uint32_t ass_multiply(char *instruction) {
char *mnemonic = get_mnemonic(instruction);
char *rest = get_rest(instruction);
char Rd[2], Rm[2], Rs[2], Rn[2];
uint32_t RdI, RmI, RsI, RnI;
uint32_t result = (111 << 29) | (1 << 4) | (1 << 7);
if (strcmp(mnemonic,"mul") == 0) {
sscanf(rest, "%[^','],%[^','],%s", Rd, Rm, Rs);
RnI = 0;
} else {
sscanf(rest, "%[^','], %[^','], %[^','],%s", Rd, Rm, Rs, Rn);
result |= (1 << 21);
RnI = reg_from_string(Rn);
}
RdI = reg_from_string(Rd);
RmI = reg_from_string(Rm);
RsI = reg_from_string(Rs);
result |= (RdI << 16) | (RnI << 12) | (RsI << 8) | (RmI & mask4);
free(mnemonic);
free(rest);
return result;
}
int
compute_sel_bary_positions(GraphFrame *gf)
{
int mes = 0;
int cycle_len = count_llist(gf->list_sel_vertex);
enumerate_vertices(gf);
reset_mark_pick_vertices(gf);
reset_level_vertices(gf);
if(!gf->the_cycle)
gf->the_cycle = init_linked_list();
if(!gf->list_visited_vertex)
gf->list_visited_vertex = init_linked_list();
if(!gf->the_rest)
gf->the_rest = init_linked_list();
get_sel_cycle(gf);
/*printing_linked_list(gf->the_cycle);*/
if(!is_empty_list(gf->the_cycle))
{
Delete_hash_table(gf->HV);
circularize(gf,gf->the_cycle, cycle_len);
get_rest(gf);
/*printing_linked_list(gf->the_rest);*/
if(!is_empty_list(gf->the_rest))
mes = layout_rest(gf, gf->the_rest, gf->count_vertex-cycle_len);
}
else
mes = NO_CYCLE;
Delete_all_list(gf->the_cycle);
Delete_all_list(gf->list_visited_vertex);
Delete_all_list(gf->the_rest);
gf->the_cycle = init_linked_list();
gf->list_visited_vertex = init_linked_list();
gf->the_rest = init_linked_list();
return mes;
}
/*
* Read in the information about files used in making the system.
* Store it in the ftab linked list.
*/
void
read_files(void)
{
FILE *fp;
register struct file_list *tp, *pf;
register struct device *dp;
register struct opt *op;
const char *wd;
char *this, *needs;
const char *devorprof;
int options;
int not_option;
char pname[BUFSIZ];
char fname[1024];
char *rest = (char *) 0;
int nreqs, first = 1, isdup;
ftab = 0;
(void) sprintf(fname, "%s/files", config_directory);
openit:
fp = fopenp(VPATH, fname, pname, "r");
if (fp == 0) {
perror(fname);
exit(1);
}
next:
options = 0;
rest = (char *) 0;
/*
* filename [ standard | optional ]
* [ dev* | profiling-routine ] [ device-driver]
*/
wd = get_word(fp);
if (wd == (char *)EOF) {
(void) fclose(fp);
if (first == 1) {
(void) sprintf(fname, "%s/files.%s", config_directory, machinename);
first++;
goto openit;
}
return;
}
if (wd == 0)
goto next;
/*
* Allow comment lines beginning witha '#' character.
*/
if (*wd == '#')
{
while ((wd=get_word(fp)) && wd != (char *)EOF)
;
goto next;
}
this = ns(wd);
next_word(fp, wd);
if (wd == 0) {
printf("%s: No type for %s.\n",
fname, this);
exit(1);
}
if ((pf = fl_lookup(this)) && (pf->f_type != INVISIBLE || pf->f_flags))
isdup = 1;
else
isdup = 0;
tp = 0;
nreqs = 0;
devorprof = "";
needs = 0;
if (eq(wd, "standard"))
goto checkdev;
if (!eq(wd, "optional")) {
printf("%s: %s must be optional or standard\n", fname, this);
exit(1);
}
if (strncmp(this, "OPTIONS/", 8) == 0)
options++;
not_option = 0;
nextopt:
next_word(fp, wd);
if (wd == 0)
goto doneopt;
if (eq(wd, "not")) {
not_option = !not_option;
goto nextopt;
}
devorprof = wd;
if (eq(wd, "device-driver") || eq(wd, "profiling-routine")) {
next_word(fp, wd);
goto save;
}
nreqs++;
if (needs == 0 && nreqs == 1)
needs = ns(wd);
if (isdup)
goto invis;
if (options)
{
struct opt *lop = 0;
struct device tdev;
/*
* Allocate a pseudo-device entry which we will insert into
* the device list below. The flags field is set non-zero to
* indicate an internal entry rather than one generated from
* the configuration file. The slave field is set to define
* the corresponding symbol as 0 should we fail to find the
* option in the option list.
*/
init_dev(&tdev);
tdev.d_name = ns(wd);
tdev.d_type = PSEUDO_DEVICE;
tdev.d_flags++;
tdev.d_slave = 0;
for (op=opt; op; lop=op, op=op->op_next)
{
char *od = allCaps(ns(wd));
/*
* Found an option which matches the current device
* dependency identifier. Set the slave field to
* define the option in the header file.
*/
if (strcmp(op->op_name, od) == 0)
{
tdev.d_slave = 1;
if (lop == 0)
opt = op->op_next;
else
lop->op_next = op->op_next;
free(op);
op = 0;
}
free(od);
if (op == 0)
break;
}
newdev(&tdev);
}
for (dp = dtab; dp != 0; dp = dp->d_next) {
if (eq(dp->d_name, wd) && (dp->d_type != PSEUDO_DEVICE || dp->d_slave)) {
if (not_option)
goto invis; /* dont want file if option present */
else
goto nextopt;
}
}
if (not_option)
goto nextopt; /* want file if option missing */
for (op = opt; op != 0; op = op->op_next)
if (op->op_value == 0 && opteq(op->op_name, wd)) {
if (nreqs == 1) {
free(needs);
needs = 0;
}
goto nextopt;
}
invis:
while ((wd = get_word(fp)) != 0)
;
if (tp == 0)
tp = new_fent();
tp->f_fn = this;
tp->f_type = INVISIBLE;
tp->f_needs = needs;
tp->f_flags = isdup;
goto next;
doneopt:
if (nreqs == 0) {
printf("%s: what is %s optional on?\n",
fname, this);
exit(1);
}
checkdev:
if (wd) {
if (*wd == '|')
goto getrest;
next_word(fp, wd);
if (wd) {
devorprof = wd;
next_word(fp, wd);
}
}
save:
getrest:
if (wd) {
if (*wd == '|') {
rest = ns(get_rest(fp));
} else {
printf("%s: syntax error describing %s\n",
fname, this);
exit(1);
}
}
if (eq(devorprof, "profiling-routine") && profiling == 0)
goto next;
if (tp == 0)
tp = new_fent();
tp->f_fn = this;
tp->f_extra = rest;
if (options)
tp->f_type = INVISIBLE;
else
if (eq(devorprof, "device-driver"))
tp->f_type = DRIVER;
else if (eq(devorprof, "profiling-routine"))
tp->f_type = PROFILING;
else
tp->f_type = NORMAL;
tp->f_flags = 0;
tp->f_needs = needs;
if (pf && pf->f_type == INVISIBLE)
pf->f_flags = 1; /* mark as duplicate */
goto next;
}