/**
* Creates a plain text (or html) email and
* specifies the necessary MIME types if needed
* due to attaching base64 files.
* when this function is done, it will rewind
* the file position and return an open file
**/
static dstrbuf *
createPlainEmail(dstrbuf *msg)
{
dstrbuf *border=NULL;
dstrbuf *buf=DSB_NEW;
CharSetType cs;
if (Mopts.attach) {
border = mimeMakeBoundary();
} else {
border = DSB_NEW;
}
if (Mopts.encoding) {
cs = getCharSet((u_char *)msg->str);
} else {
cs = IS_ASCII;
}
printHeaders(border->str, buf, cs);
if (makeMessage(msg, buf, border->str, cs) < 0) {
dsbDestroy(buf);
buf=NULL;
}
dsbDestroy(border);
return buf;
}
void printHomeData(ULONG ID) {
printHeaders();
JSON::Object obj;
obj.add(new JSON::String("ID"), new JSON::Integer(ID));
obj.add(new JSON::String("homeData"), new JSON::String("test"));
obj.render();
}
void RESTClient::send(const String &name, float value)
{
printHTTP();
print(name);
print(F("&value="));
print(value);
printHeaders();
}
void HTTPServer::notFound()
{
if (havePacket()) {
printHeaders(typePlain, status404);
println(status404);
sendReply();
}
}
void RESTClient::send(const __FlashStringHelper *name, float value)
{
printHTTP();
print(name);
print(F("&value="));
print(value);
printHeaders();
}
void printHelpTable(void) {
int i = 0;
int longestFlag = 0;
char flagBuf[100];
char lastHeaderType = '\0';
printAdditionalHelp();
for (i = 0; i < numFlags; i++) {
int flagLen;
if (flagList[i].flagDash[0] == '\0') {
flagLen = 2 + strlen(flagList[i].flagDashDash);
} else {
if (flagList[i].flagDashDash[0] == '\0') {
flagLen = 1 + strlen(flagList[i].flagDash) +
strlen(flagList[i].subArg);
} else {
flagLen = 1 + strlen(flagList[i].flagDash) +
strlen(flagList[i].subArg) +
2 + 2 + strlen(flagList[i].flagDashDash);
}
}
if (longestFlag < flagLen) {
longestFlag = flagLen;
}
}
for (i = 0; i < numFlags; i++) {
printHeaders(flagList[i].headerType, &lastHeaderType);
if (flagList[i].flagDash[0] == '\0') {
snprintf(flagBuf, sizeof(flagBuf), "--%s", flagList[i].flagDashDash);
} else {
if (flagList[i].flagDashDash[0] == '\0') {
snprintf(flagBuf, sizeof(flagBuf), "-%s%s",
flagList[i].flagDash, flagList[i].subArg);
} else {
snprintf(flagBuf, sizeof(flagBuf), "-%s%s, --%s",
flagList[i].flagDash, flagList[i].subArg,
flagList[i].flagDashDash);
}
}
fprintf(stdout, " %-*s : ", longestFlag, flagBuf);
{
const char* p;
const char* pNext;
for (p = flagList[i].description;
(pNext = strchr(p, '\n')) != NULL;
p = pNext + 1) {
fprintf(stdout, "%.*s\n%*s", (int) (pNext - p), p,
longestFlag + 6, "");
}
fprintf(stdout, "%s\n", p);
}
}
fprintf(stdout, "\n");
}
/**
* Creates a signed message with gpg and takes into
* account the correct MIME message types to add to
* the message.
**/
static dstrbuf *
createGpgEmail(dstrbuf *msg, GpgCallType gpg_type)
{
dstrbuf *tmpbuf=DSB_NEW;
dstrbuf *gpgdata=NULL, *buf=DSB_NEW;
dstrbuf *border1=NULL, *border2=NULL;
assert(msg != NULL);
/* Create two borders if we're attaching files */
border1 = mimeMakeBoundary();
if (Mopts.attach) {
border2 = mimeMakeBoundary();
} else {
border2 = DSB_NEW;
}
if (makeGpgMessage(msg, tmpbuf, border2->str) < 0) {
dsbDestroy(buf);
buf=NULL;
goto end;
}
gpgdata = callGpg(tmpbuf, gpg_type);
if (!gpgdata) {
dsbDestroy(buf);
buf=NULL;
goto end;
}
printHeaders(border1->str, buf, IS_ASCII);
dsbPrintf(buf, "\r\n--%s\r\n", border1->str);
if (gpg_type & GPG_ENC) {
dsbPrintf(buf, "Content-Type: application/pgp-encrypted\r\n\r\n");
dsbPrintf(buf, "Version: 1\r\n");
dsbPrintf(buf, "\r\n--%s\r\n", border1->str);
dsbPrintf(buf, "Content-type: application/octet-stream; "
"name=encrypted.asc\r\n\r\n");
} else if (gpg_type & GPG_SIG) {
dsbPrintf(buf, "%s\r\n", tmpbuf->str);
dsbPrintf(buf, "\r\n--%s\r\n", border1->str);
dsbPrintf(buf, "Content-Type: application/pgp-signature\r\n");
dsbPrintf(buf, "Content-Description: This is a digitally signed message\r\n\r\n");
}
dsbPrintf(buf, "%s", gpgdata->str);
dsbPrintf(buf, "\r\n--%s--\r\n", border1->str);
end:
dsbDestroy(tmpbuf);
dsbDestroy(gpgdata);
dsbDestroy(border1);
dsbDestroy(border2);
return buf;
}
void avengersAssemble(AST_NODE* astTree, TAC* tacList)
{
DEST_ASM = fopen("assembly.s", "w");
printHeaders();
parseGlobalVariables(astTree);
parseStrings();
fprintf(DEST_ASM, "\t.text\n");
parseTAC(tacList);
printFooter();
fclose(DEST_ASM);
}
void printHelpTable(void) {
typedef struct _flagType {
const char* flag;
const char* description;
const char headerType;
} flagType;
static flagType flagList[] = {
{"-h, --help", "print this message", 'g'},
{"-nl <n>", "run program using n locales", 'g'},
{"", "(equivalent to setting the numLocales config const)", 'g'},
{"-q, --quiet", "run program in quiet mode", 'g'},
{"-v, --verbose", "run program in verbose mode", 'g'},
{"-b, --blockreport", "report location of blocked threads on SIGINT", 'g'},
{"-t, --taskreport",
"report list of pending and executing tasks on SIGINT", 'g'},
{"--gdb", "run program in gdb", 'g'},
{"-s, --<cfgVar>=<val>", "set the value of a config var", 'c'},
{"-f<filename>", "read in a file of config var assignments", 'c'},
{NULL, NULL, ' '}
};
int i = 0;
int longestFlag = 0;
char lastHeaderType = '\0';
printAdditionalHelp();
while (flagList[i].flag) {
int thisFlag = strlen(flagList[i].flag);
if (longestFlag < thisFlag) {
longestFlag = thisFlag;
}
i++;
}
i = 0;
while (flagList[i].flag) {
printHeaders(flagList[i].headerType, &lastHeaderType);
if (flagList[i].flag[0] == '\0') {
fprintf(stdout, " %-*s %s\n", longestFlag, flagList[i].flag,
flagList[i].description);
} else {
fprintf(stdout, " %-*s : %s\n", longestFlag, flagList[i].flag,
flagList[i].description);
}
i++;
}
fprintf(stdout, "\n");
}
int runNormal() {
bool showHeaders = ! hasParam( "noheaders" );
int rowCount = getParam( "rowcount" , 0 );
int rowNum = 0;
auth();
BSONObj prev = stats();
if ( prev.isEmpty() )
return -1;
int maxLockedDbWidth = 0;
while ( rowCount == 0 || rowNum < rowCount ) {
sleepsecs((int)ceil(_statUtil.getSeconds()));
BSONObj now;
try {
now = stats();
}
catch ( std::exception& e ) {
cout << "can't get data: " << e.what() << endl;
continue;
}
if ( now.isEmpty() )
return -2;
try {
BSONObj out = _statUtil.doRow( prev , now );
// adjust width up as longer 'locked db' values appear
setMaxLockedDbWidth( &out, &maxLockedDbWidth );
if ( showHeaders && rowNum % 10 == 0 ) {
printHeaders( out );
}
printData( out , out );
}
catch ( AssertionException& e ) {
cout << "\nerror: " << e.what() << "\n"
<< now
<< endl;
}
prev = now;
rowNum++;
}
return 0;
}
int main ()
{
//call functions
int numPlyrs;
int plyrInfo[MAXPLYRS][NUMCOLS] ;
numPlyrs = readStats(plyrInfo) ;
//check for successful read
if(numPlyrs != 0)
{
printHeaders() ;
printPlayerPts(plyrInfo, numPlyrs) ;
printTeamPts(plyrInfo, numPlyrs) ;
}
return 0 ;
}
int main(int argc, char **argv)
{
FILE *fp, *fp2, *pipe;
char testName[32] = "MPI_Allreduce", file1[64], file2[64], pipeStr[8];
int dblSize, proc, nprocs, nodeCPUs, nodes;
unsigned int i, j, size, localSize, NLOOP = NLOOP_MAX;
unsigned int smin = MIN_COL_SIZE, smed = MED_COL_SIZE, smax = MAX_COL_SIZE;
double tScale = USEC, bwScale = MB_8;
double tStart, timeMin, timeMinGlobal, overhead, threshold_lo, threshold_hi;
double msgBytes, sizeBytes, UsedMem, localMax;
double tElapsed[NREPS], tElapsedGlobal[NREPS];
double *A, *B;
pipe = popen( "cat /proc/cpuinfo | grep processor | wc -l", "r" );
fgets( pipeStr, 8, pipe ); pclose(pipe);
nodeCPUs = atoi(pipeStr);
// Initialize parallel environment
MPI_Init( &argc, &argv );
MPI_Comm_size( MPI_COMM_WORLD, &nprocs );
MPI_Comm_rank( MPI_COMM_WORLD, &proc );
// Reset maximum message size to fit within node memory
if( nprocs > nodeCPUs ){
nodes = nprocs / nodeCPUs;
if( smax > nodes ) smax = smax / nodes;
if( smed > nodes ) smed = smed / nodes;
}
// Check for user defined limits
checkEnvCOL( proc, &NLOOP, &smin, &smed, &smax );
// Initialize local variables
dblSize = sizeof(double);
UsedMem = (double)smax*(double)dblSize*(double)( nprocs + 1 );
// Allocate and initialize arrays
srand( SEED );
A = doubleVector( smax );
B = doubleVector( smax*nprocs );
// Open output file and write header
if( proc == 0 ){
// Check timer overhead in seconds
timerTest( &overhead, &threshold_lo, &threshold_hi );
// Open output files and write headers
sprintf( file1, "allreduce_time-np_%.4d.dat", nprocs );
sprintf( file2, "allreduce_bw-np_%.4d.dat", nprocs );
fp = fopen( file1, "a" );
fp2 = fopen( file2, "a" );
printHeaders( fp, fp2, testName, UsedMem, overhead, threshold_lo );
}
//================================================================
// Single loop with minimum size to verify that inner loop length
// is long enough for the timings to be accurate
//================================================================
// Warmup with a medium size message
MPI_Allreduce( A, B, smed, MPI_DOUBLE, MPI_SUM, MPI_COMM_WORLD );
// Test is current NLOOP is enough to capture fastest test cases
MPI_Barrier( MPI_COMM_WORLD );
tStart = benchTimer();
for(j = 0; j < NLOOP; j++){
MPI_Allreduce( A, B, smin, MPI_DOUBLE, MPI_SUM, MPI_COMM_WORLD);
}
timeMin = benchTimer() - tStart;
MPI_Reduce( &timeMin, &timeMinGlobal, 1, MPI_DOUBLE, MPI_MIN, 0, MPI_COMM_WORLD );
if( proc == 0 ) resetInnerLoop( timeMinGlobal, threshold_lo, &NLOOP );
MPI_Bcast( &NLOOP, 1, MPI_INT, 0, MPI_COMM_WORLD );
//================================================================
// Execute test for each requested size
//================================================================
localMax = 0.0;
for( size = smin; size <= smax; size = size*2 ){
// Warmup with a medium size message
MPI_Allreduce( A, B, smed, MPI_DOUBLE, MPI_SUM, MPI_COMM_WORLD );
// Repeat NREPS to collect statistics
for(i = 0; i < NREPS; i++){
MPI_Barrier( MPI_COMM_WORLD );
tStart = benchTimer();
for(j = 0; j < NLOOP; j++){
MPI_Allreduce( A, B, size, MPI_DOUBLE, MPI_SUM, MPI_COMM_WORLD);
}
tElapsed[i] = benchTimer() - tStart;
}
MPI_Reduce( tElapsed, tElapsedGlobal, NREPS, MPI_DOUBLE, MPI_MAX, 0, MPI_COMM_WORLD );
// Only task 0 needs to do the analysis of the collected data
if( proc == 0 ){
// sizeBytes is size to write to file
// msgBytes is actual data exchanged on the wire
msgBytes = (double)size*(double)nprocs*(double)dblSize;
sizeBytes = (double)size*(double)dblSize;
post_process( fp, fp2, threshold_hi, tElapsedGlobal, tScale,
bwScale, size*dblSize, sizeBytes, msgBytes, &NLOOP,
&localMax, &localSize );
}
MPI_Bcast( &NLOOP, 1, MPI_INT, 0, MPI_COMM_WORLD );
}
//================================================================
// Print completion message, free memory and exit
//================================================================
if( proc == 0 ){
fclose(fp);
fclose(fp2);
fprintf( stdout,"\n %s test completed.\n\n", testName );
}
free( A );
free( B );
MPI_Finalize();
return 0;
}
int main(int argc, char **argv)
{
FILE *fp, *fp2;
char testName[32] = "MPI_Get_Fence", file1[64], file2[64];
int dblSize, proc, nprocs, npairs, partner;
unsigned int i, j, k, size, localSize, NLOOP = NLOOP_MAX;
unsigned int smin = MIN_P2P_SIZE, smed = MED_P2P_SIZE, smax = MAX_P2P_SIZE;
double tScale = USEC, bwScale = MB_8;
double tStart, timeMin, timeMinGlobal, overhead, threshold_lo, threshold_hi;
double msgBytes, sizeBytes, localMax, UsedMem;
double tElapsed[NREPS], tElapsedGlobal[NREPS];
double *A, *B;
MPI_Win win;
// Initialize parallel environment
MPI_Init(&argc, &argv);
MPI_Comm_size( MPI_COMM_WORLD, &nprocs );
MPI_Comm_rank( MPI_COMM_WORLD, &proc );
// Test input parameters
if( nprocs%2 != 0 && proc == 0 )
fatalError( "P2P test requires an even number of processors" );
// Check for user defined limits
checkEnvP2P( proc, &NLOOP, &smin, &smed, &smax );
// Initialize local variables
localMax = 0.0;
npairs = nprocs/2;
if( proc < npairs ) partner = proc + npairs;
if( proc >= npairs ) partner = proc - npairs;
UsedMem = (double)smax*(double)sizeof(double)*2.0;
// Allocate and initialize arrays
srand( SEED );
A = doubleVector( smax );
B = doubleVector( smax );
// Open output file and write header
if( proc == 0 ){
// Check timer overhead in seconds
timerTest( &overhead, &threshold_lo, &threshold_hi );
// Open output files and write headers
sprintf( file1, "getfence_time-np_%.4d.dat", nprocs );
sprintf( file2, "getfence_bw-np_%.4d.dat", nprocs );
fp = fopen( file1, "a" );
fp2 = fopen( file2, "a" );
printHeaders( fp, fp2, testName, UsedMem, overhead, threshold_lo );
}
// Get type size
MPI_Type_size( MPI_DOUBLE, &dblSize );
// Set up a window for RMA
MPI_Win_create( A, smax*dblSize, dblSize, MPI_INFO_NULL, MPI_COMM_WORLD, &win );
//================================================================
// Single loop with minimum size to verify that inner loop length
// is long enough for the timings to be accurate
//================================================================
// Warmup with a medium size message
if( proc < npairs ){
MPI_Win_fence( 0, win );
MPI_Get( B, smed, MPI_DOUBLE, partner, 0, smed, MPI_DOUBLE, win );
MPI_Win_fence( 0, win );
}else{
MPI_Win_fence( 0, win );
MPI_Win_fence( 0, win );
}
// Test if current NLOOP is enough to capture fastest test cases
MPI_Barrier( MPI_COMM_WORLD );
tStart = benchTimer();
if( proc < npairs ){
for(j = 0; j < NLOOP; j++){
MPI_Win_fence( 0, win );
MPI_Get( B, smin, MPI_DOUBLE, partner, 0, smin, MPI_DOUBLE, win );
MPI_Win_fence( 0, win );
}
}else{
for(j = 0; j < NLOOP; j++){
MPI_Win_fence( 0, win );
MPI_Win_fence( 0, win );
}
}
timeMin = benchTimer() - tStart;
MPI_Reduce( &timeMin, &timeMinGlobal, 1, MPI_DOUBLE, MPI_MIN, 0, MPI_COMM_WORLD );
if( proc == 0 ) resetInnerLoop( timeMinGlobal, threshold_lo, &NLOOP );
MPI_Bcast( &NLOOP, 1, MPI_INT, 0, MPI_COMM_WORLD );
//================================================================
// Execute test for each requested size
//================================================================
for( size = smin; size <= smax; size = size*2 ){
// Warmup with a medium size message
if( proc < npairs ){
MPI_Win_fence( 0, win );
MPI_Get( B, smed, MPI_DOUBLE, partner, 0, smed, MPI_DOUBLE, win );
MPI_Win_fence( 0, win );
}else{
MPI_Win_fence( 0, win );
MPI_Win_fence( 0, win );
}
// Repeat NREPS to collect statistics
for(i = 0; i < NREPS; i++){
MPI_Barrier( MPI_COMM_WORLD );
tStart = benchTimer();
if( proc < npairs ){
for(j = 0; j < NLOOP; j++){
MPI_Win_fence( 0, win );
MPI_Get( B, size, MPI_DOUBLE, partner, 0, size, MPI_DOUBLE, win );
MPI_Win_fence( 0, win );
}
}else{
for(j = 0; j < NLOOP; j++){
MPI_Win_fence( 0, win );
MPI_Win_fence( 0, win );
}
}
tElapsed[i] = benchTimer() - tStart;
}
MPI_Reduce( tElapsed, tElapsedGlobal, NREPS, MPI_DOUBLE, MPI_MAX, 0, MPI_COMM_WORLD );
// Only task 0 needs to do the analysis of the collected data
if( proc == 0 ){
// sizeBytes is size to write to file
// msgBytes is actual data exchanged on the wire
msgBytes = (double)size*(double)npairs*(double)dblSize;
sizeBytes = (double)size*(double)dblSize;
post_process( fp, fp2, threshold_hi, tElapsedGlobal, tScale,
bwScale, size*dblSize, sizeBytes, msgBytes, &NLOOP,
&localMax, &localSize );
}
MPI_Bcast( &NLOOP, 1, MPI_INT, 0, MPI_COMM_WORLD );
}
MPI_Win_free( &win );
MPI_Barrier( MPI_COMM_WORLD );
free( A );
free( B );
//================================================================
// Print completion message, free memory and exit
//================================================================
if( proc == 0 ){
printSummary( fp2, testName, localMax, localSize );
fclose( fp2 );
fclose( fp );
}
MPI_Finalize();
return 0;
}
int runMany() {
StateMap threads;
{
string orig = getParam( "host" );
bool showPorts = false;
if ( orig == "" )
orig = "localhost";
if ( orig.find( ":" ) != string::npos || hasParam( "port" ) )
showPorts = true;
StringSplitter ss( orig.c_str() , "," );
while ( ss.more() ) {
string host = ss.next();
if ( showPorts && host.find( ":" ) == string::npos) {
// port supplied, but not for this host. use default.
if ( hasParam( "port" ) )
host += ":" + _params["port"].as<string>();
else
host += ":27017";
}
_add( threads , host );
}
}
sleepsecs(1);
int row = 0;
bool discover = hasParam( "discover" );
int maxLockedDbWidth = 0;
while ( 1 ) {
sleepsecs( (int)ceil(_statUtil.getSeconds()) );
// collect data
vector<Row> rows;
for ( map<string,shared_ptr<ServerState> >::iterator i=threads.begin(); i!=threads.end(); ++i ) {
scoped_lock lk( i->second->lock );
if ( i->second->error.size() ) {
rows.push_back( Row( i->first , i->second->error ) );
}
else if ( i->second->prev.isEmpty() || i->second->now.isEmpty() ) {
rows.push_back( Row( i->first ) );
}
else {
BSONObj out = _statUtil.doRow( i->second->prev , i->second->now );
rows.push_back( Row( i->first , out ) );
}
if ( discover && ! i->second->now.isEmpty() ) {
if ( _discover( threads , i->first , i->second ) )
break;
}
}
// compute some stats
unsigned longestHost = 0;
BSONObj biggest;
for ( unsigned i=0; i<rows.size(); i++ ) {
if ( rows[i].host.size() > longestHost )
longestHost = rows[i].host.size();
if ( rows[i].data.nFields() > biggest.nFields() )
biggest = rows[i].data;
// adjust width up as longer 'locked db' values appear
setMaxLockedDbWidth( &rows[i].data, &maxLockedDbWidth );
}
{
// check for any headers not in biggest
// TODO: we put any new headers at end,
// ideally we would interleave
set<string> seen;
BSONObjBuilder b;
{
// iterate biggest
BSONObjIterator i( biggest );
while ( i.more() ) {
BSONElement e = i.next();
seen.insert( e.fieldName() );
b.append( e );
}
}
// now do the rest
for ( unsigned j=0; j<rows.size(); j++ ) {
BSONObjIterator i( rows[j].data );
while ( i.more() ) {
BSONElement e = i.next();
if ( seen.count( e.fieldName() ) )
continue;
seen.insert( e.fieldName() );
b.append( e );
}
}
biggest = b.obj();
}
// display data
cout << endl;
// header
if ( row++ % 5 == 0 && ! biggest.isEmpty() ) {
cout << setw( longestHost ) << "" << "\t";
printHeaders( biggest );
}
// rows
for ( unsigned i=0; i<rows.size(); i++ ) {
cout << setw( longestHost ) << rows[i].host << "\t";
if ( rows[i].err.size() )
cout << rows[i].err << endl;
else if ( rows[i].data.isEmpty() )
cout << "no data" << endl;
else
printData( rows[i].data , biggest );
}
}
return 0;
}
void printID(ULONG ID) {
printHeaders();
JSON::Object obj;
obj.add(new JSON::String("ID"), new JSON::Integer(ID));
obj.render();
}
void printDone() {
printHeaders();
done.render();
}
int main(int argc, char **argv)
{
FILE *fp, *fp2;
char testName[32] = "PHI_TRANSFER_KEEP_NOAL_IN";
int micNum, tid;
unsigned int i, j, size, localSize, NLOOP = NLOOP_PHI_MAX, NLOOP_PHI;
unsigned int smin = MIN_PHI_SIZE, smed = MED_PHI_SIZE, smax = MAX_PHI_SIZE;
double *f0, *f0_noal, *f1, *f1_noal;
double timeMin, tStart, tElapsed[NREPS];
double tScale = USEC, bwScale = MB;
double overhead, threshold_lo, threshold_hi;
double tMin, tMax, tAvg, stdDev, bwMax, bwMin, bwAvg, bwDev;
double UsedMem, localMax, msgBytes;
double tMsg[NREPS], bwMsg[NREPS];
// Identify number of MIC devices
micNum = _Offload_number_of_devices();
if( micNum == 0 ) fatalError( "No Xeon Phi devices found. Test Aborted." );
// Check for user defined limits
checkEnvPHI( &NLOOP, &smin, &smed, &smax );
if( micNum == 1 ) UsedMem = (double)smax*sizeof(double);
if( micNum == 2 ) UsedMem = (double)smax*2.0*sizeof(double);
// Allocate and initialize test array
srand( SEED );
f0 = doubleVector( smax+1 );
// This array is unaligned by exactly 8 bytes
f0_noal = &f0[1];
// Check timer overhead in seconds
timerTest( &overhead, &threshold_lo, &threshold_hi );
// Open output files and write headers
fp = fopen( "mic0_keep_noal_time_in.dat", "a" );
fp2 = fopen( "mic0_keep_noal_bw_in.dat", "a" );
printHeaders( fp, fp2, testName, UsedMem, overhead, threshold_lo );
//================================================================
// Single loop with minimum size to verify that inner loop length
// is long enough for the timings to be accurate
//================================================================
// Warmup processor with a large size exchange
// Since we will be reusing we want to make sure this exchange uses smax
#pragma offload_transfer target(mic:0) in( f0_noal : length(smax) ALLOC KEEP )
// Test is current NLOOP is enough to capture fastest test cases
tStart = benchTimer();
for(j = 0; j < NLOOP; j++){
#pragma offload_transfer target(mic:0) in( f0_noal : length(smin) REUSE KEEP )
}
timeMin = benchTimer() - tStart;
resetInnerLoop( timeMin, threshold_lo, &NLOOP );
// Let's save this info in case we have more than one Phi device
NLOOP_PHI = NLOOP;
//================================================================
// Execute test for each requested size
//================================================================
localSize = smin;
localMax = 0.0;
for( size = smin; size <= smax; size = size*2 ){
// Copy array to Phi (read/write test)
for( i = 0; i < NREPS; i++){
tStart = benchTimer();
for(j = 0; j < NLOOP; j++){
#pragma offload_transfer target(mic:0) in( f0_noal : length(size) REUSE KEEP )
}
tElapsed[i] = benchTimer() - tStart;
}
msgBytes = (double)( size*sizeof(double));
post_process( fp, fp2, threshold_hi, tElapsed, tScale, bwScale, size,
msgBytes, msgBytes, &NLOOP, &localMax, &localSize );
}
// Print completion message
printSummary( fp2, testName, localMax, localSize );
fclose( fp2 );
fclose( fp );
if( micNum == 2 ){
// Allocate and initialize test array for second Phi coprocessor (mic:1)
f1 = doubleVector(smax+1);
f1_noal = &f1[1];
// Open output files and write headers
fp = fopen( "mic1_keep_noal_time_in.dat", "a" );
fp2 = fopen( "mic1_keep_noal_bw_in.dat", "a" );
printHeaders( fp, fp2, testName, UsedMem, overhead, threshold_lo );
//================================================================
// Single loop with minimum size to verify that inner loop length
// is long enough for the timings to be accurate
//================================================================
// Warmup processor with a large size exchange
// Since we will be reusing we want to make sure this exchanges uses smax
#pragma offload_transfer target(mic:1) in( f1_noal : length(smax) ALLOC KEEP )
// Reset innermost loop to safe value and local quantities to defaults
NLOOP = NLOOP_PHI;
localSize = smin;
localMax = 0.0;
//================================================================
// Execute test for each requested size
//================================================================
for( size = smin; size <= smax; size = size*2 ){
// Copy array to Phi (read/write test)
for( i = 0; i < NREPS; i++){
tStart = benchTimer();
for(j = 0; j < NLOOP; j++){
#pragma offload_transfer target(mic:1) in( f1_noal : length(size) REUSE KEEP )
}
tElapsed[i] = benchTimer() - tStart;
}
msgBytes = (double)( size*sizeof(double));
post_process( fp, fp2, threshold_hi, tElapsed, tScale, bwScale, size,
msgBytes, msgBytes, &NLOOP, &localMax, &localSize );
}
// Print completion message
printSummary( fp2, testName, localMax, localSize );
fclose( fp2 );
fclose( fp );
//------- TESTING SIMULTANEOUS DATA TRANSFER TO BOTH PHI DEVICES ------
// Open output files and write headers
fp = fopen( "mic0+1_keep_noal_time_in.dat", "a" );
fp2 = fopen( "mic0+1_keep_noal_bw_in.dat", "a" );
printHeaders( fp, fp2, testName, UsedMem, overhead, threshold_lo );
// Warmup processor with a medium size exchange
#pragma offload_transfer target(mic:0) in( f0_noal : length(smed) REUSE KEEP )
#pragma offload_transfer target(mic:1) in( f1_noal : length(smed) REUSE KEEP )
// Reset innermost loop to safe value and local quantities to defaults
NLOOP = NLOOP_PHI;
localSize = smin;
localMax = 0.0;
//================================================================
// Execute test for each requested size
//================================================================
for( size = smin; size <= smax; size = size*2 ){
for( i = 0; i < NREPS; i++){
tStart = benchTimer();
#pragma omp parallel private(j,tid) num_threads(2)
{
tid = omp_get_thread_num();
if( tid == 0 ){
for(j = 0; j < NLOOP; j++){
#pragma offload_transfer target(mic:0) in( f0_noal : length(size) REUSE KEEP )
}
}
if( tid == 1 ){
for(j = 0; j < NLOOP; j++){
#pragma offload_transfer target(mic:1) in( f1_noal : length(size) REUSE KEEP )
}
}
}
tElapsed[i] = 0.5*( benchTimer() - tStart );
}
msgBytes = (double)( size*sizeof(double));
post_process( fp, fp2, threshold_hi, tElapsed, tScale, bwScale, size,
msgBytes, msgBytes, &NLOOP, &localMax, &localSize );
}
// Print completion message
printSummary( fp2, testName, localMax, localSize );
fclose( fp2 );
fclose( fp );
}
free( f0 );
if( micNum == 2 ) free( f1 );
return 0;
}
void setup(){
// A visual Queue that the System is in
// Setup Mode.
// Pin 14 -> LED ON
digitalWrite(SetupLED, HIGH);
// ----- PRELIMINARY PROCEDURES ------
// -> init serial Connection to LCD
initLCD();
LCDprintln("***** Starting Up *****");
delay(100);
LCDprintln(" [OK] ");
// ----- SPLASH SCREEN PROCEDURES ------
// -> splash Screen
// -> ask for connections
// -> Store USB?
#ifdef MEGA
toggleSplashScreen();
delay(1000);
askForConnectionTypes();
askToStoreData();
#endif
// ----- DEBUG STARTUP PROCEDURES ------
#ifdef DEBUG
toggleSplashScreen();
delay(1000);
LCDprintln("***** DEBUG MODE *****");
startDebugSequence();
#endif
// ----- PINS // INT // ISR PROCEDURES ------
// -> init buttons
// -> init LED pins
// -> init Digital pins
// -> init Sensors
// -> attach interrupts
#ifdef MEGA
initbuttons();
#else
LCDprintln("In DEBUG mode no input required");
#endif
#ifdef MEGA
initLEDPins();
initDigitalPins();
initSensors();
#else
LCDprintln("No need for inputs random numbers\n
sent to the PC/XBee.");
#endif
attachInterrupts();
// ----- COMMS STARTUP PROCEDURES ------
// -> init Keyboard
// -> init serial Connection to XBee
// -> init serial Connection to PC
#ifdef XBeeConnected
initXbee();
LCDdisplayConnectedIcon(Connection);
#endif
#ifdef USBConnected
initUSB();
LCDdisplayConnectedIcon(Connection);
#endif
#ifdef StoreUSB
initVDIP();
LCDdisplayConnectedIcon(Connection);
printHeaders();
#endif
// ----- MEM. & MENUS STARTUP PROCEDURES ------
// -> init EEPROM
// -> +1 to session ID
// -> Verify Version ID
// -> init Menu System
// -> Startup
initEEPROM();
initMenus();
// A visual Queue that the System is now past
// the Setup Mode.
// Pin 14 -> LED OFF
digitalWrite(SetupLED, LOW);
}
