int
PokerData::GetUserIdByName(_String sUserName){
if( !m_pDataMan || !m_pDataMan->IsOpen() || sUserName.IsEmpty() )
return 0;
_String sSQL;
sSQL.Format(_T("SELECT ID from dbo.TB_USER where [USER_NAME] = '%s'"), sUserName.GetBuffer());
EnumerableObject<PokerUser> listUsers;
if( m_pDataMan->LoadTableBySql((EnumerableObject<Serializable>*)&listUsers, sSQL, true) ){
PokerUser* pUser = listUsers.GetAt(0);
return pUser->m_nId; // UserId
}
return 0;
}
//__________________________________________________________________
void _HYPlatformPullDown::_AddMenuItem (_String& newItem, long index)
{
if (theMenu) {
GList * singleItem = g_list_alloc();
singleItem->prev = singleItem->next = nil;
if (newItem.Equal(&menuSeparator)) {
GtkWidget * itemContents = gtk_separator_menu_item_new ();
gtk_widget_show (itemContents);
singleItem->data = gtk_list_item_new();
gtk_container_add((GtkContainer*)singleItem->data,itemContents);
gtk_combo_set_item_string (GTK_COMBO (theMenu), GTK_ITEM (singleItem->data), "");
gtk_widget_set_sensitive((GtkWidget*)singleItem->data,false);
widgetList.InsertElement ((BaseRef)itemContents,2*index,false,false);
} else {
_String inItem = newItem;
if (newItem.beginswith ("(")) {
inItem.Trim (1,-1);
}
GtkWidget * itemContents = gtk_menu_item_new_with_label (inItem.sData);
gtk_widget_show (itemContents);
singleItem->data = gtk_list_item_new();
gtk_container_add((GtkContainer*)singleItem->data,itemContents);
gtk_combo_set_item_string (GTK_COMBO (theMenu), GTK_ITEM (singleItem->data), inItem.sData);
gtk_widget_set_sensitive((GtkWidget*)singleItem->data,inItem.sLength == newItem.sLength);
widgetList.InsertElement ((BaseRef)itemContents,2*index,false,false);
}
widgetList.InsertElement ((BaseRef)singleItem->data,2*index,false,false);
GdkColor convColor = HYColorToGDKColor(_hyGTKMenuBackground);
gtk_widget_modify_bg ((GtkWidget*)singleItem->data, GTK_STATE_INSENSITIVE,
&convColor);
gtk_widget_show ((GtkWidget*)singleItem->data);
if (index<0) {
gtk_list_append_items (GTK_LIST (GTK_COMBO (theMenu)->list), singleItem);
} else {
gtk_list_insert_items (GTK_LIST (GTK_COMBO (theMenu)->list), singleItem, index);
}
/*printf ("\nAdding menu item %s at %d\n", newItem.sData, index);
for (long k = 0; k<widgetList.lLength; k++)
printf ("%d %s\n", k, GTK_OBJECT_TYPE_NAME (GTK_WIDGET (widgetList(k))));*/
}
if (((_HYPullDown*)this)->MenuItemCount()==1||selection==index) {
cbSelection = -1;
_RefreshComboBox();
}
}
//__________________________________________________________________
void _HYGraphicPane::DrawInfoBox (_HYRect theBox, _String boxName)
{
long stringWidth,
avWidth = theBox.right-theBox.left-20;
theBox.width = 1;
DrawRect (theBox);
if (boxName.sLength)
{
stringWidth = GetVisibleStringWidth (boxName, font);
while (stringWidth>avWidth && boxName.sLength)
{
boxName.Trim (0, boxName.sLength-2);
stringWidth = GetVisibleStringWidth (boxName, font);
}
// measure string length
_HYRect textRect = theBox;
textRect.left += 8;
textRect.right = textRect.left+stringWidth+4;
textRect.top-=6;
textRect.bottom = textRect.top+9;
EraseRect (textRect);
DisplayText (boxName, textRect.bottom, textRect.left+2, true);
}
}
bool PushFilePath (_String& pName, bool trim)
{
char c = GetPlatformDirectoryChar();
long f = pName.FindBackwards(_String(c),0,-1);
if (f>=0) {
_String newP = pName.Cut(0,f);
pathNames && & newP;
if (trim)
pName.Trim (f+1,-1);
return true;
} else if (pathNames.lLength) {
pathNames && pathNames(pathNames.lLength-1);
} else {
pathNames && & empty;
}
return false;
}
inline bool getline (_Stream &stream_, _String &line_, const _String &delim_ =
ax::util::to_string<typename _String::value_type> ("\r\n"))
{
std::array<_Ctype, 2048> temp_;
line_ = _String ();
auto avail_ = decltype (stream_.peek (temp_.data (), temp_.size ())) {};
while ((avail_ = stream_.peek (temp_.data (), temp_.size ())) > 0) {
auto sbuff_ = _String (temp_.data (), avail_);
auto stpos_ = sbuff_.find (delim_);
if (stpos_ != sbuff_.npos) {
auto trunc_ = stpos_ + delim_.size ();
line_.append (temp_.data (), stpos_);
stream_.ignore (trunc_);
return true;
}
stream_.ignore (avail_);
line_.append (temp_.data (), avail_);
}
return false;
}
long StoreDataFilter (_String const& name, _DataSetFilter* object, bool handle_errors) {
if (name.IsValidIdentifier(true)) {
long exists_already = FindDataFilter(name);
/*printf ("[StoreDataFilter] %s %d\n", name.sData, exists_already);
_SimpleList history;
long locked_index = _data_filter_locks.Next (-1, history);
while (locked_index >= 0) {
printf ("\tLOCKED %s\n", GetFilterName((long)_data_filter_locks.Retrieve(locked_index))->sData);
locked_index = _data_filter_locks.Next (locked_index, history);
} */
if (exists_already >= 0L) {
if (_IsObjectLocked(exists_already, HY_BL_DATASET_FILTER)) {
if (handle_errors) {
WarnError (_String ("DataSetFilter ") & name.Enquote() & " could not be created because an existing filter of the same name is locked");
}
return -1;
}
//DeleteObject ((_DataSetFilter*)_data_filters.GetXtra (exists_already));
_data_filters.SetXtra(exists_already, object, false); // this will delete the existing object
_NotifyDataFilterListeners (exists_already, kNotificationTypeChange);
} else {
exists_already = _data_filters.Insert (new _String(name), (long)object, false, false);
}
_SetDataFilterParameters (name, *object);
return exists_already;
} else {
if (handle_errors) {
WarnError (_String ("The name ") & name.Enquote() & " is not a valid HyPhy id in call to " & __PRETTY_FUNCTION__);
}
}
return -1;
}
void StringToConsole (_String & s)
{
#ifdef __HYPHYMPI__
if (_hy_mpi_node_rank == 0)
#endif
{
#ifdef __HEADLESS__
if (globalInterfaceInstance)
globalInterfaceInstance->PushOutString(&s);
#else
printf ("%s",s.getStr());
#endif
}
}
void WriteBitsToString (_String&s, long& bitAt, char lengthToWrite)
{
long leftOver = 8-bitAt%8, curPos = bitAt/8;
if (leftOver >= lengthToWrite) { // will fit in current byte
unsigned char value = s.getUChar(curPos);
value += powersOf2[leftOver-1]-powersOf2[leftOver-lengthToWrite];
s[curPos]=value;
} else {
unsigned char value = (unsigned char)s[curPos];
value += powersOf2[leftOver-1]+1;
s[curPos]=value;
char fullBytes = (lengthToWrite-leftOver-1)/8;
while (fullBytes) {
s[++curPos]=255;
fullBytes--;
}
s[++curPos]=254-powersOf2[8-(lengthToWrite-leftOver)%8];
}
bitAt+=lengthToWrite;
}
_Parameter _CString::FrequencyCompress(unsigned char theAlpha,bool doit)
{
_String* theAlphabet = SelectAlpha (theAlpha);
if (theAlphabet->sLength>31) {
return 1.; // can't do much - the alphabet is too large
}
char codeLength[256];
long freqs [256],j,t;
long maxOccurences[256], locationsOfMaxSymbols[256] ; //simply ensures that we
// won't have symbols out of the alphabet
//analyze the frequency distribution of alphabetic symbols
for (j=0; j<256; freqs[j]=0,codeLength[j]=0,maxOccurences[j]=0, j++ ) {}
for (j=0; j<sLength; j++) {
freqs[getUChar(j)]++;
}
t = 0;
for (j=0; j<theAlphabet->sLength; j++) {
freqs[NuclAlphabet.getUChar(j)]*=-1;
}
//make sure that the alphabet is "large" enough for the nucleotide case
// NEW 03/29/98
for (j=0; j<256; j++)
if (freqs[j]>0) {
t = 1;
break;
} else {
freqs[j]*=-1;
}
if (t) {
if (theAlphabet == &NuclAlphabet) {
return FrequencyCompress (FULLNUCLALPHABET, doit);
} else {
return 1;
}
}
// now build the prefix code for the alphabet
// fisrt find four most frequently occurring symbols
for (j=0; j<(*theAlphabet).sLength; j++) {
for (long k = 0; k<(*theAlphabet).sLength; k++)
if (freqs[theAlphabet->getUChar(j)]>=maxOccurences[k]) {
for (long l=(*theAlphabet).sLength-1; l>=k+1; l--) {
maxOccurences[l]=maxOccurences[l-1];
locationsOfMaxSymbols[l]=locationsOfMaxSymbols[l-1];
}
maxOccurences[k]=freqs[theAlphabet->getUChar(j)];
locationsOfMaxSymbols[k]=(*theAlphabet)[j];
break;
}
}
// compute efficiency
//j will store the predicted bit length of the compressed string
j = (*theAlphabet).sLength*5; // translation table size
j=8*((j%8)?(j/8+1):j/8);
// we are also ready to build the code table
for (long k = 0; k<(*theAlphabet).sLength; k++) {
long l;
for (l=0; l<(*theAlphabet).sLength; l++)
if ((*theAlphabet)[k]==locationsOfMaxSymbols[l]) {
j+=(l+1)*freqs[theAlphabet->getUChar(k)];
codeLength [locationsOfMaxSymbols[l]] = l+1;
break;
}
}
// if (j>Length()*8) return 1;
// no compression could be performed
if (!doit) {
return j/8.0/sLength;
}
_String result ((unsigned long)(j%8?j/8+1:j/8)); // allocate output string
// let's roll!!
long csize = 0; //will indicate the current bit position in the target string
t = 0; // current position in the string
//first we must write out the encoding table as 5 bits of length per each
for (j=0; j<(*theAlphabet).sLength; j++, csize+=5, t = csize/8) {
long leftover = 8-csize%8;
if (leftover>=5) {
unsigned char value = result[t];
switch (leftover) {
case 5:
value+=codeLength[theAlphabet->getUChar(j)];
break;
case 6:
value+=codeLength[theAlphabet->getUChar(j)]*2;
break;
case 7:
value+=codeLength[theAlphabet->getUChar(j)]*4;
break;
default:
value+=codeLength[theAlphabet->getUChar(j)]*8;
}
result[t]=value;
} else {
result[t]+=codeLength[theAlphabet->getUChar(j)]/realPowersOf2[5-leftover];
result[++t]=(codeLength[theAlphabet->getUChar(j)]%realPowersOf2[5-leftover])*realPowersOf2[3+leftover];
}
}
// result[++t]=0;
// mark the end of tabular encoding
t++;
// now encode the actual sequence
t*=8;
//t+=8;
for (j=0; j<sLength; j++) {
WriteBitsToString (result,t,codeLength[(unsigned char)sData[j]]);
}
// pad the rest of the last byte in the string by ones
if (t%8) {
unsigned char value = result [t/8];
value += powersOf2[7-t%8]+1;
result[t/8]=value;
t++;
}
// yahoo! we are done - store compression flag and replace the string with compressed string
_Parameter factor = result.sLength/(_Parameter)sLength;
if (factor<1) { // compression took place
DuplicateErasing(&result);
SetFlag( FREQCOMPRESSION);
SetFlag (theAlpha);
}
return factor;
}
char* _THyPhyGetStringStatus (void)
{
return _tHYPHYCurrentStatus.getStr();
}