SceKernelModulemgr is in charge of loading both user modules and kernel modules. SceSblAuthMgr facilitates the SELF decryption process and this library loads the ELF programs into memory along with linking with NIDs and relocation of ELF in position independent executables.
Module
This module name is SceKernelModulemgr.
This module exists only in non-secure world.
Privilege is Kernel.
The SELF can be found in os0:kd/modulemgr.skprx.
This module is also embedded in NSKBL.
Libraries
This module exports kernel and user libraries.
Known NIDs
Types
// These types are defined in elfutils
typedef Elf32_Ehdr Elf32_Ehdr;
typedef Elf32_Phdr Elf32_Phdr;
typedef struct SCE_header {
uint32_t magic; /* 53434500 = SCE\0 */
uint32_t version; /* header version 3*/
uint16_t sdk_type; /* */
uint16_t header_type; /* 1 self, 2 unknown, 3 pkg */
uint32_t metadata_offset; /* metadata offset */
uint64_t header_len; /* self header length */
uint64_t elf_filesize; /* ELF file length */
uint64_t self_filesize; /* SELF file length */
uint64_t unknown; /* UNKNOWN */
uint64_t self_offset; /* SELF offset */
uint64_t appinfo_offset; /* app info offset */
uint64_t elf_offset; /* ELF #1 offset */
uint64_t phdr_offset; /* program header offset */
uint64_t shdr_offset; /* section header offset */
uint64_t section_info_offset; /* section info offset */
uint64_t sceversion_offset; /* version offset */
uint64_t controlinfo_offset; /* control info offset */
uint64_t controlinfo_size; /* control info size */
uint64_t padding;
} SCE_header;
typedef struct SCE_appinfo {
uint64_t program_authority_id; /* program authority id */
uint32_t vendor_id; /* vendor id */
uint32_t self_type; /* app type */
uint64_t version; /* app version */
uint64_t padding; /* UNKNOWN */
} SCE_appinfo;
typedef struct segment_info {
uint64_t offset;
uint64_t length;
uint64_t compression; // 1 = uncompressed, 2 = compressed
uint64_t encryption; // 1 = encrypted, 2 = plain
} segment_info;
typedef struct self_data_buffer {
SCE_header sce_header;
SCE_appinfo sce_appinfo;
Elf32_Ehdr elf_hdr;
//... data goes
} self_data_buffer;
typedef struct SceDecryptCtx { //size is 0x30
self_data_buffer* self_header; // aligned buffer - based on (buffer_unaligned).
// points at SCE_header followed by SCE_appinfo
// size is usually 0x1000
int self_header_length;
Elf32_Ehdr* elf_ptr; // pointer constructed with elf_offset
Elf32_Phdr* phdr_ptr; // pointer constructed with phdr_offset
uint8_t type; // ex: 2
uint8_t init_completed;
uint8_t unk_12;
uint8_t unk_13;
segment_info* section_info_ptr; // pointer constructed with section_info_offset
void* buffer_unaligned; // SELF header data - size 0x103F - raw data read from file
int sm_ctx; // obtained with sceSblAuthMgrOpenForKernel
SceSblSmCommContext130* context_130;
SceUID fd; // file descriptor of SELF file - obtained with sceIoOpenForDriver
SceUID pid;
uint32_t max_size;
} SceDecryptCtx;
typedef struct SceDecryptCtxGlobal { // size is 0x4C
uint32_t unk_0;
uint32_t unk_4; // ex:3
void *module_decrypt_buff_ptr1;
int decrypt_size; // max 0x10000
int unk_10; // 0 or 1 or 2
int unk_14; // ex:-1
void *module_decrypt_buff_ptr2;
int unk_1C; // some size
SceDecryptCtx *decrypt_ctx;
SceUID evid; // SceModuleMgrSelfDecryptComm event flag
SceUID tid; // SceModuleMgrSelfDecrypter thread uid
void *unk_2C; // sceDeflateDecompressPartialForDriver out memblock
int compressed_seg_size;
uint32_t unk_34; // unk_2C out size?
uint16_t segment_number;
uint16_t unk_3A; // ex:0xFFFF
SceDeflatePartialInputParam cbinfo;
} SceDecryptCtxGlobal;
typedef struct SceKernelFwInfo {
SceSize size;
char versionString[0x1C];
SceUInt version;
SceUInt unk_24;
} SceKernelFwInfo;
typedef struct SceKernelSegmentInfo {
SceUInt size; //!< this structure size (0x18)
SceUInt perms; //!< probably rwx in low bits
void *vaddr; //!< address in memory
SceUInt memsz; //!< size in memory
SceUInt flags; //!< meaning unknown
SceUInt res; //!< unused?
} SceKernelSegmentInfo;
typedef struct SceKernelModuleName {
char s[0x1C];
} SceKernelModuleName;
typedef struct SceKernelModuleInfo { // size is 0x1B8
SceSize size; //!< sizeof(SceKernelModuleInfo)
SceUID modid;
uint16_t modattr;
uint8_t modver[2];
char name[0x1C];
uint32_t unk28;
void *start_entry;
void *stop_entry;
void *exit_entry;
void *exidx_start;
void *exidx_end;
void *extab_start;
void *extab_end;
void *tls_start;
SceSize tls_filesz;
SceSize tls_memsz;
char path[256];
SceKernelSegmentInfo segments[4];
SceUInt type;
} SceKernelModuleInfo;
typedef struct SceKernelSegmentInfo2 { // size is 0x14
SceSize size; //!< sizeof(SceKernelSegmentInfo2)
SceUInt32 perm;
void *pVA;
SceSize memsz;
int unk_10;
} SceKernelSegmentInfo2;
typedef struct SceKernelModuleListInfo { //!< sizeof(SceKernelModuleListInfo)
SceSize size;
SceUID modid;
uint32_t version;
uint32_t modVer;
uint32_t unk10;
void *unk14;
uint32_t unk18;
void *unk1C;
void *unk20;
char modName[28];
uint32_t unk40;
uint32_t unk44;
SceUInt32 dbgFingerprint;
int segments_num;
union {
struct {
SceKernelSegmentInfo2 SegmentInfo[1];
uint32_t addr[4];
} seg1;
struct {
SceKernelSegmentInfo2 SegmentInfo[2];
uint32_t addr[4];
} seg2;
struct {
SceKernelSegmentInfo2 SegmentInfo[3];
uint32_t addr[4];
} seg3;
struct {
SceKernelSegmentInfo2 SegmentInfo[4];
uint32_t addr[4];
} seg4;
};
} SceKernelModuleListInfo; // is for SceCoredump?
typedef struct SceKernelLibraryInfo { // size is 0x1C
SceSize size; //!< sizeof(SceKernelLibraryInfo)
uint16_t libver[2];
uint32_t libnid;
const char *libname;
uint16_t nfunc;
uint16_t nvar;
uint32_t *nid_table;
uint32_t *entry_table;
} SceKernelLibraryInfo;
typedef struct SceKernelModuleExportEntry {
uint32_t libnid;
const void *entry; // function ptr. or vars?
} SceKernelModuleExportEntry;
typedef struct {
SceUID modid;
uint32_t libnid;
} SceKernelModuleImportNID;
typedef struct SceKernelModuleImportNonlinkedInfo {
SceSize size; // 0x124
SceUID modid;
uint32_t libnid;
char libname[0x100];
uint32_t data_0x10C;
uint32_t data_0x110;
uint32_t data_0x114;
uint32_t data_0x118;
uint32_t data_0x11C;
uint32_t data_0x120;
} SceKernelModuleImportNonlinkedInfo;
typedef struct SceKernelModuleLibraryInfo {
SceSize size; //!< sizeof(SceKernelModuleLibraryInfo) : 0x120
SceUID library_id;
uint32_t libnid;
uint16_t libver[2];
uint16_t entry_num_function;
uint16_t entry_num_variable;
uint16_t unk_0x14;
uint16_t unk_0x16;
char library_name[0x100]; // offset : 0x18
uint32_t unk_0x118;
SceUID modid2;
} SceKernelModuleLibraryInfo;
typedef struct SceSelfAppInfo {
int vendor_id;
int self_type;
} SceSelfAppInfo;
typedef int (* SceKernelModuleEntry)(SceSize args, void *argp);
/**
* Module common macro
*/
#define SCE_KERNEL_START_SUCCESS (0) /**< Successful startup */
#define SCE_KERNEL_START_RESIDENT SCE_KERNEL_START_SUCCESS /**< Successful startup (resident) */
#define SCE_KERNEL_START_NO_RESIDENT (1) /**< Successful startup (not resident) */
#define SCE_KERNEL_START_FAILED (2) /**< Failed to start */
#define SCE_KERNEL_STOP_SUCCESS (0) /**< Successful stop */
#define SCE_KERNEL_STOP_FAIL (1) /**< Failed to stop */
#define SCE_KERNEL_STOP_CANCEL SCE_KERNEL_STOP_FAIL /**< Stop was cancelled */
/** Module attributes */
#define SCE_MODULE_ATTR_NONE (0x0000) /**< No attributes specified */
/** obsolete */
#define SCE_KERNEL_MODULE_ATTR_NONE SCE_MODULE_ATTR_NONE
/**
* option parameter for load module APIs
*/
typedef struct SceKernelLoadModuleOpt {
SceSize size; /**< Size of structure itself */
} SceKernelLoadModuleOpt;
/**
* option parameter for start module API
*/
typedef struct SceKernelStartModuleOpt {
SceSize size; /**< size of structure itself */
SceUInt32 flags; /**< should be 0 */
SceUInt32 prologue; /**< should be 0 */
SceUInt32 start; /**< should be 0 */
} SceKernelStartModuleOpt;
/**
* option parameter for stop module API
*/
typedef struct SceKernelStopModuleOpt {
SceSize size; /**< size of structure itself */
SceUInt32 flags; /**< should be 0 */
SceUInt32 epilogue; /**< should be 0 */
SceUInt32 stop; /**< should be 0 */
} SceKernelStopModuleOpt;
/**
* option parameter for unload module APIs
*/
typedef struct SceKernelUnloadModuleOpt {
SceSize size; /**< size of structure itself */
} SceKernelUnloadModuleOpt;
typedef struct SceLoadProcessParam {
uint32_t sysver;
char thread_name[0x20];
uint32_t unk_0x24; // ex:0x100000EC
uint32_t unk_0x28; // ex:0x6000
uint32_t unk_0x2C;
char unk_0x30[0x24];
char module_name[0x1C];
uint32_t unk_0x70;
uint32_t unk_0x74; // ex:0x790000
void *unk_0x78; // ex:0x81600814, data seg vaddr?
char unk_0x7C[0x20]; // all 0xFF
// more...
} SceLoadProcessParam;
typedef struct SceModuleLibraryInfo { // size is 0x2C
struct SceModuleLibraryInfo *next;
struct SceModuleLibraryInfo *data_0x04; // maybe
SceModuleExport *pExportInfo;
/*
* (syscall_idx & 0xFFF):syscall idx
* (syscall_idx & 0x1000):has syscall flag?
* (syscall_idx == 0) -> kernel export
*/
uint16_t syscall_info;
uint16_t data_0x0E;
/*
* Number of times this export was imported into another module
*/
SceSize number_of_imported;
SceModuleImportedInfo *pImportedInfo;
SceUID libid_kernel;
SceUID libid_user;
SceModuleInfoInternal *pModuleInfo;
int data_0x24; // zero?
int data_0x28; // zero?
} SceModuleLibraryInfo;
typedef struct SceKernelModuleNonlinkedInfo {
SceUID modid;
uint32_t libnid;
} SceKernelModuleNonlinkedInfo;
#define SCE_KERNEL_BACKTRACE_CONTEXT_CURRENT (0x00000000) /**< Backtrace current context */
#define SCE_KERNEL_BACKTRACE_MODE_USER (0x00000000) /**< User stack backtrace */
#define SCE_KERNEL_BACKTRACE_MODE_DONT_EXCEED (0x00000002) /**< Don't get stack depth */
/**
* Structure that represents one stage of the call stack
*/
typedef struct _SceKernelCallFrame {
SceUIntVAddr sp; /**< stack pointer */
SceUIntVAddr pc; /**< program counter */
} SceKernelCallFrame;
Notes
module_start failed
module_start should not normally return SCE_KERNEL_START_FAILED, so if for some reason the flow fails and module_start returns SCE_KERNEL_START_FAILED, a kernel panic will be triggered.
module_start no resident
If module_start returns SCE_KERNEL_START_NO_RESIDENT, the module will start successfully, but it will be unloaded after the module_start call.
However, if the module_start of the module where the syscall export exists is called after boot and returns SCE_KERNEL_START_NO_RESIDENT, then a kernel panic is triggered.
How to get module info
modid and SceUIDModuleClass are required to get module information.
Simply call sceGUIDReferObjectForDriver(sceKernelGetObjectForUidForDriver) with these parameters.
Module decrypt threads
SceKernelModulemgr_func_8100910D
This thread keeps waiting at sceKernelWaitEventFlagForDriver until a module decrypt request comes.
bits of sceKernelWaitEventFlagForDriver is 3.
Common functions
Decrypt module to membase with current ctx.
int SceKernelModulemgr_func_81009309(SceDecryptCtx *ctx, int seg_idx, void *membase, int arg4);
Called whenever a module is loaded.
flags
process image : 0x4
normal module : 0x1000
process module shared : 0x8001
process module : 0x8002
homebrew plugin : 0x8000002
shared module : 0x8008001
normal module ? : 0x8008002
int SceKernelModulemgr_func_81001519(void *pInfo, const char *path, SceUID fd, void *a4, uint32_t flags);
Reads the header from the passed fd and performs some checks.
[out] ctx
[in] pid
[in] fd
[in] context_130
int SceKernelModulemgr_func_81008DC9(void *ctx, SceUID pid, SceUID fd, void *context_130);
Data segment layout
Offsets are for FW 3.60.
Data section size is 0x203C0.
| Offset |
Size |
Description
|
| 0x0000 |
0x34 |
unknown
|
| 0x0034 |
0x4 |
SceKernelFwInfo data Initialize flag
|
| 0x0038 |
0x4 |
pointer of SceClass. The first class obtained with sceKernelSysrootGetModulePrivateForKernel. used by only sceKernelFinalizeKblForKernel.
|
| 0x003C |
0x4 |
pointer of SceClass. The third class obtained with sceKernelSysrootGetModulePrivateForKernel. SceUIDLibStubClass
|
| 0x0040 |
0x4 |
pointer of SceClass. The second class obtained with sceKernelSysrootGetModulePrivateForKernel. SceUIDLibraryClass
|
| 0x0044 |
0x4 |
Return value of SceThreadmgrForDriver_B645C7EF.
|
| 0x0048 |
0x4 |
pointer of SceClass. The first class obtained with sceKernelSysrootGetModulePrivateForKernel. SceUIDModuleClass
|
| 0x004C |
0x4 |
SceModuleMgr Mutex uid
|
| 0x0050 |
0x280 |
unknown
|
| 0x02D0 |
0x28 |
SceKernelFwInfo data
|
| 0x02F8 |
0x4 |
some thread id, check sceKernelModuleUnloadMySelfForKernel
|
| 0x02FC |
0x4 |
some kernel module uid, check sceKernelModuleUnloadMySelfForKernel
|
| 0x0300 |
0x4 |
unk, used by sceKernelLoadPreloadingModulesForKernel
|
| 0x0304 |
0x4 |
some storage ptr. used by sceKernelMountBootfsForKernel, sceKernelUmountBootfsForKernel
|
| 0x0308 |
0x4 |
pModuleEventDebugHandler
|
| 0x030C |
0x4 |
pointer of SceModuleSharedInfo.
|
| 0x0310 |
0x4 |
cpu_addr out (sceKernelCpuLockSuspendIntrStoreLRForDriver arg1)
|
| 0x0314 |
0x4 |
unk, some flag
|
| 0x0318 |
0x4 |
sceKernelGetMemBlockBaseForDriver membase out
|
| 0x031C |
0x4 |
sceKernelAllocMemBlockForDriver ret
|
| 0x0320 |
0xC |
unk
|
| 0x032C |
0x4 |
unk, used by SceModulemgrForKernel_F3CD647F
|
| 0x0330 |
0x4 |
unk, used by SceModulemgrForKernel_F3CD647F
|
| 0x0334 |
0x4 |
Syscall table vaddr.
|
| 0x0338 |
0x4 |
unk, related to syscall. used by sceMt19937GlobalUninitForDriver
|
| 0x033C |
0x4 |
unk
|
| 0x0340 |
0x4C |
SceDecryptCtxGlobal data
|
| 0x038C |
0x34 |
unk, all zero
|
| 0x03C0 |
0x10000 |
module decrypt buff 1
|
| 0x103C0 |
0x10000 |
module decrypt buff 2
|
typedef struct SceKernelModulemgr_data_t { // size is 0x203C0 on FW 3.60
char unk_00[0x34]; // unknown, all zero
int is_FwInfo_init;
SceClass *kbl_unload;
SceClass *pSceUIDLibStubClass;
SceClass *pSceUIDLibraryClass;
int some_thread_res;
SceClass *pSceUIDModuleClass;
SceUID mutex_id;
char unk_50[0x280]; // unknown
SceKernelFwInfo FwInfo;
SceUID some_threadid;
SceUID some_kernel_module_id;
int unk_0x0300;
void *bootfs_info;
int (* pModuleEventDebugHandler)(void *pInfo);
SceModuleSharedInfo *pSharedInfo;
int cpu_addr;
int some_flag;
void *membase;
SceUID memuid;
int unk_0x0320[3];
int unk_0x032C;
int unk_0x0330;
void *syscall_table;
int some_syscall_info;
int unk_0x033C;
SceDecryptCtxGlobal g_decrypt_ctx;
char unk_0x038C[0x34];
char module_decrypt_buff1[0x10000];
char module_decrypt_buff2[0x10000];
} SceKernelModulemgr_data_t;
Loading Sequence
When loading a module the sequence creates a SceModule structure to represent it.
typedef struct SceModule { // ?size is 0x3EC?
u8 unk0[0x64]; // 0x0
const char *filename; // 0x64
u8 unk1[0xC]; // 0x68
Elf32_Ehdr ehdr; // 0x74
Elf32_Phdr phdr; // 0xA8
void *text_addr; // 0x108
SceUID text_uid; // 0x10C
u32 text_size; // 0x110
void *kernel_addr; // 0x114
SceUID kernel_uid; // 0x118
u8 unk2[0x2C8]; // 0x11C
SceUID parent_pid; // 0x3E4
SceSblSmCommContext130* context_130; // 0x3E8
} SceModule;
SELF Decryption
The following code can decrypt a SELF located at path.
Set self_type to 1 if decrypting a usermode module else 0 for kernel (2 for SM but maybe not allowed).
Set media_type to 0 if you're decrypting the SELF at the right location (for example decrypting sysmem.skprx located in os0:). If you have copied the SELF elsewhere, you need to set the media_type to the right value for where the real path was.
use_cdram is for modules that are too large and won't fit in contiguous regular memory.
int decrypt_self(const char *path, const char *out_prefix, int media_type, int use_cdram, int self_type) {
char out_path[256];
int handle;
int ret;
int pid;
int fd = 0, wfd = 0;
char *ctx130 = NULL;
char *hdr_buf = NULL, *hdr_buf_aligned;
char *data_buf = NULL, *data_buf_aligned;
int phdr;
unsigned int hdr_size;
// set up Auth Mgr
ret = sceSblAuthMgrOpenForKernel(&handle);
printf("sceSblAuthMgrOpenForKernel: 0x%08X, handle: 0x%08X\n", ret, handle);
if (ret < 0)
return 1;
// set up ctx130
ctx130 = sceKernelLoadcoreKallocForKernel(0x10005, 0x130);
printf("Ctx130: 0x%08X\n", ctx130);
if (ctx130 == NULL)
goto fail;
memset(ctx130, 0, 0x130);
if (ret < 0)
goto fail;
*(int *)(ctx130 + 0x4) = self_type;
*(u64_t *)(ctx130 + 0x8) = 0x2808000000000001LL;
*(u64_t *)(ctx130 + 0x10) = 0xF000C000000080LL;
*(u64_t *)(ctx130 + 0x18) = 0xFFFFFFFF00000000LL;
*(u64_t *)(ctx130 + 0x30) = 0xC300003800980LL;
*(u64_t *)(ctx130 + 0x38) = 0x8009800000LL;
*(u64_t *)(ctx130 + 0x48) = 0xFFFFFFFF00000000LL;
if (media_type)
*(int *)(ctx130 + 0x128) = media_type;
else {
ret = sceIoGetMediaTypeForDriver(0x10005, path, 1, ctx130 + 0x128);
printf("sceIoGetMediaTypeForDriver: 0x%08X\n", ret);
if (ret < 0)
goto fail;
}
// read header
fd = sceIoOpenForDriver(path, 1, 0);
printf("sceIoOpenForDriver: 0x%08X\n", fd);
if (fd < 0)
goto fail;
hdr_buf = sceKernelLoadcoreKallocForKernel(0x10005, 0x1000+63);
hdr_buf_aligned = (char *)(((int)hdr_buf + 63) & 0xFFFFFFC0);
printf("Header buffer: 0x%08X, aligned: 0x%08X\n", hdr_buf, hdr_buf_aligned);
if (hdr_buf == NULL)
goto fail;
ret = sceIoReadForDriver(fd, hdr_buf_aligned, 0x1000);
printf("Header read: 0x%08X\n", ret);
hdr_size = *(unsigned int *)(hdr_buf_aligned + 0x10);
if (hdr_size > 0x1000) {
printf("Header too large: 0x%08X\n", hdr_size);
goto fail;
}
ret = sceIoLseekForDriver(fd, 0LL, 0);
printf("Header rewind: 0x%08X\n", ret);
// set up SBL decryption for this SELF
ret = sceSblAuthMgrAuthHeaderForKernel(handle, hdr_buf_aligned, hdr_size, ctx130);
printf("sceSblAuthMgrAuthHeaderForKernel: 0x%08X\n", ret);
if (ret < 0)
goto fail;
// set up read buffer
data_buf = sceKernelLoadcoreKallocForKernel(0x10005, 0x10000+63);
data_buf_aligned = (char *)(((int)data_buf + 63) & 0xFFFFFFC0);
printf("Data buffer: 0x%08X, aligned: 0x%08X\n", data_buf, data_buf_aligned);
if (data_buf == NULL)
goto fail;
// get sections
int elf_offset = *(int*)(hdr_buf_aligned + 0x40);
int num_segs = *(short*)(hdr_buf_aligned + elf_offset + 0x2C);
printf("Number of segments to read: 0x%04X\n", num_segs);
int info_offset = *(int*)(hdr_buf_aligned + 0x58);
struct seg_info *segs = (struct seg_info *)(hdr_buf_aligned + info_offset);
int phdr_offset = *(int*)(hdr_buf_aligned + 0x48);
struct e_phdr *phdrs = (struct e_phdr *)(hdr_buf_aligned + phdr_offset);
// decrypt sections
int total, to_read, num_read, off;
int aligned_size;
int blkid = 0;
void *pgr_buf;
for (int i = 0; i < num_segs; ++i) {
sprintf(out_path, "%s.seg%u", out_prefix, i);
sceIoCloseForDriver(wfd);
wfd = sceIoOpenForDriver(out_path, 0x602, 6);
printf("sceIoOpenForDriver(%s): 0x%08X\n", out_path, wfd);
if (wfd < 0)
break;
if (blkid)
sceKernelFreeMemBlockForKernel(blkid);
aligned_size = (phdrs[i].p_filesz + 4095) & 0xFFFFF000;
if (use_cdram)
blkid = sceKernelAllocMemBlockForKernel("self_decrypt_buffer", 0x40404006, 0x4000000, NULL);
else
blkid = sceKernelAllocMemBlockForKernel("self_decrypt_buffer", 0x1020D006, aligned_size, NULL);
printf("sceKernelAllocMemBlockForKernel: 0x%08X, size: 0x%08X\n", blkid, aligned_size);
ret = sceKernelGetMemBlockBaseForKernel(blkid, &pgr_buf);
printf("sceKernelGetMemBlockBaseForKernel: 0x%08X, base: 0x%08X\n", ret, pgr_buf);
if (ret < 0)
break;
// setup buffer for output
ret = sceSblAuthMgrSetupAuthSegmentForKernel(handle, i, (u32_t)segs[i].length, pgr_buf, phdrs[i].p_filesz);
printf("sceSblAuthMgrSetupAuthSegmentForKernel: 0x%08X\n", ret);
if (ret < 0)
break;
ret = sceIoLseekForDriver(fd, segs[i].offset, 0);
printf("sceIoLseekForDriver(0x%08X): 0x%08X\n", (u32_t)segs[i].offset, ret);
if (ret < 0)
break;
total = (u32_t)segs[i].length;
to_read = total > 0x10000 ? 0x10000 : total;
off = 0;
while (total > 0 && (num_read = sceIoReadForDriver(fd, data_buf_aligned + off, to_read)) > 0) {
off += num_read;
total -= num_read;
if (num_read < to_read) {
to_read -= num_read;
continue;
}
ret = sceSblAuthMgrAuthSegmentForKernel(handle, data_buf_aligned, off); // decrypt buffer
printf("sceSblAuthMgrAuthSegmentForKernel: 0x%08X\n", ret);
if (ret < 0)
printf("!!! ERROR !!!\n");
ret = sceSblAuthMgrLoadSegmentInternalForKernel(handle, data_buf_aligned, off); // copy buffer to output
printf("sceSblAuthMgrLoadSegmentInternalForKernel: 0x%08X\n", ret);
if (ret < 0)
printf("!!! ERROR !!!\n");
off = 0;
to_read = total > 0x10000 ? 0x10000 : total;
}
// write buffer
off = 0;
while ((off += sceIoWriteForDriver(wfd, pgr_buf + off, phdrs[i].p_filesz - off)) < phdrs[i].p_filesz);
}
if (blkid)
sceKernelFreeMemBlockForKernel(blkid);
sceIoCloseForDriver(wfd);
fail:
sceSblAuthMgrCloseForKernel(handle);
if (fd)
sceIoCloseForDriver(fd);
if (ctx130)
sceKernelLoadcoreKfreeForKernel(ctx130);
if (hdr_buf)
sceKernelLoadcoreKfreeForKernel(hdr_buf);
if (data_buf)
sceKernelLoadcoreKfreeForKernel(data_buf);
return 1;
}
Module decryption and signature checks ("HENkaku patches" on 1.60)
See also SELF_Loading to see how these SceSblAuthMgr functions are used to decrypt SELFs.
The code below will patch signature checks and bypass module decryption and allow homebrews to run. The idea is to hook SceSblAuthMgr* calls that are imported to SceKernelModulemgr. The offsets are from 1.60, you will probably need to modify functions defines (set to addresses of functions) and INSTALL_HOOK second arguments (set to addresses of imports in SceKernelModulemgr).
For old FWs like 1.60, as there is no kASLR, you can set hardcoded addresses, else take HENkaku code. As a bonus there's also patch_npdrm functions that patches SceNpDrm to bypass some DRM checks and allow unsigned packages to be installed, which you also need to modify addresses. See SceNpDrm#Package_integrity_checks.
// hardcoded addresses for 1.60
#define G_OUR_EBOOT *(unsigned*)(0x01E60000 - 0x14)
#define G_BUF *(unsigned*)(0x01E60000 - 0xC)
#define G_WRITTEN *(unsigned*)(0x01E60000 - 0x10)
#define Func(addr) ((unsigned(*)())(addr))
// Hardcoded addresses for 1.60
#define sceSblAuthMgrAuthHeaderForKernel Func(0x4BC6C9)
#define sceSblAuthMgrSetupAuthSegmentForKernel Func(0x4BC851)
#define sceSblAuthMgrAuthSegmentForKernel Func(0x4BC909)
#define sceSblAuthMgrLoadSegmentInternalForKernel Func(0x4BCA89)
// setup file decryption
unsigned sceSblAuthMgrAuthHeaderForKernel_patched(unsigned a1, unsigned a2, unsigned a3, unsigned a4) {
unsigned res = sceSblAuthMgrAuthHeaderForKernel(a1, a2, a3, a4);
if (res == 0x800f0624 || res == 0x800f0616 || res == 0x800f0024) {
G_OUR_EBOOT = 1;
// patch somebuf so our module actually runs
unsigned *somebuf = (unsigned*)a4;
somebuf[42] = 0x40;
return 0;
} else {
G_OUR_EBOOT = 0;
}
return res;
}
// setup output buffer
unsigned sceSblAuthMgrSetupAuthSegmentForKernel_patched(unsigned a1, unsigned a2, unsigned a3, unsigned a4, unsigned a5) {
G_BUF = a4;
G_WRITTEN = 0;
if (G_OUR_EBOOT == 1) {
return 0;
}
return sceSblAuthMgrSetupAuthSegmentForKernel(a1, a2, a3, a4, a5);
}
// decrypt
unsigned sceSblAuthMgrAuthSegmentForKernel_patched(unsigned a1, unsigned a2, unsigned a3) {
if (G_OUR_EBOOT == 1) {
return 0;
}
return sceSblAuthMgrAuthSegmentForKernel(a1, a2, a3);
}
// copy to output - not present on 3.60
unsigned sceSblAuthMgrLoadSegmentInternalForKernel_patched(unsigned a1, unsigned a2, unsigned a3) {
if (G_OUR_EBOOT == 1) {
memcpy((void*)(G_BUF + G_WRITTEN), (void*)a2, a3);
G_WRITTEN += a3;
return 0;
}
return sceSblAuthMgrLoadSegmentInternalForKernel(a1, a2, a3);
}
#define INSTALL_HOOK(func, addr) \
{ unsigned *target; \
target = (unsigned*)addr; \
*target++ = 0xE59FF000; /* ldr pc, [pc, #0] */ \
*target++; /* doesn't matter */ \
*target = (unsigned)func; \
}
// hardcoded addresses for 1.60
void hook_install(void) {
INSTALL_HOOK(sceSblAuthMgrLoadSegmentInternalForKernel_patched, 0x5BA9CC);
INSTALL_HOOK(sceSblAuthMgrSetupAuthSegmentForKernel_patched, 0x5BA9DC);
INSTALL_HOOK(sceSblAuthMgrAuthSegmentForKernel_patched, 0x5BAA0C);
INSTALL_HOOK(sceSblAuthMgrAuthHeaderForKernel_patched, 0x5BAA1C);
}
unsigned get_module_base(const char *name) {
int * modlist[MOD_LIST_SIZE];
int modlist_records;
int res;
SceKernelModuleInfo modinfo;
memset(modlist, 0, sizeof(modlist));
modlist_records = MOD_LIST_SIZE;
sceKernelGetModuleListForKernel(0x10005, 0x7FFFFFFF, 1, modlist, &modlist_records);
for(int j = 0; j < modlist_records; j++) {
memset(&modinfo, 0, sizeof(modinfo));
res = sceKernelGetModuleInfoForKernel(modlist[j], &modinfo);
if (strcmp(modinfo.name, name) == 0)
return (unsigned)modinfo.module_top;
}
return 0;
}
// Hardcoded addresses for 1.60
void patch_npdrm(unsigned base) {
unsigned *patch;
// check where check_func[0] is called
patch = (unsigned*)(base + 0x310);
*patch = 0x47702001;
// check where check_func[1] is called
patch = (unsigned*)(base + 0xaa4);
*patch = 0x47702001;
// always return 1 in install_allowed
patch = (unsigned*)(base + 0x2d64);
*patch = 0x47702001;
// patch error code 0x80870003
patch = (unsigned*)(base + 0x4856);
*patch = 0x2500;
// second same error code
patch = (unsigned*)(base + 0x35fe);
*patch = 0x2600;
}
// Call this function from a thread
int hook(void) {
fprintf("Hook start\n");
unsigned prev_dacr;
__asm__ volatile("mrc p15, 0, %0, c3, c0, 0" : "=r" (prev_dacr));
__asm__ volatile("mcr p15, 0, %0, c3, c0, 0" : : "r" (-1));
unsigned base_npdrm = get_module_base("SceNpDrm");
fprintf("SceNpDrm base: 0x%08x\n", base_npdrm);
patch_npdrm(base_npdrm);
hook_install();
__asm__ volatile("MCR p15, 0, %0, c7, c5, 0" : : "r" (0)); // flush icache
__asm__ volatile("mcr p15, 0, %0, c3, c0, 0" : : "r" (prev_dacr));
sceKernelDelayThread(4*1000*1000);
return 0;
}
SceModulemgrForKernel
sceKernelSetupForModulemgrForKernel
| Version |
NID
|
| 3.60 |
0x3382952B
|
void sceKernelSetupForModulemgrForKernel(void);
sceKernelFinalizeKblForKernel
| Version |
NID
|
| 0.990-3.60 |
0xFDD7F646
|
| 3.65 |
0xB911516F
|
unload the ScePsp2BootConfig
void *sysroot_buffer = sceKernelGetSysrootBuffer();
kbl_modid = *(SceUID *)(SceSysrootForKernel_CD70C9D7(sysroot_buffer) + 0x38);
sceKernelStopUnloadModuleForDriver(kbl_modid);
unk = *(_DWORD *)(SceSysrootForKernel_CD70C9D7(sysroot_buffer) + 0x34);
// then does other things with other sysroot functions
0.990
void sceKernelFinalizeKblForKernel(void);
3.60
int sceKernelFinalizeKblForKernel(void);
sceKernelRegisterSyscallForKernel
| Version |
NID
|
| 3.60 |
0xB427025E
|
| 3.65-3.68 |
0x2E4A10A0
|
void sceKernelRegisterSyscallForKernel(SceSize num, void *function);
sceKernelLoadPtLoadSegForFwloaderForKernel
| Version |
NID
|
| 0.990-3.60 |
0x448810D5
|
| 3.65 |
0xA07063EA
|
Temp name is sceKernelDecryptSelfByPathForKernel
int sceKernelLoadPtLoadSegForFwloaderForKernel(const char *path, int e_phnum, void *buffer, uint32_t bufsize, int zero_unk, uint32_t *bytes_read);
This is an easy way of decrypting SELFs but you are limited to the kinds of SELFs you can load in the current context (for example, you can't load user modules from kernel context). It is also susceptible to limitations of where the SELF can be loaded from. For example, you are not allowed to load SELFs found in os0: from ux0: because Secure Kernel checks the Media Type.
On FW 3.60, statically compiled SELF gives an error.
sceKernelMountBootfsForKernel
| Version |
NID
|
| 3.60 |
0x01360661
|
| 3.65 |
0x185FF1BC
|
int sceKernelMountBootfsForKernel(const char *bootImagePath);
sceKernelUmountBootfsForKernel
| Version |
NID
|
| 3.60 |
0x9C838A6B
|
| 3.65 |
0xBD61AD4D
|
int sceKernelUmountBootfsForKernel(void);
sceKernelLoadModuleForPidForKernel
| Version |
NID
|
| 3.60 |
0xFA21D8CB
|
/**
* @brief Load module
*
* moduleFileName Loads the module specified by moduleFileName.
* If the load is successful, the module identifier is returned as the return value.
*
* @param[in] moduleFileName file name
* @param[in] flags flags
* @param[in] pOpt option parameter, should be SCE_NULL
* @retval (>0) module uid
* @retval (<0) Error code
*/
SceUID sceKernelLoadModuleForPidForKernel(SceUID pid, const char *moduleFileName, SceUInt32 flags, const SceKernelLoadModuleOpt *pOpt);
sceKernelStartModuleForPidForKernel
| Version |
NID
|
| 3.60 |
0x6DF745D5
|
// flags must be 0
// pOpt can be null
/**
* @brief start module for process
*
* Starts the module specified by uid. When calling the start entry function,
* the value specified by the args and argp arguments is passed as an argument.
*
* If the start process is successful, the library declared with AUTO_EXPORT will be registered.
* Public processing is performed and the return value of the start entry function is stored in the area indicated by pRes.
* If the start process fails, library registration and publishing will not be performed.
*
* SCE_KERNEL_START_NO_RESIDENT is returned as the return value of the start entry function
* only if the module is automatically unloaded after executing the start entry function.
* If SCE_KERNEL_START_FAILED is returned, the start process will fail.
* At this time, the module is not unloaded. Modules that failed to start
* It can be restarted with sceKernelStartModuleForPidForKernel().
*
* @param[in] pid process id
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of start entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
int sceKernelStartModuleForPidForKernel(SceUID pid, SceUID uid, SceSize args, const void *argp, SceUInt32 flags, const SceKernelStartModuleOpt *pOpt, int *pRes);
sceKernelStopModuleForPidForKernel
| Version |
NID
|
| 3.60 |
0x7BB4CE54
|
/**
* @brief Stop module
*
* Stops the module specified by uid. When calling the stop entry function,
* the values specified by the args and argp arguments are passed as arguments.
*
* If the stop process is successful, the library released from the module is deleted,
* and the return value of the stop entry function is stored in the area indicated by pRes.
* If stop processing fails, library deletion processing is not performed.
*
* Only when SCE_KERNEL_STOP_SUCCESS is returned as the return value of the
* stop entry function, module stop processing succeeds.
* If any other value is returned, module stop processing will fail.
* The module that failed to stop can be restarted with sceKernelStopModuleForPidForKernel().
*
* @param[in] pid process id
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of stop entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
int sceKernelStopModuleForPidForKernel(SceUID pid, SceUID uid, SceSize args, const void *argp, SceUInt32 flags, const SceKernelStopModuleOpt *pOpt, int *pRes);
sceKernelUnloadModuleForPidForKernel
| Version |
NID
|
| 3.60 |
0x5972E2CC
|
/**
* @brief Unload module
*
* Unloads the module specified by uid.
*
* @param[in] pid process id
* @param[in] uid module id
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter
*
* @retval SCE_OK success
* @retval (<0) Error code
int sceKernelUnloadModuleForPidForKernel(SceUID pid, SceUID uid, SceUInt32 flags, const SceKernelUnloadModuleOpt *pOpt);
sceKernelModuleUnloadMySelfForKernel
| Version |
NID
|
| 3.60 |
0x2A69385E
|
| 3.65 |
0x2F82EEBC
|
int sceKernelModuleUnloadMySelfForKernel(void);
sceKernelLoadPreloadingModulesForKernel
Temp name was sceKernelLoadProcessModulesForKernel. Was wrongly named sceKernelLoadStartDefaultSharedModulesForPidForKernel.
| Version |
NID
|
| 0.931-3.60 |
0x3AD26B43
|
This loads the default shared modules for a process (only the ones that are actually imported). This includes, for example, SceLibKernel. Modules are loaded with flags 0x10000000 meaning that text pages can be shared. If dipsw 210 is set, then flag 0x1000 is set, meaning that if the existing page is found, do not share it but instead make a copy.
int sceKernelLoadPreloadingModulesForKernel(SceUID pid, SceLoadProcessParam *pParam, int flags);
sceKernelLoadProcessImageForKernel
| Version |
NID
|
| 0.931-3.60 |
0xAC4EABDB
|
/**
* @brief load process image
*
* @param[in] pid - target pid
* @param[in] path - path
* @param[in] a3 - unk, zero
* @param[out] auth_info
* @param[out] param
* @param[in] a6 - unk, zero
*
* @return modid, < 0 on error.
*/
SceUID sceKernelLoadProcessImageForKernel(SceUID pid, const char *path, int a3, SceSelfAuthInfo *auth_info, SceLoadProcessParam *param, int a6);
sceKernelUnloadProcessModulesForKernel
Temp name was sceKernelStopUnloadPreloadingModulesForKernel.
| Version |
NID
|
| 0.990-3.60 |
0x0E33258E
|
sceKernelStartPreloadingModulesForKernel
| Version |
NID
|
| 0.931-3.60 |
0x432DCC7A
|
| 3.65 |
0x998C7AE9
|
Temp name was sceKernelStartProcessModulesForKernel.
int sceKernelStartPreloadingModulesForKernel(SceUID pid);
sceKernelGetProcessEntryPointForKernel
| Version |
NID
|
| 0.990-3.60 |
0xFE303863
|
Temp name was sceKernelGetModuleInternalForKernel, sceKernelGetModuleCBForDebugger.
0.990:
void **sceKernelGetProcessEntryPointForKernel(SceUID modid);
3.60:
int sceKernelGetProcessEntryPointForKernel(SceUID modid, void **entrypoint);
sceKernelGetProcessMainModuleForKernel
| Version |
NID
|
| 3.60 |
0x20A27FA9
|
/**
* @brief Get the main module for a given process.
* @param pid The process to query.
* @return the UID of the module else < 0 for an error.
*/
SceUID sceKernelGetProcessMainModuleForKernel(SceUID pid);
sceKernelGetProcessLibStubIdListForKernel
| Version |
NID
|
| 3.60 |
0x1D341231
|
int sceKernelGetProcessLibStubIdListForKernel(SceUID pid, SceUID *libstub_ids, SceSize *num);
sceKernelGetProcessLibraryIdListForKernel
| Version |
NID
|
| 3.60 |
0x1FDEAE16
|
wrong temp name is sceKernelGetModuleUidListForKernel, sceKernelGetModuleExportLibraryListForKernel
int sceKernelGetProcessLibraryIdListForKernel(SceUID pid, SceUID *library_ids, SceSize *num);
sceKernelGetModuleImportListForKernel
| Version |
NID
|
| 3.60 |
0x2DD3B511
|
int sceKernelGetModuleImportListForKernel(SceUID pid, SceUID modid, SceUID *library_ids, SceSize *num);
sceKernelGetModuleExportListForKernel
| Version |
NID
|
| 3.60 |
0x619925F1
|
wrong temp name is sceKernelGetModuleLibraryIdListForKernel
int sceKernelGetModuleExportListForKernel(SceUID pid, SceUID modid, SceUID *library_ids, SceSize *num);
sceKernelGetModuleListForKernel
| Version |
NID
|
| 1.60-3.60 |
0x97CF7B4E
|
| 3.65 |
0xB72C75A4
|
int sceKernelGetModuleListForKernel(SceUID pid, int flags1, int flags2, SceUID *modids, SceSize *num);
sceKernelGetModuleList2ForKernel
| Version |
NID
|
| 3.60 |
0x410E1D2E
|
int sceKernelGetModuleList2ForKernel(SceUID pid, SceKernelModuleListInfo *infolists, SceSize *num);
sceKernelGetModuleListByImportForKernel
| Version |
NID
|
| 3.60 |
0x3B93CF88
|
wrong temp name is sceKernelGetModuleUidForKernel
int sceKernelGetModuleListByImportForKernel(SceUID pid, SceUID library_id, SceUID *modids, SceSize *num, SceSize cpy_skip_num);
sceKernelGetModuleKernelExportListForKernel
| Version |
NID
|
| 3.60 |
0x8D1AA624
|
int sceKernelGetModuleKernelExportListForKernel(SceModuleLibraryInfo **ppList, SceSize *num);
sceKernelGetModuleLibExportListForKernel
| Version |
NID
|
| 3.60 |
0xD4BF409C
|
int sceKernelGetModuleLibExportListForKernel(SceUID pid, SceUID library_id, SceKernelModuleExportEntry *list, SceSize *num, SceSize cpy_skip_num);
SceModulemgrForKernel_FB251B7A
| Version |
NID
|
| 3.60 |
0xFB251B7A
|
maybe sceKernelGetModuleLibImportListForKernel
// a3 size is 8 * num
int SceModulemgrForKernel_FB251B7A(SceUID pid, SceUID stubid, void *a3, SceSize *num, SceSize cpy_skip_num);
sceKernelGetModuleAppInfoForKernel
| Version |
NID
|
| 3.60 |
0xF95D09C2
|
int sceKernelGetModuleAppInfoForKernel(const char *path, uint64_t *pAuthid, SceSelfAppInfo *pInfo);
sceKernelGetModuleIsSharedByAddrForKernel
| Version |
NID
|
| 3.60 |
0x99890202
|
int sceKernelGetModuleIsSharedByAddrForKernel(SceUID pid, const void *module_addr);
sceKernelGetModulePathForKernel
| Version |
NID
|
| 3.60 |
0x779A1025
|
wrong name is sceKernelGetProcessMainModulePathForKernel
int sceKernelGetModulePathForKernel(SceUID modid, char *path, SceSize pathlen);
sceKernelGetModuleNIDForKernel
| Version |
NID
|
| 3.60 |
0xEEA92F1F
|
int sceKernelGetModuleNIDForKernel(SceUID modid, uint32_t *module_nid);
sceKernelGetModuleInhibitStateForKernel
| Version |
NID
|
| 3.60 |
0x7A1E882D
|
int sceKernelGetModuleInhibitStateForKernel(SceUID pid, int *state);
sceKernelGetModuleInternalByAddrForKernel
| Version |
NID
|
| 0.990-3.60 |
0x2C2618D9
|
Used by sceKernelPrintBacktraceForDriver.
int sceKernelGetModuleInternalByAddrForKernel(SceUID pid, const void *module_addr, SceModuleInfoInternal **ppInfo);
sceKernelGetModuleIdByAddrForKernel
| Version |
NID
|
| 0.990-3.60 |
0x0053BA4A
|
SceUID sceKernelGetModuleIdByAddrForKernel(SceUID pid, const void *module_addr);
sceKernelGetModuleEntryPointForKernel
| Version |
NID
|
| 3.60 |
0x66606301
|
SceKernelModuleEntry sceKernelGetModuleEntryPointForKernel(SceUID modid);
sceKernelGetModuleEntryPointForUserForKernel
| Version |
NID
|
| 3.60 |
0x78DBC027
|
int sceKernelGetModuleEntryPointForUserForKernel(SceUID pid, SceUID UserUid, SceKernelModuleEntry *start, SceKernelModuleEntry *stop);
sceKernelGetModuleInfoForKernel
| Version |
NID
|
| 3.60 |
0xD269F915
|
| 3.65 |
0xDAA90093
|
int sceKernelGetModuleInfoForKernel(SceUID pid, SceUID modid, SceKernelModuleInfo *info);
sceKernelGetModuleInfoMinByAddrForKernel
| Version |
NID
|
| 3.60 |
0x8309E043
|
int sceKernelGetModuleInfoMinByAddrForKernel(SceUID pid, const void *pModuleAddr, SceUInt32 *puiDbgFingerprint, void **pProgramTextAddr, SceKernelModuleName *pModuleName);
sceKernelGetModuleLibraryInfoForKernel
| Version |
NID
|
| 3.60 |
0x6A655255
|
int sceKernelGetModuleLibraryInfoForKernel(SceUID pid, SceUID library_id, SceKernelModuleLibraryInfo *info);
SceModulemgrForKernel_B73BE671
| Version |
NID
|
| 3.60 |
0xB73BE671
|
maybe sceKernelGetModuleLibStubInfoForKernel
// a3 size is 0x128
int SceModulemgrForKernel_B73BE671(SceUID pid, SceUID stubid, void *a3);
sceKernelGetModuleImportNonlinkedInfoByNIDForKernel
| Version |
NID
|
| 3.60 |
0x952535A3
|
int sceKernelGetModuleImportNonlinkedInfoByNIDForKernel(SceUID pid, SceUID modid, uint32_t libnid, SceKernelModuleImportNonlinkedInfo *info);
sceKernelGetModuleNonlinkedListForKernel
| Version |
NID
|
| 3.60 |
0xFF2264BB
|
int sceKernelGetModuleNonlinkedListForKernel(SceUID pid, SceUID modid, SceKernelModuleNonlinkedInfo *pList, SceSize *num);
sceKernelGetModuleNonlinkedImportInfoForKernel
| Version |
NID
|
| 3.60 |
0x1BDE2ED2
|
int sceKernelGetModuleNonlinkedImportInfoForKernel(SceUID pid, SceKernelModuleImportNID *a2, SceSize *num);
sceKernelRegisterDebugCBForKernel
| Version |
NID
|
| 3.60 |
0x60E176C8
|
used by SceDeci4pDtracep
int sceKernelRegisterDebugCBForKernel(const void *pHandler);
sceKernelUnregisterDebugCBForKernel
| Version |
NID
|
| 3.60 |
0x9D20C9BB
|
Old wrong name is sceKernelRegisterDebugCBCheckForKernel
int sceKernelUnregisterDebugCBForKernel(const void *pHandler);
SceModulemgrForKernel_29CB2771
| Version |
NID
|
| 3.60 |
0x29CB2771
|
Related to process switch?
int SceModulemgrForKernel_29CB2771(SceUID pid);
SceModulemgrForKernel_4865C72C
| Version |
NID
|
| 3.60 |
0x4865C72C
|
Related to non-linked?
int SceModulemgrForKernel_4865C72C(SceUID pid, const char *libname);
SceModulemgrForKernel_F3CD647F
| Version |
NID
|
| 3.60 |
0xF3CD647F
|
set two param
void SceModulemgrForKernel_F3CD647F(int a1, int a2);
sceKernelLibraryDBGetSyslibtraceCBForKernel
| Version |
NID
|
| 0.990 |
0x3AE7F62F
|
| 3.60 |
not present
|
sceKernelLibraryDBSetSyslibtraceCBForKernel
| Version |
NID
|
| 0.990 |
0x7E68D6EC
|
SceModulemgrForKernel_06D9392A
| Version |
NID
|
| 0.990 |
0x06D9392A
|
| 3.60 |
not present
|
SceModulemgrForKernel_06D9392A(int modid, void *addr, int *out);
sceModulemgrLockLibDBForKernel
| Version |
NID
|
| 0.990 |
0x37C2A1A5
|
sceModulemgrUnlockLibDBForKernel
| Version |
NID
|
| 0.990 |
0x0751F162
|
SceModulemgrForKernel_04ADDA3E
| Version |
NID
|
| 0.990 |
0x04ADDA3E
|
sceKernelGetProcessEntryPointForKernel
| Version |
NID
|
| 0.990 |
0xC72CA412
|
| 3.60 |
not present
|
sceKernelLoadcoreKallocForKernel
| Version |
NID
|
| 0.990 |
0xB4A1DE31
|
void *sceKernelLoadcoreKallocForKernel(SceSize len);
sceKernelLoadcoreKfreeForKernel
| Version |
NID
|
| 0.990-1.60 |
0xF4B2D8B8
|
Calls sceKernelFreeHeapMemoryForDriver.
sceKernelCallModuleSuspendEntryForKernel
| Version |
NID
|
| 0.990 |
0x829E1C94
|
sceKernelLibraryDBGetLibEntHeadForKernel
| Version |
NID
|
| 0.990 |
0x1100A1B8
|
SceModulemgrForKernel_19A65337
| Version |
NID
|
| 0.990 |
0x19A65337
|
SceModulemgrForDriver
sceKernelGetModuleInfoByAddrForDriver
| Version |
NID
|
| 0.990-3.60 |
0x1D9E0F7E
|
note : kernel only.
int sceKernelGetModuleInfoByAddrForDriver(const void *module_addr, SceKernelModuleInfo *info);
sceKernelRegisterLibaryForDriver
| Version |
NID
|
| 0.990-3.60 |
0x861638AD
|
note : kernel only.
int sceKernelRegisterLibaryForDriver(const void *module_addr);
sceKernelReleaseLibaryForDriver
| Version |
NID
|
| 0.990-3.60 |
0x0975B104
|
note : kernel only.
int sceKernelReleaseLibaryForDriver(const void *module_addr);
sceKernelGetModuleInfoForDriver
sceKernelSearchModuleByNameForDriver
| Version |
NID
|
| 0.940-3.60 |
0xBBE1771C
|
// Returns (<0) if error or module is not loaded
SceUID sceKernelSearchModuleByNameForDriver(const char *module_name);
sceKernelGetSystemSwVersionForDriver
| Version |
NID
|
| 0.940-3.60 |
0x5182E212
|
int sceKernelGetSystemSwVersionForDriver(SceKernelFwInfo *data);
sceKernelSetSystemSwVersionForDriver
| Version |
NID
|
| 0.990-1.69 |
0x912AEB73
|
| 3.60 |
non existent. Integrated with sceKernelGetSystemSwVersionForDriver
|
sceKernelLoadStartModuleForDriver
| Version |
NID
|
| 1.69-3.60 |
0x189BFBBB
|
/**
* @brief PRX Load and start PRX
*
* moduleFileName After loading the PRX specified by the moduleFileName argument, start processing
* is performed.
*
* During start processing, module_start () is called by a thread
* that is initialized with SCE_KERNEL_DEFAULT_PRIORITY_USER as the priority
* and SCE_KERNEL_STACK_SIZE_DEFAULT_USER_MAIN as the stack size.
* When it is done, the argument block specified by the args and argp arguments are
* copied to the thread stack and then passed to module_start().
*
* If loading and start processing is successful, the return value
* of the start entry function is stored in the area indicated by pRes.
*
* If SCE_KERNEL_START_NO_RESIDENT is returned as the return value of module_start()
* the module is not resident in memory and is automatically unloaded after module_start() is executed.
* If SCE_KERNEL_START_FAILED is returned,
* the PRX has failed to load. A PRX is resident (loaded) only if it
* returns a value other than SCE_KERNEL_START_NO_RESIDENT
* or SCE_KERNEL_START_FAILED, including SCE_KERNEL_START_RESIDENT.
*
* @param[in] moduleFileName file name
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of start entry
*
* @retval (>0) module uid
* @retval (<0) Error code
*/
SceUID sceKernelLoadStartModuleForDriver(const char *moduleFileName, SceSize args, const void *argp, SceUInt32 flags, const SceKernelLoadModuleOpt *pOpt, int *pRes);
sceKernelLoadStartModuleForPidForDriver
| Version |
NID
|
| 3.60 |
0x9D953C22
|
/**
* @brief PRX Load and start PRX
*
* moduleFileName After loading the PRX specified by the moduleFileName argument, start processing
* is performed.
*
* During start processing, module_start () is called by a thread
* that is initialized with SCE_KERNEL_DEFAULT_PRIORITY_USER as the priority
* and SCE_KERNEL_STACK_SIZE_DEFAULT_USER_MAIN as the stack size.
* When it is done, the argument block specified by the args and argp arguments are
* copied to the thread stack and then passed to module_start().
*
* If loading and start processing is successful, the return value
* of the start entry function is stored in the area indicated by pRes.
*
* If SCE_KERNEL_START_NO_RESIDENT is returned as the return value of module_start()
* the module is not resident in memory and is automatically unloaded after module_start() is executed.
* If SCE_KERNEL_START_FAILED is returned,
* the PRX has failed to load. A PRX is resident (loaded) only if it
* returns a value other than SCE_KERNEL_START_NO_RESIDENT
* or SCE_KERNEL_START_FAILED, including SCE_KERNEL_START_RESIDENT.
*
* @param[in] pid process id
* @param[in] moduleFileName file name
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of start entry
*
* @retval (>0) module uid
* @retval (<0) Error code
*/
SceUID sceKernelLoadStartModuleForPidForDriver(SceUID pid, const char *moduleFileName, SceSize args, const void *argp, SceUInt32 flags, const SceKernelLoadModuleOpt *pOpt, int *pRes);
sceKernelLoadStartSharedModuleForPidForDriver
| Version |
NID
|
| 3.60 |
0xE2ADEF8D
|
/**
* @brief PRX Load and start PRX
*
* moduleFileName After loading the PRX specified by the moduleFileName argument, start processing
* is performed.
*
* During start processing, module_start () is called by a thread
* that is initialized with SCE_KERNEL_DEFAULT_PRIORITY_USER as the priority
* and SCE_KERNEL_STACK_SIZE_DEFAULT_USER_MAIN as the stack size.
* When it is done, the argument block specified by the args and argp arguments are
* copied to the thread stack and then passed to module_start().
*
* If loading and start processing is successful, the return value
* of the start entry function is stored in the area indicated by pRes.
*
* If SCE_KERNEL_START_NO_RESIDENT is returned as the return value of module_start()
* the module is not resident in memory and is automatically unloaded after module_start() is executed.
* If SCE_KERNEL_START_FAILED is returned,
* the PRX has failed to load. A PRX is resident (loaded) only if it
* returns a value other than SCE_KERNEL_START_NO_RESIDENT
* or SCE_KERNEL_START_FAILED, including SCE_KERNEL_START_RESIDENT.
*
* @param[in] pid process id
* @param[in] moduleFileName file name
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of start entry
*
* @retval (>0) module uid
* @retval (<0) Error code
*/
SceUID sceKernelLoadStartSharedModuleForPidForDriver(SceUID pid, const char *moduleFileName, SceSize args, const void *argp, SceUInt32 flags, const SceKernelLoadModuleOpt *pOpt, int *pRes);
sceKernelLoadModuleWithoutStartForDriver / sceKernelLoadModuleForDriver
| Version |
NID
|
| 1.69-3.60 |
0x86D8D634
|
/**
* @brief Load module
*
* moduleFileName Loads the module specified by moduleFileName.
* If the load is successful, the module identifier is returned as the return value.
*
* @param[in] moduleFileName file name
* @param[in] flags flags
* @param[in] pOpt option parameter, should be SCE_NULL
* @retval (>0) module uid
* @retval (<0) Error code
*/
SceUID sceKernelLoadModuleForDriver(const char *moduleFileName, SceUInt32 flags, const SceKernelLoadModuleOpt *pOpt);
sceKernelStartModuleForDriver
| Version |
NID
|
| 1.69-3.60 |
0x0675B682
|
// flags must be 0
// pOpt can be null
/**
* @brief start module
*
* Starts the module specified by uid. When calling the start entry function,
* the value specified by the args and argp arguments is passed as an argument.
*
* If the start process is successful, the library declared with AUTO_EXPORT will be registered.
* Public processing is performed and the return value of the start entry function is stored in the area indicated by pRes.
* If the start process fails, library registration and publishing will not be performed.
*
* SCE_KERNEL_START_NO_RESIDENT is returned as the return value of the start entry function
* only if the module is automatically unloaded after executing the start entry function.
* If SCE_KERNEL_START_FAILED is returned, the start process will fail.
* At this time, the module is not unloaded. Modules that failed to start
* It can be restarted with sceKernelStartModuleForDriver().
*
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of start entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
int sceKernelStartModuleForDriver(SceUID uid, SceSize args, const void *argp, SceUInt32 flags, const SceKernelStartModuleOpt *pOpt, int *pRes);
sceKernelStopUnloadModuleForDriver
| Version |
NID
|
| 1.69-3.60 |
0x03B30B7E
|
// flags must be 0
// opt can be null
/**
* @brief Stop and unload PRX
*
* After stopping the PRX specified by the uid argument, unloading is performed.
*
* During stop processing, module_stop() is called by a thread that is
* initialized with SCE_KERNEL_DEFAULT_PRIORITY_USER as the priority
* and SCE_KERNEL_STACK_SIZE_DEFAULT_USER_MAIN as the stack size.
* When it is done, the argument blocks specified by the args and argp
* arguments are copied onto the thread stack and then passed to module_stop().
*
* If the stop process is successful, the library released from PRX
* is deleted and then unloaded, and the return value of
* the stop entry function is stored in the area indicated by pRes.
*
* PRX stop and unload processing has failed only if SCE_KERNEL_STOP_CANCEL
* is returned as the return value of module_stop().
* If any other value is returned, stop and unload processing has succeeded.
*
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of stop entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
int sceKernelStopUnloadModuleForDriver(SceUID uid, SceSize args, const void *argp, SceUInt32 flags, const SceKernelUnloadModuleOpt *pOpt, int *pRes);
sceKernelStopUnloadModuleForPidForDriver
| Version |
NID
|
| 3.60 |
0x49A3EDC7
|
/**
* @brief Stop and unload PRX
*
* After stopping the PRX specified by the uid argument, unloading is performed.
*
* During stop processing, module_stop() is called by a thread that is
* initialized with SCE_KERNEL_DEFAULT_PRIORITY_USER as the priority
* and SCE_KERNEL_STACK_SIZE_DEFAULT_USER_MAIN as the stack size.
* When it is done, the argument blocks specified by the args and argp
* arguments are copied onto the thread stack and then passed to module_stop().
*
* If the stop process is successful, the library released from PRX
* is deleted and then unloaded, and the return value of
* the stop entry function is stored in the area indicated by pRes.
*
* PRX stop and unload processing has failed only if SCE_KERNEL_STOP_CANCEL
* is returned as the return value of module_stop().
* If any other value is returned, stop and unload processing has succeeded.
*
* @param[in] pid process id
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of stop entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
int sceKernelStopUnloadModuleForPidForDriver(SceUID pid, SceUID uid, SceSize args, const void *argp, SceUInt32 flags, const SceKernelUnloadModuleOpt *pOpt, int *pRes);
sceKernelStopUnloadSharedModuleForPidForDriver
| Version |
NID
|
| 3.60 |
0x02D3D0C1
|
int sceKernelStopUnloadSharedModuleForPidForDriver(SceUID pid, SceUID modid, SceSize args, void *argp, int flags, SceKernelULMOption *option, int *status);
sceKernelStopModuleForDriver
| Version |
NID
|
| 1.69-3.60 |
0x100DAEB9
|
/**
* @brief Stop module
*
* Stops the module specified by uid. When calling the stop entry function,
* the values specified by the args and argp arguments are passed as arguments.
*
* If the stop process is successful, the library released from the module is deleted,
* and the return value of the stop entry function is stored in the area indicated by pRes.
* If stop processing fails, library deletion processing is not performed.
*
* Only when SCE_KERNEL_STOP_SUCCESS is returned as the return value of the
* stop entry function, module stop processing succeeds.
* If any other value is returned, module stop processing will fail.
* The module that failed to stop can be restarted with sceKernelStopModuleForDriver().
*
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of stop entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
int sceKernelStopModuleForDriver(SceUID uid, SceSize args, const void *argp, SceUInt32 flags, const SceKernelStopModuleOpt *pOpt, int *pRes);
sceKernelUnloadModuleForDriver
| Version |
NID
|
| 1.69-3.60 |
0x728E72A6
|
In 1.69 existed in SceModulemgrForKernel
/**
* @brief Unload module
*
* Unloads the module specified by uid.
*
* @param[in] uid module id
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter
*
* @retval SCE_OK success
* @retval (<0) Error code
int sceKernelUnloadModuleForDriver(SceUID uid, SceUInt32 flags, const SceKernelUnloadModuleOpt *pOpt);
load_with_logs
| Version |
NID
|
| 0.990 |
0x57EE2372
|
SceModulemgr
__sceKernelLoadModuleWithoutStart
| Version |
NID
|
| 0.990-1.69 |
0xA4E6DA4D
|
| 3.60 |
non existent
|
/**
* @brief Load module
*
* moduleFileName Loads the module specified by moduleFileName.
* If the load is successful, the module identifier is returned as the return value.
*
* @param[in] moduleFileName file name
* @param[in] flags flags
* @param[in] pOpt option parameter, should be SCE_NULL
* @retval (>0) module uid
* @retval (<0) Error code
*/
SceUID __sceKernelLoadModuleWithoutStart(const char *moduleFileName, SceUInt32 flags, const SceKernelLoadModuleOpt *pOpt);
_sceKernelLoadModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0xB4C5EF9E
|
/**
* @brief Load module
*
* moduleFileName Loads the module specified by moduleFileName.
* If the load is successful, the module identifier is returned as the return value.
*
* @param[in] moduleFileName file name
* @param[in] flags flags
* @param[in] pOpt option parameter, should be SCE_NULL
* @retval (>0) module uid
* @retval (<0) Error code
*/
SceUID _sceKernelLoadModule(const char *moduleFileName, SceUInt32 flags, const SceKernelLoadModuleOpt *pOpt);
_sceKernelLoadStartModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x60647592
|
/**
* @brief PRX Load and start PRX
*
* moduleFileName After loading the PRX specified by the moduleFileName argument, start processing
* is performed.
*
* During start processing, module_start () is called by a thread
* that is initialized with SCE_KERNEL_DEFAULT_PRIORITY_USER as the priority
* and SCE_KERNEL_STACK_SIZE_DEFAULT_USER_MAIN as the stack size.
* When it is done, the argument block specified by the args and argp arguments are
* copied to the thread stack and then passed to module_start().
*
* If loading and start processing is successful, the return value
* of the start entry function is stored in the area indicated by pRes.
*
* If SCE_KERNEL_START_NO_RESIDENT is returned as the return value of module_start()
* the module is not resident in memory and is automatically unloaded after module_start() is executed.
* If SCE_KERNEL_START_FAILED is returned,
* the PRX has failed to load. A PRX is resident (loaded) only if it
* returns a value other than SCE_KERNEL_START_NO_RESIDENT
* or SCE_KERNEL_START_FAILED, including SCE_KERNEL_START_RESIDENT.
*
* @param[in] moduleFileName file name
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of start entry
*
* @retval (>0) module uid
* @retval (<0) Error code
*/
typedef struct SceKernelModuleLoadStartParam {
SceUInt32 flags;
int *status;
const SceKernelLoadModuleOpt *option;
int a4; // not used
} SceKernelModuleLoadStartParam;
SceUID _sceKernelLoadStartModule(const char *moduleFileName, SceSize args, const void *argp, const SceKernelModuleLoadStartParam *pParam);
__sceKernelStartModule
| Version |
NID
|
| 0.990-1.69 |
0x1FD99C9F
|
| 3.60 |
non existent
|
/**
* @brief start module
*
* Starts the module specified by uid. When calling the start entry function,
* the value specified by the args and argp arguments is passed as an argument.
*
* If the start process is successful, the library declared with AUTO_EXPORT will be registered.
* Public processing is performed and the return value of the start entry function is stored in the area indicated by pRes.
* If the start process fails, library registration and publishing will not be performed.
*
* SCE_KERNEL_START_NO_RESIDENT is returned as the return value of the start entry function
* only if the module is automatically unloaded after executing the start entry function.
* If SCE_KERNEL_START_FAILED is returned, the start process will fail.
* At this time, the module is not unloaded. Modules that failed to start
* It can be restarted with __sceKernelStartModule().
*
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of start entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
int __sceKernelStartModule(SceUID uid, SceSize args, const void *argp, SceUInt32 flags, const SceKernelStartModuleOpt *pOpt, int *pRes);
_sceKernelStartModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x72CD301F
|
/**
* @brief start module
*
* Starts the module specified by uid. When calling the start entry function,
* the value specified by the args and argp arguments is passed as an argument.
*
* If the start process is successful, the library declared with AUTO_EXPORT will be registered.
* Public processing is performed and the return value of the start entry function is stored in the area indicated by pRes.
* If the start process fails, library registration and publishing will not be performed.
*
* SCE_KERNEL_START_NO_RESIDENT is returned as the return value of the start entry function
* only if the module is automatically unloaded after executing the start entry function.
* If SCE_KERNEL_START_FAILED is returned, the start process will fail.
* At this time, the module is not unloaded. Modules that failed to start
* It can be restarted with _sceKernelStartModule().
*
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of start entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
typedef struct SceKernelModuleStartParam {
SceUInt32 flags;
int *status;
const SceKernelStartModuleOpt *pOpt;
int a4; // not used
} SceKernelModuleStartParam;
int _sceKernelStartModule(SceUID uid, SceSize args, const void *argp, const SceKernelModuleStartParam *pParam);
__sceKernelStopModule
| Version |
NID
|
| 0.990-1.69 |
0xBA49EA5C
|
| 3.60 |
non existent
|
/**
* @brief Stop module
*
* Stops the module specified by uid. When calling the stop entry function,
* the values specified by the args and argp arguments are passed as arguments.
*
* If the stop process is successful, the library released from the module is deleted,
* and the return value of the stop entry function is stored in the area indicated by pRes.
* If stop processing fails, library deletion processing is not performed.
*
* Only when SCE_KERNEL_STOP_SUCCESS is returned as the return value of the
* stop entry function, module stop processing succeeds.
* If any other value is returned, module stop processing will fail.
* The module that failed to stop can be restarted with __sceKernelStopModule().
*
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of stop entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
int __sceKernelStopModule(SceUID uid, SceSize args, const void *argp, SceUInt32 flags, const SceKernelStopModuleOpt *pOpt, int *pRes);
_sceKernelStopModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x086867A8
|
/**
* @brief Stop module
*
* Stops the module specified by uid. When calling the stop entry function,
* the values specified by the args and argp arguments are passed as arguments.
*
* If the stop process is successful, the library released from the module is deleted,
* and the return value of the stop entry function is stored in the area indicated by pRes.
* If stop processing fails, library deletion processing is not performed.
*
* Only when SCE_KERNEL_STOP_SUCCESS is returned as the return value of the
* stop entry function, module stop processing succeeds.
* If any other value is returned, module stop processing will fail.
* The module that failed to stop can be restarted with _sceKernelStopModule().
*
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of stop entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
typedef struct SceKernelModuleStopParam {
SceUInt32 flags;
int *status;
const SceKernelStopModuleOpt *pOpt;
int a4; // not used
} SceKernelModuleStopParam;
int _sceKernelStopModule(SceUID uid, SceSize args, const void *argp, const SceKernelModuleStopParam *pParam);
_sceKernelStopUnloadModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x86EAEA0A
|
/**
* @brief Stop and unload PRX
*
* After stopping the PRX specified by the uid argument, unloading is performed.
*
* During stop processing, module_stop() is called by a thread that is
* initialized with SCE_KERNEL_DEFAULT_PRIORITY_USER as the priority
* and SCE_KERNEL_STACK_SIZE_DEFAULT_USER_MAIN as the stack size.
* When it is done, the argument blocks specified by the args and argp
* arguments are copied onto the thread stack and then passed to module_stop().
*
* If the stop process is successful, the library released from PRX
* is deleted and then unloaded, and the return value of
* the stop entry function is stored in the area indicated by pRes.
*
* PRX stop and unload processing has failed only if SCE_KERNEL_STOP_CANCEL
* is returned as the return value of module_stop().
* If any other value is returned, stop and unload processing has succeeded.
*
* @param[in] uid module id
* @param[in] args argument block size
* @param[in] argp argument block address
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter, should be SCE_NULL
* @param[out] pRes result of stop entry
* @retval SCE_OK success
* @retval (<0) Error code
*/
typedef struct SceKernelModuleStopUnloadParam {
SceUInt32 flags;
int *status;
const SceKernelUnloadModuleOpt *pOpt;
int a4; // not used
} SceKernelModuleStopUnloadParam;
int _sceKernelStopUnloadModule(SceUID uid, SceSize args, const void *argp, const SceKernelModuleStopUnloadParam *pParam);
__sceKernelUnloadModuleWithoutStop
| Version |
NID
|
| 0.990-1.69 |
0xE439E26B
|
| 3.60 |
non existent
|
/**
* @brief Unload module
*
* Unloads the module specified by uid.
*
* @param[in] uid module id
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter
*
* @retval SCE_OK success
* @retval (<0) Error code
int __sceKernelUnloadModuleWithoutStop(SceUID uid, SceUInt32 flags, const SceKernelUnloadModuleOpt *pOpt);
_sceKernelUnloadModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x8E4A7716
|
/**
* @brief Unload module
*
* Unloads the module specified by uid.
*
* @param[in] uid module id
* @param[in] flags flags, should be 0
* @param[in] pOpt option parameter
*
* @retval SCE_OK success
* @retval (<0) Error code
int _sceKernelUnloadModule(SceUID uid, SceUInt32 flags, const SceKernelUnloadModuleOpt *pOpt);
__sceKernelOpenModule
| Version |
NID
|
| 0.990-1.69 |
0x9C2A9A49
|
| 3.60 |
non existent
|
_sceKernelOpenModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x9D674F45
|
typedef struct SceKernelModuleLoadStartParam {
SceUInt32 flags;
int *status;
const SceKernelLoadModuleOpt *option;
int a4; // not used
} SceKernelModuleLoadStartParam;
SceUID _sceKernelOpenModule(const char *moduleFileName, SceSize args, const void *argp, const SceKernelModuleLoadStartParam *pParam);
__sceKernelCloseModule
| Version |
NID
|
| 0.990-1.69 |
0x5303C52F
|
| 3.60 |
non existent
|
_sceKernelCloseModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x849E78BE
|
typedef struct SceKernelModuleStopUnloadParam {
SceUInt32 flags;
int *status;
const SceKernelUnloadModuleOpt *pOpt;
int a4; // not used
} SceKernelModuleStopUnloadParam;
SceUID _sceKernelCloseModule(SceUID uid, SceSize args, const void *argp, const SceKernelModuleStopUnloadParam *pParam);
sceKernelKttyWrite
| Version |
NID
|
| 0.940-1.69 |
0x4D76CF9E
|
| 3.60 |
non existent
|
sceKernelPutc
| Version |
NID
|
| 0.990-1.69 |
0x9D2FE122
|
| 3.60 |
non existent
|
sceKernelGetSystemSwVersion
| Version |
NID
|
| 0.940-3.60 |
0x5182E212
|
int sceKernelGetSystemSwVersion(SceKernelFwInfo *data);
sceKernelSetSystemSwVersion
| Version |
NID
|
| 0.990-1.69 |
0x912AEB73
|
| 3.60 |
non existent
|
sceKernelGetAllowedSdkVersionOnSystem
| Version |
NID
|
| 1.69-3.60 |
0x4397FC4E
|
int sceKernelGetAllowedSdkVersionOnSystem(void);
sceKernelGetModuleList
| Version |
NID
|
| 1.69-3.60 |
0x2EF2581F
|
int sceKernelGetModuleList(int flags, SceUID *modids, SceSize *num);
sceKernelGetModuleIdByAddr
| Version |
NID
|
| 1.69-3.60 |
0xF5798C7C
|
SceUID sceKernelGetModuleIdByAddr(const void *module_addr);
sceKernelGetModuleInfo
| Version |
NID
|
| 1.69-3.60 |
0x36585DAF
|
int sceKernelGetModuleInfo(SceUID modid, SceKernelModuleInfo *info);
sceKernelGetLibraryInfoByNID
| Version |
NID
|
| 0.990 |
not present
|
| 1.69-3.60 |
0xEAEB1312
|
int sceKernelGetLibraryInfoByNID(SceUID modid, SceUInt32 libnid, SceKernelLibraryInfo *pInfo);
sceKernelIsCalledFromSysModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x85E6D2BB
|
int sceKernelIsCalledFromSysModule(const void *module_addr);
sceKernelInhibitLoadingModule
| Version |
NID
|
| 1.69 |
non existent
|
| 3.60 |
0x6CED1F63
|
Added somewhere between 3.30 an 3.60 to prevent loading Sysmodules from webbrowser (see Vitasploit 2.00-3.36 and h-encore 3.65-3.68 writeup).
int sceKernelInhibitLoadingModule(uint16_t flag);
SceBacktraceForDriver
sceKernelBacktraceForDriver
| Version |
NID
|
| 0.990-3.60 |
0x166B9C8C
|
#define SCE_KERNEL_BACKTRACE_MODE_USER (0x00000000)
#define SCE_KERNEL_BACKTRACE_MODE_KERNEL (0x00000001)
#define SCE_KERNEL_BACKTRACE_MODE_DONT_EXCEED (0x00000002)
#define SCE_KERNEL_BACKTRACE_MODE_UNK_0x00000008 (0x00000008)
int sceKernelBacktraceForDriver(SceUID threadId, SceKernelCallFrame *pCallFrameBuffer, SceSize numBytesBuffer, SceUInt32 *pNumReturn, SceInt32 mode);
sceKernelPrintBacktraceForDriver
| Version |
NID
|
| 0.990 |
0xC5608386
|
| 3.60 |
0x7C878F90
|
int sceKernelPrintBacktraceForDriver(SceUID processId, const SceKernelCallFrame *pCallFrame, SceUInt32 numFrames);
sceKernelBacktraceInternalForDriver
| Version |
NID
|
| 0.990 |
0xCECD5584
|
| 3.60 |
0x888E99B8
|
not has devmode/qaf check.
allow kernel trace.
int sceKernelBacktraceInternalForDriver(SceUID threadId, SceKernelCallFrame *pCallFrameBuffer, SceSize numBytesBuffer, SceUInt32 *pNumReturn, SceInt32 mode);
SceBacktrace
_sceKernelBacktrace
| Version |
NID
|
| 3.60 |
0xBF371A98
|
Calls sceKernelBacktraceForDriver.
/**
* Get backtrace
* - When called with pCallFrameBuffer=NULL, numBytesBuffer=0,
* only the depth of the call stack can be obtained as a return value.
*
* @param threadId Thread ID, or SCE_KERNEL_BACKTRACE_CONTEXT_xxx
* @param pCallFrameBuffer Buffer to get call frame
* @param numBytesBuffer Buffer size (byte)
* @param pNumReturn Pointer that receives the acquired number of frames
* @param mode Action mode
* @retval (0) Call stack depth, or SCE_OK
* @retval (<0) Error code
* @note Callable only with TOOL
*/
SceInt32 _sceKernelBacktrace(
SceUID threadId, /**< Thread ID, SCE_KERNEL_BACKTRACE_* can be used. */
SceKernelCallFrame *pCallFrameBuffer, /**< buffer for frames */
SceSize numBytesBuffer, /**< buffer size */
SceUInt32 *pNumReturn, /**< number of frames gathered. */
SceInt32 mode /**< KERNEL or USER mode. / DONT_EXCEED */
);
_sceKernelPrintBacktrace
| Version |
NID
|
| 0.990 |
0x21F00CF2
|
Calls sceKernelPrintBacktraceForDriver.
/**
* Display backtrace
* @param processId Process ID to which the frame belongs
* @param pCallFrame Stack frame data
* @param numFrames Maximum step
* @retval (0) Success
* @retval (<0) Error code
*/
SceInt32 _sceKernelPrintBacktrace(
SceUID processId,
const SceKernelCallFrame *pCallFrame,
SceUInt32 numFrames
);