//-----------------------------------------------------------------------
static void show_segdefs(linput_t *li, uint32 offset, uint32 length)
{
if ( offset == 0 || length == 0 ) return;
qlseek(li, offset);
int n = 0;
for ( int i=0; i < length; )
{
segdef s;
const int size = offsetof(segdef, combine_name);
lread(li, &s, size);
int nlen = read_pstring(li, s.combine_name, sizeof(s.combine_name));
i += size + 1 + nlen;
n++;
const char *sname = s.combine_name;
const char *sclas = sname;
if ( strnicmp(sname, "CODE", 4) == 0 ) sclas = "CODE";
if ( strnicmp(sname, "DATA", 4) == 0 ) sclas = "DATA";
if ( strnicmp(sname, "CONST", 5) == 0 ) sclas = "CONST";
if ( stricmp(sname, "STACK") == 0 ) sclas = "STACK";
if ( strchr(sname, ':') != NULL ) continue;
int segsize = s.slimit + 1;
if ( strcmp(sname, "DATA") == 0 ) dsel = n;
set_selector(n, 0);
ea_t ea = freechunk(inf.maxEA, segsize, -(1<<s.align));
add_segm(n, ea, ea+segsize, sname, sclas);
set_segm_addressing(getseg(ea), true);
if ( strcmp(sclas, "STACK") == 0 )
doByte(ea, segsize);
}
}
//-----------------------------------------------------------------------
static void show_extdefs(linput_t *li, uint32 offset, uint32 length)
{
if ( offset == 0 || length == 0 ) return;
qlseek(li, offset);
inf.specsegs = 1;
int segsize = 4 * h.num_externals;
sel_t sel = h.num_segs+1;
set_selector(sel, 0);
xea = freechunk(inf.maxEA, segsize, -15);
add_segm(sel, xea, xea+segsize, "XTRN", "XTRN");
set_segm_addressing(getseg(xea), true);
int n = 0;
for ( int i=0; i < length; n++ )
{
extdef p;
const int size = offsetof(extdef, allocate_len);
lread(li, &p, size);
p.allocate_len.len_4 = 0;
if ( p.allocate )
{
ask_for_feedback("extdef.allocate\n");
lread(li, &p.allocate_len.len_4, sizeof(p.allocate_len.len_4));
}
int nlen = read_pstring(li, p.sym_name, sizeof(p.sym_name));
i += size + 1 + nlen;
ea_t a = xea + 4*n;
set_name(a, p.sym_name);
if ( p.allocate )
put_long(a, p.allocate_len.len_4);
}
}
//----------------------------------------------------------------------
//
// creates an EXPANSION ROM segment, I don't know when it is used
//
static void create_exprom_segment( void )
{
bool success = add_segm( 0, EXPROM_START_ADDRESS, EXPROM_START_ADDRESS + EXPROM_SIZE, "EXP_ROM", NULL ) == 1;
msg("creating EXP_ROM segment..%s", success ? "ok!\n" : "failure!\n");
if(!success)
return;
set_segm_addressing( getseg( EXPROM_START_ADDRESS ), 0 );
}
//----------------------------------------------------------------------
//
// creates a ROM segment where all the code is being loaded to
//
static void create_rom_segment( void )
{
bool success = add_segm( 0, ROM_START_ADDRESS, ROM_START_ADDRESS + ROM_SIZE, "ROM", CLASS_CODE ) == 1;
msg("creating ROM segment..%s", success ? "ok!\n" : "failure!\n");
if(!success)
return;
set_segm_addressing( getseg( ROM_START_ADDRESS ), 0 );
}
//----------------------------------------------------------------------
//
// creates an SRAM segment, if available on cartridge
//
static void create_sram_segment( void )
{
bool success = add_segm( 0, SRAM_START_ADDRESS, SRAM_START_ADDRESS + SRAM_SIZE, "SRAM", NULL ) == 1;
msg("creating SRAM segment..%s", success ? "ok!\n" : "failure!\n");
if(!success)
return;
set_segm_addressing( getseg( SRAM_START_ADDRESS ), 0 );
}
//----------------------------------------------------------------------
//
// loads a 512 byte trainer (located at file offset INES_HDR_SIZE)
// to TRAINER_START_ADDRESS
//
static void load_trainer( linput_t *li )
{
if( !INES_MASK_SRAM( hdr.rom_control_byte_0 ) )
{
bool success = add_segm( 0, TRAINER_START_ADDRESS, TRAINER_START_ADDRESS + TRAINER_SIZE, "TRAINER", CLASS_CODE ) == 1;
msg("creating TRAINER segment..%s", success ? "ok!\n" : "failure!\n");
set_segm_addressing( getseg( TRAINER_START_ADDRESS ), 0 );
}
file2base(li, INES_HDR_SIZE, TRAINER_START_ADDRESS, TRAINER_START_ADDRESS + TRAINER_SIZE, FILEREG_PATCHABLE);
}
//----------------------------------------------------------------------
//
// creates a RAM segment
//
static void create_ram_segment( void )
{
bool success = add_segm( 0, RAM_START_ADDRESS, RAM_START_ADDRESS + RAM_SIZE, "RAM", NULL ) == 1;
msg("creating RAM segment..%s", success ? "ok!\n" : "failure!\n");
if(!success)
return;
set_segm_addressing( getseg( RAM_START_ADDRESS ), 0 );
// how do I properly initialize a segment ?
//for( unsigned int ea = SRAM_START_ADDRESS; ea<= SRAM_START_ADDRESS + SRAM_SIZE; ea++ )
// put_byte( ea, 0 );
}
//----------------------------------------------------------------------
//
// creates an I/O registers segment and names all io registers
//
static void create_ioreg_segment( void )
{
bool success = add_segm( 0, IOREGS_START_ADDRESS, IOREGS_START_ADDRESS + IOREGS_SIZE, "IO_REGS", NULL ) == 1;
msg("creating IO_REGS segment..%s", success ? "ok!\n" : "failure!\n");
if(!success)
return;
set_segm_addressing( getseg( IOREGS_START_ADDRESS ), 0 );
define_item( PPU_CR_1_ADDRESS, PPU_CR_1_SIZE, PPU_CR_1_SHORT_DESCRIPTION, PPU_CR_1_COMMENT );
define_item( PPU_CR_2_ADDRESS, PPU_CR_2_SIZE, PPU_CR_2_SHORT_DESCRIPTION, PPU_CR_2_COMMENT );
define_item( PPU_SR_ADDRESS, PPU_SR_SIZE, PPU_SR_SHORT_DESCRIPTION, PPU_SR_COMMENT );
define_item( SPR_RAM_AR_ADDRESS, SPR_RAM_AR_SIZE, SPR_RAM_AR_SHORT_DESCRIPTION, SPR_RAM_AR_COMMENT );
define_item( SPR_RAM_IOR_ADDRESS, SPR_RAM_IOR_SIZE, SPR_RAM_IOR_SHORT_DESCRIPTION, SPR_RAM_IOR_COMMENT );
define_item( VRAM_AR_1_ADDRESS, VRAM_AR_1_SIZE, VRAM_AR_1_SHORT_DESCRIPTION, VRAM_AR_1_COMMENT );
define_item( VRAM_AR_2_ADDRESS, VRAM_AR_2_SIZE, VRAM_AR_2_SHORT_DESCRIPTION, VRAM_AR_2_COMMENT );
define_item( VRAM_IOR_ADDRESS, VRAM_IOR_SIZE, VRAM_IOR_SHORT_DESCRIPTION, VRAM_IOR_COMMENT );
define_item( PAPU_PULSE_1_CR_ADDRESS, PAPU_PULSE_1_CR_SIZE, PAPU_PULSE_1_CR_SHORT_DESCRIPTION, PAPU_PULSE_1_CR_COMMENT );
define_item( PAPU_PULSE_1_RCR_ADDRESS, PAPU_PULSE_1_RCR_SIZE, PAPU_PULSE_1_RCR_SHORT_DESCRIPTION, PAPU_PULSE_1_RCR_COMMENT );
define_item( PAPU_PULSE_1_FTR_ADDRESS, PAPU_PULSE_1_FTR_SIZE, PAPU_PULSE_1_FTR_SHORT_DESCRIPTION, PAPU_PULSE_1_FTR_COMMENT );
define_item( PAPU_PULSE_1_CTR_ADDRESS, PAPU_PULSE_1_CTR_SIZE, PAPU_PULSE_1_CTR_SHORT_DESCRIPTION, PAPU_PULSE_1_CTR_COMMENT );
define_item( PAPU_PULSE_2_CR_ADDRESS, PAPU_PULSE_2_CR_SIZE, PAPU_PULSE_2_CR_SHORT_DESCRIPTION, PAPU_PULSE_2_CR_COMMENT );
define_item( PAPU_PULSE_2_RCR_ADDRESS, PAPU_PULSE_2_RCR_SIZE, PAPU_PULSE_2_RCR_SHORT_DESCRIPTION, PAPU_PULSE_2_RCR_COMMENT );
define_item( PAPU_PULSE_2_FTR_ADDRESS, PAPU_PULSE_2_FTR_SIZE, PAPU_PULSE_2_FTR_SHORT_DESCRIPTION, PAPU_PULSE_2_FTR_COMMENT );
define_item( PAPU_PULSE_2_CTR_ADDRESS, PAPU_PULSE_2_CTR_SIZE, PAPU_PULSE_2_CTR_SHORT_DESCRIPTION, PAPU_PULSE_2_CTR_COMMENT );
define_item( PAPU_TRIANGLE_CR_1_ADDRESS, PAPU_TRIANGLE_CR_1_SIZE, PAPU_TRIANGLE_CR_1_SHORT_DESCRIPTION, PAPU_TRIANGLE_CR_1_COMMENT );
define_item( PAPU_TRIANGLE_CR_2_ADDRESS, PAPU_TRIANGLE_CR_2_SIZE, PAPU_TRIANGLE_CR_2_SHORT_DESCRIPTION, PAPU_TRIANGLE_CR_2_COMMENT );
define_item( PAPU_TRIANGLE_FR_1_ADDRESS, PAPU_TRIANGLE_FR_1_SIZE, PAPU_TRIANGLE_FR_1_SHORT_DESCRIPTION, PAPU_TRIANGLE_FR_1_COMMENT );
define_item( PAPU_TRIANGLE_FR_2_ADDRESS, PAPU_TRIANGLE_FR_2_SIZE, PAPU_TRIANGLE_FR_2_SHORT_DESCRIPTION, PAPU_TRIANGLE_FR_2_COMMENT );
define_item( PAPU_NOISE_CR_1_ADDRESS, PAPU_NOISE_CR_1_SIZE, PAPU_NOISE_CR_1_SHORT_DESCRIPTION, PAPU_NOISE_CR_1_COMMENT );
define_item( PAPU_NOISE_CR_2_ADDRESS, PAPU_NOISE_CR_2_SIZE, PAPU_NOISE_CR_2_SHORT_DESCRIPTION, PAPU_NOISE_CR_2_COMMENT );
define_item( PAPU_NOISE_FR_1_ADDRESS, PAPU_NOISE_FR_1_SIZE, PAPU_NOISE_FR_1_SHORT_DESCRIPTION, PAPU_NOISE_FR_1_COMMENT );
define_item( PAPU_NOISE_FR_2_ADDRESS, PAPU_NOISE_FR_2_SIZE, PAPU_NOISE_FR_2_SHORT_DESCRIPTION, PAPU_NOISE_FR_2_COMMENT );
define_item( PAPU_DM_CR_ADDRESS, PAPU_DM_CR_SIZE, PAPU_DM_CR_SHORT_DESCRIPTION, PAPU_DM_CR_COMMENT );
define_item( PAPU_DM_DAR_ADDRESS, PAPU_DM_DAR_SIZE, PAPU_DM_DAR_SHORT_DESCRIPTION, PAPU_DM_DAR_COMMENT );
define_item( PAPU_DM_AR_ADDRESS, PAPU_DM_AR_SIZE, PAPU_DM_AR_SHORT_DESCRIPTION, PAPU_DM_AR_COMMENT );
define_item( PAPU_DM_DLR_ADDRESS, PAPU_DM_DLR_SIZE, PAPU_DM_DLR_SHORT_DESCRIPTION, PAPU_DM_DLR_COMMENT );
define_item( PAPU_SV_CSR_ADDRESS, PAPU_SV_CSR_SIZE, PAPU_SV_CSR_SHORT_DESCRIPTION, PAPU_SV_CSR_COMMENT );
define_item( SPRITE_DMAR_ADDRESS, SPRITE_DMAR_SIZE, SPRITE_DMAR_SHORT_DESCRIPTION, SPRITE_DMAR_COMMENT );
define_item( JOYPAD_1_ADDRESS, JOYPAD_1_SIZE, JOYPAD_1_SHORT_DESCRIPTION, JOYPAD_1_COMMENT );
define_item( JOYPAD_2_ADDRESS, JOYPAD_2_SIZE, JOYPAD_2_SHORT_DESCRIPTION, JOYPAD_2_COMMENT );
}
//------------------------------------------------------------------
static const char *idaapi parse_area_line(const char *line, char *buf, size_t bufsize)
{
char word[MAXSTR];
char aclass[MAXSTR];
ea_t ea1, ea2;
if ( sscanf(line, "area %s %s %" FMT_EA "i:%" FMT_EA "i", aclass, word, &ea1, &ea2) == 4 )
{
int ram = 0;
int rom = 0;
int eprom = 0;
int eeprom = 0;
static const char format[] = "RAM=%d ROM=%d EPROM=%d " CUSTOM1 "=%d";
sscanf(buf, format, &ram, &rom, &eprom, &eeprom);
int size = ea2 - ea1;
if ( stristr(word, "RAM") != NULL ) ram += size;
else if ( stristr(word, CUSTOM1) != NULL ) eeprom += size;
else if ( stristr(word, "EPROM") != NULL ) eprom += size;
else if ( stristr(word, "ROM") != NULL ) rom += size;
if ( ram || rom || eeprom || eeprom )
qsnprintf(buf, bufsize, format, ram, rom, eprom, eeprom);
else
buf[0] = '\0';
if ( (respect_info & IORESP_AREA) != 0 && get_segm_qty() != 0 )
{
#ifdef I8051
if ( ( stristr(word, "FSR") != NULL ) ||( stristr(word, "RAM") != NULL ))
{
AdditionalSegment( ea2-ea1, ea1, word );
}
else
#endif
{
sel_t sel = allocate_selector(0);
add_segm(sel, ea1, ea2, word, aclass);
}
if ( ea2-ea1 > 0xFFFF )
set_segm_addressing(getseg(ea1), true);
}
return NULL;
}
return "syntax error";
}
/*
* this is where we finally load the file and create segments and other processing
*/
void idaapi
load_file(linput_t *li, ushort neflags, const char *fileformatname)
{
/* reset file position to 0 - accept_file changed it? */
qlseek(li, 0);
/* add header structures */
add_types();
create_filename_cmt();
/* process header and create its own segment */
EFI_IMAGE_TE_HEADER teHeader = {0};
if (qlread(li, &teHeader, sizeof(EFI_IMAGE_TE_HEADER)) != sizeof(EFI_IMAGE_TE_HEADER))
{
warning("Failed to read TE header\n");
return;
}
/* read the data to the database */
/* header starts at 0 */
ea_t delta = teHeader.StrippedSize - sizeof(EFI_IMAGE_TE_HEADER);
ea_t header_start = teHeader.ImageBase - delta;
/* header total size is the TE header plus all sections that follow */
ea_t header_end = teHeader.ImageBase - delta + sizeof(EFI_IMAGE_TE_HEADER) + teHeader.NumberOfSections * sizeof(EFI_IMAGE_SECTION_HEADER);
#if 1
msg("Header start: 0x%llx\n", header_start);
msg("Header end: 0x%llx\n", header_end);
msg("Delta: 0x%llx\n", delta);
#endif
file2base(li, 0, header_start, header_end, 1);
/* create the HEADER segment */
add_segm(0, header_start, header_end, "HEADER", "DATA");
/* set header structures */
doStruct(teHeader.ImageBase - delta, sizeof(EFI_IMAGE_TE_HEADER), efi_image_te_header_struct);
for (uint8_t i = 0; i < teHeader.NumberOfSections; i++)
{
doStruct(teHeader.ImageBase - delta + sizeof(EFI_IMAGE_TE_HEADER) + i * sizeof(EFI_IMAGE_SECTION_HEADER), sizeof(EFI_IMAGE_SECTION_HEADER), efi_image_section_header_struct);
}
int headerPosition = sizeof(EFI_IMAGE_TE_HEADER);
/* read sections */
for (uint8_t i = 0; i < teHeader.NumberOfSections; i++)
{
qlseek(li, headerPosition);
EFI_IMAGE_SECTION_HEADER sectionHeader = {0};
qlread(li, §ionHeader, sizeof(EFI_IMAGE_SECTION_HEADER));
msg("Section name: %s\n", sectionHeader.Name);
/* ok */
uint32_t position = sectionHeader.PointerToRawData - delta;
msg("Position %x\n", position);
qlseek(li, position);
ea_t section_start = sectionHeader.VirtualAddress + teHeader.ImageBase - delta;
ea_t section_end = 0;
if (sectionHeader.Misc.VirtualSize > sectionHeader.SizeOfRawData)
{
section_end = sectionHeader.VirtualAddress + teHeader.ImageBase - delta + sectionHeader.Misc.VirtualSize;
}
else
{
section_end = sectionHeader.VirtualAddress + teHeader.ImageBase - delta + sectionHeader.SizeOfRawData;
}
msg("Section start: 0x%llx\n", section_start);
msg("Section end: 0x%llx\n", section_end);
file2base(li, position, section_start, section_end, 1);
int bitness = -1;
switch (teHeader.Machine) {
case IMAGE_FILE_MACHINE_I386:
bitness = 1;
break;
case IMAGE_FILE_MACHINE_X64:
bitness = 2;
break;
default:
bitness = 0;
}
const char *classType;
if (qstrcmp((const char*)sectionHeader.Name, ".text") == 0)
{
classType = "CODE";
}
else
{
classType = "DATA";
}
add_segm(0, section_start, section_end, (const char*)sectionHeader.Name, classType);
set_segm_addressing(get_segm_by_name((const char *)sectionHeader.Name), bitness);
/* try to find the GUIDs in data section */
if (qstrcmp((const char *)sectionHeader.Name, ".data") == 0)
{
find_guids(section_start, section_end);
}
/* advance to next section */
headerPosition += sizeof(EFI_IMAGE_SECTION_HEADER);
}
/* configure the entrypoint address */
add_entry(teHeader.AddressOfEntryPoint + teHeader.ImageBase - delta, teHeader.AddressOfEntryPoint + teHeader.ImageBase - delta, "_start", 1);
/* all done */
}
//--------------------------------------------------------------------------
void idaapi load_file(linput_t *li, ushort _neflag, const char * /*fileformatname*/)
{
char line[MAXSTR];
char *words[MAXSTR];
neflag = _neflag;
iscode = (neflag & NEF_CODE) != 0;
sel = BADSEL;
sea = BADADDR;
ea_t ea = 0;
ea_t top= 0;
bool use32 = false;
bool octpref = false;
bool octnum = false;
size_t fill = 0;
// Since we made all the checks in accept_file,
// here we don't repeat them
ssize_t p0len = -1; // length of the first word's hex part
char w0sep[10]; // separator after the first word
w0sep[0] = '\0';
int nontrivial_line_count = 0;
while ( qlgets(line, sizeof(line), li) )
{
strrpl(line, '-', ' ');
if ( line[0] == ';' || line[0] == '#' )
continue;
int n = make_words(line, words, qnumber(words));
if ( n == 0 )
continue;
nontrivial_line_count++;
ssize_t bi;
// od -x format may contain '*' lines which mean repetition
if ( strcmp(words[0], "*") == 0 && n == 1 )
{
fill = size_t(top - ea);
octpref = true; // od -x have octal prefixes
continue;
}
// the first word must be a number (more than one digit)
char *ptr = words[0];
uint32 w0 = octpref ? oct(ptr) : hex(ptr);
p0len = ptr - words[0];
// take the separator from the first line
if ( nontrivial_line_count == 1 )
qstrncpy(w0sep, ptr, sizeof(w0sep));
// process '*' and fill the gap
if ( fill > 0 )
{
while ( top < w0 )
{
ea = top;
top = ea + fill;
copy(ea, top);
}
}
int idx = 0;
if ( w0sep[0] != '\0' || p0len >= 4 )
{
if ( nontrivial_line_count > 1 && !octpref && top != w0 )
{
// strange, the sequence is not contiguous
// check if the prefixes are octal (od -x)
ptr = words[0];
if ( oct(ptr) == top )
{
octpref = true;
ptr = words[0];
w0 = oct(ptr);
}
}
ea = w0;
idx = 1;
}
else
{
ea = top;
}
for ( bi=0; idx < n; idx++ ) //lint !e443
{
ptr = words[idx];
if ( nontrivial_line_count == 1 && !octnum && strlen(ptr) == 6 )
{
oct(ptr);
if ( ptr-words[idx] == 6 )
octnum = true;
ptr = words[idx];
// msg("ptr=%s octnum=%d\n", ptr, octnum);
}
uint32 b = octnum ? oct(ptr) : hex(ptr);
ssize_t nc = ptr - words[idx];
if ( nc < 2 )
{
// we tolerate one-letter separators between numbers
if ( words[idx][1] == '\0' && strchr("\xA6|-:", words[idx][0]) != NULL )
continue;
break;
}
nc /= octnum ? 3 : 2; // number of bytes
*(uint32 *)&bytes[bi] = b;
bi += nc;
}
top = ea + bi;
copy(ea, top);
}
if ( eea >= 0x10000 || p0len > 4 )
use32 = true;
if ( neflag & NEF_SEGS )
{
if ( use32 )
{
set_segm_addressing(getseg(sea), 1);
if ( ph.id == PLFM_386 ) inf.lflags |= LFLG_PC_FLAT;
}
set_default_dataseg(sel);
}
if ( (neflag & NEF_RELOAD) == 0 )
create_filename_cmt();
}
//--------------------------------------------------------------------------
void idaapi load_file(linput_t *li, ushort neflag, const char * /*fileformatname*/)
{
char line[BUFFSIZE], bigaddr = 0;
ea_t addr, startEA = toEA(inf.baseaddr, 0), endEA = 0, seg_start = 0;
char rstart = (inf.filetype == f_SREC) ? 'S' :
((inf.filetype == f_HEX) ? ':' : ';');
register char *p;
memset(&lc, 0, sizeof(local_data));
inf.startIP = BADADDR; // f_SREC without start record
bool iscode = (neflag & NEF_CODE) != 0;
int nb = iscode ? ph.cnbits : ph.dnbits; // number of bits in a byte
int bs = (nb + 7) / 8; // number of bytes
sel_t sel = setup_selector(startEA >> 4);
bool segment_created = false;
bool cvt_to_bytes = false;
if ( ph.id == PLFM_PIC )
{
// pic12xx and pic16xx use 12-bit and 14-bit words in program memory
// pic18xx uses 16-bit opcodes but byte addressing
if ( strncmp(inf.procName, "PIC18", 5) != 0 )
{
static const char form[] =
// "PIC HEX file addressing mode\n"
// "\n"
"There are two flavors of HEX files for PIC: with word addressing\n"
"and with byte addressing. It is not possible to recognize the\n"
"flavor automatically. Please specify what addressing mode should\n"
"be used to load the input file. If you don't know, try both and\n"
"choose the one which produces the more meaningful result\n";
int code = askbuttons_c("~B~yte addressing",
"~W~ord addressing",
"~C~ancel", 1, form);
switch ( code )
{
case 1:
break;
case 0:
cvt_to_bytes = true;
break;
default:
loader_failure(NULL);
}
}
}
ea_t subs_addr = 0;
for(lc.ln = 1; qlgets(p = line, BUFFSIZE, li); lc.ln++)
{
while ( *p == ' ' ) ++p;
if ( *p == '\n' || *p == '\r' ) continue;
if ( *p++ != rstart) errfmt( );
int sz = 2;
int mode = (inf.filetype == f_SREC) ? (uchar)*p++ : 0x100;
lc.ptr = p;
hexdata(0);
if ( mode == 0x100 )
{
if ( !lc.len ) break;
lc.len += 2;
if ( inf.filetype == f_HEX )
++lc.len;
}
else
{
switch ( mode )
{
default:
errfmt();
case '0':
case '5':
continue;
case '3':
case '7':
++sz;
case '2':
case '8':
++sz;
case '1':
case '9':
if ( mode > '3' ) mode = 0;
--lc.len;
break;
}
}
addr = hexdata(sz) / bs;
if ( !mode )
{
inf.startIP = addr;
continue;
}
if ( inf.filetype == f_HEX )
{
int type = hexdata(1); // record type
switch ( type )
{
case 0xFF: // mitsubishi hex format
case 4: // Extended linear address record
subs_addr = hexdata(2) << 16;
break;
case 2: // Extended segment address record
subs_addr = hexdata(2) << 4;
break;
}
if ( type != 0 )
{
if ( type == 1 )
break; // end of file record
continue; // not a data record
}
}
addr += subs_addr / bs;
if ( lc.len )
{
ea_t top = addr + lc.len / bs;
p = line;
while ( lc.len )
{
*p++ = (uchar)hexdata(1);
if ( cvt_to_bytes ) // pic
*p++ = '\0';
}
if ( top >= 0x10000l ) bigaddr = 1;
addr += startEA;
showAddr(addr);
if ( (top += startEA) > endEA || !segment_created )
{
endEA = top;
if ( neflag & NEF_SEGS )
{
if ( !segment_created )
{
if ( !add_segm(sel, addr, endEA, NULL, iscode ? CLASS_CODE : CLASS_DATA)) loader_failure(NULL );
segment_created = true;
seg_start = addr;
}
else
set_segm_end(get_first_seg()->startEA, endEA, SEGMOD_KILL);
}
}
if ( seg_start > addr )
{
set_segm_start(get_first_seg()->startEA, addr, SEGMOD_KILL);
seg_start = addr;
}
mem2base(line, addr, top, -1);
}
{
ushort chi; // checksum
++lc.len;
switch ( inf.filetype ) {
case f_SREC:
chi = (uchar)(~lc.sum);
chi ^= (uchar)hexdata(1);
break;
case f_HEX:
hexdata(1);
chi = (uchar)lc.sum;
break;
default: //MEX
++lc.len;
chi = lc.sum;
chi -= (ushort)hexdata(2);
break;
}
if ( chi ) {
static char first = 0;
if ( !first ) {
++first;
warning("Bad hex input file checksum, line %u. Ignore?", lc.ln);
}
}
}
}
if ( (neflag & NEF_SEGS) != 0 )
{
if ( bigaddr )
{
set_segm_addressing(get_first_seg(), 1);
if ( ph.id == PLFM_386 )
inf.lflags |= LFLG_PC_FLAT;
}
set_default_dataseg(sel);
inf.start_cs = sel;
}
else
{
enable_flags(startEA, endEA, STT_CUR);
}
inf.af &= ~AF_FINAL; // behave as a binary file
create_filename_cmt();
}
