int fimg2d4x_bitblt(struct fimg2d_control *ctrl)
{
int ret = 0;
enum addr_space addr_type;
struct fimg2d_context *ctx;
struct fimg2d_bltcmd *cmd;
unsigned long *pgd;
fimg2d_debug("enter blitter\n");
while (1) {
cmd = fimg2d_get_command(ctrl);
if (!cmd)
break;
ctx = cmd->ctx;
atomic_set(&ctrl->busy, 1);
perf_start(cmd, PERF_SFR);
ctrl->configure(ctrl, cmd);
perf_end(cmd, PERF_SFR);
addr_type = cmd->image[IDST].addr.type;
if (addr_type == ADDR_USER || addr_type == ADDR_USER_CONTIG) {
if(!ctx->mm || !ctx->mm->pgd) {
atomic_set(&ctrl->busy, 0);
goto fail_n_del;
}
pgd = (unsigned long *)ctx->mm->pgd;
exynos_sysmmu_enable(ctrl->dev,
(unsigned long)virt_to_phys(pgd));
fimg2d_debug("sysmmu enable: pgd %p ctx %p seq_no(%u)\n",
pgd, ctx, cmd->blt.seq_no);
exynos_sysmmu_set_pbuf(ctrl->dev, nbufs, prefbuf);
fimg2d_debug("set smmu prefbuf\n");
}
fimg2d4x_pre_bitblt(ctrl, cmd);
perf_start(cmd, PERF_BLIT);
/* start blit */
ctrl->run(ctrl);
ret = fimg2d4x_blit_wait(ctrl, cmd);
perf_end(cmd, PERF_BLIT);
if (addr_type == ADDR_USER || addr_type == ADDR_USER_CONTIG) {
exynos_sysmmu_disable(ctrl->dev);
fimg2d_debug("sysmmu disable\n");
}
fail_n_del:
fimg2d_del_command(ctrl, cmd);
}
fimg2d_debug("exit blitter\n");
return ret;
}
/**
* \brief soft interrupt
* \details Call trap_s instruction to raise the exception.
* \param[in] *p_excinf
*/
static void soft_interrupt(void *p_exinf)
{
//// 2-E: Task1 --> Int
x.t_t1_int = perf_end();
//// 3-S: Int --> Nest Int
perf_start();
Asm("trap_s 1");
//// 4-E: Nest Int --> Int
x.t_nest_int = perf_end();
//// 5-S: Int --> Task1
perf_start();
}
/**
* \brief trap exception
* \details Call xTaskResumeFromISR() to resume task2 that can be called from within ISR.
* If resuming the task2 should result in a context switch, call vPortYieldFromIsr() to generate task switch request.
* \param[in] *p_excinf
*/
static void trap_exception(void *p_excinf)
{
//// 3-E: Int --> Nest Int
x.t_int_nest = perf_end();
//// 4-S: Nest Int --> Int
perf_start();
}
static double perf_ccccm_update(unsigned long loops, unsigned long size, const void *arg)
{
const struct ccccm_perf_test *test=arg;
const struct ccmode_ccm *ccm=test->ccm;
size_t keylen=test->keylen;
unsigned long nblocks=size/ccm->block_size;
unsigned char keyd[keylen];
unsigned char nonced[13];
unsigned char temp[nblocks*ccm->block_size];
cc_zero(keylen,keyd);
cc_zero(sizeof(nonced),nonced);
ccccm_ctx_decl(ccm->size, key);
ccccm_nonce_decl(ccm->nonce_size, nonce);
ccccm_init(ccm, key, keylen, keyd);
ccccm_set_iv(ccm,key, nonce, sizeof(nonced), nonced,16,size,0);
ccccm_cbcmac(ccm,key, nonce, size, temp);
perf_start();
while(loops--)
ccccm_update(ccm,key, nonce, size, temp, temp);
return perf_time();
}
static double perf_ccccm_one_shot(unsigned long loops, unsigned long size, const void *arg)
{
const struct ccccm_perf_test *test=arg;
const struct ccmode_ccm *ccm=test->ccm;
size_t keylen=test->keylen;
unsigned long nblocks=size/ccm->block_size;
unsigned char temp[nblocks*ccm->block_size];
unsigned char keyd[keylen];
unsigned char tag[16]={0};
unsigned char nonced[13];
cc_zero(keylen,keyd);
cc_zero(sizeof(nonced),nonced);
perf_start();
while(loops--) {
ccccm_one_shot(ccm,
keylen,keyd, // Key
sizeof(nonced),nonced, // Nonce
size, temp, temp, // Data in/out
0, NULL, // Authenticated data
sizeof(tag), tag); // Tag
}
return perf_time();
}
int main(int argc, char *argv[])
{
int i;
void *buf;
uint16_t crc;
struct perf start, stop;
printf("crc16_t10dif_perf:\n");
if (posix_memalign(&buf, 1024, TEST_LEN)) {
printf("alloc error: Fail");
return -1;
}
printf("Start timed tests\n");
fflush(0);
memset(buf, 0, TEST_LEN);
crc = crc16_t10dif(TEST_SEED, buf, TEST_LEN);
perf_start(&start);
for (i = 0; i < TEST_LOOPS; i++) {
crc = crc16_t10dif(TEST_SEED, buf, TEST_LEN);
}
perf_stop(&stop);
printf("crc16_t10dif" TEST_TYPE_STR ": ");
perf_print(stop, start, (long long)TEST_LEN * i);
printf("finish 0x%x\n", crc);
return 0;
}
static double perf_ccccm_finalize(unsigned long loops, unsigned long size CC_UNUSED, const void *arg)
{
const struct ccccm_perf_test *test=arg;
const struct ccmode_ccm *ccm=test->ccm;
size_t keylen=test->keylen;
unsigned char keyd[keylen];
unsigned char nonced[13];
unsigned char tag[16]={0};
unsigned char data[16]={0};
cc_zero(keylen,keyd);
cc_zero(sizeof(nonced),nonced);
ccccm_ctx_decl(ccm->size, key);
ccccm_nonce_decl(ccm->nonce_size, nonce);
ccccm_init(ccm, key, keylen, keyd);
ccccm_set_iv(ccm,key, nonce, sizeof(nonced), nonced,sizeof(tag),size,0);
ccccm_cbcmac(ccm,key, nonce, 0, NULL);
ccccm_update(ccm,key, nonce, sizeof(data), data, data);
perf_start();
while(loops--)
ccccm_finalize(ccm, key, nonce, tag);
return perf_time();
}
int main() {
test_setup();
perf_start();
for (int i = 0; i < NUM_ITER; ++i) {
test_clear();
reset_timer();
start_timer();
test_run(i);
stop_timer();
samples[i] = get_time();
}
perf_stop();
int check = test_check();
printf("Correct: %d\n", check);
for (int i = 0; i < NUM_ITER; ++i)
printf("TS[%d]: %d\n", i, samples[i]);
perf_print_all();
return 0;
}
static int fimg2d_check_dma_sync(struct fimg2d_bltcmd *cmd)
{
struct mm_struct *mm = cmd->ctx->mm;
fimg2d_calc_dma_size(cmd);
if (fimg2d_check_address(cmd))
return -EINVAL;
if (fimg2d_check_pgd(mm, cmd))
return -EFAULT;
#ifndef CCI_SNOOP
fimg2d_debug("cache flush\n");
perf_start(cmd, PERF_CACHE);
if (is_inner_flushall(cmd->dma_all)) {
inner_touch_range(cmd);
flush_all_cpu_caches();
} else {
inner_flush_clip_range(cmd);
}
#ifdef CONFIG_OUTER_CACHE
if (is_outer_flushall(cmd->dma_all))
outer_flush_all();
else
outer_flush_clip_range(cmd);
#endif
perf_end(cmd, PERF_CACHE);
#endif
return 0;
}
int main(void)
{
int i;
unsigned char key1[16], key2[16], tinit[16];
unsigned char *pt, *ct;
printf("aes_xts_128_enc_perf:\n");
pt = malloc(TEST_LEN);
ct = malloc(TEST_LEN);
if (NULL == pt || NULL == ct) {
printf("malloc of testsize failed\n");
return -1;
}
mk_rand_data(key1, key2, tinit, pt, TEST_LEN);
XTS_AES_128_enc(key2, key1, tinit, TEST_LEN, pt, ct);
struct perf start, stop;
perf_start(&start);
for (i = 0; i < TEST_LOOPS; i++) {
XTS_AES_128_enc(key2, key1, tinit, TEST_LEN, pt, ct);
}
perf_stop(&stop);
printf("aes_xts_128_enc" TEST_TYPE_STR ": ");
perf_print(stop, start, (long long)TEST_LEN * i);
return 0;
}
static double perf_ccxts_update(unsigned long loops, unsigned long size, const void *arg)
{
const struct ccxts_perf_test *test=arg;
const struct ccmode_xts *xts=test->xts;
size_t keylen=test->keylen;
unsigned long nblocks=size/xts->block_size;
unsigned char keyd[keylen];
unsigned char tweakkeyd[keylen];
unsigned char tweakd[xts->block_size];
unsigned char temp[nblocks*xts->block_size];
cc_zero(keylen,keyd);
cc_zero(sizeof(tweakd),tweakd);
ccxts_ctx_decl(xts->size, key);
ccxts_tweak_decl(xts->tweak_size, tweak);
ccxts_init(xts, key, keylen, keyd, tweakkeyd);
ccxts_set_tweak(xts, key, tweak, tweakd);
perf_start();
while(loops--)
ccxts_update(xts, key, tweak, nblocks, temp, temp);
return perf_time();
}
int mac_load(char *name, MFDB *out, GEM_WINDOW *wprog)
{
FILE *stream ;
size_t taille ;
void *in ;
perf_start( PERF_DISK, &PerfInfo ) ;
stream = fopen(name, "rb") ;
if (stream == NULL) return(-1) ;
fseek(stream, 0x280, SEEK_SET) ;
out->fd_nplanes = 1 ;
out->fd_w = 576 ;
out->fd_h = 720 ;
out->fd_stand = 0 ;
out->fd_wdwidth = out->fd_w/16 ;
out->fd_addr = img_alloc(576, 720, 1) ;
if (out->fd_addr == NULL)
{
fclose(stream) ;
return(-3) ;
}
taille = file_size(name)-sizeof(MACPAINT_HEADER) ;
in = malloc(taille) ;
if (in == NULL)
{
fclose(stream) ;
free(out->fd_addr) ;
return(-3) ;
}
fread(in, taille, 1, stream) ;
fclose(stream) ;
perf_stop( PERF_DISK, &PerfInfo ) ;
perf_start( PERF_COMPRESS, &PerfInfo ) ;
packbits_dcmps(in, out->fd_addr, out->fd_w, out->fd_h, out->fd_nplanes) ;
perf_stop( PERF_COMPRESS, &PerfInfo ) ;
free(in) ;
return(0) ;
}
static double perf_ccn_cmp(unsigned long loops, cc_size count)
{
cc_unit s[count];
cc_unit t[count];
ccn_random(count, s, rng);
ccn_set(count, t, s);
perf_start();
do {
r_for_cmp=ccn_cmp(count, s, t);
} while (--loops != 0);
return perf_time();
}
static double perf_cced25519_make_key_pair(unsigned long loops,
CC_UNUSED unsigned long size, const struct ccdigest_info *di)
{
ccec25519secretkey sk;
ccec25519pubkey pk;
perf_start();
do {
cced25519_make_key_pair(di, rng, pk, sk);
} while (--loops != 0);
return perf_time();
}
static double perf_cccurve25519_make_pub(unsigned long loops,
CC_UNUSED unsigned long size, CC_UNUSED const struct ccdigest_info *di)
{
ccec25519secretkey sk;
ccec25519pubkey pk;
cccurve25519_make_priv(rng, sk);
perf_start();
do {
cccurve25519_make_pub(pk, sk);
} while (--loops != 0);
return perf_time();
}
static void
performance(const char *family, const char *name, unsigned long trimCounter,
size_t blocksize, void func(void *context), void *context)
{
/* first trim */
unsigned long bytes;
unsigned long count;
double t;
/*
* First figure out a good counter for about 10s worth of runtime
*/
count = trimCounter;
{
perf_start();
while (count-- > 1)
func(context);
t = perf_time();
}
count = RUNTIME * trimCounter / t;
bytes = count * blocksize;
{
perf_start();
while (count-- > 1)
func(context);
t = perf_time();
}
printf("%-15s%-20s\tblocksize %8zd\ttime: %8.4lfs\tbyte/s: %12.0lf\n",
family, name, blocksize, t,
((double)bytes) / RUNTIME);
}
static double perf_ccrng_CommonCrypto_generate(unsigned long loops, size_t nbytes)
{
uint8_t results[nbytes];
CC_UNUSED int status;
double time;
perf_start();
do {
status = ccrng_generate((struct ccrng_state *)&nist_ctx, nbytes, results);
cc_assert(status==0);
} while (--loops != 0);
time=perf_time();
return time;
}
static double perf_ccecb_init(unsigned long loops, unsigned long size CC_UNUSED, const void *arg)
{
const struct ccecb_perf_test *test=arg;
const struct ccmode_ecb *ecb=test->ecb;
size_t keylen=test->keylen;
unsigned char keyd[keylen];
cc_zero(keylen,keyd);
ccecb_ctx_decl(ecb->size, key);
perf_start();
while(loops--)
ccecb_init(ecb, key, keylen, keyd);
return perf_time();
}
static double perf_cccmac(unsigned long loops, unsigned long size, const void *arg)
{
const struct cccmac_perf_test *test=arg;
unsigned char mac[test->cbc->block_size];
unsigned char key[test->keylen];
unsigned char data[size];
cc_zero(test->keylen,key);
perf_start();
do {
cccmac(test->cbc, key,
size, data, mac);
} while (--loops != 0);
return perf_time();
}
static double perf_cccbc_init(unsigned long loops, unsigned long size CC_UNUSED, const void *arg)
{
const struct cccbc_perf_test *test=arg;
const struct ccmode_cbc *cbc=test->cbc;
size_t keylen=test->keylen;
unsigned char keyd[keylen];
cc_zero(keylen,keyd);
cccbc_ctx_decl(cbc->size, key);
perf_start();
while(loops--)
cccbc_init(cbc, key, keylen, keyd);
return perf_time();
}
static double perf_cced25519_sign(unsigned long loops,
unsigned long size, const struct ccdigest_info *di)
{
ccec25519secretkey sk;
ccec25519pubkey pk;
cced25519_make_key_pair(di, rng, pk, sk);
ccec25519signature sig;
uint8_t msg[size];
memset(msg,0xaa,size);
perf_start();
do {
cced25519_sign(di, sig, sizeof(msg), msg, pk, sk);
} while (--loops != 0);
return perf_time();
}
static double perf_ccrng_system_oneshot(unsigned long loops, size_t nbytes)
{
struct ccrng_system_state system_ctx;
CC_UNUSED int status;
uint8_t results[nbytes];
double time;
perf_start();
do {
status = ccrng_system_init(&system_ctx);
cc_assert(status==0);
status = ccrng_generate((struct ccrng_state *)&system_ctx, nbytes, results);
cc_assert(status==0);
ccrng_system_done(&system_ctx);
} while (--loops != 0);
time=perf_time();
return time;
}
static double perf_ccxts_init(unsigned long loops, unsigned long size CC_UNUSED, const void *arg)
{
const struct ccxts_perf_test *test=arg;
const struct ccmode_xts *xts=test->xts;
size_t keylen=test->keylen;
unsigned char keyd[keylen];
unsigned char tweakkeyd[keylen];
cc_zero(keylen,keyd);
ccxts_ctx_decl(xts->size, key);
perf_start();
while(loops--)
ccxts_init(xts, key, keylen, keyd, tweakkeyd);
return perf_time();
}
static double perf_cccbc_one_shot(unsigned long loops, unsigned long size, const void *arg)
{
const struct cccbc_perf_test *test=arg;
const struct ccmode_cbc *cbc=test->cbc;
size_t keylen=test->keylen;
unsigned long nblocks=size/cbc->block_size;
unsigned char keyd[keylen];
unsigned char temp[nblocks*cbc->block_size];
cc_zero(keylen,keyd);
perf_start();
while(loops--) {
cccbc_one_shot(cbc,keylen,keyd,NULL,nblocks,temp, temp);
}
return perf_time();
}
void
perf_push (int type)
{
struct perf *prev;
struct perf *cur;
ASSERT (SIZE(metric_names) == PERF_N);
push_perf_index (type);
prev = get_perf (-2);
cur = get_perf (-1);
ASSERT (cur);
if (prev)
perf_interrupt (prev);
perf_start (cur);
}
static double perf_ccansikdf(unsigned long loops, unsigned long size, const void *arg)
{
const struct ccansikdf_perf_test *test=arg;
unsigned long Zlen=test->Zlen;
unsigned char Z[Zlen];
unsigned long sharedInfoLen=0;
unsigned char *sharedInfo=NULL;
unsigned long outputLen=size;
unsigned char output[outputLen];
ccrng_generate(rng, Zlen, Z);
perf_start();
do {
ccansikdf_x963(test->di, Zlen, Z, sharedInfoLen, sharedInfo, outputLen, output);
} while (--loops != 0);
return perf_time();
}
static int fimg2d_check_dma_sync(struct fimg2d_bltcmd *cmd)
{
struct mm_struct *mm = cmd->ctx->mm;
struct fimg2d_dma *c;
enum pt_status pt;
int i;
fimg2d_calc_dma_size(cmd);
if (fimg2d_check_address(cmd))
return -EINVAL;
for (i = 0; i < MAX_IMAGES; i++) {
c = &cmd->dma[i].base;
if (!c->size)
continue;
pt = fimg2d_check_pagetable(mm, c->addr, c->size);
if (pt == PT_FAULT)
return -EFAULT;
}
#ifndef CCI_SNOOP
fimg2d_debug("cache flush\n");
perf_start(cmd, PERF_CACHE);
if (is_inner_flushall(cmd->dma_all)) {
inner_touch_range(cmd);
flush_all_cpu_caches();
} else {
inner_flush_clip_range(cmd);
}
#ifdef CONFIG_OUTER_CACHE
if (is_outer_flushall(cmd->dma_all))
outer_flush_all();
else
outer_flush_clip_range(cmd);
#endif
perf_end(cmd, PERF_CACHE);
#endif
return 0;
}
static double perf_ccecb_one_shot(unsigned long loops, unsigned long size, const void *arg)
{
const struct ccecb_perf_test *test=arg;
const struct ccmode_ecb *ecb=test->ecb;
size_t keylen=test->keylen;
unsigned long nblocks=size/ecb->block_size;
unsigned char keyd[keylen];
unsigned char temp[nblocks*ecb->block_size];
cc_zero(keylen,keyd);
perf_start();
while(loops--) {
ccecb_one_shot(ecb,keylen, keyd, nblocks, temp, temp);
}
return perf_time();
}
/**
* \brief task1 in FreeRTOS
* \details Call vTaskDelayUntil() to execute task1 with a fixed period 1 second.
* \param[in] *par
*/
static void task1(void *par)
{
uint32_t queue_data = 1;
TickType_t xLastExecutionTime;
xLastExecutionTime = xTaskGetTickCount(); /*!< initialize current tick */
while (1) {
//// 1-E: Task2 --> Task1
x.t_t2_t1 = perf_end();
//// 2-S: Task1 --> Int
perf_start();
_arc_aux_write(AUX_IRQ_HINT, SWI_INTNO); /*!< activate soft_interrupt */
//// 5-E: Int --> Task1
x.t_int_t1 = perf_end();
// task delay, to control benchmark run speed
vTaskDelayUntil( &xLastExecutionTime, TASK_DELAY_MS);
// Task 1 acquire mutex first
xSemaphoreTake(mux1_id, portMAX_DELAY);
// Task 1 acquire semaphore first
xSemaphoreTake(sem1_id, portMAX_DELAY);
//// 6-S: Task1 --> Task2
perf_start();
vTaskResume(task2_handle);
//// 8-S: Mutex Release -> Mutex Acquire
perf_start();
// Task 1 release mutex, task 2 acquire it
xSemaphoreGive(mux1_id);
//// 9-S: Sem Post -> Sem Acquire
perf_start();
// Task 1 post sem, task 2 acquire it
xSemaphoreGive(sem1_id);
//// 10-S: Event Write -> Event Read
perf_start();
// Task 1 write event, task 2 read it
xEventGroupSetBits(evt1_cb, EVENT_WAIT_BITS);
//// 11-S: Queue Write -> Queue Read
perf_start();
// Task 1 write queue, task 2 read it
xQueueSend(dtq1_id, (void *)(&queue_data), portMAX_DELAY);
queue_data ++;
}
}
static double perf_ccccm_set_iv(unsigned long loops, unsigned long size CC_UNUSED, const void *arg)
{
const struct ccccm_perf_test *test=arg;
const struct ccmode_ccm *ccm=test->ccm;
size_t keylen=test->keylen;
unsigned char keyd[keylen];
unsigned char nonced[7];
cc_zero(keylen,keyd);
cc_zero(sizeof(nonced),nonced);
ccccm_ctx_decl(ccm->size, key);
ccccm_nonce_decl(ccm->nonce_size, nonce);
ccccm_init(ccm, key, keylen, keyd);
perf_start();
while(loops--)
ccccm_set_iv(ccm,key, nonce, sizeof(nonced), nonced,16,16,16);
return perf_time();
}
