static void chlabs(Term t)
{
if(is_list(t))
{
List l;
for(l=t;l;l=ListTail(l))
{
Term m=ListFirst(l);
if(is_label(m))
ChangeList(l,ListNth(labm,ListMember(labl,m)));
else
chlabs(m);
}
}
if(is_compound(t))
{
int i;
for(i=1;i<=CompoundArity(t);i++)
{
Term m=CompoundArgN(t,i);
if(is_label(m))
SetCompoundArg(t,i,ListNth(labm,ListMember(labl,m)));
else
chlabs(m);
}
}
}
static void lablist(Term t)
{
if(is_list(t))
{
List l;
for(l=t;l;l=ListTail(l))
{
Term m=ListFirst(l);
if(is_label(m) && !ListMember(labl,m))
labl=AppendFirst(labl,m);
else
lablist(m);
}
}
if(is_compound(t))
{
int i;
for(i=1;i<=CompoundArity(t);i++)
{
Term m=CompoundArgN(t,i);
if(is_label(m) && !ListMember(labl,m))
labl=AppendFirst(labl,m);
else
lablist(m);
}
}
}
static void set_champ_labels(t_labels **labels, char **file_content)
{
int cur_case;
cur_case = -1;
while (file_content[++cur_case])
{
if (is_instruction(file_content[cur_case]) != -1 &&
is_label(file_content[cur_case]) != -1 && !(*labels))
add_label(labels, ".");
if (is_label(file_content[cur_case]) != -1)
add_label(labels, get_label(file_content[cur_case]));
}
}
int assemble(uint32_t *out_buf, char *asm_buf) {
char asm_line[COL_MAX];
char term0[COL_MAX];
output_alias = out_buf;
while (mygets(asm_line, asm_buf, COL_MAX) != NULL) {
if (set_term0(asm_line, term0) == 1) {
if (is_comment(asm_line, term0)) {
// blank(comment)
} else if (is_directive(asm_line, term0)) {
exec_directive(asm_line, term0);
} else if (is_label(asm_line, term0)) {
register_label(asm_line, term0);
} else {
encode_and_output(asm_line, term0);
}
} else {
// blank(empty line)
}
input_line_cnt++;
}
resolve_label();
return output_cnt;
}
void first_pass(char *file_in) {
FILE *fp = fopen(file_in, "r");
char info[512];
while (!feof(fp)) {
fscanf(fp, "%511[^\n]\n", info);
if (!is_empty(info)) {
program_counter += 4;
if (is_label(info)) {
printf("info: %s - PC: %i\n", info, program_counter - 4);
program_counter -= 4;
strtok(info, ":");
char *copy = (char *) calloc(512, sizeof(char));
alloc_check(copy, "first_pass");
strcpy(copy, info);
insert_addr_label(addr_label, copy, program_counter);
}
}
}
print_addr_label_list();
memory_end = program_counter;
ldr_const_array = (uint32_t *) calloc(memory_end, sizeof(uint32_t));
alloc_check(ldr_const_array, "first_pass");
program_counter = 0;
fclose(fp);
}
/*
This function sorts the first token of the record. The first token can be an
instruction, a directive or a label. Anything else results in an error,
indicated here as type UNKNOWN. It gets called again when the first token is
a LABEL to determine the type of the following token.
*/
struct firsttoken sort(char *token){
struct firsttoken result;
struct symbol_entry* entry;
result.instptr = NULL;
result.dirptr = NULL;
result.type = UNKNOWN;
if(result.instptr = get_inst(token)){ //Check INST list
result.type = INST;
return result;
}
else if(result.dirptr = get_dir(token)){ //Check DIR list
result.type = DIR;
return result;
}
else if(is_label(token)){ //Check Label rules
result.type = LABEL;
if(entry = get_entry(token)){
if(entry->type == REGTYPE){ //Ensures that the "valid" label is
result.type = UNKNOWN; //not a register. If it's a reg
} //return UNKNOWN to show error.
}
return result;
}
else if(*token = ';'){ //For the cases in which the comment
result.type = COMMENT; //starts further into the line
}
return result; //If none of the above return UNKNOWN
}
static int parse_label(t_parser *parser, char **my_tab, t_labels **list)
{
if (my_tab && my_tab[0] && my_tab[0][0] != '\n'
&& my_tab[0][0] != COMMENT_CHAR)
{
if (is_label(my_tab[0]) == 1)
{
if (exist(my_tab[0], (*list)) == 1)
{
label_already_error(parser->line_nb, my_tab[0]);
return (1);
}
else
{
if (add_label(my_tab[0], parser->current_address, list) == 0)
return (1);
if (my_tab[1] != NULL)
parse_line_instruction(parser, my_tab + 1);
}
}
else
{
if (parse_line_instruction(parser, my_tab) == 1)
return (1);
}
}
return (0);
}
instruction* make_instruction(char** tokens) {
if (is_label(*tokens)) {
return decode_mnemonic_instruction_with_label(tokens);
}
if (is_a_minemonic(*tokens)) {
return decode_mnemonic_instruction(tokens);
} else if (is_a_diretiva(*tokens)) {
return decode_diretiva_instruction(tokens);
}
return NULL ;
}
static void add_label(struct brw_program_instruction *i)
{
struct label_item **p = &label_table;
assert(is_label(i));
while(*p)
p = &((*p)->next);
*p = calloc(1, sizeof(**p));
(*p)->name = label_name(i);
(*p)->addr = i->inst_offset;
}
void
M2c::do_proc_def(ProcDef *pd)
{
const char *cur_pname = (get_name(pd)).chars();
debug(3, "Processing procedure %s", cur_pname);
// create a list to hold any .file op's found in the middle
// of the text segment -- cannot print them there
List<IdString> file_strings;
claim(is_kind_of<InstrList>(get_body(pd)), "Body is not an InstrList");
cur_body = static_cast<InstrList*>(get_body(pd));
printer->print_proc_begin(pd);
// print the procedure symbol table
process_sym_table(pd->get_symbol_table());
// walk the instruction list once to record all vr defs
cur_handle = start(cur_body);
process_vr_decls(pd);
cur_handle = start(cur_body);
Instr *mi = *cur_handle;
if (mi->peek_annote(k_proc_entry) == NULL) {
// Entry point to procedure is not the first instruction,
// generate goto to instruction with k_proc_entry note.
fprintf(out, "\n\tgoto %s_entry_pt;\n", cur_pname);
} else {
// simple entry point
claim(is_null(mi));
++cur_handle;
}
// output procedure body
while (cur_handle != end(cur_body)) {
mi = *cur_handle;
// do some work on a non-simple procedure entry point
if (mi->peek_annote(k_proc_entry) != NULL) {
// generate label for earlier goto
claim(is_null(mi));
fprintf(out, "\n%s_entry_pt:\n", cur_pname);
}
printer->print_instr(mi);
++cur_handle;
}
// procedure body must not end with a label
if (is_label(mi))
fputs("\t/* empty statement */;\n", out);
fprintf(out, "}\t/* end of %s */\n\n", cur_pname);
}
char is_valid_line(char *line, int line_number)
{
if (ft_strlen(line) > 0)
{
if (is_name_descr(line) || is_comment_descr(line) || is_empty_line(line)
|| is_comment_line(line) || is_command(line) || is_label(line))
return (1);
ft_putstr_fd("Line n ", 2);
ft_putnbr_fd(line_number, 2);
ft_putendl_fd(" is wrong formated", 2);
return (0);
}
return (1);
}
static void set_labels_instruction(t_labels **labels, char **file_content)
{
int cur_case;
t_labels *labls;
cur_case = -1;
labls = *labels;
while (file_content[++cur_case])
{
if (is_label(file_content[cur_case]) != -1)
labls = search_in_labels(labls, get_label(file_content[cur_case]));
if (is_instruction(file_content[cur_case]) != -1)
add_instruction(&(labls->lst_cmd),
get_name_instruction(file_content[cur_case]),
get_params(get_instruction(file_content[cur_case])));
}
}
/*
* Receive an opened source file.
*/
hashtable_t *create_instruction_symbol_table(FILE *source_file, uint32_t *number_of_instructions) {
hashtable_t *hashtable = create_hashtable(MACHINE_MEMORY_CAPACITY);
/*Allocate memory for line with the added NULL character. */
char *line = (char*) malloc((MAX_LENGTH_OF_LINE + 1) * sizeof(char));
int counter_address = 0;
*number_of_instructions = 0;
//Reads one line at a time until it reaches the end of file.
while(fgets(line, MAX_LENGTH_OF_LINE, source_file) != NULL) {
//If it encounters an empty line it just moves to the next line.
if(isEmpty(line) || (line[0] == '/' && line[1] == '/')) {
continue;
}
//Replaces the new line character with a null character.
char *new_line_char;
if((new_line_char = strchr(line, '\n')) != NULL) {
*new_line_char = '\0';
}
//If the line read represents a label then it is inserted into the symbol hash table.
if(is_label(line)) {
char *label = line;
*(label + (strlen(label) - 1)) = '\0';
insert_pair(hashtable, label, counter_address);
continue;
}
counter_address += BYTES_PER_INSTRUCTION;
(*number_of_instructions)++;
}
free(line);
return hashtable;
}
int gere_instruction(char **words, char *s, t_asmline *line)
{
char *lbl;
if (words[0] && is_label(words[0]))
{
line->code = -1;
lbl = my_strdup(words[0]);
get_command_args(words, line->argv);
line->argv[0] = lbl;
}
else if (words[0] && words[1])
{
line->code = get_command_id(words[0]);
get_command_arg_type(words + 1, line->type);
get_command_args(words + 1, line->argv);
}
else
return (0);
if (line->code > 0)
verif_args(line, s);
return (1);
}
bool is_command(char **words, char *s, t_cmd *line, char **label_index)
{
char *lbl;
if (words[0] && is_label(words[0]))
{
line->cmd_code = T_LABEL;
lbl = my_strdup(words[0]);
get_command_args(words, line->arg.argv);
line->arg.argv[0] = lbl;
(void)label_index;
}
else if (words[0] && words[1])
{
line->cmd_code = get_command_id(words[0]);
get_command_arg_type(words + 1, line->arg.type);
get_command_args(words + 1, line->arg.argv);
}
else
return (FALSE);
if (line->cmd_code > T_NONE)
check_args(line, s);
return (TRUE);
}
Term ProcLet(Term t, Term ind)
{
Term t1,nm,sub,kl=0;
List il,ol,l1;
int transf_fl=0;
Atom anti1=0, anti2=0;
ol=il=NewList();
t1=ConsumeCompoundArg(t,1);
FreeAtomic(t);
t1=ProcessAlias(t1);
if(is_compound(t1) && CompoundArity(t1)==2 && CompoundName(t1)==OPR_COMMA)
{
Term a1,a2;
a1=ConsumeCompoundArg(t1,1);
a2=ConsumeCompoundArg(t1,2);
FreeAtomic(t1);
ProcLet(MakeCompound1(OPR_LET,a1),0);
ProcLet(MakeCompound1(OPR_LET,a2),0);
return 0;
}
if(!is_compound(t1) || CompoundArity(t1)!=2 ||
(CompoundName(t1)!=OPR_EQSIGN && CompoundName(t1)!=OPR_RARROW))
{
ErrorInfo(325);
printf("bad argument in let statement\n");
return 0;
}
if(CompoundName(t1)==OPR_EQSIGN && is_atom(CompoundArg1(t1)) &&
is_atom(CompoundArg2(t1)) &&
(CompoundArg2(t1)==A_GAMMA5 || GetAtomProperty(CompoundArg2(t1),
A_GAMMA5)))
{
SetAtomProperty(CompoundArg1(t1),A_GAMMA5,NewInteger(1));
}
if(CompoundName(t1)==OPR_RARROW)
transf_fl=1;
if(CompoundName(t1)==OPR_EQSIGN && is_atom(CompoundArg1(t1)) &&
is_compound(CompoundArg2(t1)) &&
CompoundName(CompoundArg2(t1))==A_ANTI &&
is_atom(CompoundArg1(CompoundArg2(t1))))
{
anti1=CompoundArg1(t1);
anti2=CompoundArg1(CompoundArg2(t1));
}
nm=ConsumeCompoundArg(t1,1);
sub=ConsumeCompoundArg(t1,2);
FreeAtomic(t1);
if(transf_fl)
allow_transf_lets=0;
if(is_compound(nm) && (CompoundName(nm)==OPR_USCORE ||
CompoundName(nm)==OPR_CARET))
nm=SplitIndices(nm,&il);
if(!is_atom(nm))
{
ErrorInfo(325);
printf("bad left argument in let call\n");
FreeAtomic(sub);
FreeAtomic(t1);
return 0;
}
if(transf_fl)
{
if(!is_parameter(nm) && !is_particle(nm,NULL))
{
ErrorInfo(728);
printf("Unknown object '%s'.\n",AtomValue(nm));
return 0;
}
}
if(GetAtomProperty(nm,A_KEEP_LETS))
{
Term prp;
kl=ExprTo1kl(CopyTerm(sub));
if(kl==0)
return 0;
prp=GetAtomProperty(nm,A_KEEP_LETS);
SetCompoundArg(prp,1,kl);
}
sub=ExprTo1(sub);
alg1_set_cos0(sub);
if(sub==0)
return 0;
if(transf_fl)
allow_transf_lets=1;
t1=CopyTerm(CompoundArg2(sub));
if(is_empty_list(il))
{
l1=t1;
while(!is_empty_list(l1))
{
Term t;
t=CompoundArg2(ListFirst(l1));
if(!is_label(t))
{
ErrorInfo(326);
printf("unbalanced index '");
WriteTerm(t);
printf("' in let statement\n");
FreeAtomic(sub);
FreeAtomic(t1);
FreeAtomic(ol);
return 0;
}
ol=AppendLast(ol,t);
l1=ListTail(l1);
}
/* mk_let(nm,sub,ol,t1); */
}
else
{
List t2;
t2=0;
if(ListLength(il)!=ListLength(t1))
{
ErrorInfo(327);
printf("distinct indices number ");
printf("in let statement.\n");
FreeAtomic(sub);
FreeAtomic(t1);
return 0;
}
l1=t1;
while(!is_empty_list(l1))
{
Term t;
t=CompoundArg2(ListFirst(l1));
if(!is_atom(t) || !ListMember(il,t))
{
ErrorInfo(326);
printf("unbalanced index '");
WriteTerm(t);
printf("' in let statement\n");
FreeAtomic(sub);
FreeAtomic(t1);
FreeAtomic(ol);
return 0;
}
ol=AppendLast(ol,t);
l1=ListTail(l1);
}
l1=il;
while(!is_empty_list(l1))
{
List l2;
if(!ListMember(ol,ListFirst(l1)))
{
ErrorInfo(326);
printf("unbalanced index '");
WriteTerm(t);
printf("' in let statement\n");
FreeAtomic(sub);
FreeAtomic(t1);
FreeAtomic(ol);
return 0;
}
for(l2=t1;l2;l2=ListTail(l2))
if(ListFirst(l1)==CompoundArg2(ListFirst(l2)))
{
t2=AppendLast(t2,ListFirst(l2));
break;
}
l1=ListTail(l1);
}
RemoveList(t1);
t1=t2;
FreeAtomic(ol);
ol=il;
}
/* mk_let(nm,sub,ol,t1); */
l1=t1;
while(!is_empty_list(l1))
{
SetCompoundArg(ListFirst(l1),2,0);
l1=ListTail(l1);
}
/*WriteTerm(sub); puts(""); getchar();*/
t=MakeCompound(OPR_LET,5);
SetCompoundArg(t,1,sub);
SetCompoundArg(t,2,ol);
SetCompoundArg(t,3,alg1_inv_alg(sub));
if(transf_fl==0)
{
Term tt;
tt=alg1_guess_mpl(sub);
if(tt)
{
SetCompoundArg(t,4,NewInteger(1));
SetCompoundArg(t,5,tt);
}
else
{
int tp;
tt=alg1_guess_mtr(sub, &tp);
if(tt)
{
SetCompoundArg(t,4,NewInteger(tp));
SetCompoundArg(t,5,tt);
}
}
ReportRedefined(nm,"let-substitution");
SetAtomProperty(nm,PROP_INDEX,t1);
SetAtomProperty(nm,PROP_TYPE,t);
alg1_let_cw(nm);
if(anti1 && anti2)
{
SetAtomProperty(anti1,A_ANTI,anti2);
SetAtomProperty(anti2,A_ANTI,anti1);
}
else
if(only_prm(CompoundArg1(t)))
SetAtomProperty(nm,A_ANTI,nm);
return 0;
}
l1=GetAtomProperty(nm,PROP_INDEX);
if(!EqualTerms(l1,t1))
{
ErrorInfo(729);
puts("transformed object has other indices types");
return 0;
}
if(GetAtomProperty(nm,OPR_LET))
{
WarningInfo(0);
printf("Warning: transformation rule for '%s' is redefined.\n",
AtomValue(nm));
}
SetAtomProperty(nm,OPR_LET,t);
return 0;
}
int main(int argc, char ** argv)
{
long filesize;
uint8_t *filebuf;
char disbuf[1024];
z80inst instbuf;
uint8_t * cur;
FILE * f = fopen(argv[1], "rb");
fseek(f, 0, SEEK_END);
filesize = ftell(f);
fseek(f, 0, SEEK_SET);
filebuf = malloc(filesize);
fread(filebuf, 1, filesize, f);
fclose(f);
deferred *def = NULL, *tmpd;
uint16_t offset = 0;
for(uint8_t opt = 2; opt < argc; ++opt) {
if (argv[opt][0] == '-') {
FILE * address_log;
switch (argv[opt][1])
{
case 'l':
labels = 1;
break;
case 'a':
addr = 1;
break;
case 'o':
only = 1;
break;
case 'f':
opt++;
if (opt >= argc) {
fputs("-f must be followed by a filename\n", stderr);
exit(1);
}
address_log = fopen(argv[opt], "r");
if (!address_log) {
fprintf(stderr, "Failed to open %s for reading\n", argv[opt]);
exit(1);
}
while (fgets(disbuf, sizeof(disbuf), address_log)) {
if (disbuf[0]) {
uint16_t address = strtol(disbuf, NULL, 16);
if (address) {
def = defer(address, def);
reference(address);
}
}
}
break;
case 's':
opt++;
if (opt >= argc) {
fputs("-s must be followed by a start offset in hex\n", stderr);
exit(1);
}
offset = strtol(argv[opt], NULL, 16);
break;
}
} else {
uint16_t address = strtol(argv[opt], NULL, 16);
def = defer(address, def);
reference(address);
}
}
uint16_t start = offset;
uint8_t *encoded, *next;
uint32_t size;
if (!def || !only) {
def = defer(start, def);
}
uint16_t address;
while(def) {
do {
encoded = NULL;
address = def->address;
if (!is_visited(address)) {
encoded = filebuf + address - offset;
}
tmpd = def;
def = def->next;
free(tmpd);
} while(def && encoded == NULL);
if (!encoded) {
break;
}
for(;;) {
if ((address - offset) > filesize || is_visited(address) || address < offset) {
break;
}
visit(address);
next = z80_decode(encoded, &instbuf);
address += (next-encoded);
encoded = next;
//z80_disasm(&instbuf, disbuf);
//printf("%X: %s\n", address, disbuf);
switch (instbuf.op)
{
case Z80_JR:
address += instbuf.immed;
encoded = filebuf + address - offset;
break;
case Z80_JRCC:
reference(address + instbuf.immed);
def = defer(address + instbuf.immed, def);
break;
case Z80_JP:
address = instbuf.immed;
encoded = filebuf + address - offset;
break;
case Z80_JPCC:
case Z80_CALL:
case Z80_CALLCC:
case Z80_RST:
reference(instbuf.immed);
def = defer(instbuf.immed, def);
break;
default:
if (z80_is_terminal(&instbuf)) {
address = filesize + 1;
}
}
}
}
if (labels) {
for (address = filesize; address < (64*1024); address++) {
if (is_label(address)) {
printf("ADR_%X equ $%X\n", address, address);
}
}
puts("");
}
for (address = offset; address < filesize + offset; address++) {
if (is_visited(address)) {
encoded = filebuf + address - offset;
z80_decode(encoded, &instbuf);
if (labels) {
/*m68k_disasm_labels(&instbuf, disbuf);
if (is_label(instbuf.address)) {
printf("ADR_%X:\n", instbuf.address);
}
if (addr) {
printf("\t%s\t;%X\n", disbuf, instbuf.address);
} else {
printf("\t%s\n", disbuf);
}*/
} else {
z80_disasm(&instbuf, disbuf, address);
printf("%X: %s\n", address, disbuf);
}
}
}
return 0;
}
{
std::cerr << filename << ":" << line_num << ": Unknown preprocessor directive";
cli_exit(-1);
}
}
// comment
else if(std::regex_search(line, result, std::regex("^\s*//\s*(.*)")))
{
continue;
}
// #ifdef
else if(std::regex_search(line, result, std::regex("^#ifdef (.+)")))
{
std::string label = *result.begin();
label_stack_t::iterator it = std::find_if(label_stack.begin(), label_stack.end(), is_label(label));
if(it == label_stack.end())
{
num_disable = num_disable + 1;
label_stack.push_back(label_stack_t::value_type(label, 1));
}
continue;
}
// #ifndef
else if(std::regex_search(line, result, std::regex("^#ifndef (.+)")))
{
std::string label = *result.begin();
label_stack_t::iterator it = std::find_if(label_stack.begin(), label_stack.end(), is_label(label));
if(it != label_stack.end())
{
int main(int argc, char **argv)
{
char *output_file = NULL;
char *entry_table_file = NULL;
FILE *output = stdout;
FILE *export_file;
struct brw_program_instruction *entry, *entry1, *tmp_entry;
int err, inst_offset;
char o;
void *mem_ctx;
while ((o = getopt_long(argc, argv, "e:l:o:g:abW", longopts, NULL)) != -1) {
switch (o) {
case 'o':
if (strcmp(optarg, "-") != 0)
output_file = optarg;
break;
case 'g': {
char *dec_ptr, *end_ptr;
unsigned long decimal;
gen_level = strtol(optarg, &dec_ptr, 10) * 10;
if (*dec_ptr == '.') {
decimal = strtoul(++dec_ptr, &end_ptr, 10);
if (end_ptr != dec_ptr && *end_ptr == '\0') {
if (decimal > 10) {
fprintf(stderr, "Invalid Gen X decimal version\n");
exit(1);
}
gen_level += decimal;
}
}
if (gen_level < 40 || gen_level > 90) {
usage();
exit(1);
}
break;
}
case 'a':
advanced_flag = 1;
break;
case 'b':
binary_like_output = 1;
break;
case 'e':
need_export = 1;
if (strcmp(optarg, "-") != 0)
export_filename = optarg;
break;
case 'l':
if (strcmp(optarg, "-") != 0)
entry_table_file = optarg;
break;
case 'W':
warning_flags |= WARN_ALL;
break;
default:
usage();
exit(1);
}
}
argc -= optind;
argv += optind;
if (argc != 1) {
usage();
exit(1);
}
if (strcmp(argv[0], "-") != 0) {
input_filename = argv[0];
yyin = fopen(input_filename, "r");
if (yyin == NULL) {
perror("Couldn't open input file");
exit(1);
}
}
brw_init_context(&genasm_brw_context, gen_level);
mem_ctx = ralloc_context(NULL);
brw_init_compile(&genasm_brw_context, &genasm_compile, mem_ctx);
err = yyparse();
if (strcmp(argv[0], "-"))
fclose(yyin);
yylex_destroy();
if (err || errors)
exit (1);
if (output_file) {
output = fopen(output_file, "w");
if (output == NULL) {
perror("Couldn't open output file");
exit(1);
}
}
if (read_entry_file(entry_table_file)) {
fprintf(stderr, "Read entry file error\n");
exit(1);
}
inst_offset = 0 ;
for (entry = compiled_program.first;
entry != NULL; entry = entry->next) {
entry->inst_offset = inst_offset;
entry1 = entry->next;
if (entry1 && is_label(entry1) && is_entry_point(entry1)) {
// insert NOP instructions until (inst_offset+1) % 4 == 0
while (((inst_offset+1) % 4) != 0) {
tmp_entry = calloc(sizeof(*tmp_entry), 1);
tmp_entry->insn.gen.header.opcode = BRW_OPCODE_NOP;
entry->next = tmp_entry;
tmp_entry->next = entry1;
entry = tmp_entry;
tmp_entry->inst_offset = ++inst_offset;
}
}
if (!is_label(entry))
inst_offset++;
}
for (entry = compiled_program.first; entry; entry = entry->next)
if (is_label(entry))
add_label(entry);
if (need_export) {
if (export_filename) {
export_file = fopen(export_filename, "w");
} else {
export_file = fopen("export.inc", "w");
}
for (entry = compiled_program.first;
entry != NULL; entry = entry->next) {
if (is_label(entry))
fprintf(export_file, "#define %s_IP %d\n",
label_name(entry), (IS_GENx(5) ? 2 : 1)*(entry->inst_offset));
}
fclose(export_file);
}
for (entry = compiled_program.first; entry; entry = entry->next) {
struct relocation *reloc = &entry->reloc;
if (!is_relocatable(entry))
continue;
if (reloc->first_reloc_target)
reloc->first_reloc_offset = label_to_addr(reloc->first_reloc_target, entry->inst_offset) - entry->inst_offset;
if (reloc->second_reloc_target)
reloc->second_reloc_offset = label_to_addr(reloc->second_reloc_target, entry->inst_offset) - entry->inst_offset;
if (reloc->second_reloc_offset) { // this is a branch instruction with two offset arguments
set_branch_two_offsets(entry, reloc->first_reloc_offset, reloc->second_reloc_offset);
} else if (reloc->first_reloc_offset) {
set_branch_one_offset(entry, reloc->first_reloc_offset);
}
}
if (binary_like_output)
fprintf(output, "%s", binary_prepend);
for (entry = compiled_program.first;
entry != NULL;
entry = entry1) {
entry1 = entry->next;
if (!is_label(entry))
print_instruction(output, &entry->insn.gen);
else
free(entry->insn.label.name);
free(entry);
}
if (binary_like_output)
fprintf(output, "};");
free_entry_point_table(entry_point_table);
free_hash_table(declared_register_table);
free_label_table(label_table);
fflush (output);
if (ferror (output)) {
perror ("Could not flush output file");
if (output_file)
unlink (output_file);
err = 1;
}
return err;
}
