inline const NumericVector * E (const NumericMatrix& mtx){
const NumericVector * rm=rowMeans(mtx);
const NumericVector * jt=jitter(*rm);
delete rm;
return jt;
}
/**
* - Update the image buffers
* - If the time is a multiple of biasChangetime then the position of the bias (biasX, biasY) changes.
* - With probability persistenceProb the offset position (offsetX, offsetY) remains unchanged.
* - Otherwise, with probability (1-persistenceProb) the offset position performs a random walk
* around the bias position (biasX, biasY).
*
* - If the time is a multiple of displayPeriod then load the next image.
* - If nf=1 then the image is converted to grayscale during the call to read(filename, offsetX, offsetY).
* If nf>1 then the image is loaded with color information preserved.
* - Return true if buffers have changed
*/
bool Movie::updateImage(double time, double dt)
{
if( jitterFlag ) {
jitter();
} // jitterFlag
InterColComm * icComm = getParent()->icCommunicator();
//TODO: Fix movie layer to take with batches. This is commented out for compile
//if(!flipOnTimescaleError && (parent->getTimeScale() > 0 && parent->getTimeScale() < parent->getTimeScaleMin())){
// if (parent->icCommunicator()->commRank()==0) {
// std::cout << "timeScale of " << parent->getTimeScale() << " is less than timeScaleMin of " << parent->getTimeScaleMin() << ", Movie is keeping the same frame\n";
// }
//}
//else{
//Only do this if it's not the first update timestep
//The timestep number is (time - startTime)/(width of timestep), with allowance for roundoff.
//But if we're using adaptive timesteps, the dt passed as a function argument is not the correct (width of timestep).
if(fabs(time - (parent->getStartTime() + parent->getDeltaTime())) > (parent->getDeltaTime()/2)){
int status = getFrame(time, dt);
assert(status == PV_SUCCESS);
}
//nextDisplayTime removed, now using nextUpdateTime in HyPerLayer
//while (time >= nextDisplayTime) {
// nextDisplayTime += displayPeriod;
//}
//Set frame number (member variable in Image)
//Write to timestamp file here when updated
if( icComm->commRank()==0 ) {
//Only write if the parameter is set
if(timestampFile){
std::ostringstream outStrStream;
outStrStream.precision(15);
int kb0 = getLayerLoc()->kb0;
for(int b = 0; b < parent->getNBatch(); b++){
outStrStream << time << "," << b+kb0 << "," << frameNumbers[b] << "," << framePath[b] << "\n";
}
size_t len = outStrStream.str().length();
int status = PV_fwrite(outStrStream.str().c_str(), sizeof(char), len, timestampFile)==len ? PV_SUCCESS : PV_FAILURE;
if (status != PV_SUCCESS) {
fprintf(stderr, "%s \"%s\" error: Movie::updateState failed to write to timestamp file.\n", getKeyword(), name);
exit(EXIT_FAILURE);
}
//Flush buffer
fflush(timestampFile->fp);
}
}
//} // randomMovie
return true;
}
int main(int argc, const char** argv)
{
Jitter::CJitter jitter(Jitter::CreateCodeGen());
for(const auto& factory : s_factories)
{
auto test = factory();
test->Compile(jitter);
test->Run();
delete test;
}
return 0;
}
extern "C" __declspec(dllexport) PyJittedCode* JitCompile(PyCodeObject* code) {
if (strcmp(PyUnicode_AsUTF8(code->co_name), "<module>") == 0) {
return nullptr;
}
#ifdef DEBUG_TRACE
static int compileCount = 0, failCount = 0;
printf("Compiling %s from %s line %d #%d (%d failures so far)\r\n",
PyUnicode_AsUTF8(code->co_name),
PyUnicode_AsUTF8(code->co_filename),
code->co_firstlineno,
++compileCount,
failCount);
#endif
PythonCompiler jitter(code);
AbstractInterpreter interp(code, &jitter);
auto res = interp.compile();
if (res == nullptr) {
#ifdef DEBUG_TRACE
printf("Compilation failure #%d\r\n", ++failCount);
#endif
return nullptr;
}
auto jittedCode = (PyJittedCode*)PyJittedCode_New();
if (jittedCode == nullptr) {
// OOM
delete res;
return nullptr;
}
g_jittedCode[jittedCode] = res;
jittedCode->j_evalfunc = &Jit_EvalHelper; //(Py_EvalFunc)res->get_code_addr();
jittedCode->j_evalstate = res->get_code_addr();
return jittedCode;
}
// TODO: DX10: implement CBlender_accum_direct::Compile
void CBlender_accum_direct_volumetric_sun_msaa::Compile(CBlender_Compile& C)
{
IBlender::Compile (C);
if( Name )
::Render->m_MSAASample = atoi( Definition );
else
::Render->m_MSAASample = -1;
switch (C.iElement)
{
case 0: // near pass - enable Z-test to perform depth-clipping
C.r_Pass ("stub_notransform_2uv","accum_volumetric_sun_msaa", false, false, false, true,D3DBLEND_ONE,D3DBLEND_ONE,false,0);
C.r_dx10Texture ("s_smap", r2_RT_smap_depth);
C.r_dx10Texture ("s_position", r2_RT_P);
jitter (C);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_smap");
C.r_End ();
break;
}
::Render->m_MSAASample = -1;
}
void Knob::initPath() {
double data[DATA_LEN][DATA_LEN];
for (int i=0;i<DATA_LEN;i++) {
for (int j=0;j<DATA_LEN;j++) {
data[i][j] = ctl[i][j];
}
}
jitter (data, XVARY, YVARY, XDBVARY, XDFVARY);
cPath.setFillRule(Qt::WindingFill);
cPathReverse.setFillRule(Qt::WindingFill);
cPath.moveTo(data[0][X],data[0][Y]);
cPathReverse.moveTo(data[DATA_LEN-1][X],data[DATA_LEN-1][Y]);
for (int i = 0; i < (DATA_LEN-1); i++) {
curveTo (cPath, data, i, true);
curveTo (cPathReverse, data, DATA_LEN-1-i, false);
}
// Transform to coincide with line segment (x1,y1)-(x2,y2)
QMatrix affine(x2-x1, y2-y1, y1-y2, x2-x1, x1, y1);
cPath=affine.map(cPath);
cPathReverse=affine.map(cPathReverse);
}
void raytrace(int argc, char **argv)
{
int x, y, *tmpsamp, i, sampleno=CELLX*CELLY;
Pixel *tmppix;
Float usertime, systime, lasttime, upos, vpos;
Float samples[CELLX*CELLY*2];
Pixel acc, tmp;
/*
* If this is the first frame,
* allocate scanlines, etc.
*/
if (Options.framenum == Options.startframe)
RaytraceInit();
/*
* The top-level ray TopRay always has as its origin the
* eye position and as its medium NULL, indicating that it
* is passing through a medium with index of refraction
* equal to DefIndex.
*/
TopRay.pos = Camera.pos;
TopRay.media = (Medium *)0;
TopRay.depth = 0;
lasttime = 0;
for (y=0; y < Screen.ysize; y++) {
for (x = 0; x < Screen.xsize; x++) {
jitter(CELLX, CELLY, samples);
acc.r = acc.g = acc.b = acc.alpha = 0;
for (i=0 ; i<sampleno ; i++) {
vpos = y + Screen.miny + samples[(i<<1)+1];
upos = x + Screen.minx + samples[i<<1];
TopRay.time = SampleTime(0);
SampleScreen(upos, vpos, &TopRay, &tmp, 0);
acc.r += tmp.r;
acc.g += tmp.g;
acc.b += tmp.b;
}
pix[x].r = acc.r/sampleno; /* box filter, or average */
pix[x].g = acc.g/sampleno;
pix[x].b = acc.b/sampleno;
pix[x].alpha = 0;
}
PictureWriteLine(pix); /* write the scanline */
if ((y+Screen.miny-1) % Options.report_freq == 0) {
fprintf(Stats.fstats,"Finished line %d (%lu rays",
y+Screen.miny-1,
Stats.EyeRays);
if (Options.verbose) {
/*
* Report total CPU and split times.
*/
RSGetCpuTime(&usertime, &systime);
fprintf(Stats.fstats,", %2.2f sec,", usertime+systime);
fprintf(Stats.fstats," %2.2f split", usertime+systime-lasttime);
lasttime = usertime+systime;
}
}
fprintf(Stats.fstats,")\n");
(void)fflush(Stats.fstats);
}
}
void CBlender_combine::Compile(CBlender_Compile& C)
{
IBlender::Compile (C);
switch (C.iElement)
{
case 0: // combine
C.r_Pass ("combine_1", "combine_1_nomsaa", FALSE, FALSE, FALSE, TRUE, D3DBLEND_INVSRCALPHA, D3DBLEND_SRCALPHA); //. MRT-blend?
C.r_Stencil (TRUE,D3DCMP_LESSEQUAL,0xff,0x00); // stencil should be >= 1
C.r_StencilRef (0x01);
//C.r_Sampler_rtf ("s_position", r2_RT_P );
//C.r_Sampler_rtf ("s_normal", r2_RT_N );
//C.r_Sampler_rtf ("s_diffuse", r2_RT_albedo );
//C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
//C.r_Sampler_rtf ("s_depth", r2_RT_depth );
//C.r_Sampler_rtf ("s_tonemap", r2_RT_luminance_cur );
//C.r_Sampler_clw ("s_material", r2_material );
//C.r_Sampler_clf ("env_s0", r2_T_envs0 );
//C.r_Sampler_clf ("env_s1", r2_T_envs1 );
//C.r_Sampler_clf ("sky_s0", r2_T_sky0 );
//C.r_Sampler_clf ("sky_s1", r2_T_sky1 );
C.r_dx10Texture ("s_position", r2_RT_P );
C.r_dx10Texture ("s_normal", r2_RT_N );
C.r_dx10Texture ("s_diffuse", r2_RT_albedo );
C.r_dx10Texture ("s_accumulator", r2_RT_accum );
C.r_dx10Texture ("s_depth", r2_RT_depth );
C.r_dx10Texture ("s_tonemap", r2_RT_luminance_cur );
C.r_dx10Texture ("s_material", r2_material );
C.r_dx10Texture ("env_s0", r2_T_envs0 );
C.r_dx10Texture ("env_s1", r2_T_envs1 );
C.r_dx10Texture ("sky_s0", r2_T_sky0 );
C.r_dx10Texture ("sky_s1", r2_T_sky1 );
C.r_dx10Texture ("s_occ", r2_RT_ssao_temp );
C.r_dx10Texture ("s_half_depth", r2_RT_half_depth );
jitter(C);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
C.r_dx10Sampler ("smp_rtlinear");
C.r_End ();
break;
case 1: // aa-edge-detection + AA :)
C.r_Pass ("stub_notransform_aa_AA","combine_2_AA", FALSE, FALSE, FALSE);
//C.r_Sampler_rtf ("s_position", r2_RT_P);
//C.r_Sampler_rtf ("s_normal", r2_RT_N);
//C.r_Sampler_clf ("s_image", r2_RT_generic0);
//C.r_Sampler_clf ("s_bloom", r2_RT_bloom1);
//C.r_Sampler_clf ("s_distort", r2_RT_generic1);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_image", r2_RT_generic0);
C.r_dx10Texture ("s_bloom", r2_RT_bloom1);
C.r_dx10Texture ("s_distort", r2_RT_generic1);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_rtlinear");
C.r_End ();
break;
case 2: // non-AA
// Can use simpler VS (need only Tex0)
C.r_Pass ("stub_notransform_aa_AA","combine_2_NAA", FALSE, FALSE, FALSE);
//C.r_Sampler_rtf ("s_position", r2_RT_P);
//C.r_Sampler_rtf ("s_normal", r2_RT_N);
//C.r_Sampler_clf ("s_image", r2_RT_generic0);
//C.r_Sampler_clf ("s_bloom", r2_RT_bloom1);
//C.r_Sampler_clf ("s_distort", r2_RT_generic1);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_image", r2_RT_generic0);
C.r_dx10Texture ("s_bloom", r2_RT_bloom1);
C.r_dx10Texture ("s_distort", r2_RT_generic1);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_rtlinear");
C.r_End ();
break;
case 3: // aa-edge-detection + AA :) + DISTORTION
C.r_Pass ("stub_notransform_aa_AA","combine_2_AA_D", FALSE, FALSE, FALSE);
//C.r_Sampler_rtf ("s_position", r2_RT_P);
//C.r_Sampler_rtf ("s_normal", r2_RT_N);
//C.r_Sampler_clf ("s_image", r2_RT_generic0);
//C.r_Sampler_clf ("s_bloom", r2_RT_bloom1);
//C.r_Sampler_clf ("s_distort", r2_RT_generic1);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_image", r2_RT_generic0);
C.r_dx10Texture ("s_bloom", r2_RT_bloom1);
C.r_dx10Texture ("s_distort", r2_RT_generic1);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_rtlinear");
C.r_End ();
break;
case 4: // non-AA + DISTORTION
// Can use simpler VS (need only Tex0)
C.r_Pass ("stub_notransform_aa_AA","combine_2_NAA_D", FALSE, FALSE, FALSE);
//C.r_Sampler_rtf ("s_position", r2_RT_P);
//C.r_Sampler_rtf ("s_normal", r2_RT_N);
//C.r_Sampler_clf ("s_image", r2_RT_generic0);
//C.r_Sampler_clf ("s_bloom", r2_RT_bloom1);
//C.r_Sampler_clf ("s_distort", r2_RT_generic1);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_image", r2_RT_generic0);
C.r_dx10Texture ("s_bloom", r2_RT_bloom1);
C.r_dx10Texture ("s_distort", r2_RT_generic1);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_rtlinear");
C.r_End ();
break;
case 5: // post-processing
break;
}
}
void CBlender_combine::Compile(CBlender_Compile& C)
{
IBlender::Compile (C);
switch (C.iElement)
{
case 0: // combine
C.r_Pass ("combine_1", "combine_1", FALSE, FALSE, FALSE, TRUE, D3DBLEND_INVSRCALPHA, D3DBLEND_SRCALPHA); //. MRT-blend?
C.r_Sampler_rtf ("s_position", r2_RT_P );
C.r_Sampler_rtf ("s_normal", r2_RT_N );
C.r_Sampler_rtf ("s_diffuse", r2_RT_albedo );
C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
C.r_Sampler_rtf ("s_depth", r2_RT_depth );
C.r_Sampler_rtf ("s_tonemap", r2_RT_luminance_cur );
C.r_Sampler_clw ("s_material", r2_material );
C.r_Sampler_clw ("s_occ", r2_RT_ssao_temp );
C.r_Sampler_rtf ("s_half_depth", r2_RT_half_depth);
C.r_Sampler_clf ("env_s0", r2_T_envs0 );
C.r_Sampler_clf ("env_s1", r2_T_envs1 );
C.r_Sampler_clf ("sky_s0", r2_T_sky0 );
C.r_Sampler_clf ("sky_s1", r2_T_sky1 );
jitter(C);
C.r_End ();
break;
case 1: // aa-edge-detection + AA :)
C.r_Pass ("null", "combine_2_AA", FALSE, FALSE, FALSE);
C.r_Sampler_rtf ("s_position", r2_RT_P);
C.r_Sampler_rtf ("s_normal", r2_RT_N);
C.r_Sampler_clf ("s_image", r2_RT_generic0);
C.r_Sampler_clf ("s_bloom", r2_RT_bloom1);
C.r_Sampler_clf ("s_distort", r2_RT_generic1);
C.r_End ();
break;
case 2: // non-AA
C.r_Pass ("null", "combine_2_NAA", FALSE, FALSE, FALSE);
C.r_Sampler_rtf ("s_position", r2_RT_P);
C.r_Sampler_rtf ("s_normal", r2_RT_N);
C.r_Sampler_clf ("s_image", r2_RT_generic0);
C.r_Sampler_clf ("s_bloom", r2_RT_bloom1);
C.r_Sampler_clf ("s_distort", r2_RT_generic1);
C.r_End ();
break;
case 3: // aa-edge-detection + AA :) + DISTORTION
C.r_Pass ("null", "combine_2_AA_D", FALSE, FALSE, FALSE);
C.r_Sampler_rtf ("s_position", r2_RT_P);
C.r_Sampler_rtf ("s_normal", r2_RT_N);
C.r_Sampler_clf ("s_image", r2_RT_generic0);
C.r_Sampler_clf ("s_bloom", r2_RT_bloom1);
C.r_Sampler_clf ("s_distort", r2_RT_generic1);
C.r_End ();
break;
case 4: // non-AA + DISTORTION
C.r_Pass ("null", "combine_2_NAA_D", FALSE, FALSE, FALSE);
C.r_Sampler_rtf ("s_position", r2_RT_P);
C.r_Sampler_rtf ("s_normal", r2_RT_N);
C.r_Sampler_clf ("s_image", r2_RT_generic0);
C.r_Sampler_clf ("s_bloom", r2_RT_bloom1);
C.r_Sampler_clf ("s_distort", r2_RT_generic1);
C.r_End ();
break;
case 5: // post-processing
break;
}
}
int main_0015_offsets_seek (int argc, char **argv) {
const char *topic = test_mk_topic_name("0015", 1);
rd_kafka_t *rk_p, *rk_c;
rd_kafka_topic_t *rkt_p, *rkt_c;
int msg_cnt = 1000;
int msg_base = 0;
int32_t partition = 0;
int i;
int64_t offset_last, offset_base;
uint64_t testid;
int dance_iterations = 10;
int msgs_per_dance = 10;
testid = test_id_generate();
/* Produce messages */
rk_p = test_create_producer();
rkt_p = test_create_producer_topic(rk_p, topic, NULL);
test_produce_msgs(rk_p, rkt_p, testid, partition, msg_base, msg_cnt,
NULL, 0);
rd_kafka_topic_destroy(rkt_p);
rd_kafka_destroy(rk_p);
rk_c = test_create_consumer(NULL, NULL, NULL, NULL);
rkt_c = test_create_consumer_topic(rk_c, topic);
/* Start consumer tests */
test_consumer_start("verify.all", rkt_c, partition,
RD_KAFKA_OFFSET_BEGINNING);
/* Make sure all messages are available */
offset_last = test_consume_msgs("verify.all", rkt_c,
testid, partition, TEST_NO_SEEK,
msg_base, msg_cnt, 1/* parse format*/);
/* Rewind offset back to its base. */
offset_base = offset_last - msg_cnt + 1;
TEST_SAY("%s [%"PRId32"]: Do random seek&consume for msgs #%d+%d with "
"offsets %"PRId64"..%"PRId64"\n",
rd_kafka_topic_name(rkt_c), partition,
msg_base, msg_cnt, offset_base, offset_last);
/* Now go dancing over the entire range with offset seeks. */
for (i = 0 ; i < dance_iterations ; i++) {
int64_t offset = jitter((int)offset_base,
(int)offset_base+msg_cnt);
test_consume_msgs("dance", rkt_c,
testid, partition, offset,
msg_base + (int)(offset - offset_base),
RD_MIN(msgs_per_dance,
(int)(offset_last - offset)),
1 /* parse format */);
}
test_consumer_stop("1", rkt_c, partition);
rd_kafka_topic_destroy(rkt_c);
rd_kafka_destroy(rk_c);
return 0;
}
// draw text at x, y using colorTop blended down to colorBottom, with size multiplied by scale
void BitmapText::DrawPrimitives()
{
Actor::SetGlobalRenderStates(); // set Actor-specified render states
DISPLAY->SetTextureMode( TextureUnit_1, TextureMode_Modulate );
// Draw if we're not fully transparent or the zbuffer is enabled
if( m_pTempState->diffuse[0].a != 0 )
{
// render the shadow
if( m_fShadowLengthX != 0 || m_fShadowLengthY != 0 )
{
DISPLAY->PushMatrix();
DISPLAY->TranslateWorld( m_fShadowLengthX, m_fShadowLengthY, 0 );
RageColor c = m_ShadowColor;
c.a *= m_pTempState->diffuse[0].a;
for( unsigned i=0; i<m_aVertices.size(); i++ )
m_aVertices[i].c = c;
DrawChars( false );
DISPLAY->PopMatrix();
}
// render the stroke
if( m_StrokeColor.a > 0 )
{
RageColor c = m_StrokeColor;
c.a *= m_pTempState->diffuse[0].a;
for( unsigned i=0; i<m_aVertices.size(); i++ )
m_aVertices[i].c = c;
DrawChars( true );
}
// render the diffuse pass
if( m_bRainbowScroll )
{
int color_index = int(RageTimer::GetTimeSinceStartFast() / 0.200) % RAINBOW_COLORS.size();
for( unsigned i=0; i<m_aVertices.size(); i+=4 )
{
const RageColor color = RAINBOW_COLORS[color_index];
for( unsigned j=i; j<i+4; j++ )
m_aVertices[j].c = color;
color_index = (color_index+1) % RAINBOW_COLORS.size();
}
}
else
{
size_t i = 0;
map<size_t,Attribute>::const_iterator iter = m_mAttributes.begin();
while( i < m_aVertices.size() )
{
// Set the colors up to the next attribute.
size_t iEnd = iter == m_mAttributes.end()? m_aVertices.size():iter->first*4;
iEnd = min( iEnd, m_aVertices.size() );
for( ; i < iEnd; i += 4 )
{
m_aVertices[i+0].c = m_pTempState->diffuse[0]; // top left
m_aVertices[i+1].c = m_pTempState->diffuse[2]; // bottom left
m_aVertices[i+2].c = m_pTempState->diffuse[3]; // bottom right
m_aVertices[i+3].c = m_pTempState->diffuse[1]; // top right
}
if( iter == m_mAttributes.end() )
break;
// Set the colors according to this attribute.
const Attribute &attr = iter->second;
++iter;
if( attr.length < 0 )
iEnd = iter == m_mAttributes.end()? m_aVertices.size():iter->first*4;
else
iEnd = i + attr.length*4;
iEnd = min( iEnd, m_aVertices.size() );
for( ; i < iEnd; i += 4 )
{
m_aVertices[i+0].c = attr.diffuse[0]; // top left
m_aVertices[i+1].c = attr.diffuse[2]; // bottom left
m_aVertices[i+2].c = attr.diffuse[3]; // bottom right
m_aVertices[i+3].c = attr.diffuse[1]; // top right
}
}
}
// apply jitter to verts
vector<RageVector3> vGlyphJitter;
if( m_bJitter )
{
int iSeed = lrintf( RageTimer::GetTimeSinceStartFast()*8 );
RandomGen rnd( iSeed );
for( unsigned i=0; i<m_aVertices.size(); i+=4 )
{
RageVector3 jitter( rnd()%2, rnd()%3, 0 );
vGlyphJitter.push_back( jitter );
m_aVertices[i+0].p += jitter; // top left
m_aVertices[i+1].p += jitter; // bottom left
m_aVertices[i+2].p += jitter; // bottom right
m_aVertices[i+3].p += jitter; // top right
}
}
DrawChars( false );
// undo jitter to verts
if( m_bJitter )
{
ASSERT( vGlyphJitter.size() == m_aVertices.size()/4 );
for( unsigned i=0; i<m_aVertices.size(); i+=4 )
{
const RageVector3 &jitter = vGlyphJitter[i/4];;
m_aVertices[i+0].p -= jitter; // top left
m_aVertices[i+1].p -= jitter; // bottom left
m_aVertices[i+2].p -= jitter; // bottom right
m_aVertices[i+3].p -= jitter; // top right
}
}
}
// render the glow pass
if( m_pTempState->glow.a > 0.0001f || m_bHasGlowAttribute )
{
DISPLAY->SetTextureMode( TextureUnit_1, TextureMode_Glow );
size_t i = 0;
map<size_t,Attribute>::const_iterator iter = m_mAttributes.begin();
while( i < m_aVertices.size() )
{
// Set the glow up to the next attribute.
size_t iEnd = iter == m_mAttributes.end()? m_aVertices.size():iter->first*4;
iEnd = min( iEnd, m_aVertices.size() );
for( ; i < iEnd; ++i )
m_aVertices[i].c = m_pTempState->glow;
if( iter == m_mAttributes.end() )
break;
// Set the glow according to this attribute.
const Attribute &attr = iter->second;
++iter;
if( attr.length < 0 )
iEnd = iter == m_mAttributes.end()? m_aVertices.size():iter->first*4;
else
iEnd = i + attr.length*4;
iEnd = min( iEnd, m_aVertices.size() );
for( ; i < iEnd; ++i )
m_aVertices[i].c = attr.glow;
}
/* Draw glow using the base texture and the glow texture. Otherwise,
* glow looks too tame on BitmapText that has a stroke. - Chris Danford */
/* This doesn't work well if the font is using an invisible stroke, as
* the invisible stroke will glow as well. Time for TextGlowMode.
* Only draw the strokes if the glow mode is not inner only. -aj */
DrawChars(m_TextGlowMode != TextGlowMode_Inner);
}
}
void DifferentialEvolution::calculateNextGeneration(
std::vector<Candidate>& population,
const CostFunction& costFunction) const {
std::vector<Candidate> mirrorPopulation;
std::vector<Candidate> oldPopulation = population;
switch (configuration().strategy) {
case Rand1Standard: {
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop1 = population;
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop2 = population;
std::random_shuffle(population.begin(), population.end());
mirrorPopulation = shuffledPop1;
for (Size popIter = 0; popIter < population.size(); popIter++) {
population[popIter].values = population[popIter].values
+ configuration().stepsizeWeight
* (shuffledPop1[popIter].values - shuffledPop2[popIter].values);
}
}
break;
case BestMemberWithJitter: {
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop1 = population;
std::random_shuffle(population.begin(), population.end());
Array jitter(population[0].values.size(), 0.0);
for (Size popIter = 0; popIter < population.size(); popIter++) {
for (Size jitterIter = 0; jitterIter < jitter.size(); jitterIter++) {
jitter[jitterIter] = rng_.nextReal();
}
population[popIter].values = bestMemberEver_.values
+ (shuffledPop1[popIter].values - population[popIter].values)
* (0.0001 * jitter + configuration().stepsizeWeight);
}
mirrorPopulation = std::vector<Candidate>(population.size(),
bestMemberEver_);
}
break;
case CurrentToBest2Diffs: {
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop1 = population;
std::random_shuffle(population.begin(), population.end());
for (Size popIter = 0; popIter < population.size(); popIter++) {
population[popIter].values = oldPopulation[popIter].values
+ configuration().stepsizeWeight
* (bestMemberEver_.values - oldPopulation[popIter].values)
+ configuration().stepsizeWeight
* (population[popIter].values - shuffledPop1[popIter].values);
}
mirrorPopulation = shuffledPop1;
}
break;
case Rand1DiffWithPerVectorDither: {
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop1 = population;
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop2 = population;
std::random_shuffle(population.begin(), population.end());
mirrorPopulation = shuffledPop1;
Array FWeight = Array(population.front().values.size(), 0.0);
for (Size fwIter = 0; fwIter < FWeight.size(); fwIter++)
FWeight[fwIter] = (1.0 - configuration().stepsizeWeight)
* rng_.nextReal() + configuration().stepsizeWeight;
for (Size popIter = 0; popIter < population.size(); popIter++) {
population[popIter].values = population[popIter].values
+ FWeight * (shuffledPop1[popIter].values - shuffledPop2[popIter].values);
}
}
break;
case Rand1DiffWithDither: {
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop1 = population;
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop2 = population;
std::random_shuffle(population.begin(), population.end());
mirrorPopulation = shuffledPop1;
Real FWeight = (1.0 - configuration().stepsizeWeight) * rng_.nextReal()
+ configuration().stepsizeWeight;
for (Size popIter = 0; popIter < population.size(); popIter++) {
population[popIter].values = population[popIter].values
+ FWeight * (shuffledPop1[popIter].values - shuffledPop2[popIter].values);
}
}
break;
case EitherOrWithOptimalRecombination: {
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop1 = population;
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop2 = population;
std::random_shuffle(population.begin(), population.end());
mirrorPopulation = shuffledPop1;
Real probFWeight = 0.5;
if (rng_.nextReal() < probFWeight) {
for (Size popIter = 0; popIter < population.size(); popIter++) {
population[popIter].values = oldPopulation[popIter].values
+ configuration().stepsizeWeight
* (shuffledPop1[popIter].values - shuffledPop2[popIter].values);
}
} else {
Real K = 0.5 * (configuration().stepsizeWeight + 1); // invariant with respect to probFWeight used
for (Size popIter = 0; popIter < population.size(); popIter++) {
population[popIter].values = oldPopulation[popIter].values
+ K
* (shuffledPop1[popIter].values - shuffledPop2[popIter].values
- 2.0 * population[popIter].values);
}
}
}
break;
case Rand1SelfadaptiveWithRotation: {
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop1 = population;
std::random_shuffle(population.begin(), population.end());
std::vector<Candidate> shuffledPop2 = population;
std::random_shuffle(population.begin(), population.end());
mirrorPopulation = shuffledPop1;
adaptSizeWeights();
for (Size popIter = 0; popIter < population.size(); popIter++) {
if (rng_.nextReal() < 0.1){
population[popIter].values = rotateArray(bestMemberEver_.values);
}else {
population[popIter].values = bestMemberEver_.values
+ currGenSizeWeights_[popIter]
* (shuffledPop1[popIter].values - shuffledPop2[popIter].values);
}
}
}
break;
default:
QL_FAIL("Unknown strategy ("
<< Integer(configuration().strategy) << ")");
}
// in order to avoid unnecessary copying we use the same population object for mutants
crossover(oldPopulation, population, population, mirrorPopulation,
costFunction);
}
void CBlender_accum_direct::Compile(CBlender_Compile& C)
{
IBlender::Compile (C);
// BOOL b_HW_smap = RImplementation.o.HW_smap;
// BOOL b_HW_PCF = RImplementation.o.HW_smap_PCF;
BOOL blend = FALSE; //RImplementation.o.fp16_blend;
D3DBLEND dest = blend?D3DBLEND_ONE:D3DBLEND_ZERO;
if (RImplementation.o.sunfilter) { blend = FALSE; dest = D3DBLEND_ZERO; }
switch (C.iElement)
{
case SE_SUN_NEAR: // near pass - enable Z-test to perform depth-clipping
// FVF::TL2uv
C.r_Pass ("stub_notransform_2uv","accum_sun_near_nomsaa_nominmax", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_CullMode (D3DCULL_NONE);
C.PassSET_ZB (TRUE,FALSE,TRUE ); // force inverted Z-Buffer
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_accumulator", r2_RT_accum);
C.r_dx10Texture ("s_lmap", r2_sunmask);
C.r_dx10Texture ("s_smap", r2_RT_smap_depth);
C.r_dx10Texture ("s_smap_minmax", r2_RT_smap_depth_minmax);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
C.r_dx10Sampler ("smp_linear");
jitter (C);
C.r_dx10Sampler ("smp_smap");
C.r_End ();
break;
case SE_SUN_FAR: // far pass, only stencil clipping performed
// FVF::TL2uv
//C.r_Pass ("null", "accum_sun_far", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_Pass ("stub_notransform_2uv","accum_sun_far_nomsaa", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_CullMode (D3DCULL_NONE);
//C.r_Sampler_rtf ("s_position", r2_RT_P );
//C.r_Sampler_rtf ("s_normal", r2_RT_N );
//C.r_Sampler_clw ("s_material", r2_material );
//C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
//C.r_Sampler ("s_lmap", r2_sunmask );
//if (b_HW_smap) {
// if (b_HW_PCF) C.r_Sampler_clf ("s_smap",r2_RT_smap_depth );
// else {
// C.r_Sampler_rtf ("s_smap",r2_RT_smap_depth );
// }
//}
//else C.r_Sampler_rtf ("s_smap",r2_RT_smap_surf );
//jitter (C);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_accumulator", r2_RT_accum);
C.r_dx10Texture ("s_lmap", r2_sunmask);
C.r_dx10Texture ("s_smap", r2_RT_smap_depth);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
C.r_dx10Sampler ("smp_linear");
jitter (C);
C.r_dx10Sampler ("smp_smap");
C.r_End ();
break;
case SE_SUN_LUMINANCE: // luminance pass
//C.r_Pass ("null", "accum_sun", false, FALSE, FALSE);
C.r_Pass ("stub_notransform_aa_AA","accum_sun_nomsaa", false, FALSE, FALSE);
C.r_CullMode (D3DCULL_NONE);
//C.r_Sampler_rtf ("s_position", r2_RT_P );
//C.r_Sampler_rtf ("s_normal", r2_RT_N );
//C.r_Sampler_clw ("s_material", r2_material );
//C.r_Sampler_clf ("s_smap", r2_RT_generic0 );
//jitter (C);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_smap", r2_RT_generic0);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
jitter (C);
C.r_End ();
break;
// SE_SUN_NEAR for min/max
case SE_SUN_NEAR_MINMAX: // near pass - enable Z-test to perform depth-clipping
// FVF::TL2uv
C.r_Pass ("stub_notransform_2uv","accum_sun_near_nomsaa_minmax", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_CullMode (D3DCULL_NONE);
C.PassSET_ZB (TRUE,FALSE,TRUE ); // force inverted Z-Buffer
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_accumulator", r2_RT_accum);
C.r_dx10Texture ("s_lmap", r2_sunmask);
C.r_dx10Texture ("s_smap", r2_RT_smap_depth);
C.r_dx10Texture ("s_smap_minmax", r2_RT_smap_depth_minmax);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
C.r_dx10Sampler ("smp_linear");
jitter (C);
C.r_dx10Sampler ("smp_smap");
C.r_End ();
break;
/*
// SE_SUN_FAR for min/max
case 5: // far pass, only stencil clipping performed
// FVF::TL2uv
C.r_Pass ("stub_notransform_2uv","accum_sun_far_nomsaa", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_CullMode (D3DCULL_NONE);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_accumulator", r2_RT_accum);
C.r_dx10Texture ("s_lmap", r2_sunmask);
C.r_dx10Texture ("s_smap", r2_RT_smap_depth);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
C.r_dx10Sampler ("smp_linear");
jitter (C);
C.r_dx10Sampler ("smp_smap");
C.r_End ();
break;
*/
}
}
// TODO: DX10: implement CBlender_accum_direct::Compile
void CBlender_accum_direct_msaa::Compile(CBlender_Compile& C)
{
IBlender::Compile (C);
if( Name )
::Render->m_MSAASample = atoi( Definition );
else
::Render->m_MSAASample = -1;
// BOOL b_HW_smap = RImplementation.o.HW_smap;
// BOOL b_HW_PCF = RImplementation.o.HW_smap_PCF;
BOOL blend = FALSE; //RImplementation.o.fp16_blend;
D3DBLEND dest = blend?D3DBLEND_ONE:D3DBLEND_ZERO;
if (RImplementation.o.sunfilter) { blend = FALSE; dest = D3DBLEND_ZERO; }
switch (C.iElement)
{
case SE_SUN_NEAR: // near pass - enable Z-test to perform depth-clipping
case SE_SUN_MIDDLE: // middle pass - enable Z-test to perform depth-clipping
// FVF::TL2uv
//C.r_Pass ("null", "accum_sun_near", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_Pass ("accum_sun","accum_sun_near_msaa_nominmax", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_CullMode (D3DCULL_NONE);
C.PassSET_ZB (TRUE,FALSE,TRUE ); // force inverted Z-Buffer
//C.r_Sampler_rtf ("s_position", r2_RT_P );
//C.r_Sampler_rtf ("s_normal", r2_RT_N );
//C.r_Sampler_clw ("s_material", r2_material );
//C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
//C.r_Sampler ("s_lmap", r2_sunmask );
//if (b_HW_smap) {
// if (b_HW_PCF) C.r_Sampler_clf ("s_smap",r2_RT_smap_depth );
// else {
// C.r_Sampler_rtf ("s_smap",r2_RT_smap_depth );
// }
//}
//else C.r_Sampler_rtf ("s_smap",r2_RT_smap_surf );
//jitter (C);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_accumulator", r2_RT_accum);
C.r_dx10Texture ("s_lmap", r2_sunmask);
C.r_dx10Texture ("s_smap", r2_RT_smap_depth);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
C.r_dx10Sampler ("smp_linear");
jitter (C);
C.r_dx10Sampler ("smp_smap");
C.r_End ();
break;
case SE_SUN_FAR: // far pass, only stencil clipping performed
// FVF::TL2uv
//C.r_Pass ("null", "accum_sun_far", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_Pass ("accum_sun","accum_sun_far_msaa", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_CullMode (D3DCULL_NONE);
//C.r_Sampler_rtf ("s_position", r2_RT_P );
//C.r_Sampler_rtf ("s_normal", r2_RT_N );
//C.r_Sampler_clw ("s_material", r2_material );
//C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
//C.r_Sampler ("s_lmap", r2_sunmask );
//if (b_HW_smap) {
// if (b_HW_PCF) C.r_Sampler_clf ("s_smap",r2_RT_smap_depth );
// else {
// C.r_Sampler_rtf ("s_smap",r2_RT_smap_depth );
// }
//}
//else C.r_Sampler_rtf ("s_smap",r2_RT_smap_surf );
//jitter (C);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_accumulator", r2_RT_accum);
C.r_dx10Texture ("s_lmap", r2_sunmask);
C.r_dx10Texture ("s_smap", r2_RT_smap_depth);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
C.r_dx10Sampler ("smp_linear");
jitter (C);
{
u32 s = C.r_dx10Sampler("smp_smap");
C.i_dx10Address (s, D3DTADDRESS_BORDER);
C.i_dx10BorderColor (s, D3DCOLOR_ARGB(255, 255, 255, 255));
}
C.r_End ();
break;
case SE_SUN_LUMINANCE: // luminance pass
//C.r_Pass ("null", "accum_sun", false, FALSE, FALSE);
C.r_Pass ("stub_notransform_aa_AA","accum_sun_msaa", false, FALSE, FALSE);
C.r_CullMode (D3DCULL_NONE);
//C.r_Sampler_rtf ("s_position", r2_RT_P );
//C.r_Sampler_rtf ("s_normal", r2_RT_N );
//C.r_Sampler_clw ("s_material", r2_material );
//C.r_Sampler_clf ("s_smap", r2_RT_generic0 );
//jitter (C);
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_smap", r2_RT_generic0);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
jitter (C);
C.r_End ();
break;
// SE_SUN_NEAR for minmax
case SE_SUN_NEAR_MINMAX: // near pass - enable Z-test to perform depth-clipping
// FVF::TL2uv
C.r_Pass ("accum_sun","accum_sun_near_msaa_minmax", false, TRUE, FALSE,blend,D3DBLEND_ONE,dest);
C.r_CullMode (D3DCULL_NONE);
C.PassSET_ZB (TRUE,FALSE,TRUE ); // force inverted Z-Buffer
C.r_dx10Texture ("s_position", r2_RT_P);
C.r_dx10Texture ("s_normal", r2_RT_N);
C.r_dx10Texture ("s_material", r2_material);
C.r_dx10Texture ("s_accumulator", r2_RT_accum);
C.r_dx10Texture ("s_lmap", r2_sunmask);
C.r_dx10Texture ("s_smap", r2_RT_smap_depth);
C.r_dx10Texture ("s_smap_minmax", r2_RT_smap_depth_minmax);
C.r_dx10Sampler ("smp_nofilter");
C.r_dx10Sampler ("smp_material");
C.r_dx10Sampler ("smp_linear");
jitter (C);
C.r_dx10Sampler ("smp_smap");
C.r_End ();
break;
}
::Render->m_MSAASample = -1;
}
/**
* @brief CreateTopics tests
*
*
*
*/
static void do_test_CreateTopics (const char *what,
rd_kafka_t *rk, rd_kafka_queue_t *useq,
int with_background_event_cb,
int with_options) {
rd_kafka_queue_t *q = useq ? useq : rd_kafka_queue_new(rk);
#define MY_NEW_TOPICS_CNT 6
rd_kafka_NewTopic_t *new_topics[MY_NEW_TOPICS_CNT];
rd_kafka_AdminOptions_t *options = NULL;
int exp_timeout = MY_SOCKET_TIMEOUT_MS;
int i;
char errstr[512];
const char *errstr2;
rd_kafka_resp_err_t err;
test_timing_t timing;
rd_kafka_event_t *rkev;
const rd_kafka_CreateTopics_result_t *res;
const rd_kafka_topic_result_t **restopics;
size_t restopic_cnt;
void *my_opaque = NULL, *opaque;
TEST_SAY(_C_MAG "[ %s CreateTopics with %s, timeout %dms ]\n",
rd_kafka_name(rk), what, exp_timeout);
/**
* Construct NewTopic array with different properties for
* different partitions.
*/
for (i = 0 ; i < MY_NEW_TOPICS_CNT ; i++) {
const char *topic = test_mk_topic_name(__FUNCTION__, 1);
int num_parts = i * 51 + 1;
int num_replicas = jitter(1, MY_NEW_TOPICS_CNT-1);
int set_config = (i & 2);
int set_replicas = !(i % 1);
new_topics[i] = rd_kafka_NewTopic_new(topic,
num_parts,
set_replicas ? -1 :
num_replicas,
NULL, 0);
if (set_config) {
/*
* Add various (unverified) configuration properties
*/
err = rd_kafka_NewTopic_set_config(new_topics[i],
"dummy.doesntexist",
"butThere'sNothing "
"to verify that");
TEST_ASSERT(!err, "%s", rd_kafka_err2str(err));
err = rd_kafka_NewTopic_set_config(new_topics[i],
"try.a.null.value",
NULL);
TEST_ASSERT(!err, "%s", rd_kafka_err2str(err));
err = rd_kafka_NewTopic_set_config(new_topics[i],
"or.empty", "");
TEST_ASSERT(!err, "%s", rd_kafka_err2str(err));
}
if (set_replicas) {
int32_t p;
int32_t replicas[MY_NEW_TOPICS_CNT];
int j;
for (j = 0 ; j < num_replicas ; j++)
replicas[j] = j;
/*
* Set valid replica assignments
*/
for (p = 0 ; p < num_parts ; p++) {
/* Try adding an existing out of order,
* should fail */
if (p == 1) {
err = rd_kafka_NewTopic_set_replica_assignment(
new_topics[i], p+1,
replicas, num_replicas,
errstr, sizeof(errstr));
TEST_ASSERT(err == RD_KAFKA_RESP_ERR__INVALID_ARG,
"%s", rd_kafka_err2str(err));
}
err = rd_kafka_NewTopic_set_replica_assignment(
new_topics[i], p,
replicas, num_replicas,
errstr, sizeof(errstr));
TEST_ASSERT(!err, "%s", errstr);
}
/* Try to add an existing partition, should fail */
err = rd_kafka_NewTopic_set_replica_assignment(
new_topics[i], 0,
replicas, num_replicas, NULL, 0);
TEST_ASSERT(err == RD_KAFKA_RESP_ERR__INVALID_ARG,
"%s", rd_kafka_err2str(err));
} else {
int32_t dummy_replicas[1] = {1};
/* Test invalid partition */
err = rd_kafka_NewTopic_set_replica_assignment(
new_topics[i], num_parts+1, dummy_replicas, 1,
errstr, sizeof(errstr));
TEST_ASSERT(err == RD_KAFKA_RESP_ERR__INVALID_ARG,
"%s: %s", rd_kafka_err2str(err),
err == RD_KAFKA_RESP_ERR_NO_ERROR ?
"" : errstr);
/* Setting replicas with with default replicas != -1
* is an error. */
err = rd_kafka_NewTopic_set_replica_assignment(
new_topics[i], 0, dummy_replicas, 1,
errstr, sizeof(errstr));
TEST_ASSERT(err == RD_KAFKA_RESP_ERR__INVALID_ARG,
"%s: %s", rd_kafka_err2str(err),
err == RD_KAFKA_RESP_ERR_NO_ERROR ?
"" : errstr);
}
}
if (with_options) {
options = rd_kafka_AdminOptions_new(rk, RD_KAFKA_ADMIN_OP_ANY);
exp_timeout = MY_SOCKET_TIMEOUT_MS * 2;
err = rd_kafka_AdminOptions_set_request_timeout(
options, exp_timeout, errstr, sizeof(errstr));
TEST_ASSERT(!err, "%s", rd_kafka_err2str(err));
my_opaque = (void *)123;
rd_kafka_AdminOptions_set_opaque(options, my_opaque);
}
TIMING_START(&timing, "CreateTopics");
TEST_SAY("Call CreateTopics, timeout is %dms\n", exp_timeout);
rd_kafka_CreateTopics(rk, new_topics, MY_NEW_TOPICS_CNT,
options, q);
TIMING_ASSERT_LATER(&timing, 0, 50);
if (with_background_event_cb) {
/* Result event will be triggered by callback from
* librdkafka background queue thread. */
TIMING_START(&timing, "CreateTopics.wait_background_event_cb");
rkev = wait_background_event_cb();
} else {
/* Poll result queue */
TIMING_START(&timing, "CreateTopics.queue_poll");
rkev = rd_kafka_queue_poll(q, exp_timeout + 1000);
}
TIMING_ASSERT_LATER(&timing, exp_timeout-100, exp_timeout+100);
TEST_ASSERT(rkev != NULL, "expected result in %dms",
exp_timeout);
TEST_SAY("CreateTopics: got %s in %.3fs\n",
rd_kafka_event_name(rkev),
TIMING_DURATION(&timing) / 1000.0f);
/* Convert event to proper result */
res = rd_kafka_event_CreateTopics_result(rkev);
TEST_ASSERT(res, "expected CreateTopics_result, not %s",
rd_kafka_event_name(rkev));
opaque = rd_kafka_event_opaque(rkev);
TEST_ASSERT(opaque == my_opaque, "expected opaque to be %p, not %p",
my_opaque, opaque);
/* Expecting error */
err = rd_kafka_event_error(rkev);
errstr2 = rd_kafka_event_error_string(rkev);
TEST_ASSERT(err == RD_KAFKA_RESP_ERR__TIMED_OUT,
"expected CreateTopics to return error %s, not %s (%s)",
rd_kafka_err2str(RD_KAFKA_RESP_ERR__TIMED_OUT),
rd_kafka_err2str(err),
err ? errstr2 : "n/a");
/* Attempt to extract topics anyway, should return NULL. */
restopics = rd_kafka_CreateTopics_result_topics(res, &restopic_cnt);
TEST_ASSERT(!restopics && restopic_cnt == 0,
"expected no result_topics, got %p cnt %"PRIusz,
restopics, restopic_cnt);
rd_kafka_event_destroy(rkev);
rd_kafka_NewTopic_destroy_array(new_topics, MY_NEW_TOPICS_CNT);
if (options)
rd_kafka_AdminOptions_destroy(options);
if (!useq)
rd_kafka_queue_destroy(q);
}
void
img_copy_texture(uint16 *dest, uint8 *source, uint32 channels, uint32 stride,
const IMG_INFO *info, uint32 w, uint32 h)
{
uint32 i,j;
uint16 *destRow;
uint8 *pRow;
uint8 r,g,b;
for(i = 0; i < h; i++)
{
pRow = &source[i*stride];
destRow = &dest[i*w];
if (channels == 3)
{
switch(info->alpha)
{
case IMG_ALPHA_NONE:
for(j = 0; j < w; j++)
{
if (info->dither == IMG_DITHER_JITTER)
{
r = jitter(pRow[j*3],0,3,info->noise,
i%info->dither_height,j%info->dither_width);
g = jitter(pRow[j*3+1],1,2,info->noise,
i%info->dither_height,j%info->dither_width);
b = jitter(pRow[j*3+2],2,3,info->noise,
i%info->dither_height,j%info->dither_width);
}
else
{
r = pRow[j*3];
g = pRow[j*3+1];
b = pRow[j*3+2];
}
destRow[j] = LOAD565(r,g,b);
}
break;
case IMG_ALPHA_MASK:
for(j = 0; j < w; j++)
{
if (info->dither == IMG_DITHER_JITTER)
{
r = jitter(pRow[j*3],0,3,info->noise,
i%info->dither_height,j%info->dither_width);
g = jitter(pRow[j*3+1],1,3,info->noise,
i%info->dither_height,j%info->dither_width);
b = jitter(pRow[j*3+2],2,3,info->noise,
i%info->dither_height,j%info->dither_width);
}
else
{
r = pRow[j*3];
g = pRow[j*3+1];
b = pRow[j*3+2];
}
destRow[j] = LOAD1555(r,g,b,255);
}
break;
case IMG_ALPHA_FULL:
for(j = 0; j < w; j++)
{
if (info->dither == IMG_DITHER_JITTER)
{
r = jitter(pRow[j*3],0,4,info->noise,
i%info->dither_height,j%info->dither_width);
g = jitter(pRow[j*3+1],1,4,info->noise,
i%info->dither_height,j%info->dither_width);
b = jitter(pRow[j*3+2],2,4,info->noise,
i%info->dither_height,j%info->dither_width);
}
else
{
r = pRow[j*3];
g = pRow[j*3+1];
b = pRow[j*3+2];
}
destRow[j] = LOAD4444(r,g,b,255);
}
break;
case IMG_ALPHA_KEYED:
for(j = 0; j < w; j++)
{
if (info->dither == IMG_DITHER_JITTER)
{
r = jitter(pRow[j*3],0,3,info->noise,
i%info->dither_height,j%info->dither_width);
g = jitter(pRow[j*3+1],1,3,info->noise,
i%info->dither_height,j%info->dither_width);
b = jitter(pRow[j*3+2],2,3,info->noise,
i%info->dither_height,j%info->dither_width);
}
else
{
r = pRow[j*3];
g = pRow[j*3+1];
b = pRow[j*3+2];
}
if (info->key == LOAD8888(pRow[j*3],pRow[j*3+1],pRow[j*3+2],0))
destRow[j] = LOAD1555(r,g,b,0);
else
destRow[j] = LOAD1555(r,g,b,255);
}
}
}
else if (channels == 4)
{
switch(info->alpha)
{
case IMG_ALPHA_NONE:
for(j = 0; j < h; j++)
{
if (info->dither == IMG_DITHER_JITTER)
{
r = jitter(pRow[j*4],0,3,info->noise,
i%info->dither_height,j%info->dither_width);
g = jitter(pRow[j*4+1],1,2,info->noise,
i%info->dither_height,j%info->dither_width);
b = jitter(pRow[j*4+2],2,3,info->noise,
i%info->dither_height,j%info->dither_width);
}
else
{
r = pRow[j*4];
g = pRow[j*4+1];
b = pRow[j*4+2];
}
destRow[j] = LOAD565(r, g, b);
}
break;
case IMG_ALPHA_MASK:
for(j = 0; j < h; j++)
{
if (info->dither == IMG_DITHER_JITTER)
{
r = jitter(pRow[j*4],0,3,info->noise,
i%info->dither_height,j%info->dither_width);
g = jitter(pRow[j*4+1],1,3,info->noise,
i%info->dither_height,j%info->dither_width);
b = jitter(pRow[j*4+2],2,3,info->noise,
i%info->dither_height,j%info->dither_width);
}
else
{
r = pRow[j*4];
g = pRow[j*4+1];
b = pRow[j*4+2];
}
destRow[j] = LOAD1555(r,g,b,pRow[j*4+3]);
}
break;
case IMG_ALPHA_FULL:
for(j = 0; j < h; j++)
{
if (info->dither == IMG_DITHER_JITTER)
{
r = jitter(pRow[j*4],0,4,info->noise,
i%info->dither_height,j%info->dither_width);
g = jitter(pRow[j*4+1],1,4,info->noise,
i%info->dither_height,j%info->dither_width);
b = jitter(pRow[j*4+2],2,4,info->noise,
i%info->dither_height,j%info->dither_width);
}
else
{
r = pRow[j*4];
g = pRow[j*4+1];
b = pRow[j*4+2];
}
destRow[j] = LOAD4444(r,g,b,pRow[j*4+3]);
}
break;
case IMG_ALPHA_KEYED:
for(j = 0; j < h; j++)
{
if (info->dither == IMG_DITHER_JITTER)
{
r = jitter(pRow[j*4],0,3,info->noise,
i%info->dither_height,j%info->dither_width);
g = jitter(pRow[j*4+1],1,3,info->noise,
i%info->dither_height,j%info->dither_width);
b = jitter(pRow[j*4+2],2,3,info->noise,
i%info->dither_height,j%info->dither_width);
}
else
{
r = pRow[j*4];
g = pRow[j*4+1];
b = pRow[j*4+2];
}
if (info->key == LOAD8888(pRow[j*4],pRow[j*4+1],pRow[j*4+2],0))
destRow[j] = LOAD1555(r,g,b,0);
else
destRow[j] = LOAD1555(r,g,b,pRow[j*4+3]);
}
break;
}
}
}
}
void CBlender_accum_spot::Compile(CBlender_Compile& C)
{
IBlender::Compile (C);
BOOL b_HW_smap = RImplementation.o.HW_smap;
BOOL b_HW_PCF = RImplementation.o.HW_smap_PCF;
BOOL blend = RImplementation.o.fp16_blend;
D3DBLEND dest = blend?D3DBLEND_ONE:D3DBLEND_ZERO;
switch (C.iElement)
{
case SE_L_FILL: // masking
C.r_Pass ("null", "copy", false, FALSE, FALSE);
C.r_Sampler ("s_base", C.L_textures[0]);
C.r_End ();
break;
case SE_L_UNSHADOWED: // unshadowed
C.r_Pass ("accum_volume", "accum_spot_unshadowed", false, FALSE,FALSE,blend,D3DBLEND_ONE,dest);
C.r_Sampler_rtf ("s_position", r2_RT_P);
C.r_Sampler_rtf ("s_normal", r2_RT_N);
C.r_Sampler_clw ("s_material", r2_material);
C.r_Sampler ("s_lmap", C.L_textures[0],false,D3DTADDRESS_CLAMP);
C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
C.r_End ();
break;
case SE_L_NORMAL: // normal
C.r_Pass ("accum_volume", "accum_spot_normal", false, FALSE,FALSE,blend,D3DBLEND_ONE,dest);
C.r_Sampler_rtf ("s_position", r2_RT_P);
C.r_Sampler_rtf ("s_normal", r2_RT_N);
C.r_Sampler_clw ("s_material", r2_material);
C.r_Sampler ("s_lmap", C.L_textures[0],false,D3DTADDRESS_CLAMP);
if (b_HW_smap) {
if (b_HW_PCF) C.r_Sampler_clf ("s_smap",r2_RT_smap_depth );
else C.r_Sampler_rtf ("s_smap",r2_RT_smap_depth );
}
else C.r_Sampler_rtf ("s_smap",r2_RT_smap_surf );
jitter (C);
C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
C.r_End ();
break;
case SE_L_FULLSIZE: // normal-fullsize
C.r_Pass ("accum_volume", "accum_spot_fullsize", false, FALSE,FALSE,blend,D3DBLEND_ONE,dest);
C.r_Sampler_rtf ("s_position", r2_RT_P);
C.r_Sampler_rtf ("s_normal", r2_RT_N);
C.r_Sampler_clw ("s_material", r2_material);
C.r_Sampler ("s_lmap", C.L_textures[0],false,D3DTADDRESS_CLAMP);
if (b_HW_smap) {
if (b_HW_PCF) C.r_Sampler_clf ("s_smap",r2_RT_smap_depth );
else C.r_Sampler_rtf ("s_smap",r2_RT_smap_depth );
}
else C.r_Sampler_rtf ("s_smap",r2_RT_smap_surf );
jitter (C);
C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
C.r_End ();
break;
case SE_L_TRANSLUENT: // shadowed + transluency
C.r_Pass ("accum_volume", "accum_spot_fullsize", false, FALSE,FALSE,blend,D3DBLEND_ONE,dest);
C.r_Sampler_rtf ("s_position", r2_RT_P);
C.r_Sampler_rtf ("s_normal", r2_RT_N);
C.r_Sampler_clw ("s_material", r2_material);
C.r_Sampler_clf ("s_lmap", r2_RT_smap_surf); // diff here
if (b_HW_smap) {
if (b_HW_PCF) C.r_Sampler_clf ("s_smap",r2_RT_smap_depth );
else C.r_Sampler_rtf ("s_smap",r2_RT_smap_depth );
}
else C.r_Sampler_rtf ("s_smap",r2_RT_smap_surf );
C.r_Sampler_rtf ("s_accumulator", r2_RT_accum );
jitter (C);
C.r_End ();
break;
}
}
int
main (int argc, char **argv)
{
char *endptr;
int opt, packetsize, ip_int, coarse_ip, normal_ip, big_ip, ib;
int il_normal, il_big;
int bufsize, buffers;
double bitrate, ip, ip_frac, ft_jitter, il_jitter;
double testrate, tolerance;
tolerance = 0;
while ((opt = getopt (argc, argv, "ht:V")) != -1) {
switch (opt) {
case 'h':
printf ("Usage: %s [OPTION]... BITRATE PACKETSIZE\n",
argv[0]);
printf ("Calculate DVB ASI stuffing parameters "
"for a given BITRATE and PACKETSIZE.\n\n");
printf (" -h\t\tdisplay this help and exit\n");
printf (" -t TOLERANCE\tstop optimizing the bitrate "
"at an error of\n"
"\t\tTOLERANCE parts per million "
"(default 0)\n");
printf (" -V\t\toutput version information "
"and exit\n\n");
printf ("Report bugs to <*****@*****.**>.\n");
return 0;
case 't':
tolerance = strtod (optarg, &endptr);
if (*endptr != '\0' || tolerance > 30) {
fprintf (stderr,
"%s: invalid bitrate tolerance: %s\n",
argv[0], optarg);
return -1;
}
break;
case 'V':
printf ("%s from master-%s (%s)\n", progname,
MASTER_DRIVER_VERSION,
MASTER_DRIVER_DATE);
printf ("\nCopyright (C) 2000-2004 "
"Linear Systems Ltd.\n"
"This is free software; "
"see the source for copying conditions. "
"There is NO\n"
"warranty; not even for MERCHANTABILITY "
"or FITNESS FOR A PARTICULAR PURPOSE.\n");
return 0;
case '?':
goto USAGE;
}
}
/* Check the number of arguments */
if ((argc - optind) < 2) {
fprintf (stderr, "%s: missing arguments\n", argv[0]);
goto USAGE;
} else if ((argc - optind) > 2) {
fprintf (stderr, "%s: extra operand\n", argv[0]);
goto USAGE;
}
/* Read the packet size */
packetsize = strtol (argv[optind + 1], &endptr, 0);
if ((*endptr != '\0') ||
((packetsize != 188) && (packetsize != 204))) {
fprintf (stderr, "%s: invalid packet size: %s\n",
argv[0], argv[optind + 1]);
return -1;
}
/* Read the bitrate */
bitrate = strtod (argv[optind], &endptr);
if ((*endptr != '\0') || (bitrate > br (packetsize, 0, 1, 0)) ||
(bitrate < br (packetsize, 16777215, 1, 255))) {
fprintf (stderr, "%s: invalid bitrate: %s\n",
argv[0], argv[optind]);
return -1;
}
/* Assume no interbyte stuffing.
* This will allow bitrates down to about 2400 bps,
* which is probably good enough! */
ip = 270000000 * 0.8 * packetsize / bitrate - packetsize - 2;
printf ("\n%f bytes of stuffing required per packet.\n", ip);
ip_int = ip;
ip_frac = ip - ip_int;
if (ip_frac > 0.5) {
coarse_ip = ip_int + 1;
} else {
coarse_ip = ip_int;
}
testrate = br (packetsize, coarse_ip, 1, 0);
printf ("ib = 0, ip = %i => bitrate = %f bps, err = %.0f ppm\n",
coarse_ip, testrate, ppm (testrate, bitrate));
normal_ip = 0;
big_ip = 0;
il_normal = 0;
il_big = 0;
if ((ip_frac > (double)1 / 256 / 2) &&
(ip_frac < (1 - (double)1 / 256 / 2)) &&
(fabs (ppm (testrate, bitrate)) > tolerance)) {
int n = 1, b = 1, il0, il1, il_normal_max, il_big_max;
double best_error = 1.0, error, jit = 0.1;
/* Find the finetuning parameters which
* best approximate the desired bitrate.
* Break at 1 us p-p network jitter or
* the desired bitrate accuracy, whichever
* gives less network jitter */
printf ("\nFinetuning ib = 0, ip = %i:\n", ip_int);
while ((b < 256) && (n < 256) &&
(((double)(n * b) / (n + b)) <= 27)) {
error = (double)b / (n + b) - ip_frac;
if (fabs (error) < fabs (best_error)) {
best_error = error;
normal_ip = n;
big_ip = b;
testrate = br (packetsize, ip_int, n, b);
printf ("normal_ip = %i, big_ip = %i"
" => bitrate = %f bps, "
"err = %.0f ppm\n",
n, b,
testrate, ppm (testrate, bitrate));
if (fabs (ppm (testrate, bitrate)) < tolerance) {
break;
}
}
if (error < 0) {
b++;
} else {
n++;
}
}
/* Calculate the network jitter produced by finetuning */
ft_jitter = jitter (normal_ip, big_ip,
normal_ip, big_ip,
(double)big_ip / (normal_ip + big_ip));
/* Find the interleaving parameters which
* produce the least network jitter */
if ((normal_ip == 1) || (big_ip == 1)) {
il_jitter = jitter (normal_ip, big_ip,
normal_ip, big_ip,
(double)big_ip / (normal_ip + big_ip));
} else {
il_jitter = 0.1;
il_normal_max = (normal_ip > 14) ? 14 : normal_ip;
for (il0 = 1; il0 <= il_normal_max; il0++) {
il_big_max = (big_ip > 14) ? 14 : big_ip;
il1 = 1;
while ((il1 <= il_big_max) &&
(il0 + il1 <= 15)) {
jit = jitter (normal_ip, big_ip,
il0, il1,
(double)big_ip / (normal_ip + big_ip));
if (jit < il_jitter) {
il_jitter = jit;
il_normal = il0;
il_big = il1;
}
il1++;
}
}
}
} else {
ip_int = coarse_ip;
ft_jitter = 0;
il_jitter = 0;
}
/* Print the best stuffing parameters
* for transmitters with interleaved finetuning */
printf ("\nRecommended stuffing parameters with "
"interleaved finetuning:\n");
printf ("ib = 0, ip = %i, normal_ip = %i, big_ip = %i,\n"
"\til_normal = %i, il_big = %i (burst mode) OR\n",
ip_int, normal_ip, big_ip, il_normal, il_big);
ib = ip_int / (packetsize - 1);
while ((ib - smooth_ip (ip_int, ib, packetsize)) >
(packetsize + 2) / 2) {
ib--;
}
if (ib > 255) {
if (ib > 65535) {
ib = 65535;
}
printf ("ib = %i, ip = %i, normal_ip = %i, big_ip = %i,\n"
"\til_normal = %i, il_big = %i (large ib) OR\n",
ib, smooth_ip (ip_int, ib, packetsize),
normal_ip, big_ip, il_normal, il_big);
ib = 255;
}
printf ("ib = %i, ip = %i, normal_ip = %i, big_ip = %i,\n"
"\til_normal = %i, il_big = %i\n",
ib, smooth_ip (ip_int, ib, packetsize),
normal_ip, big_ip, il_normal, il_big);
testrate = br (packetsize, ip_int, normal_ip, big_ip);
printf ("Bitrate = %f bps; "
"err = %.0f ppm, network jitter = %.0f ns p-p\n",
testrate, ppm (testrate, bitrate), il_jitter * 1E+09);
/* Print the best stuffing parameters
* for transmitters with ordinary finetuning */
printf ("\nRecommended stuffing parameters with finetuning:\n");
printf ("ib = 0, ip = %i, "
"normal_ip = %i, big_ip = %i (burst mode) OR\n",
ip_int, normal_ip, big_ip);
ib = ip_int / (packetsize - 1);
while ((ib - smooth_ip (ip_int, ib, packetsize)) >
(packetsize + 2) / 2) {
ib--;
}
if (ib > 255) {
if (ib > 65535) {
ib = 65535;
}
printf ("ib = %i, ip = %i, "
"normal_ip = %i, big_ip = %i (large ib) OR\n",
ib, smooth_ip (ip_int, ib, packetsize),
normal_ip, big_ip);
ib = 255;
}
printf ("ib = %i, ip = %i, normal_ip = %i, big_ip = %i\n",
ib, smooth_ip (ip_int, ib, packetsize),
normal_ip, big_ip);
testrate = br (packetsize, ip_int, normal_ip, big_ip);
printf ("Bitrate = %f bps; "
"err = %.0f ppm, network jitter = %.0f ns p-p\n",
testrate, ppm (testrate, bitrate), ft_jitter * 1E+09);
/* Print the best stuffing parameters
* for transmitters without finetuning */
printf ("\nRecommended stuffing parameters without finetuning:\n");
printf ("ib = 0, ip = %i (burst mode) OR\n", coarse_ip);
ib = coarse_ip / (packetsize - 1);
while ((ib - smooth_ip (coarse_ip, ib, packetsize)) >
(packetsize + 2) / 2) {
ib--;
}
if (ib > 255) {
ib = 255;
}
printf ("ib = %i, ip = %i\n",
ib, smooth_ip (coarse_ip, ib, packetsize));
testrate = br (packetsize, coarse_ip, 1, 0);
printf ("Bitrate = %f bps; err = %.0f ppm, network jitter = 0 ns p-p\n",
testrate, ppm (testrate, bitrate));
/* Print a sample calculation of the interrupt rate and buffer time
* based on a reasonable number and size of driver buffers
* and the bitrate */
bufsize = bitrate / (8 * 500);
if (bufsize < 4) {
bufsize = 4;
}
bufsize = (bufsize / 19176 + ((bufsize % 19176) ? 1 : 0)) * 19176;
buffers = bitrate * 0.25 / (8 * bufsize);
if (buffers < 2) {
buffers = 2;
}
printf ("\nSample buffer parameter calculation:\n");
printf ("At %f bps, %i x %i-byte buffers gives\n",
bitrate, buffers, bufsize);
printf ("%.0f interrupt(s) per second "
"and up to %.3f seconds of buffering.\n",
bitrate / (8 * bufsize), 8 * buffers * bufsize / bitrate);
return 0;
USAGE:
fprintf (stderr, "Try '%s -h' for more information.\n", argv[0]);
return -1;
}