void
core_fetch_STM_t::reg_stats(struct stat_sdb_t * const sdb)
{
char buf[1024];
char buf2[1024];
struct thread_t * arch = core->current_thread;
stat_reg_note(sdb,"\n#### BPRED STATS ####");
bpred->reg_stats(sdb,core);
stat_reg_note(sdb,"\n#### INST CACHE STATS ####");
cache_reg_stats(sdb, core, core->memory.IL1);
cache_reg_stats(sdb, core, core->memory.ITLB);
stat_reg_note(sdb,"\n#### FETCH STATS ####");
sprintf(buf,"c%d.fetch_insn",arch->id);
stat_reg_counter(sdb, true, buf, "total number of instructions fetched", &core->stat.fetch_insn, 0, TRUE, NULL);
sprintf(buf,"c%d.fetch_uops",arch->id);
stat_reg_counter(sdb, true, buf, "total number of uops fetched", &core->stat.fetch_uops, 0, TRUE, NULL);
sprintf(buf,"c%d.fetch_IPC",arch->id);
sprintf(buf2,"c%d.fetch_insn/c%d.sim_cycle",arch->id,arch->id);
stat_reg_formula(sdb, true, buf, "IPC at fetch", buf2, NULL);
sprintf(buf,"c%d.fetch_uPC",arch->id);
sprintf(buf2,"c%d.fetch_uops/c%d.sim_cycle",arch->id,arch->id);
stat_reg_formula(sdb, true, buf, "uPC at fetch", buf2, NULL);
sprintf(buf,"c%d.fetch_stall",core->current_thread->id);
core->stat.fetch_stall = stat_reg_dist(sdb, buf,
"breakdown of stalls in fetch",
/* initial value */0,
/* array size */FSTALL_num,
/* bucket size */1,
/* print format */(PF_COUNT|PF_PDF),
/* format */NULL,
/* index map */fetch_stall_str,
/* scale_me */ TRUE,
/* print fn */NULL);
sprintf(buf,"c%d.byteQ_occupancy",arch->id);
stat_reg_counter(sdb, false, buf, "total byteQ occupancy (in lines/entries)", &core->stat.byteQ_occupancy, 0, TRUE, NULL);
sprintf(buf,"c%d.byteQ_avg",arch->id);
sprintf(buf2,"c%d.byteQ_occupancy/c%d.sim_cycle",arch->id,arch->id);
stat_reg_formula(sdb, true, buf, "average byteQ occupancy (in insts)", buf2, NULL);
}
/* register simulator-specific statistics */
void
sim_reg_stats(struct stat_sdb_t *sdb) /* stats database */
{
int i;
/* register baseline stats */
stat_reg_counter(sdb, "sim_num_insn",
"total number of instructions executed",
&sim_num_insn, sim_num_insn, NULL);
stat_reg_counter(sdb, "sim_num_refs",
"total number of loads and stores executed",
&sim_num_refs, 0, NULL);
stat_reg_int(sdb, "sim_elapsed_time",
"total simulation time in seconds",
&sim_elapsed_time, 0, NULL);
stat_reg_formula(sdb, "sim_inst_rate",
"simulation speed (in insts/sec)",
"sim_num_insn / sim_elapsed_time", NULL);
/* register cache stats */
if (cache_il1
&& (cache_il1 != cache_dl1 && cache_il1 != cache_dl2))
cache_reg_stats(cache_il1, sdb);
if (cache_il2
&& (cache_il2 != cache_dl1 && cache_il2 != cache_dl2))
cache_reg_stats(cache_il2, sdb);
if (cache_dl1)
cache_reg_stats(cache_dl1, sdb);
if (cache_dl2)
cache_reg_stats(cache_dl2, sdb);
if (itlb)
cache_reg_stats(itlb, sdb);
if (dtlb)
cache_reg_stats(dtlb, sdb);
for (i=0; i<pcstat_nelt; i++)
{
char buf[512], buf1[512];
struct stat_stat_t *stat;
/* track the named statistical variable by text address */
/* find it... */
stat = stat_find_stat(sdb, pcstat_vars[i]);
if (!stat)
fatal("cannot locate any statistic named `%s'", pcstat_vars[i]);
/* stat must be an integral type */
if (stat->sc != sc_int && stat->sc != sc_uint && stat->sc != sc_counter)
fatal("`-pcstat' statistical variable `%s' is not an integral type",
stat->name);
/* register this stat */
pcstat_stats[i] = stat;
pcstat_lastvals[i] = STATVAL(stat);
/* declare the sparce text distribution */
sprintf(buf, "%s_by_pc", stat->name);
sprintf(buf1, "%s (by text address)", stat->desc);
pcstat_sdists[i] = stat_reg_sdist(sdb, buf, buf1,
/* initial value */0,
/* print fmt */(PF_COUNT|PF_PDF),
/* format */"0x%p %u %.2f",
/* print fn */NULL);
}
ld_reg_stats(sdb);
mem_reg_stats(mem, sdb);
}
