uint64_t usecs()
{
if (!stopped)
split();
return (usecs(t2) - usecs(t1));
}
void Timeval::operator+=(const DelayInterval& arg2) {
secs() += arg2.seconds(); usecs() += arg2.useconds();
if (useconds() >= MILLION) {
usecs() -= MILLION;
++secs();
}
}
void Timeval::operator-=(const DelayInterval& arg2) {
secs() -= arg2.seconds(); usecs() -= arg2.useconds();
if (usecs() < 0) {
usecs() += MILLION;
--secs();
}
if (secs() < 0)
secs() = usecs() = 0;
}
virtual void wrapup()
{
size_t size = boost::num_vertices(graph);
info(
"done, %.2f secs, found %" PRIu64 " address(es) \n",
1e-6*(usecs() - startTime),
size
);
info("Clustering ... ");
startTime = usecs();
std::vector<uint64_t> cc(size);
uint64_t nbCC = boost::connected_components(graph, &cc[0]);
info(
"done, %.2f secs, found %" PRIu64 " clusters.\n",
1e-6*(usecs() - startTime),
nbCC
);
auto e = rootHashes.end();
auto i = rootHashes.begin();
while(e!=i) {
uint64_t count = 0;
const uint8_t *keyHash = (i++)->v;
uint8_t b58[128];
hash160ToAddr(b58, keyHash);
info("Address cluster for address %s:", b58);
auto j = addrMap.find(keyHash);
if(unlikely(addrMap.end()==j)) {
warning("specified key was never used to spend coins");
showFullAddr(keyHash);
printf("\n");
count = 1;
} else {
uint64_t addrIndex = j->second;
uint64_t homeComponentIndex = cc[addrIndex];
for(size_t k=0; likely(k<cc.size()); ++k) {
uint64_t componentIndex = cc[k];
if(unlikely(homeComponentIndex==componentIndex)) {
Addr *addr = allAddrs[k];
showFullAddr(addr->v);
printf("\n");
++count;
}
}
}
info("%" PRIu64 " addresse(s)\n", count);
}
}
virtual int init(
int argc,
const char *argv[]
)
{
optparse::Values &values = parser.parse_args(argc, argv);
auto args = parser.args();
for(size_t i=1; i<args.size(); ++i) {
loadKeyList(rootHashes, args[i].c_str());
}
if(0==rootHashes.size()) {
const char *addr = getInterestingAddr();
loadKeyList(rootHashes, addr);
}
addrMap.setEmptyKey(gEmptyKey);
addrMap.resize(15 * 1000 * 1000);
allAddrs.reserve(15 * 1000 * 1000);
info("Building address equivalence graph ...");
startTime = usecs();
return 0;
}
virtual int init(
int argc,
const char *argv[]
)
{
optparse::Values &values = parser.parse_args(argc, argv);
auto args = parser.args();
for(size_t i=1; i<args.size(); ++i) {
loadKeyList(rootHashes, args[i].c_str());
}
if(0==rootHashes.size()) {
const char *addr = "1dice8EMZmqKvrGE4Qc9bUFf9PX3xaYDp";
warning("no addresses specified, using satoshi's dice address %s", addr);
loadKeyList(rootHashes, addr);
}
addrMap.setEmptyKey(gEmptyKey);
addrMap.resize(15 * 1000 * 1000);
allAddrs.reserve(15 * 1000 * 1000);
info("Building address equivalence graph ...");
startTime = usecs();
return 0;
}
/**
* do_read - Read from fd to rxbuf
* @serial: Serial Test Context
* @bytes: amount of data to read
*/
static int do_read(struct usb_serial_test *serial, uint32_t bytes)
{
int transferred = 0;
int done = 0;
int ret;
struct usbdevfs_bulktransfer bulk;
gettimeofday(&start, NULL);
while (done < bytes) {
bulk.ep = serial->eprx;
bulk.len = bytes - done;
if (bulk.len > MAX_USBFS_BUFFER_SIZE)
bulk.len = MAX_USBFS_BUFFER_SIZE;
bulk.timeout = TIMEOUT;
bulk.data = (unsigned char *)serial->rxbuf + done;
ret = ioctl(serial->udevh, USBDEVFS_BULK, &bulk);
if (ret < 0) {
DBG("%s: failed receiving %d/%d bytes\n", __func__, done, bytes);
goto err;
}
transferred = ret;
done += transferred;
}
gettimeofday(&end, NULL);
serial->read_tput = throughput(usecs(&start, &end), done);
if (done > 0)
serial->read_usecs += usecs(&start, &end);
/* total average over duration of test */
serial->read_avgtput = throughput(serial->read_usecs,
serial->transferred);
if (serial->read_tput > serial->read_maxtput)
serial->read_maxtput = serial->read_tput;
if (serial->read_tput < serial->read_mintput)
serial->read_mintput = serial->read_tput;
return 0;
err:
return ret;
}
int main(
int argc,
char *argv[]
)
{
double start = usecs();
initCallback(argc, argv);
mapBlockChainFiles();
initHashtables();
firstPass();
secondPass();
cleanMaps();
double elapsed = (usecs()-start)*1e-6;
info("all done in %.3f seconds\n", elapsed);
return 0;
}
virtual void startBlock(
const Block *b,
uint64_t chainSize
)
{
curBlock = b;
const uint8_t *p = b->data;
const uint8_t *sz = -4 + p;
LOAD(uint32_t, size, sz);
offset += size;
double now = usecs();
static double startTime = 0;
static double lastStatTime = 0;
double elapsed = now - lastStatTime;
bool longEnough = (5*1000*1000<elapsed);
bool closeEnough = ((chainSize - offset)<80);
if(unlikely(longEnough || closeEnough)) {
if(0==startTime) {
startTime = now;
}
double progress = offset/(double)chainSize;
double elasedSinceStart = 1e-6*(now - startTime);
double speed = progress / elasedSinceStart;
info(
"%8" PRIu64 " blocks, "
"%8.3f MegaAddrs , "
"%6.2f%% , "
"elapsed = %5.2fs , "
"eta = %5.2fs , "
,
curBlock->height,
addrMap.size()*1e-6,
100.0*progress,
elasedSinceStart,
(1.0/speed) - elasedSinceStart
);
lastStatTime = now;
}
SKIP(uint32_t, version, p);
SKIP(uint256_t, prevBlkHash, p);
SKIP(uint256_t, blkMerkleRoot, p);
LOAD(uint32_t, bTime, p);
blockTime = bTime;
if(0<=cutoffBlock && cutoffBlock<=curBlock->height) {
wrapup();
}
}
int main(int argc, char * argv[])
{
int i;
long t_start,t_end;
double time;
A = malloc((N+2) * sizeof(double *));
for (i=0; i<N+2; i++) {
A[i] = malloc((N+2) * sizeof(double));
}
initialize(A, N);
t_start=usecs();
solve(A, N);
t_end=usecs();
time = ((double)(t_end-t_start))/1000000;
printf("Computation time = %f\n", time);
}
int main(
int argc,
char *argv[]
) {
auto start = usecs();
initCallback(argc, argv);
makeBlockMaps();
initHashtables();
buildNullBlock();
buildBlockHeaders();
computeBlockHeights();
wireLongestChain();
parseLongestChain();
cleanMaps();
auto elapsed = (usecs() - start)*1e-6;
info("all done in %.2f seconds\n", elapsed);
return 0;
}
std::string Document::generate(){
if(getenv("EQBEATS_HTTPS"))
addHttp("Strict-Transport-Security: max-age=15552000\n"); // six months
if(!_redir.empty()){
if(_moved)
return _http + Http::moved(_redir);
else
return _http + Http::redirect(_redir);
}
else if(dw)
return _http + Http::download(dw, _attachment);
if(!_content.empty())
return _http + Http::header(_mime, _code) + _content;
std::string out;
if(_tpl.empty())
setHtml("html/404.tpl", "404 Not Found", 404);
if(_mime == "text/html" && _rootDict != _dict){
_dict->SetFilename(_tpl);
_rootDict->SetValueAndShowSection("REDIRECT", path, "HAS_REDIRECT");
_rootDict->SetFormattedValue("GENERATION_TIME", "%lu µS", usecs());
_rootDict->SetFormattedValue("PID", "%d", getpid());
cache.ExpandWithData("html/page.tpl", ctemplate::STRIP_BLANK_LINES, _rootDict, NULL, &out);
}
else if(_mime == "application/json" && _rootDict != _dict){
addHttp("Access-Control-Allow-Origin: *\n");
if(!cgi("jsonp").empty()){
_mime = "text/javascript";
_rootDict->SetValueAndShowSection("FUNCTION", cgi("jsonp"), "JSONP");
}
_dict->SetFilename(_tpl);
cache.ExpandWithData("json/jsonp.tpl", ctemplate::STRIP_WHITESPACE, _rootDict, NULL, &out);
}
else
cache.ExpandWithData(_tpl, ctemplate::STRIP_BLANK_LINES, _rootDict, NULL, &out);
return _http + Http::header(_mime, _code) + out;
}
static void do_client(void)
{
int ret;
uint32_t min = 0, max;
struct timeval start, end;
char *func;
char *header = "Done";
/* initiate connect */
ret =
cci_connect(endpoint, server_uri, &opts, sizeof(opts), attr, NULL,
0, NULL);
check_return(endpoint, "cci_connect", ret, 1);
/* poll for connect completion */
while (!connect_done)
poll_events();
if (!connection) {
fprintf(stderr, "no connection\n");
return;
}
while (!ready)
poll_events();
if (opts.method == MSGS) {
func = "cci_send";
max = connection->max_send_size;
} else {
func = "cci_rma";
max = opts.max_rma_size;
}
ret = posix_memalign((void **)&buffer, 4096, max);
check_return(endpoint, "memalign buffer", ret, 1);
memset(buffer, 'b', max);
if (opts.method != MSGS) {
int flags = 0;
/* for the client, we want the opposite of the opts.method.
* when testing RMA WRITE, we only need READ access.
* when testing RMA READ, we need WRITE access.
*/
if (opts.method == RMA_WRITE)
flags = CCI_FLAG_READ;
else if (opts.method == RMA_READ)
flags = CCI_FLAG_WRITE;
ret = cci_rma_register(endpoint, buffer, max, flags,
&local_rma_handle);
check_return(endpoint, "cci_rma_register", ret, 1);
fprintf(stderr, "local_rma_handle is %p\n",
(void*)local_rma_handle);
min = 1;
if (opts.method == RMA_WRITE)
opts.flags |= CCI_FLAG_WRITE;
else
opts.flags |= CCI_FLAG_READ;
}
if (remote_completion) {
rmt_comp_msg = header;
rmt_comp_len = 4;
}
if (opts.method == MSGS)
printf("Bytes\t\tLatency (one-way)\tThroughput\n");
else
printf("Bytes\t\tLatency (round-trip)\tThroughput\n");
/* begin communication with server */
for (current_size = min; current_size <= max;) {
double lat = 0.0;
double bw = 0.0;
if (opts.method == MSGS)
ret =
cci_send(connection, buffer, current_size, NULL,
opts.flags);
else
ret = cci_rma(connection, rmt_comp_msg, rmt_comp_len,
local_rma_handle, 0,
&opts.rma_handle, 0,
current_size, (void *)1, opts.flags);
check_return(endpoint, func, ret, 1);
while (count < warmup)
poll_events();
gettimeofday(&start, NULL);
while (count < warmup + iters)
poll_events();
gettimeofday(&end, NULL);
if (opts.method == MSGS)
lat = usecs(start, end) / (double)iters / 2.0;
else
lat = usecs(start, end) / (double)iters;
bw = (double)current_size / lat;
printf("%8d\t%8.2f us\t\t%8.2f MB/s\n", current_size, lat,
bw);
count = 0;
if (current_size == 0)
current_size++;
else
current_size *= 2;
if (current_size >= 64 * 1024) {
if (iters >= 32)
iters /= 2;
if (warmup >= 4)
warmup /= 2;
}
}
ret = cci_send(connection, "bye", 3, (void *)0xdeadbeef, opts.flags);
check_return(endpoint, "cci_send", ret, 0);
while (!done)
poll_events();
if (opts.method != MSGS) {
ret = cci_rma_deregister(endpoint, local_rma_handle);
check_return(endpoint, "cci_rma_deregister", ret, 1);
}
printf("client done\n");
sleep(1);
return;
}
uint64_t msecs()
{
return usecs() / 1000;
}
int CocoaVideoDriver::ticks() const {
return usecs() * 60 / 1000000;
}
/**
* do_write - Write txbuf to fd
* @serial: Serial Test Context
* @bytes: amount of data to write
*/
static int do_write(struct usb_serial_test *serial, uint32_t bytes)
{
int transferred = 0;
int done = 0;
int ret;
struct usbdevfs_bulktransfer bulk;
serial->txbuf[0] = (bytes >> 24) & 0xFF;
serial->txbuf[1] = (bytes >> 16) & 0xFF;
serial->txbuf[2] = (bytes >> 8) & 0xFF;
serial->txbuf[3] = (bytes >> 0) & 0xFF;
if (bytes > 4)
serial->txbuf[bytes-1] = 0xff;
gettimeofday(&start, NULL);
while (done < bytes) {
bulk.ep = serial->eptx;
bulk.len = bytes - done;
if (bulk.len > MAX_USBFS_BUFFER_SIZE)
bulk.len = MAX_USBFS_BUFFER_SIZE;
bulk.timeout = TIMEOUT;
bulk.data = serial->txbuf + done;
ret = ioctl(serial->udevh, USBDEVFS_BULK, &bulk);
if (ret < 0) {
DBG("%s: failed to send data\n", __func__);
goto err;
}
transferred = ret;
serial->transferred += transferred;
done += transferred;
}
gettimeofday(&end, NULL);
serial->write_tput = throughput(usecs(&start, &end), done);
if (done > 0)
serial->write_usecs += usecs(&start, &end);
/* total average over duration of test */
serial->write_avgtput = throughput(serial->write_usecs,
serial->transferred);
if (serial->write_tput > serial->write_maxtput)
serial->write_maxtput = serial->write_tput;
if (serial->write_tput < serial->write_mintput)
serial->write_mintput = serial->write_tput;
if (!(bytes % 512)) {
bulk.ep = serial->eptx;
bulk.len = 0;
bulk.timeout = TIMEOUT;
bulk.data = serial->txbuf + done;
ret = ioctl(serial->udevh, USBDEVFS_BULK, &bulk);
if (ret < 0) {
DBG("%s: failed to send data\n", __func__);
goto err;
}
}
return 0;
err:
return ret;
}
static void buildBlockHeaders() {
info("pass 1 -- walk all blocks and build headers ...");
size_t nbBlocks = 0;
size_t baseOffset = 0;
size_t earlyMissCnt = 0;
uint8_t buf[8+gHeaderSize];
const auto sz = sizeof(buf);
const auto startTime = usecs();
const auto oneMeg = 1024 * 1024;
for(const auto &map : mapVec) {
startMap(0);
while(1) {
auto nbRead = read(map.fd, buf, sz);
if(nbRead<(signed)sz) {
break;
}
startBlock((uint8_t*)0);
uint8_t *hash = 0;
Block *prevBlock = 0;
size_t blockSize = 0;
getBlockHeader(blockSize, prevBlock, hash, earlyMissCnt, buf);
if(unlikely(0==hash)) {
break;
}
auto where = lseek(map.fd, (blockSize + 8) - sz, SEEK_CUR);
auto blockOffset = where - blockSize;
if(where<0) {
break;
}
auto block = Block::alloc();
block->init(hash, &map, blockSize, prevBlock, blockOffset);
gBlockMap[hash] = block;
endBlock((uint8_t*)0);
++nbBlocks;
}
baseOffset += map.size;
auto now = usecs();
auto elapsed = now - startTime;
auto bytesPerSec = baseOffset / (elapsed*1e-6);
auto bytesLeft = gChainSize - baseOffset;
auto secsLeft = bytesLeft / bytesPerSec;
fprintf(
stderr,
"%.2f%% (%.2f/%.2f Gigs) -- %6d blocks -- %.2f Megs/sec -- ETA %.0f secs -- ELAPSED %.0f secs \r",
(100.0*baseOffset)/gChainSize,
baseOffset/(1000.0*oneMeg),
gChainSize/(1000.0*oneMeg),
(int)nbBlocks,
bytesPerSec*1e-6,
secsLeft,
elapsed*1e-6
);
fflush(stderr);
endMap(0);
}
if(0==nbBlocks) {
warning("found no blocks - giving up");
exit(1);
}
char msg[128];
msg[0] = 0;
if(0<earlyMissCnt) {
sprintf(msg, ", %d early link misses", (int)earlyMissCnt);
}
auto elapsed = 1e-6*(usecs() - startTime);
info(
"pass 1 -- took %.0f secs, %6d blocks, %.2f Gigs, %.2f Megs/secs %s ",
elapsed,
(int)nbBlocks,
(gChainSize * 1e-9),
(gChainSize * 1e-6) / elapsed,
msg
);
}
// TODO: compensate for the function call/return time?
void delay_usec(uint32 delay_time_usec) {
const uint32 start_time = usecs();
while (usecs() - start_time < delay_time_usec) {
// Do nothing.
}
}
static void do_client(void)
{
int ret, i = 0;
struct timeval start, end;
double lat = 0.0;
double bw = 0.0;
ret = posix_memalign((void **)&request, 4096, opts.req_size);
check_return(endpoint, "memalign buffer", ret, 1);
msg = (int*) request;
ret = posix_memalign((void **)&buffer, 4096, opts.transfer_size);
check_return(endpoint, "memalign buffer", ret, 1);
memset(buffer, 'b', opts.transfer_size);
ret = cci_rma_register(endpoint, buffer, opts.transfer_size,
opts.rma_flags, &local);
check_return(endpoint, "cci_rma_register", ret, 1);
memcpy(&opts.rma_handle, local, sizeof(*local));
connect_to_server();
if (connection->max_send_size < opts.req_size)
opts.req_size = connection->max_send_size;
if (!suppress)
printf("Bytes\t\tLatency (per rpc)\tThroughput (per rpc)\n");
/* begin communication with server */
ret = send_request(count);
check_return(endpoint, "send first request", ret, 1);
if (!ret) {
count++;
inflight++;
}
progress_client(opts.warmup);
count = 0;
completed = 0;
gettimeofday(&start, NULL);
for (i = 0; i < concurrent; i++) {
ret = send_request(count);
if (!ret) {
count++;
inflight++;
}
check_return(endpoint, "send first request", ret, 0);
}
progress_client(opts.iters);
gettimeofday(&end, NULL);
lat = usecs(start, end) / (double)opts.iters;
bw = (double)opts.transfer_size / lat;
printf("%8d\t%8.2f us\t\t%8.2f MB/s\n", opts.transfer_size, lat, bw);
ret = cci_send(connection, "bye", 3, (void *)0xdeadbeef, 0);
check_return(endpoint, "cci_send", ret, 1);
progress_client(0);
ret = cci_rma_deregister(endpoint, local);
check_return(endpoint, "cci_rma_deregister", ret, 1);
if (!suppress)
printf("client done\n");
return;
}
int main(
int argc,
char *argv[]
) {
if(3!=argc) {
fprintf(stderr, "usage: flashtest <device> <mode>\n");
exit(1);
}
auto accessMode = (argv[2] ? argv[2][0] : '?');
auto knownMode = ('r'==accessMode || 'w'==accessMode);
if(false==knownMode) {
fprintf(stderr, "unknown access mode '%c'\n", accessMode);
exit(1);
}
auto fd = open(
argv[1],
(('w'==accessMode) ? O_WRONLY : O_RDONLY),
O_NOATIME |
O_DIRECT |
O_SYNC
);
if(fd<0) {
fprintf(stderr, "cant access file '%s'\n", argv[1]);
perror("");
exit(1);
}
std::mt19937 rng(kSeed);
uint64_t nbBytes = 0;
uint64_t nbBlocks = 0;
uint64_t lastReportBytes = 0;
auto lastReportTime = usecs();
auto startTime = lastReportTime;
while(1) {
auto genStart = usecs();
auto p = buffer0;
auto e = kBlkWordSize + p;
while(p<e) {
*(p++) = rng();
}
auto genTime = usecs() - genStart;
auto genGBPerSecond = (kBlkByteSize * 1e-9) / (genTime * 1e-6);
auto report = [&](
bool fail = false
) {
if(fail) {
perror("");
}
auto now = usecs();
auto elapsedSinceStart = now - startTime;
auto elapsedSinceLast = now - lastReportTime;
auto speedSinceStart = nbBytes / (double)elapsedSinceStart;
auto speedSinceLast = (nbBytes-lastReportBytes) / (double)elapsedSinceLast;
fprintf(
stderr,
"%s %s%s block %" PRIu64 "\n"
"\n"
" %14" PRIu64 ".000 Bytes\n"
" %18.3f MBytes\n"
" %18.3f GBytes\n"
"\n"
" %18.3f second elapsed since program start\n"
" %18.3f second elapsed since last report\n"
" %18.3f GB/Sec RNG generation speed\n"
"\n"
" %18.3f MB/Sec (avg. since program start)\n"
" %18.3f MB/Sec (avg. since last report)\n"
"\n"
,
('w'==accessMode) ? "writing to" : "reading from",
argv[1],
fail ? " failed" : "",
nbBlocks,
nbBytes,
nbBytes * 1e-6,
nbBytes * 1e-9,
elapsedSinceStart * 1e-6,
elapsedSinceLast * 1e-6,
genGBPerSecond,
speedSinceStart,
speedSinceLast
);
lastReportBytes = nbBytes;
lastReportTime = now;
};
if('w'==accessMode) {
auto r0 = write(fd, buffer0, kBlkByteSize);
if(0<=r0) {
nbBytes += r0;
}
if(kBlkByteSize!=(unsigned)r0) {
report(true);
break;
}
auto r1 = fdatasync(fd);
if(r1<0) {
report(true);
break;
}
} else {
auto r = read(fd, buffer1, kBlkByteSize);
if(0<=r) {
nbBytes += r;
}
bool equal = (0==memcmp(buffer0, buffer1, r));
if(false==equal) {
fprintf(
stderr,
"FAIL -- found unexpected data at block %" PRIu64 " !!!!!!!!!!!!!!!!!\n\n",
nbBlocks
);
report();
abort();
}
if(kBlkByteSize!=(unsigned)r) {
report(true);
break;
}
}
++nbBlocks;
auto now = usecs();
double elapsedSinceLastReport = (now - lastReportTime)*1e-6;
if(1.0<elapsedSinceLastReport) {
report();
}
}
return 0;
}