const CgBinaryVertexProgram* nvb_reader_impl::vertex_program() const
{
if ( 0 == image_ )
return 0;
return reinterpret_cast<CgBinaryVertexProgram*>( &image_[convert_endianness( header_.program, endianness_ )] );
}
CGBIO_ERROR
nvb_reader_impl::loadFromString( const char* source, size_t length)
{
if ( loaded_ )
{
return CGBIO_ERROR_LOADED;
}
CGBIO_ERROR ret = CGBIO_ERROR_NO_ERROR;
while (1)
{
if (length < sizeof( header_ ))
{
ret = CGBIO_ERROR_FORMAT;
break;
}
memcpy(&header_ ,source,sizeof( header_ ));
if ( CG_BINARY_FORMAT_REVISION != header_.binaryFormatRevision )
{
endianness_ = ( CGBIODATALSB == endianness_ ) ? CGBIODATAMSB : CGBIODATALSB;
int binaryRevision = convert_endianness( header_.binaryFormatRevision, endianness_ );
if ( CG_BINARY_FORMAT_REVISION != binaryRevision )
{
ret = CGBIO_ERROR_FORMAT;
break;
}
}
size_t sz = length;
image_ = new char[sz];
memcpy(image_,source,sz);
loaded_ = true;
ret = CGBIO_ERROR_NO_ERROR;
break;
}
return ret;
}
const char* nvb_reader_impl::ucode() const
{
if ( 0 == image_ || 0 == ucode_size() )
return 0;
return ( image_ + convert_endianness( header_.ucode, endianness() ) );
}
CGBIO_ERROR nvb_reader_impl::get_param_name( unsigned int index, const char **name, bool& is_referenced ) const
{
if ( index >= number_of_params() )
return CGBIO_ERROR_INDEX;
if ( 0 == image_ )
return CGBIO_ERROR_NO_ERROR;
const CgBinaryParameter* params = reinterpret_cast<CgBinaryParameter*>( &image_[convert_endianness( header_.parameterArray, endianness_ )] );
const CgBinaryParameter& pp = params[index];
is_referenced = convert_endianness( pp.isReferenced, endianness() ) != 0;
CgBinaryStringOffset nm_offset = convert_endianness( pp.name,endianness() );
if ( nm_offset != 0 )
*name = &image_[nm_offset];
else
*name = "";
return CGBIO_ERROR_NO_ERROR;
}
void ScoreWebSender::addDataToFinishGame(RecordLine rL)
{
if (rL.points == 0)
{
clearData();
return;
}
ostringstream oss;
// << taille des données initiales : 1 octet
oss << (unsigned char) sizeof(RecordLine);
// << données initiales : x octets
rL.lines_u = convert_endianness(rL.lines_u, BINARY_NETWORK_BIG_ENDIAN);
rL.points_u = convert_endianness(rL.points_u, BINARY_NETWORK_BIG_ENDIAN);
rL.tetrominos_u = convert_endianness(rL.tetrominos_u, BINARY_NETWORK_BIG_ENDIAN);
rL.time_u = convert_endianness(rL.time_u, BINARY_NETWORK_BIG_ENDIAN);
for (size_t i=0; i<sizeof(RecordLine); i++)
oss << (char) rL.b[i];
// << nombre de ligne de données du déroulement de jeu
// << taille d'une ligne de donnée
_4bytes gameDataSize;
gameDataSize.i = gameDatas.size();
gameDataSize = convert_endianness(gameDataSize , BINARY_NETWORK_BIG_ENDIAN);
oss << gameDataSize.b[0] << gameDataSize.b[1] <<
gameDataSize.b[2] << gameDataSize.b[3] <<
(char) sizeof(ScoreWebSenderDataSample);
for (size_t i=0; i<gameDatas.size(); i++)
{
ScoreWebSenderDataSample dL = gameDatas[i];
dL.u.nbDelLines = convert_endianness(dL.u.nbDelLines, BINARY_NETWORK_BIG_ENDIAN);
dL.u.nbDelLinesDiff = convert_endianness(dL.u.nbDelLinesDiff, BINARY_NETWORK_BIG_ENDIAN);
dL.u.nbManualDown = convert_endianness(dL.u.nbManualDown, BINARY_NETWORK_BIG_ENDIAN);
dL.u.nbTetromino = convert_endianness(dL.u.nbTetromino, BINARY_NETWORK_BIG_ENDIAN);
dL.u.score = convert_endianness(dL.u.score, BINARY_NETWORK_BIG_ENDIAN);
dL.u.scoreDiff = convert_endianness(dL.u.scoreDiff, BINARY_NETWORK_BIG_ENDIAN);
dL.u.timeMilliseconds = convert_endianness(dL.u.timeMilliseconds, BINARY_NETWORK_BIG_ENDIAN);
for (size_t j=0; j<sizeof(ScoreWebSenderDataSample); j++)
oss << (char) dL.b[j];
}
string g = oss.str();
rL.points_u = convert_endianness(rL.points_u, BINARY_NETWORK_BIG_ENDIAN);
Console::out("Envoi du record de " + to_string((int) rL.points) + " points au serveur de score ...");
sf::Thread * th = new sf::Thread(&webSendNewData, g);
ScoreWebSender::_uploadThreads.push_back(th);
ScoreWebSender::_uploadData.push_back("");
th->launch();
clearData();
}
static int X11_ximage_blit(struct DriverInstance* sh,
const uint8_t* fb,
int width, int height,
struct blit_params* params,
int needs_adjust,
char* error_text, int text_len)
{
uint8_t* framebuffer = 0;
if (width != sh->width || height != sh->height ||
params->mirrorx || params->mirrory || needs_adjust)
{
int size = sh->width*sh->height*4;
if (sh->data && sh->data_size < size)
{
free(sh->data);
sh->data = 0;
}
if (sh->data == 0)
{
sh->data = malloc(size);
sh->data_size = size;
}
if (sh->data == 0)
{
snprintf(error_text, text_len,
"Could not allocate data for XImage");
return 0;
}
if (needs_adjust)
{
ls_scale32m_adjust((uint32_t*) sh->data, sh->width, sh->height,
(const uint32_t*) fb, width, height,
params->mirrorx, params->mirrory, sh->pal);
}
else
{
ls_scale32m((uint32_t*) sh->data, sh->width, sh->height,
(const uint32_t*) fb, width, height,
params->mirrorx, params->mirrory);
}
framebuffer = sh->data;
}
else
{
if (sh->data != 0)
{
free(sh->data);
sh->data = 0;
sh->data_size = 0;
}
assert(width == sh->width);
assert(height == sh->height);
framebuffer = (uint8_t*) fb;
}
assert(framebuffer != 0);
// now create an XImage using the framebuffers pixel data
//TODO: this is a hack for big-endian machines
if (big_endian())
convert_endianness(framebuffer, sh->width, sh->height);
if (sh->vis.depth == 16)
convert_to_16_inplace(framebuffer, sh->width, sh->height);
if (sh->ximage == 0 ||
sh->image_width != sh->width ||
sh->image_height != sh->height)
{
if (sh->ximage)
{
sh->ximage->data = 0;
XDestroyImage(sh->ximage);
}
sh->ximage = XCreateImage(sh->display,
sh->vis.visual,
sh->vis.depth,
ZPixmap,
0,
0,
sh->width,
sh->height,
32,
0);
sh->image_width = sh->width;
sh->image_height = sh->height;
}
if (sh->ximage == 0)
{
snprintf(error_text, text_len, "Could not create XImage!");
return 0;
}
sh->ximage->data = framebuffer;
// ... blit it to screen
XPutImage(sh->display, sh->win, sh->gc, sh->ximage, 0, 0, 0, 0,
sh->width, sh->height);
// and finally make sure the xserver performs the blitting
XFlush(sh->display);
//XSync(sh->display, 0);
return 1;
}
static int X11_xv_blit(struct DriverInstance* sh,
const uint8_t* fb,
int width, int height,
struct blit_params* params,
int needs_adjust,
char* error_text, int text_len)
{
if (sh->xv_image == 0 ||
width != sh->image_width ||
height != sh->image_height)
{
if (sh->xv_image)
XFree(sh->xv_image);
sh->xv_image = XvCreateImage(sh->display,
sh->xv_port,
sh->xv_format_id,
0,
width, height);
sh->image_width = width;
sh->image_height = height;
}
if (sh->data == 0 || sh->data_size < sh->xv_image->data_size)
{
if (sh->data)
free(sh->data);
sh->data = malloc(sh->xv_image->data_size);
sh->data_size = sh->xv_image->data_size;
if (sh->data == 0)
{
snprintf(error_text, text_len,
"Could not allocate data for XVImage");
return 0;
}
}
assert(sh->data);
//TODO: this is a hack for big-endian machines
if (big_endian())
convert_endianness(sh->data, sh->width, sh->height);
sh->xv_image->data = sh->data;
if (sh->vis.depth == 24)
cvt_rgb32_to_i420((uint8_t*) sh->data,
(uint32_t*) fb, width, height,
sh->xv_image->pitches, sh->xv_image->offsets);
else if (sh->vis.depth == 16)
cvt_rgb16_to_i420((uint8_t*) sh->data,
(uint16_t*) fb, width, height,
sh->xv_image->pitches, sh->xv_image->offsets);
// blit image
XvPutImage(sh->display, sh->xv_port, sh->win, sh->gc, sh->xv_image,
0, 0, width, height, 0, 0, sh->width, sh->height);
XFlush(sh->display);
//XSync(sh->display, False);
return 1;
}
static int X11_xshm_xv_blit(struct DriverInstance* sh,
const uint8_t* fb,
int width, int height,
struct blit_params* params,
int needs_adjust,
char* error_text, int text_len)
{
// wait until last blit has completed
if (sh->event_pending)
{
int max_wait = 15;
XEvent event;
sh->event_pending = 0;
while (max_wait--)
{
XNextEvent(sh->display, &event);
if (event.type == sh->completion_type)
break;
}
}
if (sh->xv_image == 0 ||
width != sh->image_width ||
height != sh->image_height)
{
if (sh->xv_image)
XFree(sh->xv_image);
sh->xv_image = XvShmCreateImage(sh->display,
sh->xv_port,
sh->xv_format_id,
sh->shminfo.shmaddr,
width, height,
&sh->shminfo);
sh->image_width = width;
sh->image_height = height;
}
//TODO: this is a hack for big-endian machines
if (big_endian())
convert_endianness((uint8_t*) fb, sh->width, sh->height);
if (sh->vis.depth == 24)
{
#if defined(OPT_INCLUDE_MMX)
if (sh->mmx_supported)
cvt_rgb32_to_i420_mmx((uint8_t*) sh->xv_image->data,
(uint32_t*) fb, width, height,
sh->xv_image->pitches, sh->xv_image->offsets);
else
#endif
cvt_rgb32_to_i420((uint8_t*) sh->xv_image->data,
(uint32_t*) fb, width, height,
sh->xv_image->pitches, sh->xv_image->offsets);
}
else if (sh->vis.depth == 16)
cvt_rgb16_to_i420((uint8_t*) sh->xv_image->data,
(uint16_t*) fb, width, height,
sh->xv_image->pitches, sh->xv_image->offsets);
// blit shared mem image
XvShmPutImage(sh->display, sh->xv_port, sh->win, sh->gc, sh->xv_image,
0, 0, width, height, 0, 0, sh->width, sh->height, True);
sh->event_pending = 1;
XFlush(sh->display);
//XSync(sh->display, False);
return 1;
}
// xshm and no xv
static int X11_xshm_blit(struct DriverInstance* sh,
const uint8_t* fb,
int width, int height,
struct blit_params* params,
int needs_adjust,
char* error_text, int text_len)
{
// wait until last blit has completed
if (sh->event_pending)
{
int max_wait = 15;
XEvent event;
sh->event_pending = 0;
while (max_wait--)
{
XNextEvent(sh->display, &event);
if (event.type == sh->completion_type)
break;
}
}
if (sh->ximage == 0)
{
snprintf(error_text, text_len, "Internal error: sh->ximage == 0");
return 0;
}
// adjust and scale input framebuffer frb into shared mem
if (needs_adjust)
{
ls_set_adjustment(sh->pal, params->brightness, params->contrast,
params->gamma, params->invert);
ls_scale32m_adjust((uint32_t*)sh->ximage->data, sh->width, sh->height,
(const uint32_t*)fb, width, height, params->mirrorx,
params->mirrory, sh->pal);
}
else
{
ls_scale32m((uint32_t*)sh->ximage->data, sh->width, sh->height,
(const uint32_t*)fb, width, height, params->mirrorx,
params->mirrory);
}
//TODO: this is a hack for big-endian machines
if (big_endian())
convert_endianness(sh->ximage->data, sh->width, sh->height);
if (sh->vis.depth == 16)
convert_to_16_inplace(sh->ximage->data, sh->width, sh->height);
// blit shared mem image
XShmPutImage(sh->display, sh->win, sh->gc, sh->ximage,
0, 0, 0, 0, sh->width, sh->height, True);
sh->event_pending = 1;
XFlush(sh->display);
//XSync(sh->display, False);
return 1;
}
CGBIO_ERROR
nvb_reader_impl::get_param( unsigned int index,
CGtype& type,
CGresource& resource,
CGenum& variability,
int& resource_index,
const char ** name,
STL_NAMESPACE vector<float>& default_value,
STL_NAMESPACE vector<unsigned int>& embedded_constants,
const char ** semantic,
int& paramno,
bool& is_referenced,
bool& is_shared ) const
{
if ( index >= number_of_params() )
return CGBIO_ERROR_INDEX;
if ( 0 == image_ )
return CGBIO_ERROR_NO_ERROR;
const CgBinaryParameter* params = reinterpret_cast<CgBinaryParameter*>( &image_[convert_endianness( header_.parameterArray, endianness_ )] );
const CgBinaryParameter& pp = params[index];
type = static_cast<CGtype>(convert_endianness( static_cast<unsigned int>( pp.type ), endianness() ) );
resource = static_cast<CGresource>(convert_endianness( static_cast<unsigned int>( pp.res ), endianness() ) );
variability = static_cast<CGenum>(convert_endianness( static_cast<unsigned int>( pp.var ),endianness() ) );
resource_index = convert_endianness( pp.resIndex,endianness() );
paramno = convert_endianness( pp.paramno, endianness() );
is_referenced = convert_endianness( pp.isReferenced,endianness() ) != 0;
is_shared = convert_endianness( pp.isShared,endianness() ) != 0;
CgBinaryStringOffset nm_offset = convert_endianness( pp.name,endianness() );
CgBinaryFloatOffset dv_offset = convert_endianness( pp.defaultValue,endianness() );
CgBinaryEmbeddedConstantOffset ec_offset = convert_endianness( pp.embeddedConst,endianness() );
CgBinaryStringOffset sm_offset = convert_endianness( pp.semantic,endianness() );
if ( 0 != nm_offset )
{
*name = &image_[nm_offset];
}
else
*name = "";
if ( 0 != sm_offset )
{
*semantic = &image_[sm_offset];
}
else
*semantic = "";
if ( 0 != dv_offset )
{
char *vp = &image_[dv_offset];
for (int ii = 0; ii < 4; ++ii)
{
int tmp;
memcpy(&tmp,vp+4*ii,4);
tmp = convert_endianness(tmp,endianness());
float tmp2;
memcpy(&tmp2,&tmp,4);
default_value.push_back( tmp2 );
}
}
if ( 0 != ec_offset )
{
void *vp = &image_[ec_offset];
CgBinaryEmbeddedConstant& ec = *(static_cast<CgBinaryEmbeddedConstant*>( vp ));
for (unsigned int ii = 0; ii < convert_endianness( ec.ucodeCount, endianness() ); ++ii)
{
unsigned int offset = convert_endianness( ec.ucodeOffset[ii], endianness() );
embedded_constants.push_back( offset );
}
}
return CGBIO_ERROR_NO_ERROR;
}
unsigned int nvb_reader_impl::ucode_size() const
{
return convert_endianness( header_.ucodeSize, endianness() );
}
unsigned int nvb_reader_impl::number_of_params() const
{
return convert_endianness( header_.parameterCount, endianness() );
}
unsigned int nvb_reader_impl::size() const
{
return convert_endianness( header_.totalSize, endianness() );
}
unsigned int
nvb_reader_impl::revision() const
{
return convert_endianness( header_.binaryFormatRevision, endianness() );
}
CGprofile
nvb_reader_impl::profile() const
{
return (CGprofile) convert_endianness( (unsigned int) header_.profile, endianness() );
}