struct reg_desc *find_reg_by_address(const char *regfile, uint64_t addr)
{
char str[1024];
FILE *f = fopen(regfile, "r");
ERR_ON_ERRNO(f == NULL , "Failed to open regfile %s", regfile);
if (!seek_to_regaddr(f, addr))
return NULL;
if (!fgets(str, sizeof(str), f))
ERR("Failed to parse register");
char *parts[3] = { 0 };
int r = split_str(str, ",", parts, 3);
ERR_ON(r != 3, "Failed to parse register description: '%s'", str);
struct reg_desc *reg;
reg = malloc(sizeof(struct reg_desc));
memset(reg, 0, sizeof(*reg));
reg->name = strdup(parts[0]);
reg->offset = strtoull(parts[1], NULL, 0);
reg->width = strtoul(parts[2], NULL, 0);
parse_reg_fields(f, reg);
fclose(f);
return reg;
}
/***********************************************************************
* process_attach
*/
static BOOL process_attach(void)
{
SessionAttributeBits attributes;
OSStatus status;
status = SessionGetInfo(callerSecuritySession, NULL, &attributes);
if (status != noErr || !(attributes & sessionHasGraphicAccess))
return FALSE;
setup_options();
if ((thread_data_tls_index = TlsAlloc()) == TLS_OUT_OF_INDEXES) return FALSE;
macdrv_err_on = ERR_ON(macdrv);
if (macdrv_start_cocoa_app(GetTickCount64()))
{
ERR("Failed to start Cocoa app main loop\n");
return FALSE;
}
set_app_icon();
macdrv_clipboard_process_attach();
return TRUE;
}
static void error_exit_fn(j_common_ptr cinfo)
{
char message[JMSG_LENGTH_MAX];
if (ERR_ON(jpeg))
{
cinfo->err->format_message(cinfo, message);
ERR_(jpeg)("%s\n", message);
}
longjmp(*(jmp_buf*)cinfo->client_data, 1);
}
/***********************************************************************
* process_attach
*/
static BOOL process_attach(void)
{
assert(NUM_EVENT_TYPES <= sizeof(macdrv_event_mask) * 8);
if ((thread_data_tls_index = TlsAlloc()) == TLS_OUT_OF_INDEXES) return FALSE;
macdrv_err_on = ERR_ON(macdrv);
if (macdrv_start_cocoa_app(GetTickCount64()))
{
ERR("Failed to start Cocoa app main loop\n");
return FALSE;
}
return TRUE;
}
static void emit_message_fn(j_common_ptr cinfo, int msg_level)
{
char message[JMSG_LENGTH_MAX];
if (msg_level < 0 && ERR_ON(jpeg))
{
cinfo->err->format_message(cinfo, message);
ERR_(jpeg)("%s\n", message);
}
else if (msg_level == 0 && WARN_ON(jpeg))
{
cinfo->err->format_message(cinfo, message);
WARN_(jpeg)("%s\n", message);
}
else if (msg_level > 0 && TRACE_ON(jpeg))
{
cinfo->err->format_message(cinfo, message);
TRACE_(jpeg)("%s\n", message);
}
}
/***********************************************************************
* apply_relocations
*
* Apply relocations to a segment. Helper for NE_LoadSegment.
*/
static inline BOOL apply_relocations( NE_MODULE *pModule, const struct relocation_entry_s *rep,
int count, int segnum )
{
BYTE *func_name;
char buffer[256];
int i, ordinal;
WORD offset, *sp;
HMODULE16 module;
FARPROC16 address = 0;
HMODULE16 *pModuleTable = (HMODULE16 *)((char *)pModule + pModule->ne_modtab);
SEGTABLEENTRY *pSegTable = NE_SEG_TABLE( pModule );
SEGTABLEENTRY *pSeg = pSegTable + segnum - 1;
/*
* Go through the relocation table one entry at a time.
*/
for (i = 0; i < count; i++, rep++)
{
/*
* Get the target address corresponding to this entry.
*/
/* If additive, there is no target chain list. Instead, add source
and target */
int additive = rep->relocation_type & NE_RELFLAG_ADDITIVE;
switch (rep->relocation_type & 3)
{
case NE_RELTYPE_ORDINAL:
module = pModuleTable[rep->target1-1];
ordinal = rep->target2;
address = NE_GetEntryPoint( module, ordinal );
if (!address)
{
NE_MODULE *pTarget = NE_GetPtr( module );
if (!pTarget)
WARN_(module)("Module not found: %04x, reference %d of module %*.*s\n",
module, rep->target1,
*((BYTE *)pModule + pModule->ne_restab),
*((BYTE *)pModule + pModule->ne_restab),
(char *)pModule + pModule->ne_restab + 1 );
else
{
ERR("No implementation for %.*s.%d, setting to 0xdeadbeef\n",
*((BYTE *)pTarget + pTarget->ne_restab),
(char *)pTarget + pTarget->ne_restab + 1,
ordinal );
address = (FARPROC16)0xdeadbeef;
}
}
if (TRACE_ON(fixup))
{
NE_MODULE *pTarget = NE_GetPtr( module );
TRACE("%d: %.*s.%d=%04x:%04x %s\n", i + 1,
*((BYTE *)pTarget + pTarget->ne_restab),
(char *)pTarget + pTarget->ne_restab + 1,
ordinal, HIWORD(address), LOWORD(address),
NE_GetRelocAddrName( rep->address_type, additive ) );
}
break;
case NE_RELTYPE_NAME:
module = pModuleTable[rep->target1-1];
func_name = (BYTE *)pModule + pModule->ne_imptab + rep->target2;
memcpy( buffer, func_name+1, *func_name );
buffer[*func_name] = '\0';
ordinal = NE_GetOrdinal( module, buffer );
address = NE_GetEntryPoint( module, ordinal );
if (ERR_ON(fixup) && !address)
{
NE_MODULE *pTarget = NE_GetPtr( module );
ERR("No implementation for %.*s.%s, setting to 0xdeadbeef\n",
*((BYTE *)pTarget + pTarget->ne_restab),
(char *)pTarget + pTarget->ne_restab + 1, buffer );
}
if (!address) address = (FARPROC16) 0xdeadbeef;
if (TRACE_ON(fixup))
{
NE_MODULE *pTarget = NE_GetPtr( module );
TRACE("%d: %.*s.%s=%04x:%04x %s\n", i + 1,
*((BYTE *)pTarget + pTarget->ne_restab),
(char *)pTarget + pTarget->ne_restab + 1,
buffer, HIWORD(address), LOWORD(address),
NE_GetRelocAddrName( rep->address_type, additive ) );
}
break;
case NE_RELTYPE_INTERNAL:
if ((rep->target1 & 0xff) == 0xff)
{
address = NE_GetEntryPoint( pModule->self, rep->target2 );
}
else
{
address = (FARPROC16)MAKESEGPTR( SEL(pSegTable[rep->target1-1].hSeg), rep->target2 );
}
TRACE("%d: %04x:%04x %s\n",
i + 1, HIWORD(address), LOWORD(address),
NE_GetRelocAddrName( rep->address_type, additive ) );
break;
case NE_RELTYPE_OSFIXUP:
/* Relocation type 7:
*
* These appear to be used as fixups for the Windows
* floating point emulator. Let's just ignore them and
* try to use the hardware floating point. Linux should
* successfully emulate the coprocessor if it doesn't
* exist.
*/
TRACE("%d: TYPE %d, OFFSET %04x, TARGET %04x %04x %s\n",
i + 1, rep->relocation_type, rep->offset,
rep->target1, rep->target2,
NE_GetRelocAddrName( rep->address_type, additive ) );
continue;
}
offset = rep->offset;
/* Apparently, high bit of address_type is sometimes set; */
/* we ignore it for now */
if (rep->address_type > NE_RADDR_OFFSET32)
{
char module[10];
GetModuleName16( pModule->self, module, sizeof(module) );
ERR("WARNING: module %s: unknown reloc addr type = 0x%02x. Please report.\n",
module, rep->address_type );
}
if (additive)
{
sp = MapSL( MAKESEGPTR( SEL(pSeg->hSeg), offset ) );
TRACE(" %04x:%04x\n", offset, *sp );
switch (rep->address_type & 0x7f)
{
case NE_RADDR_LOWBYTE:
*(BYTE *)sp += LOBYTE((int)address);
break;
case NE_RADDR_OFFSET16:
*sp += LOWORD(address);
break;
case NE_RADDR_POINTER32:
*sp += LOWORD(address);
*(sp+1) = HIWORD(address);
break;
case NE_RADDR_SELECTOR:
/* Borland creates additive records with offset zero. Strange, but OK */
if (*sp)
ERR("Additive selector to %04x.Please report\n",*sp);
else
*sp = HIWORD(address);
break;
default:
goto unknown;
}
}
else /* non-additive fixup */
{
do
{
WORD next_offset;
sp = MapSL( MAKESEGPTR( SEL(pSeg->hSeg), offset ) );
next_offset = *sp;
TRACE(" %04x:%04x\n", offset, *sp );
switch (rep->address_type & 0x7f)
{
case NE_RADDR_LOWBYTE:
*(BYTE *)sp = LOBYTE((int)address);
break;
case NE_RADDR_OFFSET16:
*sp = LOWORD(address);
break;
case NE_RADDR_POINTER32:
*(FARPROC16 *)sp = address;
break;
case NE_RADDR_SELECTOR:
*sp = SELECTOROF(address);
break;
default:
goto unknown;
}
if (next_offset == offset) break; /* avoid infinite loop */
if (next_offset >= GlobalSize16(pSeg->hSeg)) break;
offset = next_offset;
} while (offset != 0xffff);
}
}
return TRUE;
unknown:
WARN("WARNING: %d: unknown ADDR TYPE %d, "
"TYPE %d, OFFSET %04x, TARGET %04x %04x\n",
i + 1, rep->address_type, rep->relocation_type,
rep->offset, rep->target1, rep->target2);
return FALSE;
}
/***********************************************************************
* NE_LoadSegment
*/
BOOL NE_LoadSegment( NE_MODULE *pModule, WORD segnum )
{
SEGTABLEENTRY *pSegTable, *pSeg;
WORD *pModuleTable;
WORD count, i, offset, next_offset;
HMODULE16 module;
FARPROC16 address = 0;
HFILE hf;
DWORD res;
struct relocation_entry_s *rep, *reloc_entries;
char *func_name;
int size;
char* mem;
char buffer[256];
int ordinal, additive;
unsigned short *sp;
pSegTable = NE_SEG_TABLE( pModule );
pSeg = pSegTable + segnum - 1;
if (pSeg->flags & NE_SEGFLAGS_LOADED)
{
/* self-loader ? -> already loaded it */
if (pModule->flags & NE_FFLAGS_SELFLOAD)
return TRUE;
/* leave, except for DGROUP, as this may be the second instance */
if (segnum != pModule->dgroup)
return TRUE;
}
if (!pSeg->filepos) return TRUE; /* No file image, just return */
pModuleTable = NE_MODULE_TABLE( pModule );
hf = NE_OpenFile( pModule );
TRACE_(module)("Loading segment %d, hSeg=%04x, flags=%04x\n",
segnum, pSeg->hSeg, pSeg->flags );
SetFilePointer( hf, pSeg->filepos << pModule->alignment, NULL, SEEK_SET );
if (pSeg->size) size = pSeg->size;
else size = pSeg->minsize ? pSeg->minsize : 0x10000;
mem = GlobalLock16(pSeg->hSeg);
if (pModule->flags & NE_FFLAGS_SELFLOAD && segnum > 1)
{
/* Implement self-loading segments */
SELFLOADHEADER *selfloadheader;
DWORD oldstack;
HANDLE hFile32;
HFILE16 hFile16;
selfloadheader = MapSL( MAKESEGPTR(SEL(pSegTable->hSeg),0) );
oldstack = NtCurrentTeb()->WOW32Reserved;
NtCurrentTeb()->WOW32Reserved = MAKESEGPTR(pModule->self_loading_sel,
0xff00 - sizeof(STACK16FRAME));
TRACE_(dll)("CallLoadAppSegProc(hmodule=0x%04x,hf=0x%04x,segnum=%d\n",
pModule->self,hf,segnum );
DuplicateHandle( GetCurrentProcess(), hf, GetCurrentProcess(), &hFile32,
0, FALSE, DUPLICATE_SAME_ACCESS );
hFile16 = Win32HandleToDosFileHandle( hFile32 );
pSeg->hSeg = NE_CallTo16_word_www( selfloadheader->LoadAppSeg,
pModule->self, hFile16, segnum );
TRACE_(dll)("Ret CallLoadAppSegProc: hSeg = 0x%04x\n", pSeg->hSeg);
_lclose16( hFile16 );
NtCurrentTeb()->WOW32Reserved = oldstack;
}
else if (!(pSeg->flags & NE_SEGFLAGS_ITERATED))
ReadFile(hf, mem, size, &res, NULL);
else {
/*
The following bit of code for "iterated segments" was written without
any documentation on the format of these segments. It seems to work,
but may be missing something. If you have any doc please either send
it to me or fix the code yourself. [email protected]
*/
char* buff = HeapAlloc(GetProcessHeap(), 0, size);
char* curr = buff;
if(buff == NULL) {
WARN_(dll)("Memory exausted!");
return FALSE;
}
ReadFile(hf, buff, size, &res, NULL);
while(curr < buff + size) {
unsigned int rept = *((short*) curr);
curr = (char *)(((short*) curr) + 1);
unsigned int len = *((short*) curr);
curr = (char *)(((short*) curr) + 1);
for(; rept > 0; rept--) {
char* bytes = curr;
unsigned int byte;
for(byte = 0; byte < len; byte++)
*mem++ = *bytes++;
}
curr += len;
}
HeapFree(GetProcessHeap(), 0, buff);
}
pSeg->flags |= NE_SEGFLAGS_LOADED;
/* Perform exported function prolog fixups */
NE_FixupSegmentPrologs( pModule, segnum );
if (!(pSeg->flags & NE_SEGFLAGS_RELOC_DATA))
return TRUE; /* No relocation data, we are done */
ReadFile(hf, &count, sizeof(count), &res, NULL);
if (!count) return TRUE;
TRACE_(fixup)("Fixups for %.*s, segment %d, hSeg %04x\n",
*((BYTE *)pModule + pModule->name_table),
(char *)pModule + pModule->name_table + 1,
segnum, pSeg->hSeg );
TRACE_(segment)("Fixups for %.*s, segment %d, hSeg %04x\n",
*((BYTE *)pModule + pModule->name_table),
(char *)pModule + pModule->name_table + 1,
segnum, pSeg->hSeg );
reloc_entries = (struct relocation_entry_s *)HeapAlloc(GetProcessHeap(), 0, count * sizeof(struct relocation_entry_s));
if(reloc_entries == NULL) {
WARN_(fixup)("Not enough memory for relocation entries!");
return FALSE;
}
if (!ReadFile( hf, reloc_entries, count * sizeof(struct relocation_entry_s), &res, NULL) ||
(res != count * sizeof(struct relocation_entry_s)))
{
WARN_(fixup)("Unable to read relocation information\n" );
return FALSE;
}
/*
* Go through the relocation table one entry at a time.
*/
rep = reloc_entries;
for (i = 0; i < count; i++, rep++)
{
/*
* Get the target address corresponding to this entry.
*/
/* If additive, there is no target chain list. Instead, add source
and target */
additive = rep->relocation_type & NE_RELFLAG_ADDITIVE;
rep->relocation_type &= 0x3;
switch (rep->relocation_type)
{
case NE_RELTYPE_ORDINAL:
module = pModuleTable[rep->target1-1];
ordinal = rep->target2;
address = NE_GetEntryPoint( module, ordinal );
if (!address)
{
NE_MODULE *pTarget = NE_GetPtr( module );
if (!pTarget)
WARN_(module)("Module not found: %04x, reference %d of module %*.*s\n",
module, rep->target1,
*((BYTE *)pModule + pModule->name_table),
*((BYTE *)pModule + pModule->name_table),
(char *)pModule + pModule->name_table + 1 );
else
{
ERR_(fixup)("No implementation for %.*s.%d, setting to 0xdeadbeef\n",
*((BYTE *)pTarget + pTarget->name_table),
(char *)pTarget + pTarget->name_table + 1,
ordinal );
address = (FARPROC16)0xdeadbeef;
}
}
if (TRACE_ON(fixup))
{
NE_MODULE *pTarget = NE_GetPtr( module );
TRACE_(fixup)("%d: %.*s.%d=%04x:%04x %s\n", i + 1,
*((BYTE *)pTarget + pTarget->name_table),
(char *)pTarget + pTarget->name_table + 1,
ordinal, HIWORD(address), LOWORD(address),
NE_GetRelocAddrName( rep->address_type, additive ) );
}
break;
case NE_RELTYPE_NAME:
module = pModuleTable[rep->target1-1];
func_name = (char *)pModule + pModule->import_table + rep->target2;
memcpy( buffer, func_name+1, *func_name );
buffer[(BYTE)*func_name] = '\0';
func_name = buffer;
ordinal = NE_GetOrdinal( module, func_name );
address = NE_GetEntryPoint( module, ordinal );
if (ERR_ON(fixup) && !address)
{
NE_MODULE *pTarget = NE_GetPtr( module );
ERR_(fixup)("No implementation for %.*s.%s, setting to 0xdeadbeef\n",
*((BYTE *)pTarget + pTarget->name_table),
(char *)pTarget + pTarget->name_table + 1, func_name );
}
if (!address) address = (FARPROC16) 0xdeadbeef;
if (TRACE_ON(fixup))
{
NE_MODULE *pTarget = NE_GetPtr( module );
TRACE_(fixup)("%d: %.*s.%s=%04x:%04x %s\n", i + 1,
*((BYTE *)pTarget + pTarget->name_table),
(char *)pTarget + pTarget->name_table + 1,
func_name, HIWORD(address), LOWORD(address),
NE_GetRelocAddrName( rep->address_type, additive ) );
}
break;
case NE_RELTYPE_INTERNAL:
if ((rep->target1 & 0xff) == 0xff)
{
address = NE_GetEntryPoint( pModule->self, rep->target2 );
}
else
{
address = (FARPROC16)MAKESEGPTR( SEL(pSegTable[rep->target1-1].hSeg), rep->target2 );
}
TRACE_(fixup)("%d: %04x:%04x %s\n",
i + 1, HIWORD(address), LOWORD(address),
NE_GetRelocAddrName( rep->address_type, additive ) );
break;
case NE_RELTYPE_OSFIXUP:
/* Relocation type 7:
*
* These appear to be used as fixups for the Windows
* floating point emulator. Let's just ignore them and
* try to use the hardware floating point. Linux should
* successfully emulate the coprocessor if it doesn't
* exist.
*/
TRACE_(fixup)("%d: TYPE %d, OFFSET %04x, TARGET %04x %04x %s\n",
i + 1, rep->relocation_type, rep->offset,
rep->target1, rep->target2,
NE_GetRelocAddrName( rep->address_type, additive ) );
continue;
}
offset = rep->offset;
/* Apparently, high bit of address_type is sometimes set; */
/* we ignore it for now */
if (rep->address_type > NE_RADDR_OFFSET32)
{
char module[10];
GetModuleName16( pModule->self, module, sizeof(module) );
ERR_(fixup)("WARNING: module %s: unknown reloc addr type = 0x%02x. Please report.\n",
module, rep->address_type );
}
if (additive)
{
sp = MapSL( MAKESEGPTR( SEL(pSeg->hSeg), offset ) );
TRACE_(fixup)(" %04x:%04x\n", offset, *sp );
switch (rep->address_type & 0x7f)
{
case NE_RADDR_LOWBYTE:
*(BYTE *)sp += LOBYTE((int)address);
break;
case NE_RADDR_OFFSET16:
*sp += LOWORD(address);
break;
case NE_RADDR_POINTER32:
*sp += LOWORD(address);
*(sp+1) = HIWORD(address);
break;
case NE_RADDR_SELECTOR:
/* Borland creates additive records with offset zero. Strange, but OK */
if (*sp)
ERR_(fixup)("Additive selector to %04x.Please report\n",*sp);
else
*sp = HIWORD(address);
break;
default:
goto unknown;
}
}
else /* non-additive fixup */
{
do
{
sp = MapSL( MAKESEGPTR( SEL(pSeg->hSeg), offset ) );
next_offset = *sp;
TRACE_(fixup)(" %04x:%04x\n", offset, *sp );
switch (rep->address_type & 0x7f)
{
case NE_RADDR_LOWBYTE:
*(BYTE *)sp = LOBYTE((int)address);
break;
case NE_RADDR_OFFSET16:
*sp = LOWORD(address);
break;
case NE_RADDR_POINTER32:
*(FARPROC16 *)sp = address;
break;
case NE_RADDR_SELECTOR:
*sp = SELECTOROF(address);
break;
default:
goto unknown;
}
if (next_offset == offset) break; /* avoid infinite loop */
if (next_offset >= GlobalSize16(pSeg->hSeg)) break;
offset = next_offset;
} while (offset != 0xffff);
}
}
HeapFree(GetProcessHeap(), 0, reloc_entries);
return TRUE;
unknown:
WARN_(fixup)("WARNING: %d: unknown ADDR TYPE %d, "
"TYPE %d, OFFSET %04x, TARGET %04x %04x\n",
i + 1, rep->address_type, rep->relocation_type,
rep->offset, rep->target1, rep->target2);
HeapFree(GetProcessHeap(), 0, reloc_entries);
return FALSE;
}
void controlNotifyFaulted(void) {
// Light-up Fault LED (and switch the Relè)
ERR_ON();
controlFlags |= CF_FAULTED;
}
