bool Andu::AnduMeshReader::Read( Caca::Mesh* pMesh, QString filePath )
{
QFileInfo fio(filePath);
if(fio.suffix() == "mesh") {
Caca::MeshReader mReader;
mReader.Read(pMesh, filePath);
} else if(fio.suffix() == "obj") {
AnduObjReader objReader;
objReader.ReadIt(filePath);
Caca::Mesh *pReadedMesh = objReader.Mesh();
for(int i = 0; i < pReadedMesh->GetSubMeshCount(); i++) {
Caca::SubMesh* pSubMesh = pReadedMesh->GetSubMesh(i);
pMesh->AddSubMesh(pSubMesh);
}
for(int i = 0; i < pMesh->GetSubMeshCount(); i++) {
pReadedMesh->DeleteSubMesh(pMesh->GetSubMesh(i));
}
}
MeshToolbox::resetSkinningVertexToInit(pMesh);
for(int i = 0; i < pMesh->GetSubMeshCount(); i++) {
Caca::SubMesh* pSM = pMesh->GetSubMesh(i);
WriteLog(QString("mesh: %1 vertexes in submesh %2 loaded").arg(
pSM->GetVertexCount()).arg(i));
}
return true;
}
int handle_decode_arguments(char **argv, Images &images, int quality, int scale) {
char *ext = strrchr(argv[1],'.');
if (!check_compatible_extension(ext)) {
e_printf("Error: expected \".png\", \".pnm\" or \".pam\" file name extension for output file\n");
return 1;
}
FILE *file = fopen(argv[0],"rb");
if(!file)
return 1;
FileIO fio(file, argv[0]);
if (!flif_decode(fio, images, quality, scale)) return 3;
if (scale>1)
v_printf(3,"Downscaling output: %ux%u -> %ux%u\n",images[0].cols(),images[0].rows(),images[0].cols()/scale,images[0].rows()/scale);
if (images.size() == 1) {
if (!images[0].save(argv[1],scale)) return 2;
} else {
int counter=0;
std::vector<char> vfilename(strlen(argv[1])+6);
char *filename = &vfilename[0];
strcpy(filename,argv[1]);
char *a_ext = strrchr(filename,'.');
for (Image& image : images) {
sprintf(a_ext,"-%03d%s",counter++,ext);
if (!image.save(filename,scale)) return 2;
v_printf(2," (%i/%i) \r",counter,(int)images.size()); v_printf(4,"\n");
}
}
v_printf(2,"\n");
return -1;
}
bool encode_flif(int argc, char **argv, Images &images, int palette_size, int acb, flifEncodingOptional method, int lookback, int learn_repeats, int frame_delay, int divisor=CONTEXT_TREE_COUNT_DIV, int min_size=CONTEXT_TREE_MIN_SUBTREE_SIZE, int split_threshold=CONTEXT_TREE_SPLIT_THRESHOLD, int yiq=1, int plc=1) {
bool flat=true;
for (Image &image : images) if (image.uses_alpha()) flat=false;
if (flat && images[0].numPlanes() == 4) {
v_printf(2,"Alpha channel not actually used, dropping it.\n");
for (Image &image : images) image.drop_alpha();
}
bool grayscale=true;
for (Image &image : images) if (image.uses_color()) grayscale=false;
if (grayscale && images[0].numPlanes() == 3) {
v_printf(2,"Chroma not actually used, dropping it.\n");
for (Image &image : images) image.drop_color();
}
uint64_t nb_pixels = (uint64_t)images[0].rows() * images[0].cols();
std::vector<std::string> desc;
if (nb_pixels > 2) { // no point in doing anything for 1- or 2-pixel images
if (plc)
desc.push_back("PLC"); // compactify channels
if (yiq)
desc.push_back("YIQ"); // convert RGB(A) to YIQ(A)
desc.push_back("BND"); // get the bounds of the color spaces
}
if (palette_size < 0) {
palette_size = 1024;
if (nb_pixels * images.size() / 2 < 1024) palette_size = nb_pixels * images.size() / 2;
}
if (palette_size > 0)
desc.push_back("PLA"); // try palette (including alpha)
if (palette_size > 0)
desc.push_back("PLT"); // try palette (without alpha)
if (acb == -1) {
// not specified if ACB should be used
if (nb_pixels * images.size() > 10000) desc.push_back("ACB"); // try auto color buckets on large images
} else if (acb) desc.push_back("ACB"); // try auto color buckets if forced
if (method.o == Optional::undefined) {
// no method specified, pick one heuristically
if (nb_pixels * images.size() < 10000) method.encoding=flifEncoding::nonInterlaced; // if the image is small, not much point in doing interlacing
else method.encoding=flifEncoding::interlaced; // default method: interlacing
}
if (images.size() > 1) {
desc.push_back("DUP"); // find duplicate frames
desc.push_back("FRS"); // get the shapes of the frames
if (lookback != 0) desc.push_back("FRA"); // make a "deep" alpha channel (negative values are transparent to some previous frame)
}
if (learn_repeats < 0) {
// no number of repeats specified, pick a number heuristically
learn_repeats = TREE_LEARN_REPEATS;
if (nb_pixels * images.size() < 5000) learn_repeats--; // avoid large trees for small images
if (learn_repeats < 0) learn_repeats=0;
}
FILE *file = fopen(argv[0],"wb");
if (!file)
return false;
FileIO fio(file, argv[0]);
return flif_encode(fio, images, desc, method.encoding, learn_repeats, acb, frame_delay, palette_size, lookback, divisor, min_size, split_threshold);
}
void data1()
{
hidemouse();
Panel modify;
modify.init(6,56,getmaxx()-5,getmaxy()-7,THIN,IN);;
modify.show();
modify.shape("MODIFY");
Panel move;
move.init(220,120,525,455,OUT,THIN);
move.show( );
move.shape("MODIFY");
showmouse();
settextstyle(0,0,1);
ifstream fio("pro//product",ios::app);
ofstream file("pro//temp",ios::out);
fio.seekg(0);
product s1,s2;
int rno;
char found='f';
char confirm='y';
outtextxy(240,202,"enter prno to append");
boxx(rno,240,222);
while(!fio.eof())
{
fio.read((char*)&s1,sizeof(product));
if(s1.no()==rno)
{
found='t';
if(confirm=='y')
{ s1.display();
s2.appm(s1);
file.write((char*)&s2,sizeof(product));}
confirm='n';
}
else
file.write((char*)&s1,sizeof(product));
}
if(found=='f')
outtextxy(240,242,"record not found");
fio.close();
file.close();
remove("pro//product");
rename("pro//temp","pro//product");
fio.close();
file.close();
}
bool decode_flif(char **argv, Images &images, flif_options &options) {
FILE *file = NULL;
if (!strcmp(argv[0],"-")) file = stdin;
else file = fopen(argv[0],"rb");
if(!file) return false;
FileIO fio(file, (file==stdin ? "from standard input" : argv[0]));
metadata_options md;
md.icc = options.color_profile;
md.xmp = options.metadata;
md.exif = options.metadata;
return flif_decode(fio, images, options, md);
}
void tdelete()
{
ifstream fio("pro//product",ios::app);
ofstream file("pro//temp",ios::out);
fio.seekg(0);
int rno;
char found='f';
char confirm='n';
outtextxy(240,202,"enter prno to be deleted");
boxx(rno,240,222);
int vas=0;
while(!fio.eof())
{
fio.read((char*)&s1,sizeof(product));
if(s1.no()==rno)
{
found='t';
s1.display();
outtextxy(240,322," want to del this file(y/n) ");
if(vas==0)
confirm=getch();
char aop[1]={NULL};
sprintf(aop,"%c",confirm);
outtextxy(240,342,aop);
vas++;
if(confirm=='n')
{ file.write((char*)&s1,sizeof(product));}
}
else
file.write((char*)&s1,sizeof(product));
}//eow
if(found=='f')
outtextxy(240,242,"record not found");
fio.close();
file.close();
remove("pro//product");
rename("pro//temp","pro//product");
fio.close();
file.close();
}
doctorChangeDialog::doctorChangeDialog( QWidget *parent, doctor* doc )
: doc(doc), QDialog(parent)
{
ui.setupUi(this);
QByteArray fio(doc->fio), dolgnost(doc->dolgnost), work(doc->priem);
//QTextCodec *codec = QTextCodec::codecForName("Windows-1251");
QTextCodec *codec = QTextCodec::codecForName("CP866");
QString fioString = codec->toUnicode(fio);
QString dolgnostString = codec->toUnicode(dolgnost);
QString workString = codec->toUnicode(work);
ui.fio->setText( fioString );
ui.cabinet->setText( QString::number( doc->cabinet ) );
ui.speciality->setText( dolgnostString );
ui.workHours->setText( workString );
}
void GPSstuff(char *filename)
{
#if GPSDEBUG
printf("GPS starting...\n");
#endif
//CommDevice GPS("COM1", 0, 115200, 128);
GPS = new CommDevice("COM1", 0, 115200, 180);
#if GPSDEBUG
printf("GPS successfully started...\n");
#endif
GPS->Write("em,,/msg/nmea/RMC:.2\n");
//fio << "Hello world" << endl;
vector<smGPSDatum> GPStars;
char templocGPSbuf[360];
smGPSDatum tempsmGPS;
char prevmode = mode;
while (!escape)
{
//printf("Switching modes...\n");
fstream fio(filename);
if (!fio.is_open())
{
printf("Error: unable to open %s\n", filename);
}
//load the target GPSs
if (mode == AUTOMODE)
{
//printf("auto mode\n (GPS)\n");
while(!fio.eof())
{
//printf("loading target...\n");
smGPSDatum smtemp;
if (loadGPStar(&smtemp, &fio))
{
printf("Loaded Target: Lat: %2.12f, Lon: %3.12f\n", smtemp.latitude, smtemp.longitude);
GPStars.insert(GPStars.begin(), smtemp);
}
}
printf("%d GPS targets loaded.\n", GPStars.size());
}
SetEvent(hTargetsLoaded);
while (!escape)
{
if (mode != prevmode)
{
prevmode = mode;
break;
}
//find terminating null-character
char *tc = strchr(templocGPSbuf, 0);
char *GPSToParse = 0;
#if FORCEGPSINPUT
GPSToParse = new char[256];
sprintf(GPSToParse, "$GNRMC,123519,A,4807.038,N,01131.000,E,022.4,084.4,230394,003.1,W,N*6A");
#else
//DWORD evstatus;
//do
//{
// WaitCommEvent(GPS.hComm, &evstatus, NULL);
//} while (evstatus != EV_RXFLAG);
//printf("starting GPS read\n");
GPS->Read(tc);
//GPS.Read(rawGPSdata, sizeof(rawGPSdata));
int i;
//char *GPSEnd = 0;
for (i = strlen(tc)/*256*/; i > 0 && tc[i] != '\n'; --i);
if (tc[i] == '\n')
{
//printf("\\n at i=%d\n", i);
//GPSEnd = &tc[i];
//tc[i] = 0;
for ( ; i > 0 && tc[i] != '$'; --i);
if (tc[i] == '$')
{
GPSToParse = &tc[i];
//printf("GPSToParse: %s\n", GPSToParse);
}
}
#endif
if (GPSToParse)
{
//strcpy(strrchr(locGPSbuf, 0), rawGPSdata);
#if GPSDEBUG
if (rawGPSdata)
printf("GPS: %s\n", rawGPSdata);
else
printf("Error: rawGPSdata == 0\n");
#endif
//printf("rawGPSdata: %s\n", rawGPSdata);
//printf("Going to parse GPS...\n");
//printf("GPSToParse: %s\n", GPSToParse);
char *cur_pos = strstr(GPSToParse, "$GNRMC");
//printf("cur_pos: %s\n", cur_pos);
if (cur_pos)//strstr(rawGPSdata, "$GNRMC"))
{
//Parse the GPS data from rawGPSdata
//Look for GPS coordinates, etc:
//char *cur_pos;
unsigned char i = 0; //shoud always be less than 255 commas
//printf("looking for a value for cur_pos\n");
cur_pos = strchr(cur_pos, ',');//strchr(rawGPSdata, ',');
GPSDatum curGPS = {0};
//printf("cur_pos: %d\n", cur_pos);
while (cur_pos)
{
double tempd;
cur_pos = strchr(cur_pos, ',');
if (cur_pos)
{
cur_pos++;
switch(++i)
{
case 1: //UTC Time [char*]
memcpy(curGPS.time, cur_pos, 6);
#if GPSDEBUG
printf("time: %s\n", curGPS.time);
#endif
break;
case 2: //Status (A = Active, V = Void) [char]
curGPS.status = (cur_pos && *cur_pos != ',') ? *cur_pos : 0;
#if GPSDEBUG
printf("status: %c\n", curGPS.status);
#endif
if (tolower(curGPS.status) != 'a')
{
//force a break from the loop
cur_pos = 0;
}
break;
case 3: //Latitude [double]
//must convert from DDMM.MMM to DD.DDDD
tempd = atof(cur_pos+2);
curGPS.latitude = ((atof(cur_pos) - tempd)/100.0 + tempd/60.0);
//curGPS.latitude = atof(cur_pos);
break;
case 4: //Latitude N/S [char]
curGPS.latitudeNS = (cur_pos && *cur_pos != ',') ? *cur_pos : 0;
if (tolower(curGPS.latitudeNS) == 's')
{
curGPS.latitude *= -1.0;
}
//#if GPSDEBUG
printf("latitude: %f\n", curGPS.latitude);
//#endif
break;
case 5: //Longitude [double]
//must convert from DDMM.MMM to DD.DDDD
tempd = atof(cur_pos+3);
curGPS.longitude = ((atof(cur_pos) - tempd)/100.0 + tempd/60.0);
//curGPS.longitude = atof(cur_pos);
break;
case 6: //Longitude E/W [char]
curGPS.longitudeEW = (cur_pos && *cur_pos != ',') ? *cur_pos : 0;
if (tolower(curGPS.longitudeEW) == 'w')
{
curGPS.longitude *= -1.0;
}
//#if GPSDEBUG
printf("longitude: %f\n", curGPS.longitude);
//#endif
break;
case 7: //Velocity (knots) [float]
curGPS.velocity = (float)atof(cur_pos);
#if GPSDEBUG
printf("velocity: %f\n", curGPS.velocity);
#endif
break;
case 8: //Heading True North [float]
curGPS.heading = (float)atof(cur_pos);
#if GPSDEBUG
printf("heading: %f\n", curGPS.heading);
#endif
break;
case 9: //UTC Date [char*]
memcpy(curGPS.date, cur_pos, 6);
#if GPSDEBUG
printf("date: %s\n", curGPS.date);
#endif
break;
case 10: //Magnetic Variation [float]
curGPS.magvariation = (float)atof(cur_pos);
#if GPSDEBUG
printf("magvariation: %f\n", curGPS.magvariation);
#endif
break;
case 11: //Magnetic Variation E/W [char]
curGPS.magvariationEW = (cur_pos && *cur_pos != ',') ? *cur_pos : 0;
if (tolower(curGPS.magvariationEW) == 'e')
{
curGPS.magvariation *= -1.0;
}
#if GPSDEBUG
printf("magvariationEW: %c\n", curGPS.magvariationEW);
#endif
break;
case 12: //Checksum [char*]
memcpy(curGPS.checksum, cur_pos, 4);
#if GPSDEBUG
printf("checksum: %s\n", curGPS.checksum);
#endif
break;
}
}
}
if (curGPS.checksum[1] != '*')
{
printf("continuing...\n\a");
goto mylab; //perhaps there is a more elegant way to fix this (?)
//continue; //continue; did not seem to work
}
if (mode != GPSMODE)
{
WaitForSingleObject(mStoreGPS, INFINITE);
if (StoreGPS)
{
smGPSDatum savetempGPSDatum;
savetempGPSDatum.latitude = curGPS.latitude;
savetempGPSDatum.longitude = curGPS.longitude;
saveGPStar(&savetempGPSDatum, &fio);
//store the current GPS location at this point in the code
StoreGPS = false;
printf("GPS Stored!\n");
SetEvent(hStoreGPS); //currently unusued; perhaps later to stop robot until GPS point recorded
}
ReleaseMutex(mStoreGPS);
}
else
{
//it is auto mode
printf("GPStars.size(): %d\n", GPStars.size());
if (curGPSHit)
{
if (GPStars.size())
{
tempsmGPS = GPStars.back();
printf("New GPS Target: Lat: %f, Long: %f\n", tempsmGPS.latitude, tempsmGPS.longitude);
GPStars.pop_back();
curGPSHit = 0;
}
else
{
//all GPS targets have been reached, or no GPS targets remain
printf("Done.\n");
stopmain = true;
}
}
GPSvector tempGPSvec = getvector(&curGPS, &tempsmGPS);
tempGPSvec.curdir = curGPS.heading;
tempGPSvec.magvariation = curGPS.magvariation;
WaitForSingleObject(mGPSData, INFINITE);
//curGPSHit = false;
curGPSvec = tempGPSvec;
//CompassData = atof(rawGPSdata)/10;
//copy to global compass value here
ReleaseMutex(mGPSData);
SetEvent(hNewGPSData);
}
}
}
mylab:
char tempstr[256];
strcpy(tempstr, tc);
memset(templocGPSbuf, 0, sizeof(templocGPSbuf));
strcpy(templocGPSbuf, tempstr);
}
fio.close();
}
}
bool decode_flif(char **argv, Images &images, int quality, int scale, int resize_width, int resize_height) {
FILE *file = fopen(argv[0],"rb");
if(!file) return false;
FileIO fio(file, argv[0]);
return flif_decode(fio, images, quality, scale, resize_width, resize_height);
}
bool encode_flif(int argc, char **argv, Images &images, flif_options &options) {
bool flat=true;
unsigned int framenb=0;
for (Image& i : images) { i.frame_delay = options.frame_delay[framenb]; if (framenb+1 < options.frame_delay.size()) framenb++; }
for (Image &image : images) if (image.uses_alpha()) flat=false;
if (flat && images[0].numPlanes() == 4) {
v_printf(2,"Alpha channel not actually used, dropping it.\n");
for (Image &image : images) image.drop_alpha();
}
bool grayscale=true;
for (Image &image : images) if (image.uses_color()) grayscale=false;
if (grayscale && images[0].numPlanes() == 3) {
v_printf(2,"Chroma not actually used, dropping it.\n");
for (Image &image : images) image.drop_color();
}
uint64_t nb_pixels = (uint64_t)images[0].rows() * images[0].cols();
std::vector<std::string> desc;
if (nb_pixels > 2) { // no point in doing anything for 1- or 2-pixel images
if (options.plc && (images[0].getDepth() > 8 || !options.loss)) {
desc.push_back("Channel_Compact"); // compactify channels (not if lossy, because then loss gets magnified!)
}
if (options.ycocg) {
desc.push_back("YCoCg"); // convert RGB(A) to YCoCg(A)
}
desc.push_back("PermutePlanes"); // permute RGB to GRB
desc.push_back("Bounds"); // get the bounds of the color spaces
}
// only use palette/CB if we're lossless, because lossy and palette don't go well together...
if (options.palette_size == -1) {
options.palette_size = DEFAULT_MAX_PALETTE_SIZE;
if (nb_pixels * images.size() / 3 < DEFAULT_MAX_PALETTE_SIZE) {
options.palette_size = nb_pixels * images.size() / 3;
}
}
if (!options.loss && options.palette_size != 0) {
desc.push_back("Palette_Alpha"); // try palette (including alpha)
desc.push_back("Palette"); // try palette (without alpha)
}
if (!options.loss) {
if (options.acb == -1) {
// not specified if ACB should be used
if (nb_pixels * images.size() > 10000) {
desc.push_back("Color_Buckets"); // try auto color buckets on large images
}
} else if (options.acb) {
desc.push_back("Color_Buckets"); // try auto color buckets if forced
}
}
if (options.method.o == Optional::undefined) {
// no method specified, pick one heuristically
if (nb_pixels * images.size() < 10000) options.method.encoding=flifEncoding::nonInterlaced; // if the image is small, not much point in doing interlacing
else options.method.encoding=flifEncoding::interlaced; // default method: interlacing
}
if (images.size() > 1) {
desc.push_back("Duplicate_Frame"); // find duplicate frames
if (!options.loss) { // only if lossless
if (options.frs) desc.push_back("Frame_Shape"); // get the shapes of the frames
if (options.lookback) desc.push_back("Frame_Lookback"); // make a "deep" alpha channel (negative values are transparent to some previous frame)
}
}
if (options.learn_repeats < 0) {
// no number of repeats specified, pick a number heuristically
options.learn_repeats = TREE_LEARN_REPEATS;
//if (nb_pixels * images.size() < 5000) learn_repeats--; // avoid large trees for small images
if (options.learn_repeats < 0) options.learn_repeats=0;
}
bool result = true;
if (!options.just_add_loss) {
FILE *file = NULL;
if (!strcmp(argv[0],"-")) file = stdout;
else file = fopen(argv[0],"wb");
if (!file) return false;
FileIO fio(file, (file == stdout? "to standard output" : argv[0]));
if (!flif_encode(fio, images, desc, options)) result = false;
} else {
BlobIO bio; // will just contain some unneeded FLIF header stuff
if (!flif_encode(bio, images, desc, options)) result = false;
else if (!images[0].save(argv[0])) result = false;
}
// get rid of palette
images[0].clear();
return result;
}
MessageRef ReadZipFile(const char * fileName, bool loadData)
{
FileDataIO fio(muscleFopen(fileName, "rb"));
return ReadZipFile(fio, loadData);
}
status_t WriteZipFile(const char * fileName, const Message & msg, int compressionLevel, uint64 fileCreationTime)
{
FileDataIO fio(muscleFopen(fileName, "wb"));
return WriteZipFile(fio, msg, compressionLevel, fileCreationTime);
}
bool encode_flif(int argc, char **argv, Images &images, int palette_size, int acb, flifEncodingOptional method, int lookback,
int learn_repeats, std::vector<int> &frame_delay, int divisor=CONTEXT_TREE_COUNT_DIV, int min_size=CONTEXT_TREE_MIN_SUBTREE_SIZE,
int split_threshold=CONTEXT_TREE_SPLIT_THRESHOLD, int yiq=1, int plc=1, int frs=1, int cutoff=2, int alpha=19, int crc_check=-1, int loss=0) {
bool flat=true;
unsigned int framenb=0;
for (Image& i : images) { i.frame_delay = frame_delay[framenb]; if (framenb+1 < frame_delay.size()) framenb++; }
for (Image &image : images) if (image.uses_alpha()) flat=false;
if (flat && images[0].numPlanes() == 4) {
v_printf(2,"Alpha channel not actually used, dropping it.\n");
for (Image &image : images) image.drop_alpha();
}
bool grayscale=true;
for (Image &image : images) if (image.uses_color()) grayscale=false;
if (grayscale && images[0].numPlanes() == 3) {
v_printf(2,"Chroma not actually used, dropping it.\n");
for (Image &image : images) image.drop_color();
}
uint64_t nb_pixels = (uint64_t)images[0].rows() * images[0].cols();
std::vector<std::string> desc;
if (nb_pixels > 2) { // no point in doing anything for 1- or 2-pixel images
if (plc && !loss) {
desc.push_back("Channel_Compact"); // compactify channels (not if lossy, because then loss gets magnified!)
}
if (yiq) {
desc.push_back("YCoCg"); // convert RGB(A) to YCoCg(A)
}
desc.push_back("Bounds"); // get the bounds of the color spaces
}
if (!loss) {
// only use palette/CB if we're lossless, because lossy and palette don't go well together...
if (palette_size == -1) {
palette_size = 1024;
if (nb_pixels * images.size() / 2 < 1024) {
palette_size = nb_pixels * images.size() / 2;
}
}
if (palette_size != 0) {
desc.push_back("Palette_Alpha"); // try palette (including alpha)
}
if (palette_size != 0) {
desc.push_back("Palette"); // try palette (without alpha)
}
if (acb == -1) {
// not specified if ACB should be used
if (nb_pixels * images.size() > 10000) {
desc.push_back("Color_Buckets"); // try auto color buckets on large images
}
} else if (acb) {
desc.push_back("Color_Buckets"); // try auto color buckets if forced
}
}
if (method.o == Optional::undefined) {
// no method specified, pick one heuristically
if (nb_pixels * images.size() < 10000) method.encoding=flifEncoding::nonInterlaced; // if the image is small, not much point in doing interlacing
else method.encoding=flifEncoding::interlaced; // default method: interlacing
}
if (images.size() > 1) {
desc.push_back("Duplicate_Frame"); // find duplicate frames
if (!loss) { // only if lossless
if (frs) desc.push_back("Frame_Shape"); // get the shapes of the frames
if (lookback) desc.push_back("Frame_Lookback"); // make a "deep" alpha channel (negative values are transparent to some previous frame)
}
}
if (learn_repeats < 0) {
// no number of repeats specified, pick a number heuristically
learn_repeats = TREE_LEARN_REPEATS;
if (nb_pixels * images.size() < 5000) learn_repeats--; // avoid large trees for small images
if (learn_repeats < 0) learn_repeats=0;
}
FILE *file = fopen(argv[0],"wb");
if (!file)
return false;
FileIO fio(file, argv[0]);
return flif_encode(fio, images, desc, method.encoding, learn_repeats, acb, palette_size, lookback, divisor, min_size, split_threshold, cutoff, alpha, crc_check, loss);
}
bool handle_encode_arguments(int argc, char **argv, Images &images, int palette_size, int acb, flifEncodingOptional method, int lookback, int learn_repeats, int frame_delay) {
int nb_input_images = argc-1;
while(argc>1) {
Image image;
v_printf(2,"\r");
if (!image.load(argv[0])) {
e_printf("Could not read input file: %s\n", argv[0]);
return 2;
};
images.push_back(std::move(image));
const Image& last_image = images.back();
if (last_image.rows() != images[0].rows() || last_image.cols() != images[0].cols() || last_image.numPlanes() != images[0].numPlanes()) {
e_printf("Dimensions of all input images should be the same!\n");
e_printf(" First image is %ux%u, %i channels.\n",images[0].cols(),images[0].rows(),images[0].numPlanes());
e_printf(" This image is %ux%u, %i channels: %s\n",last_image.cols(),last_image.rows(),last_image.numPlanes(),argv[0]);
return 2;
}
argc--; argv++;
if (nb_input_images>1) {v_printf(2," (%i/%i) ",(int)images.size(),nb_input_images); v_printf(4,"\n");}
}
v_printf(2,"\n");
bool flat=true;
for (Image &image : images) if (image.uses_alpha()) flat=false;
if (flat && images[0].numPlanes() == 4) {
v_printf(2,"Alpha channel not actually used, dropping it.\n");
for (Image &image : images) image.drop_alpha();
}
uint64_t nb_pixels = (uint64_t)images[0].rows() * images[0].cols();
std::vector<std::string> desc;
desc.push_back("YIQ"); // convert RGB(A) to YIQ(A)
desc.push_back("BND"); // get the bounds of the color spaces
if (palette_size > 0)
desc.push_back("PLA"); // try palette (including alpha)
if (palette_size > 0)
desc.push_back("PLT"); // try palette (without alpha)
if (acb == -1) {
// not specified if ACB should be used
if (nb_pixels > 10000) desc.push_back("ACB"); // try auto color buckets on large images
} else if (acb) desc.push_back("ACB"); // try auto color buckets if forced
if (method.o == Optional::undefined) {
// no method specified, pick one heuristically
if (nb_pixels < 10000) method.encoding=flifEncoding::nonInterlaced; // if the image is small, not much point in doing interlacing
else method.encoding=flifEncoding::interlaced; // default method: interlacing
}
if (images.size() > 1) {
desc.push_back("DUP"); // find duplicate frames
desc.push_back("FRS"); // get the shapes of the frames
if (lookback != 0) desc.push_back("FRA"); // make a "deep" alpha channel (negative values are transparent to some previous frame)
}
if (learn_repeats < 0) {
// no number of repeats specified, pick a number heuristically
learn_repeats = TREE_LEARN_REPEATS;
if (nb_pixels < 5000) learn_repeats--; // avoid large trees for small images
if (learn_repeats < 0) learn_repeats=0;
}
FILE *file = fopen(argv[0],"wb");
if (!file)
return false;
FileIO fio(file, argv[0]);
return flif_encode(fio, images, desc, method.encoding, learn_repeats, acb, frame_delay, palette_size, lookback);
}