTO, (uint64_t)fd, (uint64_t)data,
(uint64_t)len, (uint64_t)destIp, (uint64_t)destPort);
}
inline int recvfrom(int fd, void* buf, uint32_t maxLen, uint32_t* srcIp, uint16_t* srcPort) {
return (int)syscall5(Montauk::SYS_RECVFROM, (uint64_t)fd, (uint64_t)buf,
return (int)syscall5(montauk::abi::SYS_RECVFROM, (uint64_t)fd, (uint64_t)buf,
(uint64_t)maxLen, (uint64_t)srcIp, (uint64_t)srcPort);
}
// Generic IPC
inline int dup_handle(int handle) {
return (int)syscall1(Montauk::SYS_DUPHANDLE, (uint64_t)handle);
return (int)syscall1(montauk::abi::SYS_DUPHANDLE, (uint64_t)handle);
}
inline uint32_t wait_handle(int handle, uint32_t wantedSignals, uint64_t timeoutMs = ~0ULL) {
return (uint32_t)syscall3(Montauk::SYS_WAIT_HANDLE, (uint64_t)handle,
return (uint32_t)syscall3(montauk::abi::SYS_WAIT_HANDLE, (uint64_t)handle,
(uint64_t)wantedSignals, timeoutMs);
}
inline int stream_create(int* outReadHandle, int* outWriteHandle, uint32_t capacity = 0) {
return (int)syscall3(Montauk::SYS_STREAM_CREATE, (uint64_t)outReadHandle,
return (int)syscall3(montauk::abi::SYS_STREAM_CREATE, (uint64_t)outReadHandle,
(uint64_t)outWriteHandle, (uint64_t)capacity);
}
inline int stream_read(int handle, void* buf, int maxLen) {
return (int)syscall3(Montauk::SYS_STREAM_READ, (uint64_t)handle, (uint64_t)buf, (uint64_t)maxLen);
return (int)syscall3(montauk::abi::SYS_STREAM_READ, (uint64_t)handle, (uint64_t)buf, (uint64_t)maxLen);
}
inline int stream_write(int handle, const void* data, int len) {
return (int)syscall3(Montauk::SYS_STREAM_WRITE, (uint64_t)handle, (uint64_t)data, (uint64_t)len);
return (int)syscall3(montauk::abi::SYS_STREAM_WRITE, (uint64_t)handle, (uint64_t)data, (uint64_t)len);
}
inline int mailbox_create(int* outSendHandle, int* outRecvHandle) {
return (int)syscall2(Montauk::SYS_MAILBOX_CREATE, (uint64_t)outSendHandle, (uint64_t)outRecvHandle);
return (int)syscall2(montauk::abi::SYS_MAILBOX_CREATE, (uint64_t)outSendHandle, (uint64_t)outRecvHandle);
}
inline int mailbox_send(int handle, uint32_t msgType, const void* data, uint16_t len, int attachHandle = -1) {
return (int)syscall5(Montauk::SYS_MAILBOX_SEND, (uint64_t)handle, (uint64_t)msgType,
return (int)syscall5(montauk::abi::SYS_MAILBOX_SEND, (uint64_t)handle, (uint64_t)msgType,
(uint64_t)data, (uint64_t)len, (uint64_t)(int64_t)attachHandle);
}
inline int mailbox_recv(int handle, uint32_t* outMsgType, void* data,
uint16_t* inOutLen, int* outAttachHandle = nullptr) {
return (int)syscall5(Montauk::SYS_MAILBOX_RECV, (uint64_t)handle, (uint64_t)outMsgType,
return (int)syscall5(montauk::abi::SYS_MAILBOX_RECV, (uint64_t)handle, (uint64_t)outMsgType,
(uint64_t)data, (uint64_t)inOutLen, (uint64_t)outAttachHandle);
}
inline int waitset_create() {
return (int)syscall0(Montauk::SYS_WAITSET_CREATE);
return (int)syscall0(montauk::abi::SYS_WAITSET_CREATE);
}
inline int waitset_add(int waitsetHandle, int targetHandle, uint32_t signals) {
return (int)syscall3(Montauk::SYS_WAITSET_ADD, (uint64_t)waitsetHandle,
return (int)syscall3(montauk::abi::SYS_WAITSET_ADD, (uint64_t)waitsetHandle,
(uint64_t)targetHandle, (uint64_t)signals);
}
inline int waitset_remove(int waitsetHandle, int index) {
return (int)syscall2(Montauk::SYS_WAITSET_REMOVE, (uint64_t)waitsetHandle, (uint64_t)index);
return (int)syscall2(montauk::abi::SYS_WAITSET_REMOVE, (uint64_t)waitsetHandle, (uint64_t)index);
}
inline int waitset_wait(int waitsetHandle, Montauk::IpcWaitResult* outReady, uint64_t timeoutMs = ~0ULL) {
return (int)syscall3(Montauk::SYS_WAITSET_WAIT, (uint64_t)waitsetHandle, (uint64_t)outReady, timeoutMs);
inline int waitset_wait(int waitsetHandle, montauk::abi::IpcWaitResult* outReady, uint64_t timeoutMs = ~0ULL) {
return (int)syscall3(montauk::abi::SYS_WAITSET_WAIT, (uint64_t)waitsetHandle, (uint64_t)outReady, timeoutMs);
}
inline int proc_open(int pid) {
return (int)syscall1(Montauk::SYS_PROC_OPEN, (uint64_t)pid);
return (int)syscall1(montauk::abi::SYS_PROC_OPEN, (uint64_t)pid);
}
inline int surface_create(uint64_t byteSize) {
return (int)syscall1(Montauk::SYS_SURFACE_CREATE, byteSize);
return (int)syscall1(montauk::abi::SYS_SURFACE_CREATE, byteSize);
}
inline void* surface_map(int handle) {
return (void*)syscall1(Montauk::SYS_SURFACE_MAP, (uint64_t)handle);
return (void*)syscall1(montauk::abi::SYS_SURFACE_MAP, (uint64_t)handle);
}
inline int surface_resize(int handle, uint64_t newSize) {
return (int)syscall2(Montauk::SYS_SURFACE_RESIZE, (uint64_t)handle, newSize);
return (int)syscall2(montauk::abi::SYS_SURFACE_RESIZE, (uint64_t)handle, newSize);
}
// Shared library support
inline int load_lib(const char* path) {
return (int)syscall1(Montauk::SYS_LOAD_LIB, (uint64_t)path);
return (int)syscall1(montauk::abi::SYS_LOAD_LIB, (uint64_t)path);
}
inline int unload_lib(int handle) {
return (int)syscall1(Montauk::SYS_UNLOAD_LIB, (uint64_t)handle);
return (int)syscall1(montauk::abi::SYS_UNLOAD_LIB, (uint64_t)handle);
}
inline void* dlsym(int handle, uint64_t symbolOffset) {
return (void*)syscall2(Montauk::SYS_DLSYM, (uint64_t)handle, symbolOffset);
return (void*)syscall2(montauk::abi::SYS_DLSYM, (uint64_t)handle, symbolOffset);
}
inline uint64_t get_libbase(int handle) {
return (uint64_t)syscall1(Montauk::SYS_GETLIBBASE, (uint64_t)handle);
return (uint64_t)syscall1(montauk::abi::SYS_GETLIBBASE, (uint64_t)handle);
}
// Crash report retrieval
inline int crash_report(Montauk::CrashReportInfo* out) {
return (int)syscall1(Montauk::SYS_CRASH_REPORT, (uint64_t)out);
inline int crash_report(montauk::abi::CrashReportInfo* out) {
return (int)syscall1(montauk::abi::SYS_CRASH_REPORT, (uint64_t)out);
}
// Process management
inline void waitpid(int pid) { syscall1(Montauk::SYS_WAITPID, (uint64_t)pid); }
inline void waitpid(int pid) { syscall1(montauk::abi::SYS_WAITPID, (uint64_t)pid); }
// Framebuffer
inline void fb_info(Montauk::FbInfo* info) { syscall1(Montauk::SYS_FBINFO, (uint64_t)info); }
inline void* fb_map() { return (void*)syscall0(Montauk::SYS_FBMAP); }
inline void fb_info(montauk::abi::FbInfo* info) { syscall1(montauk::abi::SYS_FBINFO, (uint64_t)info); }
inline void* fb_map() { return (void*)syscall0(montauk::abi::SYS_FBMAP); }
// Arguments
inline int getargs(char* buf, uint64_t maxLen) {
return (int)syscall2(Montauk::SYS_GETARGS, (uint64_t)buf, maxLen);
return (int)syscall2(montauk::abi::SYS_GETARGS, (uint64_t)buf, maxLen);
}
// Terminal
inline void termsize(int* cols, int* rows) {
uint64_t r = (uint64_t)syscall0(Montauk::SYS_TERMSIZE);
uint64_t r = (uint64_t)syscall0(montauk::abi::SYS_TERMSIZE);
if (cols) *cols = (int)(r & 0xFFFFFFFF);
if (rows) *rows = (int)(r >> 32);
}
inline void termscale(int scale_x, int scale_y) {
syscall2(Montauk::SYS_TERMSCALE, (uint64_t)scale_x, (uint64_t)scale_y);
syscall2(montauk::abi::SYS_TERMSCALE, (uint64_t)scale_x, (uint64_t)scale_y);
}
inline void get_termscale(int* scale_x, int* scale_y) {
uint64_t r = (uint64_t)syscall2(Montauk::SYS_TERMSCALE, 0, 0);
uint64_t r = (uint64_t)syscall2(montauk::abi::SYS_TERMSCALE, 0, 0);
if (scale_x) *scale_x = (int)(r & 0xFFFFFFFF);
if (scale_y) *scale_y = (int)(r >> 32);
}
// Timekeeping (wall-clock)
inline void gettime(Montauk::DateTime* out) { syscall1(Montauk::SYS_GETTIME, (uint64_t)out); }
inline void gettime(montauk::abi::DateTime* out) { syscall1(montauk::abi::SYS_GETTIME, (uint64_t)out); }
// Timezone offset (total minutes from UTC)
inline void settz(int offset_minutes) { syscall1(Montauk::SYS_SETTZ, (uint64_t)(int64_t)offset_minutes); }
inline int gettz() { return (int)syscall0(Montauk::SYS_GETTZ); }
inline void settz(int offset_minutes) { syscall1(montauk::abi::SYS_SETTZ, (uint64_t)(int64_t)offset_minutes); }
inline int gettz() { return (int)syscall0(montauk::abi::SYS_GETTZ); }
// Random number generation
inline int64_t getrandom(void* buf, uint32_t len) {
return syscall2(Montauk::SYS_GETRANDOM, (uint64_t)buf, (uint64_t)len);
return syscall2(montauk::abi::SYS_GETRANDOM, (uint64_t)buf, (uint64_t)len);
}
// Power management
[[noreturn]] inline void reset() {
syscall0(Montauk::SYS_RESET);
syscall0(montauk::abi::SYS_RESET);
__builtin_unreachable();
}
[[noreturn]] inline void shutdown() {
syscall0(Montauk::SYS_SHUTDOWN);
syscall0(montauk::abi::SYS_SHUTDOWN);
__builtin_unreachable();
}
inline int suspend() {
return (int)syscall0(Montauk::SYS_SUSPEND);
return (int)syscall0(montauk::abi::SYS_SUSPEND);
}
// Graceful power-off request channel. The desktop posts a pending action
// (Montauk::POWER_REQ_SHUTDOWN / POWER_REQ_REBOOT) then exits; login.elf
// (montauk::abi::POWER_REQ_SHUTDOWN / POWER_REQ_REBOOT) then exits; login.elf
// reads it with POWER_REQ_QUERY (read-and-clear), runs the shutdown stages,
// and finally calls shutdown()/reset(). Returns the pending action for a
// query, or 0 when posting one.
inline int power_request(int action) {
return (int)syscall1(Montauk::SYS_POWER_REQUEST, (uint64_t)(int64_t)action);
return (int)syscall1(montauk::abi::SYS_POWER_REQUEST, (uint64_t)(int64_t)action);
}
// Mouse
inline void mouse_state(Montauk::MouseState* out) { syscall1(Montauk::SYS_MOUSESTATE, (uint64_t)out); }
inline void mouse_state(montauk::abi::MouseState* out) { syscall1(montauk::abi::SYS_MOUSESTATE, (uint64_t)out); }
inline void set_mouse_bounds(int32_t maxX, int32_t maxY) {
syscall2(Montauk::SYS_SETMOUSEBOUNDS, (uint64_t)maxX, (uint64_t)maxY);
syscall2(montauk::abi::SYS_SETMOUSEBOUNDS, (uint64_t)maxX, (uint64_t)maxY);
}
// Kernel log
inline int64_t read_klog(char* buf, uint64_t size) {
return syscall2(Montauk::SYS_KLOG, (uint64_t)buf, size);
return syscall2(montauk::abi::SYS_KLOG, (uint64_t)buf, size);
}
// I/O redirection
inline int spawn_redir(const char* path, const char* args = nullptr) {
return (int)syscall2(Montauk::SYS_SPAWN_REDIR, (uint64_t)path, (uint64_t)args);
return (int)syscall2(montauk::abi::SYS_SPAWN_REDIR, (uint64_t)path, (uint64_t)args);
}
inline int childio_read(int childPid, char* buf, int maxLen) {
return (int)syscall3(Montauk::SYS_CHILDIO_READ, (uint64_t)childPid, (uint64_t)buf, (uint64_t)maxLen);
return (int)syscall3(montauk::abi::SYS_CHILDIO_READ, (uint64_t)childPid, (uint64_t)buf, (uint64_t)maxLen);
}
inline int childio_write(int childPid, const char* data, int len) {
return (int)syscall3(Montauk::SYS_CHILDIO_WRITE, (uint64_t)childPid, (uint64_t)data, (uint64_t)len);
return (int)syscall3(montauk::abi::SYS_CHILDIO_WRITE, (uint64_t)childPid, (uint64_t)data, (uint64_t)len);
}
inline int childio_writekey(int childPid, const Montauk::KeyEvent* key) {
return (int)syscall2(Montauk::SYS_CHILDIO_WRITEKEY, (uint64_t)childPid, (uint64_t)key);
inline int childio_writekey(int childPid, const montauk::abi::KeyEvent* key) {
return (int)syscall2(montauk::abi::SYS_CHILDIO_WRITEKEY, (uint64_t)childPid, (uint64_t)key);
}
inline int childio_settermsz(int childPid, int cols, int rows) {
return (int)syscall3(Montauk::SYS_CHILDIO_SETTERMSZ, (uint64_t)childPid, (uint64_t)cols, (uint64_t)rows);
return (int)syscall3(montauk::abi::SYS_CHILDIO_SETTERMSZ, (uint64_t)childPid, (uint64_t)cols, (uint64_t)rows);
}
// Process listing / kill
inline int proclist(Montauk::ProcInfo* buf, int max) {
return (int)syscall2(Montauk::SYS_PROCLIST, (uint64_t)buf, (uint64_t)max);
inline int proclist(montauk::abi::ProcInfo* buf, int max) {
return (int)syscall2(montauk::abi::SYS_PROCLIST, (uint64_t)buf, (uint64_t)max);
}
inline int kill(int pid) {
return (int)syscall1(Montauk::SYS_KILL, (uint64_t)pid);
return (int)syscall1(montauk::abi::SYS_KILL, (uint64_t)pid);
}
inline int devlist(Montauk::DevInfo* buf, int max) {
return (int)syscall2(Montauk::SYS_DEVLIST, (uint64_t)buf, (uint64_t)max);
inline int devlist(montauk::abi::DevInfo* buf, int max) {
return (int)syscall2(montauk::abi::SYS_DEVLIST, (uint64_t)buf, (uint64_t)max);
}
inline int diskinfo(Montauk::DiskInfo* buf, int port) {
return (int)syscall2(Montauk::SYS_DISKINFO, (uint64_t)buf, (uint64_t)port);
inline int diskinfo(montauk::abi::DiskInfo* buf, int port) {
return (int)syscall2(montauk::abi::SYS_DISKINFO, (uint64_t)buf, (uint64_t)port);
}
// Partition table
inline int partlist(Montauk::PartInfo* buf, int max) {
return (int)syscall2(Montauk::SYS_PARTLIST, (uint64_t)buf, (uint64_t)max);
inline int partlist(montauk::abi::PartInfo* buf, int max) {
return (int)syscall2(montauk::abi::SYS_PARTLIST, (uint64_t)buf, (uint64_t)max);
}
// Raw block device I/O (driver-agnostic)
inline int64_t disk_read(int blockDev, uint64_t lba, uint32_t sectorCount, void* buf) {
return syscall4(Montauk::SYS_DISKREAD, (uint64_t)blockDev, lba,
return syscall4(montauk::abi::SYS_DISKREAD, (uint64_t)blockDev, lba,
(uint64_t)sectorCount, (uint64_t)buf);
}
inline int64_t disk_write(int blockDev, uint64_t lba, uint32_t sectorCount, const void* buf) {
return syscall4(Montauk::SYS_DISKWRITE, (uint64_t)blockDev, lba,
return syscall4(montauk::abi::SYS_DISKWRITE, (uint64_t)blockDev, lba,
(uint64_t)sectorCount, (uint64_t)buf);
}
// GPT management
inline int gpt_init(int blockDev) {
return (int)syscall1(Montauk::SYS_GPTINIT, (uint64_t)blockDev);
return (int)syscall1(montauk::abi::SYS_GPTINIT, (uint64_t)blockDev);
}
inline int gpt_add(const Montauk::GptAddParams* params) {
return (int)syscall1(Montauk::SYS_GPTADD, (uint64_t)params);
inline int gpt_add(const montauk::abi::GptAddParams* params) {
return (int)syscall1(montauk::abi::SYS_GPTADD, (uint64_t)params);
}
inline int fs_mount(int partIndex, int driveNum) {
return (int)syscall2(Montauk::SYS_FSMOUNT, (uint64_t)partIndex, (uint64_t)driveNum);
return (int)syscall2(montauk::abi::SYS_FSMOUNT, (uint64_t)partIndex, (uint64_t)driveNum);
}
// Flush all block-device write caches and cleanly unmount disk-backed
// volumes ahead of power-off. Returns the number of volumes unmounted.
inline int fs_sync() {
return (int)syscall0(Montauk::SYS_FS_SYNC);
return (int)syscall0(montauk::abi::SYS_FS_SYNC);
}
inline int fs_format(const Montauk::FsFormatParams* params) {
return (int)syscall1(Montauk::SYS_FSFORMAT, (uint64_t)params);
inline int fs_format(const montauk::abi::FsFormatParams* params) {
return (int)syscall1(montauk::abi::SYS_FSFORMAT, (uint64_t)params);
}
// Audio
inline int audio_open(uint32_t sampleRate, uint8_t channels, uint8_t bitsPerSample) {
return (int)syscall3(Montauk::SYS_AUDIOOPEN, (uint64_t)sampleRate,
return (int)syscall3(montauk::abi::SYS_AUDIOOPEN, (uint64_t)sampleRate,
(uint64_t)channels, (uint64_t)bitsPerSample);
}
inline void audio_close(int handle) {
syscall1(Montauk::SYS_AUDIOCLOSE, (uint64_t)handle);
syscall1(montauk::abi::SYS_AUDIOCLOSE, (uint64_t)handle);
}
inline int audio_write(int handle, const void* data, uint32_t size) {
return (int)syscall3(Montauk::SYS_AUDIOWRITE, (uint64_t)handle,
return (int)syscall3(montauk::abi::SYS_AUDIOWRITE, (uint64_t)handle,
(uint64_t)data, (uint64_t)size);
}
inline int audio_ctl(int handle, int cmd, int value) {
return (int)syscall3(Montauk::SYS_AUDIOCTL, (uint64_t)handle,
return (int)syscall3(montauk::abi::SYS_AUDIOCTL, (uint64_t)handle,
(uint64_t)cmd, (uint64_t)value);
}
inline int audio_set_volume(int handle, int percent) {
return audio_ctl(handle, Montauk::AUDIO_CTL_SET_VOLUME, percent);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_SET_VOLUME, percent);
}
inline int audio_get_volume(int handle) {
return audio_ctl(handle, Montauk::AUDIO_CTL_GET_VOLUME, 0);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_GET_VOLUME, 0);
}
inline int audio_get_pos(int handle) {
return audio_ctl(handle, Montauk::AUDIO_CTL_GET_POS, 0);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_GET_POS, 0);
}
inline int audio_pause(int handle) {
return audio_ctl(handle, Montauk::AUDIO_CTL_PAUSE, 1);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_PAUSE, 1);
}
inline int audio_resume(int handle) {
return audio_ctl(handle, Montauk::AUDIO_CTL_PAUSE, 0);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_PAUSE, 0);
}
inline int audio_get_output(int handle) {
return audio_ctl(handle, Montauk::AUDIO_CTL_GET_OUTPUT, 0);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_GET_OUTPUT, 0);
}
inline int audio_bt_status(int handle) {
return audio_ctl(handle, Montauk::AUDIO_CTL_BT_STATUS, 0);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_BT_STATUS, 0);
}
inline int audio_set_master_volume(int percent) {
return audio_ctl(-1, Montauk::AUDIO_CTL_SET_MASTER_VOLUME, percent);
return audio_ctl(-1, montauk::abi::AUDIO_CTL_SET_MASTER_VOLUME, percent);
}
inline int audio_get_master_volume() {
return audio_ctl(-1, Montauk::AUDIO_CTL_GET_MASTER_VOLUME, 0);
return audio_ctl(-1, montauk::abi::AUDIO_CTL_GET_MASTER_VOLUME, 0);
}
inline int audio_set_master_mute(bool muted) {
return audio_ctl(-1, Montauk::AUDIO_CTL_SET_MASTER_MUTE, muted ? 1 : 0);
return audio_ctl(-1, montauk::abi::AUDIO_CTL_SET_MASTER_MUTE, muted ? 1 : 0);
}
inline int audio_get_master_mute() {
return audio_ctl(-1, Montauk::AUDIO_CTL_GET_MASTER_MUTE, 0);
return audio_ctl(-1, montauk::abi::AUDIO_CTL_GET_MASTER_MUTE, 0);
}
inline int audio_set_mute(int handle, bool muted) {
return audio_ctl(handle, Montauk::AUDIO_CTL_SET_MUTE, muted ? 1 : 0);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_SET_MUTE, muted ? 1 : 0);
}
inline int audio_get_mute(int handle) {
return audio_ctl(handle, Montauk::AUDIO_CTL_GET_MUTE, 0);
return audio_ctl(handle, montauk::abi::AUDIO_CTL_GET_MUTE, 0);
}
inline int audio_list(Montauk::AudioStreamInfo* buf, int maxCount) {
return (int)syscall2(Montauk::SYS_AUDIOLIST, (uint64_t)buf, (uint64_t)maxCount);
inline int audio_list(montauk::abi::AudioStreamInfo* buf, int maxCount) {
return (int)syscall2(montauk::abi::SYS_AUDIOLIST, (uint64_t)buf, (uint64_t)maxCount);
}
// Returns the current mixer state serial. With timeoutMs > 0 the call
// blocks until the serial differs from `prevSerial` or the timeout
// elapses. With timeoutMs == 0 it returns immediately (cheap snapshot).
inline uint64_t audio_wait(uint64_t prevSerial, uint64_t timeoutMs) {
return syscall2(Montauk::SYS_AUDIOWAIT, prevSerial, timeoutMs);
return syscall2(montauk::abi::SYS_AUDIOWAIT, prevSerial, timeoutMs);
}
// Bluetooth
inline int bt_scan(Montauk::BtScanResult* buf, int maxCount, uint32_t timeoutMs) {
return (int)syscall3(Montauk::SYS_BTSCAN, (uint64_t)buf, (uint64_t)maxCount, (uint64_t)timeoutMs);
inline int bt_scan(montauk::abi::BtScanResult* buf, int maxCount, uint32_t timeoutMs) {
return (int)syscall3(montauk::abi::SYS_BTSCAN, (uint64_t)buf, (uint64_t)maxCount, (uint64_t)timeoutMs);
}
inline int bt_connect(const uint8_t* bdAddr) {
return (int)syscall1(Montauk::SYS_BTCONNECT, (uint64_t)bdAddr);
return (int)syscall1(montauk::abi::SYS_BTCONNECT, (uint64_t)bdAddr);
}
inline int bt_disconnect(const uint8_t* bdAddr) {
return (int)syscall1(Montauk::SYS_BTDISCONNECT, (uint64_t)bdAddr);
return (int)syscall1(montauk::abi::SYS_BTDISCONNECT, (uint64_t)bdAddr);
}
// Change the adapter's BD_ADDR. bdAddr is a 6-byte buffer with bdAddr[0] as
// the least-significant octet (same order as BtAdapterInfo::bdAddr). Returns
// 0 on success, negative on failure. Persist separately to bluetooth.toml.
inline int bt_set_addr(const uint8_t* bdAddr) {
return (int)syscall1(Montauk::SYS_BTSETADDR, (uint64_t)bdAddr);
return (int)syscall1(montauk::abi::SYS_BTSETADDR, (uint64_t)bdAddr);
}
// List bonded (paired) devices. Returns count written to buf (may be 0).
inline int bt_bonds(Montauk::BtBondInfo* buf, int maxCount) {
return (int)syscall2(Montauk::SYS_BTBONDS, (uint64_t)buf, (uint64_t)maxCount);
inline int bt_bonds(montauk::abi::BtBondInfo* buf, int maxCount) {
return (int)syscall2(montauk::abi::SYS_BTBONDS, (uint64_t)buf, (uint64_t)maxCount);
}
// Forget a paired device (removes the bond; it must re-pair next time).
inline int bt_forget(const uint8_t* bdAddr) {
return (int)syscall1(Montauk::SYS_BTFORGET, (uint64_t)bdAddr);
return (int)syscall1(montauk::abi::SYS_BTFORGET, (uint64_t)bdAddr);
}
inline int bt_list(Montauk::BtDevInfo* buf, int maxCount) {
return (int)syscall2(Montauk::SYS_BTLIST, (uint64_t)buf, (uint64_t)maxCount);
inline int bt_list(montauk::abi::BtDevInfo* buf, int maxCount) {
return (int)syscall2(montauk::abi::SYS_BTLIST, (uint64_t)buf, (uint64_t)maxCount);
}
inline int bt_info(Montauk::BtAdapterInfo* buf) {
return (int)syscall1(Montauk::SYS_BTINFO, (uint64_t)buf);
inline int bt_info(montauk::abi::BtAdapterInfo* buf) {
return (int)syscall1(montauk::abi::SYS_BTINFO, (uint64_t)buf);
}
// Kernel introspection
inline void memstats(Montauk::MemStats* out) { syscall1(Montauk::SYS_MEMSTATS, (uint64_t)out); }
inline void memstats(montauk::abi::MemStats* out) { syscall1(montauk::abi::SYS_MEMSTATS, (uint64_t)out); }
// User management
inline int setuser(int pid, const char* name) {
return (int)syscall2(Montauk::SYS_SETUSER, (uint64_t)pid, (uint64_t)name);
return (int)syscall2(montauk::abi::SYS_SETUSER, (uint64_t)pid, (uint64_t)name);
}
inline int getuser(char* buf, uint64_t maxLen) {
return (int)syscall2(Montauk::SYS_GETUSER, (uint64_t)buf, maxLen);
return (int)syscall2(montauk::abi::SYS_GETUSER, (uint64_t)buf, maxLen);
}
// Clipboard
inline int clipboard_set_text(const char* data, uint32_t len) {
return (int)syscall2(Montauk::SYS_CLIPBOARD_SET_TEXT, (uint64_t)data, (uint64_t)len);
return (int)syscall2(montauk::abi::SYS_CLIPBOARD_SET_TEXT, (uint64_t)data, (uint64_t)len);
}
inline int clipboard_get_info(Montauk::ClipboardInfo* out) {
return (int)syscall1(Montauk::SYS_CLIPBOARD_GET_INFO, (uint64_t)out);
inline int clipboard_get_info(montauk::abi::ClipboardInfo* out) {
return (int)syscall1(montauk::abi::SYS_CLIPBOARD_GET_INFO, (uint64_t)out);
}
inline int clipboard_get_text(char* buf, uint32_t bufLen, uint32_t* outLen,
uint64_t* outSerial = nullptr) {
return (int)syscall4(Montauk::SYS_CLIPBOARD_GET_TEXT, (uint64_t)buf, (uint64_t)bufLen,
return (int)syscall4(montauk::abi::SYS_CLIPBOARD_GET_TEXT, (uint64_t)buf, (uint64_t)bufLen,
(uint64_t)outLen, (uint64_t)outSerial);
}
inline int clipboard_clear() {
return (int)syscall0(Montauk::SYS_CLIPBOARD_CLEAR);
return (int)syscall0(montauk::abi::SYS_CLIPBOARD_CLEAR);
}
// Window server
inline int win_create(const char* title, int w, int h, Montauk::WinCreateResult* result) {
return (int)syscall4(Montauk::SYS_WINCREATE, (uint64_t)title, (uint64_t)w, (uint64_t)h, (uint64_t)result);
inline int win_create(const char* title, int w, int h, montauk::abi::WinCreateResult* result) {
return (int)syscall4(montauk::abi::SYS_WINCREATE, (uint64_t)title, (uint64_t)w, (uint64_t)h, (uint64_t)result);
}
inline int win_destroy(int id) {
return (int)syscall1(Montauk::SYS_WINDESTROY, (uint64_t)id);
return (int)syscall1(montauk::abi::SYS_WINDESTROY, (uint64_t)id);
}
inline uint64_t win_present(int id) {
return (uint64_t)syscall1(Montauk::SYS_WINPRESENT, (uint64_t)id);
return (uint64_t)syscall1(montauk::abi::SYS_WINPRESENT, (uint64_t)id);
}
inline int win_poll(int id, Montauk::WinEvent* event) {
return (int)syscall2(Montauk::SYS_WINPOLL, (uint64_t)id, (uint64_t)event);
inline int win_poll(int id, montauk::abi::WinEvent* event) {
return (int)syscall2(montauk::abi::SYS_WINPOLL, (uint64_t)id, (uint64_t)event);
}
inline int win_enumerate(Montauk::WinInfo* info, int max) {
return (int)syscall2(Montauk::SYS_WINENUM, (uint64_t)info, (uint64_t)max);
inline int win_enumerate(montauk::abi::WinInfo* info, int max) {
return (int)syscall2(montauk::abi::SYS_WINENUM, (uint64_t)info, (uint64_t)max);
}
inline uint64_t win_map(int id) {
return (uint64_t)syscall1(Montauk::SYS_WINMAP, (uint64_t)id);
return (uint64_t)syscall1(montauk::abi::SYS_WINMAP, (uint64_t)id);
}
inline int win_unmap(int id) {
return (int)syscall1(Montauk::SYS_WINUNMAP, (uint64_t)id);
return (int)syscall1(montauk::abi::SYS_WINUNMAP, (uint64_t)id);
}
inline int win_sendevent(int id, const Montauk::WinEvent* event) {
return (int)syscall2(Montauk::SYS_WINSENDEVENT, (uint64_t)id, (uint64_t)event);
inline int win_sendevent(int id, const montauk::abi::WinEvent* event) {
return (int)syscall2(montauk::abi::SYS_WINSENDEVENT, (uint64_t)id, (uint64_t)event);
}
inline uint64_t win_resize(int id, int w, int h) {
return (uint64_t)syscall3(Montauk::SYS_WINRESIZE, (uint64_t)id, (uint64_t)w, (uint64_t)h);
return (uint64_t)syscall3(montauk::abi::SYS_WINRESIZE, (uint64_t)id, (uint64_t)w, (uint64_t)h);
}
inline int win_setscale(int scale) {
return (int)syscall1(Montauk::SYS_WINSETSCALE, (uint64_t)scale);
return (int)syscall1(montauk::abi::SYS_WINSETSCALE, (uint64_t)scale);
}
inline int win_getscale() {
return (int)syscall0(Montauk::SYS_WINGETSCALE);
return (int)syscall0(montauk::abi::SYS_WINGETSCALE);
}
inline int win_setcursor(int id, int cursor) {
return (int)syscall2(Montauk::SYS_WINSETCURSOR, (uint64_t)id, (uint64_t)cursor);
return (int)syscall2(montauk::abi::SYS_WINSETCURSOR, (uint64_t)id, (uint64_t)cursor);
}
inline int win_setflags(int id, uint32_t flags) {
return (int)syscall2(Montauk::SYS_WINSETFLAGS, (uint64_t)id, (uint64_t)flags);
return (int)syscall2(montauk::abi::SYS_WINSETFLAGS, (uint64_t)id, (uint64_t)flags);
}
}
+4 -4
View File
@@ -35,7 +35,7 @@ namespace montauk {
// Terminate the calling thread. Never returns. If called by the main
// thread this is equivalent to exit() (the whole process exits).
[[noreturn]] inline void thread_exit(int code = 0) {
syscall1(Montauk::SYS_THREAD_EXIT, (uint64_t)code);
syscall1(montauk::abi::SYS_THREAD_EXIT, (uint64_t)code);
__builtin_unreachable();
}
@@ -86,7 +86,7 @@ namespace montauk {
ctx->stack_base = stack;
uint64_t stack_top = ((uint64_t)stack + stack_bytes) & ~0xFULL;
int tid = (int)syscall3(Montauk::SYS_THREAD_SPAWN,
int tid = (int)syscall3(montauk::abi::SYS_THREAD_SPAWN,
(uint64_t)&detail::thread_trampoline,
(uint64_t)ctx, stack_top);
if (tid < 0) {
@@ -101,13 +101,13 @@ namespace montauk {
// success (with the thread's exit code in *out_code if non-null) or
// -1 if `tid` is not a joinable sibling.
inline int thread_join(int tid, int* out_code = nullptr) {
return (int)syscall2(Montauk::SYS_THREAD_JOIN,
return (int)syscall2(montauk::abi::SYS_THREAD_JOIN,
(uint64_t)tid, (uint64_t)out_code);
}
// Return the calling thread's TID (== getpid() for the main thread).
inline int thread_self() {
return (int)syscall0(Montauk::SYS_THREAD_SELF);
return (int)syscall0(montauk::abi::SYS_THREAD_SELF);
}
// Lightweight mutex backed by a single atomic word + the kernel