//つぶやくボタン
void TweetDialog::on_tweetButton_clicked()
{
//認証済みか確認
if(user_id().length() == 0)
return;
//画像が指定されてるか
if(!QFile::exists(imagePath()))
return;
//画像のバイナリデータを読み込む
QFile file(imagePath());
if(!file.open(QIODevice::ReadOnly))
return;
QDataStream in(&file);
QByteArray imagedata(in.device()->readAll());
file.close();
// qDebug() << "image:" << imagedata.length() << "," << imagePath();
//つぶやく
QVariantMap map;
QVariantList list;
list.append(imagedata);
QStringList slist;
slist.append(imagePath());
map.insert("status", ui->tweetTextEdit->document()->toPlainText());
map.insert("media", slist);
m_status.updateStatuses(map);
//消す
ui->tweetTextEdit->clear();
setImagePath("");
close();
}
///< The function evaluates SH functions and dumps values to latitude-longitude map
void ShEvaluateAndDump(ImageIo& io, std::string const& filename, int width, int height, int lmax, float3 const* coeffs)
{
// Prepare image memory
std::vector<float> imagedata(width * height * 3);
// Allocate space for SH functions
std::vector<float> ylm(NumShTerms(lmax));
// Precalculate sin and cos terms
std::vector<float> sintheta(height);
std::vector<float> costheta(height);
std::vector<float> sinphi(width);
std::vector<float> cosphi(width);
float thetastep = PI / height;
float phistep = 2.f*PI / width;
float theta0 = PI / height / 2;
float phi0= 2.f*PI / width / 2;
for (int i = 0; i < width; ++i)
{
sinphi[i] = std::sin(phi0 + i * phistep);
cosphi[i] = std::cos(phi0 + i * phistep);
}
for (int i = 0; i < height; ++i)
{
sintheta[i] = std::sin(theta0 + i * thetastep);
costheta[i] = std::cos(theta0 + i * thetastep);
}
// Iterate thru image pixels
for (int phi = 0; phi < width; ++phi)
{
for (int theta = 0; theta < height; ++theta)
{
// Calculate direction
float3 w = normalize(float3(sintheta[theta] * cosphi[phi], costheta[theta], sintheta[theta] * sinphi[phi]));
// Evaluate SH functions at w up to lmax band
ShEvaluate(w, lmax, &ylm[0]);
// Evaluate function injecting SH coeffs
for (int i = 0; i < NumShTerms(lmax); ++i)
{
imagedata[theta * width * 3 + phi * 3] += ylm[i] * coeffs[i].x;
imagedata[theta * width * 3 + phi * 3 + 1] += ylm[i] * coeffs[i].y;
imagedata[theta * width * 3 + phi * 3 + 2] += ylm[i] * coeffs[i].z;
}
}
}
// Write image to file
ImageIo::ImageDesc imgdesc(width, height, 3);
io.Write(filename, imagedata, imgdesc);
}
KisImageBuilder_Result PSDSaver::buildFile(QIODevice *io)
{
if (!m_image)
return KisImageBuilder_RESULT_EMPTY;
const bool haveLayers = m_image->rootLayer()->childCount() > 1 ||
checkIfHasTransparency(m_image->rootLayer()->firstChild()->projection());
// HEADER
PSDHeader header;
header.signature = "8BPS";
header.version = 1;
header.nChannels = haveLayers ?
m_image->colorSpace()->channelCount() :
m_image->colorSpace()->colorChannelCount();
header.width = m_image->width();
header.height = m_image->height();
QPair<psd_color_mode, quint16> colordef = colormodelid_to_psd_colormode(m_image->colorSpace()->colorModelId().id(),
m_image->colorSpace()->colorDepthId().id());
if (colordef.first == COLORMODE_UNKNOWN || colordef.second == 0 || colordef.second == 32) {
return KisImageBuilder_RESULT_UNSUPPORTED_COLORSPACE;
}
header.colormode = colordef.first;
header.channelDepth = colordef.second;
dbgFile << "header" << header << io->pos();
if (!header.write(io)) {
dbgFile << "Failed to write header. Error:" << header.error << io->pos();
return KisImageBuilder_RESULT_FAILURE;
}
// COLORMODE BlOCK
PSDColorModeBlock colorModeBlock(header.colormode);
// XXX: check for annotations that contain the duotone spec
KisAnnotationSP annotation = m_image->annotation("DuotoneColormodeBlock");
if (annotation) {
colorModeBlock.duotoneSpecification = annotation->annotation();
}
dbgFile << "colormode block" << io->pos();
if (!colorModeBlock.write(io)) {
dbgFile << "Failed to write colormode block. Error:" << colorModeBlock.error << io->pos();
return KisImageBuilder_RESULT_FAILURE;
}
// IMAGE RESOURCES SECTION
PSDImageResourceSection resourceSection;
vKisAnnotationSP_it it = m_image->beginAnnotations();
vKisAnnotationSP_it endIt = m_image->endAnnotations();
while (it != endIt) {
KisAnnotationSP annotation = (*it);
if (!annotation || annotation->type().isEmpty()) {
dbgFile << "Warning: empty annotation";
it++;
continue;
}
dbgFile << "Annotation:" << annotation->type() << annotation->description();
if (annotation->type().startsWith(QString("PSD Resource Block:"))) { //
PSDResourceBlock *resourceBlock = dynamic_cast<PSDResourceBlock*>(annotation.data());
if (resourceBlock) {
dbgFile << "Adding PSD Resource Block" << resourceBlock->identifier;
resourceSection.resources[(PSDImageResourceSection::PSDResourceID)resourceBlock->identifier] = resourceBlock;
}
}
it++;
}
// Add resolution block
{
RESN_INFO_1005 *resInfo = new RESN_INFO_1005;
resInfo->hRes = INCH_TO_POINT(m_image->xRes());
resInfo->vRes = INCH_TO_POINT(m_image->yRes());
PSDResourceBlock *block = new PSDResourceBlock;
block->identifier = PSDImageResourceSection::RESN_INFO;
block->resource = resInfo;
resourceSection.resources[PSDImageResourceSection::RESN_INFO] = block;
}
// Add icc block
{
ICC_PROFILE_1039 *profileInfo = new ICC_PROFILE_1039;
profileInfo->icc = m_image->profile()->rawData();
PSDResourceBlock *block = new PSDResourceBlock;
block->identifier = PSDImageResourceSection::ICC_PROFILE;
block->resource = profileInfo;
resourceSection.resources[PSDImageResourceSection::ICC_PROFILE] = block;
}
dbgFile << "resource section" << io->pos();
if (!resourceSection.write(io)) {
dbgFile << "Failed to write resource section. Error:" << resourceSection.error << io->pos();
return KisImageBuilder_RESULT_FAILURE;
}
// LAYER AND MASK DATA
// Only save layers and masks if there is more than one layer
dbgFile << "m_image->rootLayer->childCount" << m_image->rootLayer()->childCount() << io->pos();
if (haveLayers) {
PSDLayerMaskSection layerSection(header);
layerSection.hasTransparency = true;
if (!layerSection.write(io, m_image->rootLayer())) {
dbgFile << "failed to write layer section. Error:" << layerSection.error << io->pos();
return KisImageBuilder_RESULT_FAILURE;
}
}
else {
// else write a zero length block
dbgFile << "No layers, saving empty layers/mask block" << io->pos();
psdwrite(io, (quint32)0);
}
// IMAGE DATA
dbgFile << "Saving composited image" << io->pos();
PSDImageData imagedata(&header);
if (!imagedata.write(io, m_image->projection(), haveLayers)) {
dbgFile << "Failed to write image data. Error:" << imagedata.error;
return KisImageBuilder_RESULT_FAILURE;
}
return KisImageBuilder_RESULT_OK;
}
KisImageBuilder_Result PSDSaver::buildFile(const KUrl& uri)
{
if (!m_image)
return KisImageBuilder_RESULT_EMPTY;
if (uri.isEmpty())
return KisImageBuilder_RESULT_NO_URI;
if (!uri.isLocalFile())
return KisImageBuilder_RESULT_NOT_LOCAL;
// Open file for writing
QFile f(uri.toLocalFile());
if (!f.open(QIODevice::WriteOnly)) {
return KisImageBuilder_RESULT_NOT_LOCAL;
}
// HEADER
PSDHeader header;
header.signature = "8BPS";
header.version = 1;
header.nChannels = m_image->colorSpace()->channelCount();
header.width = m_image->width();
header.height = m_image->height();
QPair<PSDColorMode, quint16> colordef = colormodelid_to_psd_colormode(m_image->colorSpace()->colorModelId().id(),
m_image->colorSpace()->colorDepthId().id());
if (colordef.first == UNKNOWN || colordef.second == 0 || colordef.second == 32) {
return KisImageBuilder_RESULT_UNSUPPORTED_COLORSPACE;
}
header.colormode = colordef.first;
header.channelDepth = colordef.second;
dbgFile << "header" << header << f.pos();
if (!header.write(&f)) {
dbgFile << "Failed to write header. Error:" << header.error << f.pos();
return KisImageBuilder_RESULT_FAILURE;
}
// COLORMODE BlOCK
PSDColorModeBlock colorModeBlock(header.colormode);
// XXX: check for annotations that contain the duotone spec
dbgFile << "colormode block" << f.pos();
if (!colorModeBlock.write(&f)) {
dbgFile << "Failed to write colormode block. Error:" << colorModeBlock.error << f.pos();
return KisImageBuilder_RESULT_FAILURE;
}
// IMAGE RESOURCES SECTION
PSDResourceSection resourceSection;
// Add resolution block
{
RESN_INFO_1005 *resInfo = new RESN_INFO_1005;
resInfo->hRes = INCH_TO_POINT(m_image->xRes());
resInfo->vRes = INCH_TO_POINT(m_image->yRes());
PSDResourceBlock *block = new PSDResourceBlock;
block->resource = resInfo;
resourceSection.resources[PSDResourceSection::RESN_INFO] = block;
}
// Add icc block
{
ICC_PROFILE_1039 *profileInfo = new ICC_PROFILE_1039;
profileInfo->icc = m_image->profile()->rawData();
PSDResourceBlock *block = new PSDResourceBlock;
block->resource = profileInfo;
resourceSection.resources[PSDResourceSection::ICC_PROFILE] = block;
}
// XXX: Add other blocks...
dbgFile << "resource section" << f.pos();
if (!resourceSection.write(&f)) {
dbgFile << "Failed to write resource section. Error:" << resourceSection.error << f.pos();
return KisImageBuilder_RESULT_FAILURE;
}
// LAYER AND MASK DATA
// Only save layers and masks if there is more than one layer
dbgFile << "m_image->rootLayer->childCount" << m_image->rootLayer()->childCount() << f.pos();
if (m_image->rootLayer()->childCount() > 1) {
PSDLayerSection layerSection(header);
layerSection.hasTransparency = true;
if (!layerSection.write(&f, m_image->rootLayer())) {
dbgFile << "failed to write layer section. Error:" << layerSection.error << f.pos();
return KisImageBuilder_RESULT_FAILURE;
}
}
else {
// else write a zero length block
dbgFile << "No layers, saving empty layers/mask block" << f.pos();
psdwrite(&f, (quint32)0);
}
// IMAGE DATA
dbgFile << "Saving composited image" << f.pos();
PSDImageData imagedata(&header);
if (!imagedata.write(&f, m_image->projection())) {
dbgFile << "Failed to write image data. Error:" << imagedata.error;
return KisImageBuilder_RESULT_FAILURE;
}
f.close();
return KisImageBuilder_RESULT_OK;
}
int main(int argc, char *argv[]) {
int j, seg=0, done=0, ch, frames, i, startframe = 1, endframe = 0;
uint32 temp,len;
char *filename, *prefilename;
if(argc < 5) {
printf("vidconvert USAGE %s [-g gamma][-b brightness][-c contrast] -f frames -n prefilename [-s startframe][-e endframe]\n",argv[0]);
exit(1);
}
while ((ch = getopt(argc, argv, "g:b:c:f:n:s:e:")) != EOF) {
switch(ch) {
case 'g':
gamma = atoi(optarg);
break;
case 'b':
bright = atoi(optarg);
break;
case 'c':
contrast = atoi(optarg);
break;
case 's':
startframe = atoi(optarg);
break;
case 'e':
endframe = atoi(optarg);
break;
case 'f':
frames = atoi(optarg);
break;
case 'n':
prefilename = strdup(optarg);
break;
default:
printf("vidconvert USAGE %s [-g gamma][-b brightness][-c contrast] -f frames -n prefilename [-s startframe][-e endframe]\n",argv[0]);
}
}
if(!endframe)
endframe = frames;
if(strlen(prefilename)>11) {
printf("invalid prefilename length.\n");
exit(1);
}
filename = malloc(17);
sprintf(filename, "%s.rvd", prefilename);
outfp = fopen(filename,"a");
if(!outfp) {
printf("couldn't open output stream.\n");
exit(1);
}
maketab(); //generated from gamma contrast and brightness
for(i = startframe; i<=frames; i++) {
printf("Opening Frame %d\n", i);
if(!endframe)
break;
endframe--;
//Reset All variables...
segbuf = NULL;
seg = segsize = seglen = segin = yup = xup = ncomp = 0;
heightDU = widthDU = colsDU = cols8 = maxy = linesize = restinv = ducount = 0;
buff[0] = buff[1] = buff[2] = NULL;
coltab = colloc = bmploc = bmpup = NULL;
dc[0] = dc[1] = dc[2] = 0;
reset();
//take into account for the zeros with greater frame totals
if(frames < 100) {
if(i<10)
sprintf(filename, "%s 0%d.jpg", prefilename, i);
else
sprintf(filename, "%s %d.jpg", prefilename,i);
} else {
if(i<10)
sprintf(filename, "%s 00%d.jpg", prefilename, i);
else if(i<100)
sprintf(filename, "%s 0%d.jpg", prefilename, i);
else
sprintf(filename, "%s %d.jpg", prefilename,i);
}
filefd = open(filename, O_READ);
if (filefd == -1) {
printf("Unable to open file %s... re-using previous frame.\n", filename);
j=1;
while(i-j > 0) {
if(frames < 500) {
if(i<10)
sprintf(filename, "%s 0%d.jpg", prefilename, i-j);
else
sprintf(filename, "%s %d.jpg", prefilename,i-j);
} else {
if(i<10)
sprintf(filename, "%s 00%d.jpg", prefilename, i-j);
else if(i<100)
sprintf(filename, "%s 0%d.jpg", prefilename, i-j);
else
sprintf(filename, "%s %d.jpg", prefilename,i-j);
}
filefd = open(filename, O_READ);
if(filefd == -1)
j++;
else
break;
}
if(i-j < 1)
continue;
}
seg = loadseg();
if (seg == 0xd8)
printf("It's a jpeg!\n");
else {
printf("Image file %s, is not a JPEG '%d'... skipping it.\n", filename, seg);
exit(1);
}
while(seg != 0xda) {
seg = loadseg();
if(!seg)
goto skiptonext;
switch(seg) {
case 0xdb:
if(!segDQT())
goto skiptonext;
break;
case 0xc4:
if(!segDHT())
goto skiptonext;
break;
case 0xda:
segSOS();
break;
case 0xc0:
segSOF();
break;
case 0xdd:
segDRI();
break;
}
}
bmpwidth = round8(width);
bmpheight = round8(height);
imgsize = ((bmpheight*bmpwidth)/8) + ((bmpwidth*bmpheight)/64);
width8 = bmpwidth/8;
temp = (uint32) width8 * bmpheight;
len = temp/8+temp;
bmpup = bmploc = calloc(len, 1);
colloc = bmploc+temp;
while (!done) {
imagedata();
render();
yup += heightDU;
if (yup >= height) {
done=1;
printf("Finished rendering frame %d\n", i);
rle();
printf("Finished RLE encoding frame %d\n", i);
}
}
done = 0;
skiptonext:
close(filefd);
}
fclose(outfp);
return(1);
}
int main(int argc, char *argv[]) {
int RcvId, xsize,ysize,minxsize,minysize;
void *msg;
void *App, *window, *bmp, *scr, *view;
int seg=0,done=0,ch;
uint32 temp,len;
JMeta * metadata = malloc(sizeof(JMeta));
while ((ch = getopt(argc, argv, "g:b:c:")) != EOF) {
switch(ch) {
case 'g':
gamma = atoi(optarg);
break;
case 'b':
bright = atoi(optarg);
break;
case 'c':
contrast = atoi(optarg);
break;
}
}
if (argc-optind < 1)
exit(1);
filefd = open(argv[optind], O_READ);
if (filefd == -1) {
perror(argv[optind]);
exit(1);
}
maketab();
chan = makeChan();
seg = loadseg();
if (seg == 0xd8) {
printf("It's a jpeg!\n");
} else abort("Not a jpeg!\n");
while(seg != 0xda) {
seg = loadseg();
/* printf("It's %2x, size %4x\n", seg, seglen); */
switch(seg) {
case 0xdb:
segDQT();
break;
case 0xc4:
segDHT();
break;
case 0xda:
segSOS();
break;
case 0xc0:
segSOF();
break;
case 0xdd:
segDRI();
break;
default:
printf("Unknown segment %d\n", seg);
break;
}
}
bmpwidth = round8(width);
bmpheight = round8(height);
metadata->launchpath = strdup(fpathname(argv[0],getappdir(),1));
metadata->title = "Jpeg viewer";
metadata->icon = app_icon;
metadata->showicon = 1;
metadata->parentreg = -1;
App = JAppInit(NULL, chan);
window = JWndInit(NULL, "Jpeg viewer by J. Maginnis and S. Judd", JWndF_Resizable,metadata);
((JCnt *)window)->Orient = JCntF_TopBottom;
xsize = bmpwidth;
ysize = bmpheight;
if(xsize > 296)
xsize = 296;
else if(xsize < 64)
xsize = 64;
if(ysize > 160)
ysize = 160;
else if(ysize < 24)
ysize = 24;
if(xsize > 64)
minxsize = 64;
else
minxsize = xsize;
minysize = 24;
JWSetBounds(window,0,0,xsize,ysize+16);
JWSetMin(window,minxsize,minysize);
JWSetMax(window,xsize+8,ysize+24);
JAppSetMain(App,window);
width8 = bmpwidth/8;
temp = (uint32) width8 * bmpheight;
len = temp/8+temp;
bmpup = bmploc = calloc(len, 1);
colloc = bmploc+temp;
//printf("%dx%d, %lx bytes, %lx,%lx,%lx\n", bmpwidth, bmpheight, len, bmpup, colloc, bmpup+len);
bmp = JBmpInit(NULL, bmpwidth, bmpheight, bmploc);
view = JViewWinInit(NULL, bmp);
scr = JScrInit(NULL, view, JScrF_VNotEnd|JScrF_HNotEnd);
JWSetMin(scr,8,8);
JCntAdd(window, scr);
JWndSetProp(window);
JWinShow(window);
retexit(1);
while(1) {
while (!done && !chkRecv(chan)) {
imagedata();
render();
JWReDraw(bmp);
yup += heightDU;
if (yup >= height) {
FILE *fp;
done=1;
printf("Finished render\n");
/* fp = fopen("bmpout","wb");
if (fp) {
fwrite(bmploc, 320*25+1000, 1, fp);
fclose(fp);
} */
}
}
RcvId = recvMsg(chan, &msg);
switch (* (int *)msg) {
case WIN_EventRecv:
JAppDrain(App);
break;
}
replyMsg(RcvId,0);
}
return 1;
}
