static void interpret(char *name, char *val, int comma, int rtype)
{
int type;
while (*name == ' '||*name == '(')
name++;
/* Do some fixups */
if (rtype == AUDIT_EXECVE && name[0] == 'a')
type = T_ESCAPED;
else if (rtype == AUDIT_AVC && strcmp(name, "saddr") == 0)
type = -1;
else if (strcmp(name, "acct") == 0) {
// Remove trailing punctuation
int len = strlen(val);
if (val[len-1] == ':')
val[len-1] = 0;
if (val[0] == '"')
type = T_ESCAPED;
else if (is_hex_string(val))
type = T_ESCAPED;
else
type = -1;
} else
type = audit_lookup_type(name);
switch(type) {
case T_UID:
print_uid(val);
break;
case T_GID:
print_gid(val);
break;
case T_SYSCALL:
print_syscall(val);
break;
case T_ARCH:
print_arch(val);
break;
case T_EXIT:
print_exit(val);
break;
case T_ESCAPED:
print_escaped(val);
break;
case T_PERM:
print_perm(val);
break;
case T_MODE:
print_mode(val);
break;
case T_SOCKADDR:
print_sockaddr(val);
break;
case T_FLAGS:
print_flags(val);
break;
case T_PROMISC:
print_promiscuous(val);
break;
case T_CAPABILITY:
print_capabilities(val);
break;
case T_SIGNAL:
print_signals(val);
break;
case T_KEY:
print_key(val);
break;
case T_LIST:
print_list(val);
break;
case T_TTY_DATA:
print_tty_data(val);
break;
default:
printf("%s%c", val, comma ? ',' : ' ');
}
}
/*
* This function prints 1 rule from the kernel reply
*/
static void print_rule(const struct audit_rule_data *r)
{
unsigned int i, count = 0, sc = 0;
size_t boffset = 0;
int mach = -1, watch = is_watch(r);
unsigned long long a0 = 0, a1 = 0;
if (!watch) { /* This is syscall auditing */
printf("-a %s,%s",
audit_action_to_name((int)r->action),
audit_flag_to_name(r->flags));
// Now find the arch and print it
for (i = 0; i < r->field_count; i++) {
int field = r->fields[i] & ~AUDIT_OPERATORS;
if (field == AUDIT_ARCH) {
int op = r->fieldflags[i] & AUDIT_OPERATORS;
mach = print_arch(r->values[i], op);
}
}
// And last do the syscalls
count = print_syscall(r, &sc);
}
// Now iterate over the fields
for (i = 0; i < r->field_count; i++) {
const char *name;
int op = r->fieldflags[i] & AUDIT_OPERATORS;
int field = r->fields[i] & ~AUDIT_OPERATORS;
if (field == AUDIT_ARCH)
continue; // already printed
name = audit_field_to_name(field);
if (name) {
// Special cases to print the different field types
// in a meaningful way.
if (field == AUDIT_MSGTYPE) {
if (!audit_msg_type_to_name(r->values[i]))
printf(" -F %s%s%d", name,
audit_operator_to_symbol(op),
r->values[i]);
else
printf(" -F %s%s%s", name,
audit_operator_to_symbol(op),
audit_msg_type_to_name(
r->values[i]));
} else if ((field >= AUDIT_SUBJ_USER &&
field <= AUDIT_OBJ_LEV_HIGH)
&& field != AUDIT_PPID) {
printf(" -F %s%s%.*s", name,
audit_operator_to_symbol(op),
r->values[i], &r->buf[boffset]);
boffset += r->values[i];
} else if (field == AUDIT_WATCH) {
if (watch)
printf("-w %.*s", r->values[i],
&r->buf[boffset]);
else
printf(" -F path=%.*s", r->values[i],
&r->buf[boffset]);
boffset += r->values[i];
} else if (field == AUDIT_DIR) {
if (watch)
printf("-w %.*s/", r->values[i],
&r->buf[boffset]);
else
printf(" -F dir=%.*s", r->values[i],
&r->buf[boffset]);
boffset += r->values[i];
} else if (field == AUDIT_FILTERKEY) {
char *rkey, *ptr, *saved;
if (asprintf(&rkey, "%.*s", r->values[i],
&r->buf[boffset]) < 0)
rkey = NULL;
boffset += r->values[i];
ptr = strtok_r(rkey, key_sep, &saved);
while (ptr) {
if (watch)
printf(" -k %s", ptr);
else
printf(" -F key=%s", ptr);
ptr = strtok_r(NULL, key_sep, &saved);
}
free(rkey);
} else if (field == AUDIT_PERM) {
char perms[5];
int val=r->values[i];
perms[0] = 0;
if (val & AUDIT_PERM_READ)
strcat(perms, "r");
if (val & AUDIT_PERM_WRITE)
strcat(perms, "w");
if (val & AUDIT_PERM_EXEC)
strcat(perms, "x");
if (val & AUDIT_PERM_ATTR)
strcat(perms, "a");
if (watch)
printf(" -p %s", perms);
else
printf(" -F perm=%s", perms);
} else if (field == AUDIT_INODE) {
// This is unsigned
printf(" -F %s%s%u", name,
audit_operator_to_symbol(op),
r->values[i]);
} else if (field == AUDIT_FIELD_COMPARE) {
print_field_cmp(r->values[i], op);
} else if (field >= AUDIT_ARG0 && field <= AUDIT_ARG3){
if (field == AUDIT_ARG0)
a0 = r->values[i];
else if (field == AUDIT_ARG1)
a1 = r->values[i];
// Show these as hex
if (count > 1 || interpret == 0)
printf(" -F %s%s0x%X", name,
audit_operator_to_symbol(op),
r->values[i]);
else { // Use ignore to mean interpret
const char *out;
idata id;
char val[32];
int type;
id.syscall = sc;
id.machine = mach;
id.a0 = a0;
id.a1 = a1;
id.name = name;
snprintf(val, 32, "%x", r->values[i]);
id.val = val;
type = auparse_interp_adjust_type(
AUDIT_SYSCALL, name, val);
out = auparse_do_interpretation(type,
&id);
printf(" -F %s%s%s", name,
audit_operator_to_symbol(op),
out);
free((void *)out);
}
} else if (field == AUDIT_EXIT) {
int e = abs((int)r->values[i]);
const char *err = audit_errno_to_name(e);
if (((int)r->values[i] < 0) && err)
printf(" -F %s%s-%s", name,
audit_operator_to_symbol(op),
err);
else
printf(" -F %s%s%d", name,
audit_operator_to_symbol(op),
(int)r->values[i]);
} else {
// The default is signed decimal
printf(" -F %s%s%d", name,
audit_operator_to_symbol(op),
r->values[i]);
}
} else {
// The field name is unknown
printf(" f%d%s%d", r->fields[i],
audit_operator_to_symbol(op),
r->values[i]);
}
}
printf("\n");
}
int main (int argc, char *argv[]) {
#ifndef SPEC
char title[] = "\n\nVPR FPGA Placement and Routing Program Version 4.22 "
"by V. Betz.\n"
"Source completed Jan. 25, 1999; compiled " __DATE__ ".\n"
"This code is licensed only for non-commercial use.\n\n";
#else
char title[] = "\n\nVPR FPGA Placement and Routing Program Version 4.00-spec"
"\nSource completed Sept. 19, 1997.\n\n";
#endif
char net_file[BUFSIZE], place_file[BUFSIZE], arch_file[BUFSIZE];
char route_file[BUFSIZE];
float aspect_ratio;
boolean full_stats, user_sized;
char pad_loc_file[BUFSIZE];
enum e_operation operation;
boolean verify_binary_search;
boolean show_graphics;
int gr_automode;
struct s_annealing_sched annealing_sched;
struct s_placer_opts placer_opts;
struct s_router_opts router_opts;
struct s_det_routing_arch det_routing_arch;
t_segment_inf *segment_inf;
t_timing_inf timing_inf;
t_subblock_data subblock_data;
t_chan_width_dist chan_width_dist;
float constant_net_delay;
printf("%s",title);
placer_opts.pad_loc_file = pad_loc_file;
/* Parse the command line. */
parse_command (argc, argv, net_file, arch_file, place_file, route_file,
&operation, &aspect_ratio, &full_stats, &user_sized, &verify_binary_search,
&gr_automode, &show_graphics, &annealing_sched, &placer_opts, &router_opts,
&timing_inf.timing_analysis_enabled, &constant_net_delay);
/* Parse input circuit and architecture */
get_input (net_file, arch_file, placer_opts.place_cost_type,
placer_opts.num_regions, aspect_ratio, user_sized,
router_opts.route_type, &det_routing_arch, &segment_inf,
&timing_inf, &subblock_data, &chan_width_dist);
if (full_stats == TRUE)
print_lambda ();
#ifdef DEBUG
print_netlist ("net.echo", net_file, subblock_data);
print_arch (arch_file, router_opts.route_type, det_routing_arch,
segment_inf, timing_inf, subblock_data, chan_width_dist);
#endif
if (operation == TIMING_ANALYSIS_ONLY) { /* Just run the timing analyzer. */
do_constant_net_delay_timing_analysis (timing_inf, subblock_data,
constant_net_delay);
free_subblock_data (&subblock_data);
exit (0);
}
set_graphics_state (show_graphics, gr_automode, router_opts.route_type);
if (show_graphics) {
/* Get graphics going */
init_graphics("VPR: Versatile Place and Route for FPGAs");
alloc_draw_structs ();
}
fflush (stdout);
place_and_route (operation, placer_opts, place_file, net_file, arch_file,
route_file, full_stats, verify_binary_search, annealing_sched, router_opts,
det_routing_arch, segment_inf, timing_inf, &subblock_data,
chan_width_dist);
if (show_graphics)
close_graphics(); /* Close down X Display */
exit (0);
}
