/* ChapelBase.chpl:663 */
static void init_elts4(_ddata_chpldev_Task x, int64_t s, int64_t _ln, c_string _fn) {
range_int64_t_bounded_F call_tmp;
_ref_range_int64_t_bounded_F ret_to_arg_ref_tmp_ = NULL;
range_int64_t_bounded_F _ic__F0_this;
int64_t i;
int64_t ret;
int64_t end;
int64_t ret2;
chpldev_Task this8;
chpldev_Task wrap_call_tmp;
int64_t call_tmp2;
ret_to_arg_ref_tmp_ = &call_tmp;
_build_range(INT64(1), s, ret_to_arg_ref_tmp_, _ln, _fn);
_ic__F0_this = call_tmp;
ret = (&_ic__F0_this)->_low;
ret2 = (&_ic__F0_this)->_high;
end = ret2;
for (i = ret; ((i <= end)); i += INT64(1)) {
(&this8)->state = taskState_pending;
(&this8)->lineno = UINT32(0);
(&this8)->filename = "";
(&this8)->tl_info = UINT64(0);
(&this8)->state = taskState_pending;
(&this8)->lineno = UINT32(0);
(&this8)->filename = "";
(&this8)->tl_info = UINT64(0);
wrap_call_tmp = _construct_chpldev_Task(taskState_pending, UINT32(0), "", UINT64(0), &this8, _ln, _fn);
call_tmp2 = (i - INT64(1));
*(x + call_tmp2) = wrap_call_tmp;
}
return;
}
/* DSIUtil.chpl:163 */
static uint64_t intCeilXDivByY(uint64_t x, uint64_t y, int64_t _ln, c_string _fn) {
uint64_t call_tmp;
uint64_t call_tmp2;
uint64_t call_tmp3;
call_tmp = (x - UINT64(1));
call_tmp2 = (call_tmp / y);
call_tmp3 = (UINT64(1) + call_tmp2);
return call_tmp3;
}
const indri::infnet::EvaluatorNode::MResults& indri::infnet::ContextSimpleCountAccumulator::getResults() {
_results.clear();
_results[ "collectionFrequency" ].push_back( indri::api::ScoredExtentResult( _occurrences, 0 ) );
_results[ "collTermCnt" ].push_back( indri::api::ScoredExtentResult( _size, 0 ) );
_results[ "docFrequency" ].push_back( indri::api::ScoredExtentResult(UINT64(_documentOccurrences), 0 ) );
_results[ "docCnt" ].push_back( indri::api::ScoredExtentResult( UINT64(_documentCount), 0 ) );
return _results;
}
const indri::infnet::EvaluatorNode::MResults& indri::infnet::ContextCountAccumulator::getResults() {
// we must be finished, so now is a good time to add our results to the ListCache
_results.clear();
_results[ "occurrences" ].push_back( indri::api::ScoredExtentResult( _occurrences, 0 ) );
_results[ "contextSize" ].push_back( indri::api::ScoredExtentResult( _contextSize, 0 ) );
_results[ "documentOccurrences" ].push_back( indri::api::ScoredExtentResult(UINT64(_documentOccurrences), 0 ) );
_results[ "documentCount" ].push_back( indri::api::ScoredExtentResult( UINT64(_documentCount), 0 ) );
return _results;
}
UINT64 stream_fill(imgtool_stream *f, unsigned char b, UINT64 sz)
{
UINT64 outsz;
char buf[1024];
outsz = 0;
memset(buf, b, std::min(sz, UINT64(sizeof(buf))));
while(sz)
{
outsz += stream_write(f, buf, std::min(sz, UINT64(sizeof(buf))));
sz -= std::min(sz, UINT64(sizeof(buf)));
}
return outsz;
}
UINT64 fsGetFileSize (HANDLE hFile)
{
DWORD dw1, dw2;
dw1 = GetFileSize (hFile, &dw2);
return dw1 | UINT64 (dw2) << 32;
}
int stream_seek(imgtool_stream *s, INT64 pos, int where)
{
UINT64 size;
size = stream_size(s);
switch(where)
{
case SEEK_CUR:
pos += s->position;
break;
case SEEK_END:
pos += size;
break;
}
if (pos < 0)
s->position = 0;
else
s->position = std::min(size, UINT64(pos));
if (s->position < pos)
stream_fill(s, '\0', pos - s->position);
return 0;
}
fsInternetResult fsHttpFiles::LoadFile()
{
UINT uToRead = 1000;
const FLOAT fInc = 1.2f;
fsInternetResult ir;
UINT64 uFileSize = m_httpFile.GetFileSize ();
UINT64 uMax = uFileSize;
UINT64 uPos = 0;
DWORD dwRead;
if (uMax == _UI64_MAX)
uMax = 100000;
SAFE_DELETE_ARRAY (m_pszFileBuffer);
fsnew (m_pszFileBuffer, char, int (uMax+1));
int cZeroReads = 0;
do
{
if (uToRead > uFileSize - uPos)
uToRead = UINT (uFileSize - uPos);
if (uPos + uToRead > uMax)
{
uMax = UINT64 ((INT64)uMax * fInc);
LPSTR psz = 0;
fsnew (psz, char, int (uMax+1));
CopyMemory (psz, m_pszFileBuffer, UINT (uPos));
delete [] m_pszFileBuffer;
m_pszFileBuffer = psz;
}
ir = m_httpFile.Read (LPBYTE (m_pszFileBuffer+uPos), uToRead, &dwRead);
if (ir != IR_SUCCESS)
{
delete m_pszFileBuffer;
return ir;
}
uPos += dwRead;
if (dwRead == 0)
{
cZeroReads ++;
if (cZeroReads < 3 && uFileSize != _UI64_MAX)
dwRead = 1;
}
else
cZeroReads = 0;
}
static uint64_t intCeilXDivByY_chpl(uint64_t x_chpl, uint64_t y_chpl, int64_t _ln_chpl, int32_t _fn_chpl) {
#line 118 "DSIUtil.chpl"
uint64_t call_tmp_chpl;
#line 118 "DSIUtil.chpl"
uint64_t call_tmp_chpl2;
#line 118 "DSIUtil.chpl"
uint64_t call_tmp_chpl3;
#line 163 "DSIUtil.chpl"
call_tmp_chpl = (x_chpl - UINT64(1));
#line 163 "DSIUtil.chpl"
call_tmp_chpl2 = (call_tmp_chpl / y_chpl);
#line 163 "DSIUtil.chpl"
call_tmp_chpl3 = (UINT64(1) + call_tmp_chpl2);
#line 163 "DSIUtil.chpl"
return call_tmp_chpl3;
#line 163 "DSIUtil.chpl"
}
int main()
{
log_serial = new Serial(DEBUG_TX, DEBUG_RX);
log_serial->baud(9600);
DigitalIn sw2(SW2);
DigitalIn sw3(SW3);
for (int i = 0; i < SERVO_COUNT; i++) {
paint_heads[i] = PAINT_NEUTRAL;
}
radio_init(1500);
const uint64_t remote_addr64 = UINT64(0x0013A200, 0x40d4f162);
const XBeeLib::RemoteXBeeZB remoteDevice = XBeeLib::RemoteXBeeZB(
remote_addr64);
packet pkt;
const char *data = "what's up man?";
strncpy((char *) &pkt.data, data, 100);
pkt.len = strlen(data);
radio_send(pkt);
radio_bcast(pkt);
radio_send(pkt, remoteDevice);
uint8_t current_head = 0;
log_serial->printf("Hello!\r\n");
while (true) {
packet pkt;
if (radio_recv(pkt, 0)) {
printf(
"\r\nGot a %s RX packet [%08lx:%08lx|%04x], "
"len %d\r\nData: ",
pkt.broadcast ? "BROADCAST" : "UNICAST",
uint32_t (pkt.remote_addr64 >> 32),
uint32_t (pkt.remote_addr64 & 0xFFFFFFFF),
pkt.remote_addr16,
pkt.len);
printf("%.*s\r\n", pkt.len, pkt.data);
}
if (sw2 == 0) {
printf("painting\r\n");
while (sw2 == 0);
paint_heads[current_head % SERVO_COUNT] = PAINT_SPRAY;
wait(PAINT_TIME);
paint_heads[current_head % SERVO_COUNT] = PAINT_NEUTRAL;
}
if (sw3 == 0) {
printf("head %d\r\n", current_head);
current_head++;
while (sw3 == 0);
}
}
inline UINT32 sample_number_to_field(const movie_info &info, UINT32 samplenum, UINT32 &offset)
{
UINT32 guess = (UINT64(samplenum) * UINT64(info.iframerate) + (UINT64(info.samplerate) * UINT64(1000000) - 1)) / (UINT64(info.samplerate) * UINT64(1000000));
while (1)
{
UINT32 fieldstart = field_to_sample_number(info, guess);
UINT32 fieldend = field_to_sample_number(info, guess + 1);
if (samplenum >= fieldstart && samplenum < fieldend)
{
offset = samplenum - fieldstart;
return guess;
}
else if (samplenum < fieldstart)
guess--;
else
guess++;
}
}
void h8_sci_device::clock_start(int mode)
{
// Happens when back-to-back
if(clock_state & mode)
return;
if(!clock_state) {
cpu->synchronize();
clock_state = mode;
switch(clock_mode) {
case CLKM_INTERNAL_ASYNC:
case CLKM_INTERNAL_ASYNC_OUT:
case CLKM_INTERNAL_SYNC_OUT:
logerror("%s: Starting internal clock\n", tag());
clock_base = cpu->get_cycle();
cpu->internal_update();
break;
case CLKM_EXTERNAL_RATE_ASYNC:
logerror("%s: Simulating external clock async\n", tag());
clock_base = UINT64(cpu->get_cycle()*internal_to_external_ratio);
cpu->internal_update();
break;
case CLKM_EXTERNAL_RATE_SYNC:
logerror("%s: Simulating external clock sync\n", tag());
clock_base = UINT64(cpu->get_cycle()*2*internal_to_external_ratio);
cpu->internal_update();
break;
case CLKM_EXTERNAL_ASYNC:
logerror("%s: Waiting for external clock async\n", tag());
ext_clock_counter = 15;
break;
case CLKM_EXTERNAL_SYNC:
logerror("%s: Waiting for external clock sync\n", tag());
break;
}
} else
clock_state |= mode;
}
UINT64 Hash64(const BYTE *k, UINT Length)
{
UINT a, b, c, LocalLength;
/* Set up the internal state */
LocalLength = Length;
a = b = 0x9e3779b9; /* the golden ratio; an arbitrary value */
c = 0x9b9773e9;
/*---------------------------------------- handle most of the key */
while (LocalLength >= 12)
{
a += (k[0] + ((UINT)k[1]<<8) + ((UINT)k[2]<<16) + ((UINT)k[3]<<24));
b += (k[4] + ((UINT)k[5]<<8) + ((UINT)k[6]<<16) + ((UINT)k[7]<<24));
c += (k[8] + ((UINT)k[9]<<8) + ((UINT)k[10]<<16)+ ((UINT)k[11]<<24));
HashMix(a, b, c);
k += 12;
LocalLength -= 12;
}
/*------------------------------------- handle the last 11 bytes */
c += Length;
switch(LocalLength) /* all the case statements fall through */
{
case 11: c += ((UINT)k[10]<<24);
case 10: c += ((UINT)k[9]<<16);
case 9 : c += ((UINT)k[8]<<8);
/* the first byte of c is reserved for the length */
case 8 : b += ((UINT)k[7]<<24);
case 7 : b += ((UINT)k[6]<<16);
case 6 : b += ((UINT)k[5]<<8);
case 5 : b += k[4];
case 4 : a += ((UINT)k[3]<<24);
case 3 : a += ((UINT)k[2]<<16);
case 2 : a += ((UINT)k[1]<<8);
case 1 : a += k[0];
/* case 0: nothing left to add */
}
HashMix(a, b, c);
/*-------------------------------------------- report the result */
return UINT64(c) + UINT64(UINT64(a) << 32);
}
UINT64 stream_transfer(imgtool_stream *dest, imgtool_stream *source, UINT64 sz)
{
UINT64 result = 0;
UINT64 readsz;
char buf[1024];
while(sz && (readsz = stream_read(source, buf, std::min(sz, UINT64(sizeof(buf))))))
{
stream_write(dest, buf, readsz);
sz -= readsz;
result += readsz;
}
return result;
}
/* ===================================================================== */
VOID DumpHistogram(std::ostream& out)
{
const UINT64 cutoff = KnobCutoff.Value();
const UINT64 maxlines = KnobMaxLines.Value();
FLT64 factor = KnobDecayFactor.Value();
out << "\033[0;0H";
out << "\033[2J";
out << "\033[44m";
out << "Functions with at least " << cutoff << " invocations in the last " <<
KnobThreshold.Value() << " calls ";
out << "\033[0m";
out << endl;
VEC CountMap;
for (ADDR_CNT_MAP::iterator bi = RtnMap.begin(); bi != RtnMap.end(); bi++)
{
if( bi->second < cutoff ) continue;
CountMap.push_back(*bi);
#if 0
out << setw(18) << (void *)(bi->first) << " " <<
setw(10) << bi->second <<
" " << Target2String(bi->first) << endl;
#endif
}
sort( CountMap.begin(), CountMap.end(), CompareLess );
UINT64 lines = 0;
for (VEC::iterator bi = CountMap.begin(); bi != CountMap.end(); bi++)
{
out << setw(18) << (void *)(bi->first) << " " <<
setw(10) << bi->second <<
" " << Target2String(bi->first) << endl;
lines++;
if (lines >= maxlines) break;
}
for (ADDR_CNT_MAP::iterator bi = RtnMap.begin(); bi != RtnMap.end(); bi++)
{
bi->second = UINT64(bi->second * factor);
}
//out << "Total Functions: " << CountMap.size() << endl;
}
UINT CSupSubFile::ThreadProc()
{
CFile f;
if (!f.Open(m_fname, CFile::modeRead | CFile::typeBinary | CFile::shareDenyNone)) {
return 1;
}
CAutoLock cAutoLock(&m_csCritSec);
f.SeekToBegin();
CMemFile m_sub;
m_sub.SetLength(f.GetLength());
m_sub.SeekToBegin();
int len;
BYTE buff[65536] = { 0 };
while ((len = f.Read(buff, sizeof(buff))) > 0) {
m_sub.Write(buff, len);
}
m_sub.SeekToBegin();
WORD sync = 0;
USHORT size = 0;
REFERENCE_TIME rtStart = 0;
while (m_sub.GetPosition() < (m_sub.GetLength() - 10)) {
sync = (WORD)ReadByte(&m_sub, 2);
if (sync == 'PG') {
rtStart = UINT64(ReadByte(&m_sub, 4) * 1000 / 9);
m_sub.Seek(4 + 1, CFile::current); // rtStop + Segment type
size = ReadByte(&m_sub, 2) + 3; // Segment size
m_sub.Seek(-3, CFile::current);
m_sub.Read(buff, size);
m_pSub->ParseSample(buff, size, rtStart, 0);
} else {
break;
}
}
m_sub.Close();
return 0;
}
inline UINT32 ScaledDiv( UINT32 N, UINT32 D )
{
if (D == 0)
return 1;
#if defined(__WXMSW__)
UINT32 temp ;
__asm {
mov eax,N
xor edx,edx
shld edx,eax,28
shl eax,28
div D
mov temp,eax
}
return temp ;
#else
return UINT32((UINT64(N)<<28)/D);
#endif
}
unsigned int calc(double sample,uint64* state)
{
int v;
uint64 sample_int=sample*((double)(UINT64(1)<<53));
uint32 x1=sample_int>>27;
uint32 x2=sample_int & ((1<<27)-1);
uint32 out;
if ((sample>=1.0) || (sample<0.0))
{
// Error - bad input
return 1;
}
for (v=0;v<(1<<22);v++)
{
*state=adv((((uint64)x1)<<22)|v);
out=((*state)>>(48-27))&((1<<27)-1);
if (out==x2)
{
return 0;
}
}
// Could not find PRNG internal state
return 2;
}
static bool read_avi(void *file, int frame, bitmap_yuy16 &bitmap, INT16 *lsound, INT16 *rsound, int &samples)
{
avi_file *avifile = reinterpret_cast<avi_file *>(file);
// read the frame
avi_error avierr = avi_read_video_frame(avifile, frame, bitmap);
if (avierr != AVIERR_NONE)
return FALSE;
// read the samples
const avi_movie_info *aviinfo = avi_get_movie_info(avifile);
UINT32 firstsample = (UINT64(aviinfo->audio_samplerate) * UINT64(frame) * UINT64(aviinfo->video_sampletime) + aviinfo->video_timescale - 1) / UINT64(aviinfo->video_timescale);
UINT32 lastsample = (UINT64(aviinfo->audio_samplerate) * UINT64(frame + 1) * UINT64(aviinfo->video_sampletime) + aviinfo->video_timescale - 1) / UINT64(aviinfo->video_timescale);
avierr = avi_read_sound_samples(avifile, 0, firstsample, lastsample - firstsample, lsound);
avierr = avi_read_sound_samples(avifile, 1, firstsample, lastsample - firstsample, rsound);
if (avierr != AVIERR_NONE)
return false;
samples = lastsample - firstsample;
return true;
}
/**
* \brief This function initialize values of command Tag_Set
*/
struct Generic_Cmd *v_tag_set_create(const uint32 node_id,
const uint16 taggroup_id,
const uint16 tag_id,
const uint8 data_type,
const uint8 count,
const void *value)
{
int i, cmd_id;
struct Generic_Cmd *tag_set;
assert(count<=4);
/* Tricky part :-) */
cmd_id = CMD_TAG_SET_UINT8 + 4*(data_type-1) + (count-1);
tag_set = (struct Generic_Cmd *)malloc(UINT8_SIZE +
cmd_struct[cmd_id].size);
if(tag_set == NULL) {
return NULL;
}
tag_set->id = cmd_id;
UINT32(tag_set->data[0]) = node_id;
UINT16(tag_set->data[UINT32_SIZE]) = taggroup_id;
UINT16(tag_set->data[UINT32_SIZE + UINT16_SIZE]) = tag_id;
switch(data_type) {
case VRS_VALUE_TYPE_UINT8:
for(i=0; i<count; i++) {
UINT8(tag_set->data[UINT32_SIZE + UINT16_SIZE + UINT16_SIZE + i*INT8_SIZE]) = ((uint8*)value)[i];
}
break;
case VRS_VALUE_TYPE_UINT16:
for(i=0; i<count; i++) {
UINT16(tag_set->data[UINT32_SIZE + UINT16_SIZE + UINT16_SIZE + i*INT16_SIZE]) = ((uint16*)value)[i];
}
break;
case VRS_VALUE_TYPE_UINT32:
for(i=0; i<count; i++) {
UINT32(tag_set->data[UINT32_SIZE + UINT16_SIZE + UINT16_SIZE + i*INT32_SIZE]) = ((uint32*)value)[i];
}
break;
case VRS_VALUE_TYPE_UINT64:
for(i=0; i<count; i++) {
UINT64(tag_set->data[UINT32_SIZE + UINT16_SIZE + UINT16_SIZE + i*INT64_SIZE]) = ((uint64*)value)[i];
}
break;
case VRS_VALUE_TYPE_REAL16:
for(i=0; i<count; i++) {
REAL16(tag_set->data[UINT32_SIZE + UINT16_SIZE + UINT16_SIZE + i*REAL16_SIZE]) = ((real16*)value)[i];
}
break;
case VRS_VALUE_TYPE_REAL32:
for(i=0; i<count; i++) {
REAL32(tag_set->data[UINT32_SIZE + UINT16_SIZE + UINT16_SIZE + i*REAL32_SIZE]) = ((real32*)value)[i];
}
break;
case VRS_VALUE_TYPE_REAL64:
for(i=0; i<count; i++) {
REAL64(tag_set->data[UINT32_SIZE + UINT16_SIZE + UINT16_SIZE + i*REAL64_SIZE]) = ((real64*)value)[i];
}
break;
case VRS_VALUE_TYPE_STRING8:
assert((char*)value != NULL);
{
char *name = (char*)value;
size_t string8_len = strlen(name);
/* The length of the name can't be longer then 255 bytes. Crop it, when it
* is necessary */
if(string8_len > VRS_STRING8_MAX_SIZE) {
v_print_log(VRS_PRINT_WARNING, "Cropping string8 %s(length:%d) to length: %d\n",
name, string8_len, VRS_STRING8_MAX_SIZE);
string8_len = VRS_STRING8_MAX_SIZE;
}
PTR(tag_set->data[UINT32_SIZE + UINT16_SIZE + UINT16_SIZE]) = strndup(name, string8_len);
}
break;
}
return tag_set;
}
inline UINT32 field_to_sample_number(const movie_info &info, UINT32 field)
{
return (UINT64(info.samplerate) * UINT64(field) * UINT64(1000000) + info.iframerate - 1) / UINT64(info.iframerate);
}
DWORD addFileToListView (HWND hDlg, WIN32_FIND_DATA* findData, UINT itemId, LVITEM* lvI)
{
SYSTEMTIME stUTC;
SYSTEMTIME stLocal;
TCHAR str1 [MAX_PATH];
TCHAR* tmpStr1;
if (lstrcmp(findData->cFileName, L".") == 0)
{
return FM_AFTLV_NO;
}
// Занести данные из findData
lvI->lParam = (LPARAM) fmLocalAlloc (sizeof(WIN32_FIND_DATA));
CopyMemory ((VOID*)lvI->lParam, (const VOID*) findData, sizeof (WIN32_FIND_DATA));
// Создать новую строку
lvI->iSubItem = 0;
lvI->pszText[0] = L'\0';
lvI->mask = LVIF_PARAM;
SendDlgItemMessage (hDlg, itemId, LVM_INSERTITEM, (WPARAM)0, (LPARAM)lvI);
lvI->mask = LVIF_TEXT;
// Файл или папка
if (findData->dwFileAttributes & FILE_ATTRIBUTE_DIRECTORY)
{
// если папка
lvI->iSubItem = FM_COLUMN_NAME;
lstrcpy (lvI->pszText, findData->cFileName);
SendDlgItemMessage(hDlg, itemId, LVM_SETITEM, (WPARAM)0, (LPARAM)lvI);
lvI->iSubItem = FM_COLUMN_TYPE;
lstrcpy (lvI->pszText, FM_DIRTYPE_STUB);
SendDlgItemMessage(hDlg, itemId, LVM_SETITEM, (WPARAM)0, (LPARAM)lvI);
}
else
{
// Если файл, то тип файла
lvI->iSubItem = FM_COLUMN_TYPE;
tmpStr1 = lstrrchr (findData->cFileName, L'.');
if (tmpStr1 != NULL)
{
++ tmpStr1;
lstrcpy (lvI->pszText, tmpStr1);
SendDlgItemMessage (hDlg, itemId, LVM_SETITEM, (WPARAM)0, (LPARAM)lvI);
}
// имя файла
lvI->iSubItem = FM_COLUMN_NAME;
lstrcpy (lvI->pszText, findData->cFileName);
lcutrchr (lvI->pszText, L'.');
SendDlgItemMessage(hDlg, itemId, LVM_SETITEM, (WPARAM)0, (LPARAM)lvI);
// размер файла
UINT64 fs = findData->nFileSizeLow | (UINT64(findData->nFileSizeHigh) << 32);
StrFormatByteSize (LONGLONG(fs), str1, sizeof (str1) / sizeof (str1[0]));
lvI->iSubItem = FM_COLUMN_SIZE;
lstrcpy (lvI->pszText, str1);
SendDlgItemMessage (hDlg, itemId, LVM_SETITEM, (WPARAM)lvI->iItem, (LPARAM)lvI);
}
// Дата файла или папки
lvI->iSubItem = FM_COLUMN_DATE;
FileTimeToSystemTime(&findData->ftLastWriteTime, &stUTC);
SystemTimeToTzSpecificLocalTime(NULL, &stUTC, &stLocal);
wsprintf(str1, L"%02u-%02u-%02u %02u:%02u", stLocal.wYear, stLocal.wMonth,
stLocal.wDay, stLocal.wHour, stLocal.wMinute);
lstrcpy (lvI->pszText, str1);
SendDlgItemMessage (hDlg, itemId, LVM_SETITEM, (WPARAM)0, (LPARAM)lvI);
return FM_AFTLV_OK;
}
inline UINT64 ConvertToAudioTime(DWORD timestamp, UINT64 minVal)
{
UINT val = UINT64(timestamp)*App->GetSampleRateHz()/1000;
return MAX(val, minVal);
}
bool MMDeviceAudioSource::GetNextBuffer(void **buffer, UINT *numFrames, QWORD *timestamp)
{
UINT captureSize = 0;
bool bFirstRun = true;
HRESULT hRes;
UINT64 devPosition, qpcTimestamp;
LPBYTE captureBuffer;
UINT32 numFramesRead;
DWORD dwFlags = 0;
while (true) {
if (inputBufferSize >= sampleWindowSize*GetChannelCount()) {
if (bFirstRun) {
lastQPCTimestamp += 10;
} else if (bIsMic && !bUseQPC) {
captureSize = 0;
mmCapture->GetNextPacketSize(&captureSize);
//throws away worthless mic data that's sampling faster than the desktop buffer.
//disgusting fix for stupid worthless mic issues.
if (captureSize > 0) {
++numTimesInARowNewDataSeen;
if (numTimesInARowNewDataSeen > angerThreshold) {
if (SUCCEEDED(mmCapture->GetBuffer(&captureBuffer, &numFramesRead, &dwFlags, &devPosition, &qpcTimestamp))) {
mmCapture->ReleaseBuffer(numFramesRead);
numTimesInARowNewDataSeen = 0;
}
}
} else {
numTimesInARowNewDataSeen = 0;
}
}
firstTimestamp = GetTimestamp(lastQPCTimestamp);
break;
}
//---------------------------------------------------------
hRes = mmCapture->GetNextPacketSize(&captureSize);
if (FAILED(hRes)) {
RUNONCE AppWarning(TEXT("MMDeviceAudioSource::GetBuffer: GetNextPacketSize failed, result = %08lX"), hRes);
return false;
}
if (!captureSize)
return false;
//---------------------------------------------------------
hRes = mmCapture->GetBuffer(&captureBuffer, &numFramesRead, &dwFlags, &devPosition, &qpcTimestamp);
if (FAILED(hRes)) {
RUNONCE AppWarning(TEXT("MMDeviceAudioSource::GetBuffer: GetBuffer failed, result = %08lX"), hRes);
return false;
}
UINT totalFloatsRead = numFramesRead*GetChannelCount();
if (bConvert) {
if (convertBuffer.Num() < totalFloatsRead)
convertBuffer.SetSize(totalFloatsRead);
short *shortBuffer = (short*)captureBuffer;
for (UINT i = 0; i < totalFloatsRead; i++)
convertBuffer[i] = float(shortBuffer[i])*(1.0f/32767.0f);
captureBuffer = (LPBYTE)convertBuffer.Array();
}
if (inputBufferSize) {
double timeAdjust = double(inputBufferSize/GetChannelCount());
timeAdjust /= (double(GetSamplesPerSec())*0.0000001);
qpcTimestamp -= UINT64(timeAdjust);
}
qpcTimestamp /= 10000;
lastQPCTimestamp = qpcTimestamp;
//---------------------------------------------------------
UINT newInputBufferSize = inputBufferSize + totalFloatsRead;
if (newInputBufferSize > inputBuffer.Num())
inputBuffer.SetSize(newInputBufferSize);
mcpy(inputBuffer.Array()+inputBufferSize, captureBuffer, totalFloatsRead*sizeof(float));
inputBufferSize = newInputBufferSize;
mmCapture->ReleaseBuffer(numFramesRead);
bFirstRun = false;
}
*numFrames = sampleWindowSize;
*buffer = (void*)inputBuffer.Array();
*timestamp = firstTimestamp;
/*if (bIsMic) {
static QWORD lastTimestamp = 0;
if (firstTimestamp != lastTimestamp+10)
Log(TEXT("A: %llu, difference: %llu"), firstTimestamp, firstTimestamp-lastTimestamp);
lastTimestamp = firstTimestamp;
}*/
return true;
}
int huffman_context_base::build_tree(UINT32 totaldata, UINT32 totalweight)
{
// make a list of all non-zero nodes
std::vector<node_t *> list(m_numcodes * 2);
int listitems = 0;
memset(m_huffnode, 0, m_numcodes * sizeof(m_huffnode[0]));
for (int curcode = 0; curcode < m_numcodes; curcode++)
if (m_datahisto[curcode] != 0)
{
list[listitems++] = &m_huffnode[curcode];
m_huffnode[curcode].m_count = m_datahisto[curcode];
m_huffnode[curcode].m_bits = curcode;
// scale the weight by the current effective length, ensuring we don't go to 0
m_huffnode[curcode].m_weight = UINT64(m_datahisto[curcode]) * UINT64(totalweight) / UINT64(totaldata);
if (m_huffnode[curcode].m_weight == 0)
m_huffnode[curcode].m_weight = 1;
}
/*
fprintf(stderr, "Pre-sort:\n");
for (int i = 0; i < listitems; i++) {
fprintf(stderr, "weight: %d code: %d\n", list[i]->m_weight, list[i]->m_bits);
}
*/
// sort the list by weight, largest weight first
qsort(&list[0], listitems, sizeof(list[0]), tree_node_compare);
/*
fprintf(stderr, "Post-sort:\n");
for (int i = 0; i < listitems; i++) {
fprintf(stderr, "weight: %d code: %d\n", list[i]->m_weight, list[i]->m_bits);
}
fprintf(stderr, "===================\n");
*/
// now build the tree
int nextalloc = m_numcodes;
while (listitems > 1)
{
// remove lowest two items
node_t &node1 = *list[--listitems];
node_t &node0 = *list[--listitems];
// create new node
node_t &newnode = m_huffnode[nextalloc++];
newnode.m_parent = nullptr;
node0.m_parent = node1.m_parent = &newnode;
newnode.m_weight = node0.m_weight + node1.m_weight;
// insert into list at appropriate location
int curitem;
for (curitem = 0; curitem < listitems; curitem++)
if (newnode.m_weight > list[curitem]->m_weight)
{
memmove(&list[curitem+1], &list[curitem], (listitems - curitem) * sizeof(list[0]));
break;
}
list[curitem] = &newnode;
listitems++;
}
// compute the number of bits in each code, and fill in another histogram
int maxbits = 0;
for (int curcode = 0; curcode < m_numcodes; curcode++)
{
node_t &node = m_huffnode[curcode];
node.m_numbits = 0;
node.m_bits = 0;
// if we have a non-zero weight, compute the number of bits
if (node.m_weight > 0)
{
// determine the number of bits for this node
for (node_t *curnode = &node; curnode->m_parent != nullptr; curnode = curnode->m_parent)
node.m_numbits++;
if (node.m_numbits == 0)
node.m_numbits = 1;
// keep track of the max
maxbits = MAX(maxbits, node.m_numbits);
}
}
return maxbits;
}
void vmsTrafficUsageModeMgr::ProcessManageForSpeedItems_updateSpeeds(bool bForDownload)
{
LOGFN ("vmsTrafficUsageModeMgr::ProcessManageForSpeedItems_updateSpeeds");
UINT64 uTotalInternetSpeed = 0;
bool bAtLeast1UsesInternet = false;
for (size_t i = 0; i < m_vpManageForSpeed.size (); i++)
{
ManageForSpeedItemsList *pList = m_vpManageForSpeed [i];
UINT64 uListTotalInternetSpeed = 0;
for (size_t j = 0; j < pList->vItems.size (); j++)
{
ManageForSpeedItem *pItem = &pList->vItems [j];
if (pItem->pDldr->isRequiresTraffic (bForDownload))
{
UINT64 uSpeed = pItem->pDldr->getSpeed (bForDownload);
pItem->getData (bForDownload).vSpeed.AddValue (uSpeed);
if (pItem->pDldr->isInternetTraffic (bForDownload))
{
bAtLeast1UsesInternet = true;
uListTotalInternetSpeed += uSpeed;
}
}
else
{
if (!pItem->getData (bForDownload).vSpeed.empty ())
pItem->getData (bForDownload).vSpeed.clear ();
}
}
pList->vTotalSpeed.AddValue (uListTotalInternetSpeed);
uTotalInternetSpeed += uListTotalInternetSpeed;
}
NetworkStat& ns = refgetNetworkStat (bForDownload);
if (m_enCurrentTUM != TUM_HEAVY)
{
ns.tcTrafficGoesInHeavyModeFrom = 0;
}
else
{
if (!uTotalInternetSpeed)
{
ns.tcTrafficGoesInHeavyModeFrom = 0;
}
else
{
UINT64 tcNow = vmsTickCount::GetTickCount64 ();
if (!ns.tcTrafficGoesInHeavyModeFrom)
ns.tcTrafficGoesInHeavyModeFrom = tcNow;
if (tcNow - ns.tcTrafficGoesInHeavyModeFrom > 3*60*1000)
ns.tcHeavyModeWorkedEnoughUntil = tcNow;
}
}
vmsAUTOLOCKSECTION (m_csMisc);
if (bAtLeast1UsesInternet)
ns.vTotalSpeed.AddValue (uTotalInternetSpeed);
UINT64 uTotalMaxSpeed = ns.vTotalSpeed.getMaximumValue ();
if (uTotalMaxSpeed != UINT64_MAX)
{
if (ns.uConnectionBandwidth == UINT64_MAX)
{
if (uTotalMaxSpeed > ns.bandwidthMeasureStart.uMaxValue)
{
if (uTotalMaxSpeed > UINT64 (ns.bandwidthMeasureStart.uMaxValue*1.1))
ns.bandwidthMeasureStart.cNonZeroTotalSpeeds = 0;
ns.bandwidthMeasureStart.uMaxValue = uTotalMaxSpeed;
}
if (uTotalMaxSpeed)
ns.bandwidthMeasureStart.cNonZeroTotalSpeeds++;
if (ns.bandwidthMeasureStart.cNonZeroTotalSpeeds >= 10)
ns.uConnectionBandwidth = ns.bandwidthMeasureStart.uMaxValue;
}
else if (ns.uConnectionBandwidth < uTotalMaxSpeed)
{
ns.uConnectionBandwidth = uTotalMaxSpeed;
}
}
}
uint64 adv(uint64 x)
{
return (a*x+b) & ((UINT64(1)<<48)-1);
}
UINT64 h8_sci_device::internal_update(UINT64 current_time)
{
UINT64 event = 0;
switch(clock_mode) {
case CLKM_INTERNAL_SYNC_OUT:
if(clock_state || !clock_value) {
UINT64 fp = divider*2;
if(current_time >= clock_base) {
UINT64 delta = current_time - clock_base;
if(delta >= fp) {
delta -= fp;
clock_base += fp;
}
assert(delta < fp);
bool new_clock = delta >= divider;
if(new_clock != clock_value) {
cpu->synchronize();
if((!new_clock) && (clock_state & CLK_TX))
tx_dropped_edge();
else if(new_clock && (clock_state & CLK_RX))
rx_raised_edge();
clock_value = new_clock;
if(clock_state || clock_value)
clk_cb(clock_value);
}
}
event = clock_base + (clock_value ? fp : divider);
}
break;
case CLKM_INTERNAL_ASYNC:
case CLKM_INTERNAL_ASYNC_OUT:
if(clock_state || !clock_value) {
UINT64 fp = divider*16;
if(current_time >= clock_base) {
UINT64 delta = current_time - clock_base;
if(delta >= fp) {
delta -= fp;
clock_base += fp;
}
assert(delta < fp);
bool new_clock = delta >= divider*8;
if(new_clock != clock_value) {
cpu->synchronize();
if((!new_clock) && (clock_state & CLK_TX))
tx_dropped_edge();
else if(new_clock && (clock_state & CLK_RX))
rx_raised_edge();
clock_value = new_clock;
if(clock_mode == CLKM_INTERNAL_ASYNC_OUT && (clock_state || !clock_value))
clk_cb(clock_value);
}
}
event = clock_base + (clock_value ? fp : divider*8);
}
break;
case CLKM_EXTERNAL_RATE_SYNC:
if(clock_state || !clock_value) {
UINT64 ctime = UINT64(current_time*internal_to_external_ratio*2);
if(ctime >= clock_base) {
UINT64 delta = ctime - clock_base;
clock_base += delta & ~1;
delta &= 1;
bool new_clock = delta >= 1;
if(new_clock != clock_value) {
cpu->synchronize();
if((!new_clock) && (clock_state & CLK_TX))
tx_dropped_edge();
else if(new_clock && (clock_state & CLK_RX))
rx_raised_edge();
clock_value = new_clock;
}
}
event = UINT64((clock_base + (clock_value ? 2 : 1))*external_to_internal_ratio)+1;
}
break;
case CLKM_EXTERNAL_RATE_ASYNC:
if(clock_state || !clock_value) {
UINT64 ctime = UINT64(current_time*internal_to_external_ratio);
if(ctime >= clock_base) {
UINT64 delta = ctime - clock_base;
clock_base += delta & ~15;
delta &= 15;
bool new_clock = delta >= 8;
if(new_clock != clock_value) {
cpu->synchronize();
if((!new_clock) && (clock_state & CLK_TX))
tx_dropped_edge();
else if(new_clock && (clock_state & CLK_RX))
rx_raised_edge();
clock_value = new_clock;
}
}
event = UINT64((clock_base + (clock_value ? 16 : 8))*external_to_internal_ratio)+1;
}
break;
case CLKM_EXTERNAL_ASYNC:
case CLKM_EXTERNAL_SYNC:
break;;
}
if(event) {
attotime ctime = machine().time();
attotime sync_time = attotime::from_ticks(event-10, cpu->clock());
if(cur_sync_time != sync_time && sync_time > ctime) {
sync_timer->adjust(sync_time - ctime);
cur_sync_time = sync_time;
}
}
return event;
}
UINT64 RangeCheck::HashCode(unsigned lclNum, unsigned ssaNum)
{
assert(ssaNum != SsaConfig::RESERVED_SSA_NUM);
return UINT64(lclNum) << 32 | ssaNum;
}
static imgtoolerr_t rsdos_diskimage_writefile(imgtool_partition *partition, const char *fname, const char *fork, imgtool_stream *sourcef, util::option_resolution *writeoptions)
{
floperr_t ferr;
imgtoolerr_t err;
imgtool_image *img = imgtool_partition_image(partition);
struct rsdos_dirent ent, ent2;
size_t i;
UINT64 sz;
UINT64 freespace = 0;
unsigned char g;
unsigned char *gptr;
UINT8 granule_count;
UINT8 granule_map[MAX_GRANULEMAP_SIZE];
/* can we write to this image? */
if (floppy_is_read_only(imgtool_floppy(img)))
return IMGTOOLERR_READONLY;
err = rsdos_diskimage_freespace(partition, &freespace);
if (err)
return err;
/* is there enough space? */
sz = stream_size(sourcef);
if (sz > freespace)
return IMGTOOLERR_NOSPACE;
/* setup our directory entry */
err = prepare_dirent(&ent, fname);
if (err)
return err;
ent.ftype = writeoptions->lookup_int(RSDOS_OPTIONS_FTYPE);
ent.asciiflag = UINT8(writeoptions->lookup_int(RSDOS_OPTIONS_ASCII)) - 1;
ent.lastsectorbytes_lsb = sz % 256;
ent.lastsectorbytes_msb = (((sz % 256) == 0) && (sz > 0)) ? 1 : 0;
gptr = &ent.first_granule;
ferr = get_granule_map(img, granule_map, &granule_count);
if (ferr)
return imgtool_floppy_error(ferr);
g = 0x00;
do
{
while (granule_map[g] != 0xff)
{
g++;
if ((g >= granule_count) || (g == 0))
return IMGTOOLERR_UNEXPECTED; /* We should have already verified that there is enough space */
}
*gptr = g;
gptr = &granule_map[g];
i = std::min(sz, UINT64(9*256));
err = transfer_to_granule(img, g, i, sourcef);
if (err)
return err;
sz -= i;
/* Go to next granule */
g++;
}
while(sz > 0);
/* Now that we are done with the file, we need to specify the final entry
* in the file allocation table
*/
*gptr = 0xc0 + ((i + 255) / 256);
/* Now we need to find an empty directory entry */
i = -1;
do
{
ferr = get_rsdos_dirent(img, ++i, &ent2);
if (ferr)
return imgtool_floppy_error(ferr);
}
while((ent2.fname[0] != '\0') && strcmp(ent.fname, ent2.fname) && (ent2.fname[0] != -1));
/* delete file if it already exists */
if (ent2.fname[0] && (ent2.fname[0] != -1))
{
err = delete_entry(img, &ent2, i);
if (err)
return err;
}
ferr = put_rsdos_dirent(img, i, &ent);
if (ferr)
return imgtool_floppy_error(ferr);
/* write the granule map back out */
ferr = put_granule_map(img, granule_map, granule_count);
if (ferr)
return imgtool_floppy_error(ferr);
return IMGTOOLERR_SUCCESS;
}