c_haship_pubkey::c_haship_pubkey( const string_as_bin & input ) {
_mark("Loadig pubkey from: " << ::to_debug(input) );
this->load_from_bin(input.bytes);
_mark("After loading: " << (*this) );
//for(size_t i=0; i<input.bytes.size(); ++i) at(i) = input.bytes.at(i);
// for(auto v : input.bytes) at(
}
void example_memcheck_2() { // to test valgrind detection of errors
_mark("Valgrind memcheck test.");
vector<int> vec(100);
vec[2000] = 42;
volatile auto * ptr = & vec[3000];
*ptr = 42;
_mark("Valgrdin memcheck test done (program not aborted), result");
}
void example_ubsan_1() { // to test UBSAN / ub sanitize
_mark("UBSAN test.");
// TODO make it work for "signed char" as well
signed int i;
i = std::numeric_limits<decltype(i)>::max();
i += static_cast<decltype(i)>(5); // overflow of signed
_mark("UBSAN test done (program not aborted)");
}
void example_memcheck_1() { // to test valgrind detection of errors
_mark("Valgrind memcheck test.");
vector<int> vec(100);
int* ptr = & vec.at(0);
ptr += 200;
volatile int read = *ptr;
volatile int result = (read==0) ? 0 : 1; // to silence "unused var" and to cause e.g. cause "jump depends on uninitialized"
_mark("Valgrdin memcheck test done (program not aborted), result"<<result);
}
void example_tsan_1() { // to test STAN / thread sanitizer
_mark("TSAN test.");
int data=10;
// run concurent update of data:
auto thread1 = std::thread( [&](){ data=20; } );
auto thread2 = std::thread( [&](){ data=30; } );
thread1.join();
thread2.join();
_mark("TSAN test done (program not aborted)");
}
double ApplyCurve(FIBITMAP *src, FIBITMAP *dst, std::vector<cp> ctpts, int threadcount)
{
_mark();
unsigned spitch = FreeImage_GetPitch(src);
unsigned dpitch = FreeImage_GetPitch(dst);
unsigned w = FreeImage_GetWidth(src);
unsigned h = FreeImage_GetHeight(src);
BYTE * srcbits = FreeImage_GetBits(src);
BYTE * dstbits = FreeImage_GetBits(dst);
Curve c;
BYTE LUT8[256];
WORD LUT16[65536];
c.setControlPoints(ctpts);
int bpp = FreeImage_GetBPP(src);
if (bpp == 24) {
c.clampto(0.0,255.0);
for (int x=0; x<256; x++) {
LUT8[x] = (BYTE)floor(c.getpoint(x) + 0.5);
}
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < h; y++) {
for(unsigned x = 0; x < w; x++) {
BYTE * bdstpix = (BYTE *) dstbits + dpitch*y + 3*x;
BYTE *pixel = (BYTE *) (srcbits + spitch*y + 3*x);
bdstpix[FI_RGBA_RED] = LUT8[pixel[FI_RGBA_RED]];
bdstpix[FI_RGBA_GREEN] = LUT8[pixel[FI_RGBA_GREEN]];
bdstpix[FI_RGBA_BLUE] = LUT8[pixel[FI_RGBA_BLUE]];
//bdstpix[FI_RGBA_RED] = ((BYTE *) LUT8)[pixel[FI_RGBA_RED]];
//bdstpix[FI_RGBA_GREEN] = ((BYTE *) LUT8)[pixel[FI_RGBA_GREEN]];
//bdstpix[FI_RGBA_BLUE] = ((BYTE *) LUT8)[pixel[FI_RGBA_BLUE]];
}
}
}
if (bpp == 48) {
c.scalepoints(256.0);
c.clampto(0.0,65535.0);
for (int x=0; x<65536; x++) {
LUT16[x] = (WORD)floor(c.getpoint(x) + 0.5);
}
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < h; y++) {
for(unsigned x = 0; x < w; x++) {
FIRGB16 * wdstpix = (FIRGB16 *) (dstbits + dpitch*y + 6*x);
FIRGB16 * pixel = (FIRGB16 *) (srcbits + spitch*y + 6*x);
wdstpix->red = LUT16[pixel->red];
wdstpix->green = LUT16[pixel->green];
wdstpix->blue = LUT16[pixel->blue];
//wdstpix->red = ((WORD *) LUT16)[pixel->red];
//wdstpix->green = ((WORD *) LUT16)[pixel->green];
//wdstpix->blue = ((WORD *) LUT16)[pixel->blue];
}
}
}
return _duration();
}
double ApplyLUT(FIBITMAP *src, FIBITMAP *dst, char * LUT, int threadcount)
{
_mark();
unsigned spitch = FreeImage_GetPitch(src);
unsigned dpitch = FreeImage_GetPitch(dst);
unsigned w = FreeImage_GetWidth(src);
unsigned h = FreeImage_GetHeight(src);
BYTE * srcbits = FreeImage_GetBits(src);
BYTE * dstbits = FreeImage_GetBits(dst);
BYTE LUT8[256];
WORD LUT16[65536];
int bpp = FreeImage_GetBPP(src);
if (bpp == 24) {
for (int x=0; x<256; x++) {
LUT8[x] = ((BYTE *) LUT)[x];;
}
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < h; y++) {
for(unsigned x = 0; x < w; x++) {
BYTE * bdstpix = (BYTE *) (dstbits + dpitch*y + 3*x);
BYTE * pixel = (BYTE *) (srcbits + spitch*y + 3*x);
bdstpix[FI_RGBA_RED] = LUT8[pixel[FI_RGBA_RED]];
bdstpix[FI_RGBA_GREEN] = LUT8[pixel[FI_RGBA_GREEN]];
bdstpix[FI_RGBA_BLUE] = LUT8[pixel[FI_RGBA_BLUE]];
//bdstpix[FI_RGBA_RED] = ((BYTE *) LUT8)[pixel[FI_RGBA_RED]];
//bdstpix[FI_RGBA_GREEN] = ((BYTE *) LUT8)[pixel[FI_RGBA_GREEN]];
//bdstpix[FI_RGBA_BLUE] = ((BYTE *) LUT8)[pixel[FI_RGBA_BLUE]];
}
}
}
if (bpp == 48) {
for (int x=0; x<65536; x++) {
LUT16[x] = ((WORD *)LUT)[x];
}
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < h-1; y++) {
for(unsigned x = 0; x < w-1; x++) {
FIRGB16 * wdstpix = (FIRGB16 *) (dstbits + dpitch*y + 6*x);
FIRGB16 * pixel = (FIRGB16 *) (srcbits + spitch*y + 6*x);
wdstpix->red = LUT16[pixel->red];
wdstpix->green = LUT16[pixel->green];
wdstpix->blue = LUT16[pixel->blue];
//wdstpix->red = ((WORD *) LUT16)[pixel->red];
//wdstpix->green = ((WORD *) LUT16)[pixel->green];
//wdstpix->blue = ((WORD *) LUT16)[pixel->blue];
}
}
}
return _duration();
}
double ApplyLUT2LUMA(FIBITMAP *src, FIBITMAP *dst, char * LUT, int threadcount)
{
_mark();
unsigned spitch = FreeImage_GetPitch(src);
unsigned dpitch = FreeImage_GetPitch(dst);
unsigned w = FreeImage_GetWidth(src);
unsigned h = FreeImage_GetHeight(src);
BYTE * srcbits = FreeImage_GetBits(src);
BYTE * dstbits = FreeImage_GetBits(dst);
BYTE LUT8[256];
WORD LUT16[65536];
int bpp = FreeImage_GetBPP(src);
if (bpp == 24) {
for (int x=0; x<256; x++) {
LUT8[x] = ((BYTE *) LUT)[x];
}
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < h; y++) {
for(unsigned x = 0; x < w; x++) {
BYTE * bdstpix = (BYTE *) (dstbits + dpitch*y + 3*x);
BYTE * pixel = (BYTE *) (srcbits + spitch*y + 3*x);
int lumaorig = (int) LUMA(pixel[FI_RGBA_RED],pixel[FI_RGBA_GREEN],pixel[FI_RGBA_BLUE]);
int diff = lumaorig - LUT8[lumaorig];
bdstpix[FI_RGBA_RED] = std::min(std::max(bdstpix[FI_RGBA_RED] + diff,0),255);
bdstpix[FI_RGBA_GREEN] = std::min(std::max(bdstpix[FI_RGBA_GREEN] + diff,0),255);
bdstpix[FI_RGBA_BLUE] = std::min(std::max(bdstpix[FI_RGBA_BLUE] + diff,0),255);
}
}
}
if (bpp == 48) {
for (int x=0; x<65536; x++) {
LUT16[x] = ((WORD *)LUT)[x];
}
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < h-1; y++) {
for(unsigned x = 0; x < w-1; x++) {
FIRGB16 * wdstpix = (FIRGB16 *) (dstbits + dpitch*y + 6*x);
FIRGB16 * pixel = (FIRGB16 *) (srcbits + spitch*y + 6*x);
int lumaorig = (int) LUMA(pixel->red,pixel->green,pixel->blue);
int diff = lumaorig - LUT16[lumaorig];
wdstpix->red = std::min(std::max(pixel->red + diff,0),65535);
wdstpix->green = std::min(std::max(pixel->green + diff,0),65535);
wdstpix->blue = std::min(std::max(pixel->blue + diff,0),65535);
}
}
}
return _duration();
}
double ApplyGray(FIBITMAP *src, FIBITMAP *dst, double redpct, double greenpct, double bluepct, int threadcount)
{
_mark();
int bpp = FreeImage_GetBPP(src);
unsigned spitch = FreeImage_GetPitch(src);
unsigned dpitch = FreeImage_GetPitch(dst);
BYTE * srcbits = FreeImage_GetBits(src);
BYTE * dstbits = FreeImage_GetBits(dst);
switch(bpp) {
case 48:
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < FreeImage_GetHeight(src); y++) {
for(unsigned x = 0; x < FreeImage_GetWidth(src); x++) {
FIRGB16 * wdstpix = (FIRGB16 *) (dstbits + dpitch*y + 6*x);
FIRGB16 * pixel = (FIRGB16 *) (srcbits + spitch*y + 6*x);
double G = floor((double) pixel->red*redpct + (double) pixel->green*greenpct + (double) pixel->blue*bluepct)+0.5;
if (G>65535.0) G=65535.0;
if (G<0.0) G=0.0;
wdstpix->red = int(G);
wdstpix->green = int(G);
wdstpix->blue = int(G);
}
}
break;
case 24 :
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < FreeImage_GetHeight(src); y++) {
for(unsigned x = 0; x < FreeImage_GetWidth(src); x++) {
BYTE * bdstpix = (BYTE *) dstbits + dpitch*y + 3*x;
BYTE *pixel = (BYTE *) (srcbits + spitch*y + 3*x);
double G = floor((double) pixel[FI_RGBA_RED]*redpct + (double) pixel[FI_RGBA_GREEN]*greenpct + (double) pixel[FI_RGBA_BLUE]*bluepct)+0.5;
if (G>255.0) G=255.0;
if (G<0.0) G=0.0;
bdstpix[FI_RGBA_RED] = int(G);
bdstpix[FI_RGBA_GREEN] = int(G);
bdstpix[FI_RGBA_BLUE]= int(G);
}
}
break;
}
return _duration();
}
int mark(int mrk, double ax[], double ay[], int n, double f, int m)
{
int i;
if (mrk < 0 || mrk > 15)
return (1);
m = (n < 0) ? m : 1;
if ((n = abs(n)) < 1 || m < 0)
return (1);
ascale(_plnorm(f * 1.75));
arotate(0);
for (i = 0; i < n; i += m) {
plot(ax[i], ay[i], 3);
_mark(mrk);
}
return (0);
}
size_t draft_net2_testsend(t_clock use_tdelta, t_netspeed_bps use_speed, size_t use_size, t_clock sim_length, int dbg) {
_mark("Test with use_tdelta="<<use_tdelta<<" use_speed="<<use_speed<<" use_size="<<use_size);
t_netspeed_bps m_net_speed = use_speed;
t_netsize_fraction m_net_reminder = 0; // bytes that remain partially accumulated from previous iterations
size_t totall_sent=0;
t_clock clock = 0; // world clock in simulation
size_t c=0; // cycle number
while (true) { // simulation
++c;
if (clock>=sim_length) break; // end
t_clock tdelta = use_tdelta;
clock += tdelta;
size_t packet_size = use_size;
t_netsize_fraction bytes_now_part = tdelta * m_net_speed ; // bytes we transfer just now
t_netsize_fraction bytes_now_all = bytes_now_part + m_net_reminder; // bytes we can now transfer with reminder
t_netsize_fraction send_bytes = bytes_now_all;
if (dbg) _info("=== clock="<<clock<<", cycle="<<c<<", m_net_reminder=" << m_net_reminder
<< " bytes_now_all=" << bytes_now_all );
while (send_bytes > packet_size) { // send a packet
if (dbg) _info("*** SENDING at clock="<<clock<<", cycle="<<c<<", m_net_reminder=" << m_net_reminder);
totall_sent += packet_size;
send_bytes -= packet_size;
}
if (1) { // there is any more data waiting to be sent
if (dbg) _info("Will send reminder to send_bytes="<<send_bytes);
m_net_reminder = send_bytes; // "start" sending remaining data - in future
}
// TODO account for in progress the reminder of time in this cycle
}
return totall_sent;
}
bool draft_net2_testsend_speeds(
vector<t_clock> tab_tdelta, vector<t_netspeed_bps> tab_speed, vector<size_t> tab_size, int dbg
,t_clock sim_length
)
{
_mark("Starting test " <<__FUNCTION__);
vector<string> error_tab;
std::ostringstream oss_main;
for(auto use_tdelta : tab_tdelta) {
for(auto use_speed : tab_speed) {
for(auto use_size : tab_size) {
size_t total = draft_net2_testsend(use_tdelta, use_speed, use_size, sim_length, dbg>=2);
std::ostringstream oss;
oss << "tdelta="<<use_tdelta<<" use_speed="<<use_speed<<" use_size="<<use_size<<" : ";
double avg_speed = total / sim_length;
double error = std::fabs( (avg_speed - use_speed) / use_speed );
oss << " avg="<<avg_speed<<" bps, error="<<error;
string msg = oss.str();
if (error > 0.03) error_tab.push_back(msg);
oss_main << msg << "\n";
if (dbg >= 2) _info( msg );
}
}
}
_info("Sim results:\n" << oss_main.str());
for (const auto & e : error_tab) _info("Error was: " << e);
if (error_tab.size()) {
_info("Found " << error_tab.size() << " errors.");
return false;
} else _info("All in norm :)");
return true;
}
/// @brief This function tests the code from this file.
unique_ptr<c_world> draft_net2() { // the main function for test
/*
if (! draft_net2_testsend_alltests()) {
_erro("Unit test failed!");
return 0;
}
return 0; // !
*/
_mark("Starting test " <<__FUNCTION__);
t_drawtarget_type drawtarget_type = e_drawtarget_type_allegro;
c_simulation simulation(drawtarget_type);
unique_ptr<c_world> world_ptr = make_unique<c_world>(simulation);
c_world & world = * world_ptr;
world.add_node("nodeA",100,100); // ***
world.add_node("nodeB",150,200);
world.add_node("nodeC1",300,300);
world.add_node("nodeC2",300,350);
world.add_node("nodeC3",300,400);
world.add_node("nodeC4",300,450);
world.add_node("nodeD", 50,200);
world.add_node("nodeE",400,100); // ***
{ int i=0, a=80, x0=500, y0=120;
world.add_node("nodeF1",x0,y0+(a*i++));
world.add_node("nodeF2",x0,y0+(a*i++));
world.add_node("nodeF3",x0,y0+(a*i++));
world.add_node("nodeF4",x0,y0+(a*i++));
world.add_node("nodeF5",x0,y0+(a*i++));
world.add_node("nodeF6",x0,y0+(a*i++));
world.add_node("nodeF7",x0,y0+(a*i++));
}
world.add_node("nodeG1",650,100);
world.add_node("nodeG2",650,300);
world.add_node("nodeP",750,500);
world.add_node("nodeX",800,500);
world.add_osi2_switch("swA", 200,100);
world.add_osi2_switch("swB", 300,100);
world.add_osi2_switch("swC", 200,300);
world.add_osi2_switch("swD", 300,200);
_mark("Connecting devices");
world.connect_network_devices("nodeA","swA", 1);
world.connect_network_devices("nodeB","swA", 1);
world.connect_network_devices("swA","swB", 1);
world.connect_network_devices("swB","swD", 1);
world.connect_network_devices("nodeA","nodeD", 1);
world.connect_network_devices("swA","swC", 1);
world.connect_network_devices("swC","nodeC1", 1);
world.connect_network_devices("swC","nodeC2", 1);
world.connect_network_devices("swC","nodeC3", 1);
world.connect_network_devices("swC","nodeC4", 1);
world.connect_network_devices("swD","nodeE", 1); // ***
world.connect_network_devices("swD","nodeF1", 100);
world.connect_network_devices("swD","nodeF2", 2);
world.connect_network_devices("swD","nodeF3", 100);
world.connect_network_devices("nodeF1","nodeF2", 1);
world.connect_network_devices("nodeF2","nodeF3", 1);
world.connect_network_devices("nodeF3","nodeF4", 1);
world.connect_network_devices("nodeF4","nodeF5", 1);
world.connect_network_devices("nodeF5","nodeG2", 1);
world.connect_network_devices("nodeG2","nodeG1", 1);
world.connect_network_devices("nodeG1","nodeP", 1);
world.connect_network_devices("swD","nodeP", 50);
world.connect_network_devices("nodeP","nodeX", 2);
_mark("Testing - show object:");
_info( world.find_object_by_name_as_switch("swA") );
_mark("Testing - show object:");
_info( world.find_object_by_name_as_switch("nodeA") );
_mark("Find route:");
t_osi2_route_result route = world.route_find_route_between(
world.find_object_by_name_as_switch("nodeA"),
world.find_object_by_name_as_switch("nodeE")
);
t_osi2_data data( std::string("HELLOWORLD") );
/*
_mark("Testing - send data:");
world.find_object_by_name_as_switch("nodeA").send_data(
world.find_object_by_name_as_switch("nodeE").get_uuid_any(),
data);
*/
_mark("Testing - show object:");
_info( world.find_object_by_name_as_switch("swA") );
c_dijkstry01 ( world.find_object_by_name_as_switch("nodeA") ,
world.find_object_by_name_as_switch("nodeX") );
#if 0
world.connect_network_devices("","");
#endif
// world.serialize(std::cout);
/***
*
* (outdated now - more elements are added)
*
* NodeA SwitchA SwitchB
* nic#0 -------> nic#0 --------> nic#0 ----------------> SwitchD
* nic#1 ---, nic#1 --, nic#1 ---------> NodeB nic#0 -----> NodeE
* | |
* | |
* | | SwitchC
* '--> NodeD `-----> nic#0 -----> NodeC1
* nic#1 -----> NodeC2
* nic#2 -----> NodeC3
* nic#3 -----> NodeC4
*
*
*/
return std::move(world_ptr);
}
double ApplyNLMeans(FIBITMAP *src, FIBITMAP *dst, double sigma, int local, int patch, int threadcount)
{
_mark();
int bpp = FreeImage_GetBPP(src);
unsigned spitch = FreeImage_GetPitch(src);
unsigned dpitch = FreeImage_GetPitch(dst);
BYTE * srcbits = FreeImage_GetBits(src);
BYTE * dstbits = FreeImage_GetBits(dst);
unsigned iw = FreeImage_GetWidth(src);
unsigned ih = FreeImage_GetHeight(src);
double sigma2 = pow(2*sigma,2);
//y|x upper|lower bound computations, used to offset patch to avoid out-of-image references
unsigned yplb = patch+local+1;
unsigned ypub = ih-yplb;
unsigned xplb = yplb;
unsigned xpub = iw-xplb;
switch(bpp) {
case 48:
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = local; y < ih-local; y++) {
unsigned py = y;
if (py<yplb) py = yplb;
if (py>ypub) py = ypub;
for(unsigned x = local; x < iw-local; x++) {
unsigned px = x;
if (px<xplb) px = xplb;
if (px>xpub) px = xpub;
FIRGB16 *wdstpix = (FIRGB16 *) (dstbits + dpitch*y + 6*x);
double valueR = 0.0;
double valueG = 0.0;
double valueB = 0.0;
double sum_weightsR = 0.0;
double sum_weightsG = 0.0;
double sum_weightsB = 0.0;
for (int q = -local; q<=local; ++q) {
for (int p = -local; p<=local; ++p) {
double diffR = 0.0;
double diffG = 0.0;
double diffB = 0.0;
for (int s = -patch; s<=patch; ++s) {
for (int r = -patch; r<=patch; ++r) {
FIRGB16 *ppix = (FIRGB16 *) (srcbits + spitch*(py+q+s) + 6*(px+p+r));
FIRGB16 *lpix = (FIRGB16 *) (srcbits + spitch*(py+s) + 6*(px+r));
diffR += pow((float) (ppix->red/256 - lpix->red/256),2);
diffG += pow((float) (ppix->green/256 - lpix->green/256),2);
diffB += pow((float) (ppix->blue/256 - lpix->blue/256),2);
//gmic: diff += pow(i[x+p+r,y+q+s] - i[x+r,y+s],2);
}
}
double weightR = exp(-diffR/sigma2);
double weightG = exp(-diffG/sigma2);
double weightB = exp(-diffB/sigma2);
FIRGB16 *localpix = (FIRGB16 *) (srcbits + spitch*(y+q) + 6*(x+p));
valueR += weightR*localpix->red/256;
valueG += weightG*localpix->green/256;
valueB += weightB*localpix->blue/256;
//gmic: value += weight*i(x+p,y+q);
sum_weightsR += weightR;
sum_weightsG += weightG;
sum_weightsB += weightB;
}
}
wdstpix->red = int((valueR/(1e-5 + sum_weightsR))*256);
wdstpix->green = int((valueG/(1e-5 + sum_weightsG))*256);
wdstpix->blue = int((valueB/(1e-5 + sum_weightsB))*256);
}
}
break;
case 24 :
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = local; y < ih-local; y++) {
unsigned py = y;
if (py<yplb) py = yplb;
if (py>ypub) py = ypub;
for(unsigned x = local; x < iw-local; x++) {
unsigned px = x;
if (px<xplb) px = xplb;
if (px>xpub) px = xpub;
BYTE *bdstpix = (BYTE *) (dstbits + dpitch*y + 3*x);
double valueR = 0.0;
double valueG = 0.0;
double valueB = 0.0;
double sum_weightsR = 0.0;
double sum_weightsG = 0.0;
double sum_weightsB = 0.0;
for (int q = -local; q<=local; ++q) {
for (int p = -local; p<=local; ++p) {
double diffR = 0;
double diffG = 0;
double diffB = 0;
for (int s = -patch; s<=patch; ++s) {
for (int r = -patch; r<=patch; ++r) {
BYTE *ppix = (BYTE *) (srcbits + spitch*(py+q+s) + 3*(px+p+r));
BYTE *lpix = (BYTE *) (srcbits + spitch*(py+s) + 3*(px+r));
diffR += pow((float) (ppix[FI_RGBA_RED] - lpix[FI_RGBA_RED]),2);
diffG += pow((float) (ppix[FI_RGBA_GREEN] - lpix[FI_RGBA_GREEN]),2);
diffB += pow((float) (ppix[FI_RGBA_BLUE] - lpix[FI_RGBA_BLUE]),2);
//gmic: diff += pow(i[x+p+r,y+q+s] - i[x+r,y+s],2);
}
}
double weightR = exp(-diffR/sigma2);
double weightG = exp(-diffG/sigma2);
double weightB = exp(-diffB/sigma2);
BYTE *localpix = (BYTE *) (srcbits + spitch*(y+q) + 3*(x+p));
valueR += weightR*localpix[FI_RGBA_RED];
valueG += weightG*localpix[FI_RGBA_GREEN];
valueB += weightB*localpix[FI_RGBA_BLUE];
//gmic: value += weight*i(x+p,y+q);
sum_weightsR += weightR;
sum_weightsG += weightG;
sum_weightsB += weightB;
}
}
bdstpix[FI_RGBA_RED] = (BYTE) (valueR/(1e-5 + sum_weightsR));
bdstpix[FI_RGBA_GREEN] = (BYTE) (valueG/(1e-5 + sum_weightsG));
bdstpix[FI_RGBA_BLUE] = (BYTE) (valueB/(1e-5 + sum_weightsB));
}
}
break;
}
return _duration();
}
double ApplySaturation(FIBITMAP *src, FIBITMAP *dst, double saturate, int threadcount)
{
_mark();
int bpp = FreeImage_GetBPP(src);
unsigned spitch = FreeImage_GetPitch(src);
unsigned dpitch = FreeImage_GetPitch(dst);
BYTE * srcbits = FreeImage_GetBits(src);
BYTE * dstbits = FreeImage_GetBits(dst);
switch(bpp) {
case 48:
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < FreeImage_GetHeight(src); y++) {
for(unsigned x = 0; x < FreeImage_GetWidth(src); x++) {
FIRGB16 * wdstpix = (FIRGB16 *) (dstbits + dpitch*y + 6*x);
FIRGB16 * pixel = (FIRGB16 *) (srcbits + spitch*y + 6*x);
double R = (double) pixel->red;
double G = (double) pixel->green;
double B = (double) pixel->blue;
double P=sqrt(
R*R*Pr+
G*G*Pg+
B*B*Pb ) ;
R=P+(R-P)*saturate;
G=P+(G-P)*saturate;
B=P+(B-P)*saturate;
if (R>65535.0) R=65535.0;
if (G>65535.0) G=65535.0;
if (B>65535.0) B=65535.0;
if (R<0.0) R=0.0;
if (G<0.0) G=0.0;
if (B<0.0) B=0.0;
wdstpix->red = int(R);
wdstpix->green = int(G);
wdstpix->blue = int(B);
}
}
break;
case 24 :
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 0; y < FreeImage_GetHeight(src); y++) {
for(unsigned x = 0; x < FreeImage_GetWidth(src); x++) {
BYTE * bdstpix = (BYTE *) dstbits + dpitch*y + 3*x;
BYTE *pixel = (BYTE *) (srcbits + spitch*y + 3*x);
double R = (double) pixel[FI_RGBA_RED];
double G = (double) pixel[FI_RGBA_GREEN];
double B = (double) pixel[FI_RGBA_BLUE];
double P=sqrt(
R*R*Pr+
G*G*Pg+
B*B*Pb ) ;
R=P+(R-P)*saturate;
G=P+(G-P)*saturate;
B=P+(B-P)*saturate;
if (R>255.0) R=255.0;
if (G>255.0) G=255.0;
if (B>255.0) B=255.0;
if (R<0.0) R=0.0;
if (G<0.0) G=0.0;
if (B<0.0) B=0.0;
bdstpix[FI_RGBA_RED] = int(R);
bdstpix[FI_RGBA_GREEN] = int(G);
bdstpix[FI_RGBA_BLUE]= int(B);
}
}
break;
}
return _duration();
}
// we assume we are already locked when inside here
// so we DO not call ENTER / LEAVE
int
DBFmalloc_mark(const char *func, const char *file, int line,
ulong_t top, int todo)
{
int rtn = 0;
mse_t *roots;
int nroots;
Block * bp;
int nb;
int i = 0;
unsigned int start, end;
int count=0;
int cache = 0;
extern int _malloc_scan_start();
extern int _malloc_scan_finish();
MALLOC_INIT();
/*
* Mark all the nodes as unreferenced at the start.
* Make sure the malloc chain is valid or we will be in for trouble
*/
if ((rtn = DBFmalloc_mark_all("DBFmalloc_mark", file, line, todo, 0)) != 0) {
return rtn;
}
if ((roots = alloca(MAX_ROOTS * sizeof *roots)) == NULL) {
return 0;
}
mc_cache_clear();
cache = mc_get_cache_size();
mc_set_cache(0);
nroots = _malloc_scan_start(roots, MAX_ROOTS, top);
_mark_stack_create();
/*
* We go through each root of the root set.
* We never mark more than one page of a root at a time to avoid
* having its unmarked children overflowing the mark stack.
*/
start = roots[i].mse_start;
end = roots[i].mse_end;
if (end > start + __pagesize) end = start + __pagesize;
while (i < nroots) {
_mark_stack_push(start, end);
count++;
/* _mark will find every heap node reachable from the root
* that was pushed onto the mark stack.
*/
rtn += _mark(func, file, line, todo);
start += __pagesize;
if (start >= roots[i].mse_end) {
i++;
start = roots[i].mse_start;
end = roots[i].mse_end;
if (end > start + __pagesize) end = start + __pagesize;
} else {
end += __pagesize;
if (end > roots[i].mse_end) end = roots[i].mse_end;
}
}
_mark_stack_destroy();
// /*
// * Go through every Block in every Band and mark it
// * - this is because it's an internal structure and shouldn't be
// * reported as a leak
// */
// for (nb = 0; nb < *__pnband; nb++)
// {
// Band *band;
//
// band = __pBands[nb];
//
// /*
// * For each Block on the allocated list
// */
// for (bp = band->alist; bp; bp = bp->next)
// {
// Dhead *dh = (Dhead *)bp - 1;
// dh->d_debug.flag |= M_REFERENCED;
// }
//
// /*
// * For each Block on the depleted list
// */
// for (bp = band->dlist; bp; bp = bp->next)
// {
// Dhead *dh = (Dhead *)bp - 1;
// dh->d_debug.flag |= M_REFERENCED;
// }
// }
_malloc_scan_finish();
mc_set_cache(cache);
return rtn;
} /* malloc_mark(... */
double ApplyKernel(FIBITMAP *src, FIBITMAP *dst, double kernel[3][3], int threadcount)
{
_mark();
int bpp = FreeImage_GetBPP(src);
unsigned spitch = FreeImage_GetPitch(src);
unsigned dpitch = FreeImage_GetPitch(dst);
BYTE * srcbits = FreeImage_GetBits(src);
BYTE * dstbits = FreeImage_GetBits(dst);
switch(bpp) {
case 48:
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 1; y < FreeImage_GetHeight(src)-1; y++) {
for(unsigned x = 1; x < FreeImage_GetWidth(src)-1; x++) {
FIRGB16 *wdstpix = (FIRGB16 *) (dstbits + dpitch*y + 6*x);
double R=0.0;
double G=0.0;
double B=0.0;
for (unsigned kx=0; kx<3; kx++) {
int ix=kx*3;
for (int ky=0; ky<3; ky++) {
int i = ix+ky;
FIRGB16 *pixel = (FIRGB16 *) (srcbits + spitch*(y-1+ky) + 6*(x-1+kx));
R += pixel->red * kernel[kx][ky];
G += pixel->green * kernel[kx][ky];
B += pixel->blue * kernel[kx][ky];
}
wdstpix->red = std::min(std::max(int(R), 0), 65535);
wdstpix->green = std::min(std::max(int(G), 0), 65535);
wdstpix->blue = std::min(std::max(int(B), 0), 65535);
}
}
}
break;
case 24 :
#pragma omp parallel for num_threads(threadcount)
for(unsigned y = 1; y < FreeImage_GetHeight(src)-1; y++) {
for(unsigned x = 1; x < FreeImage_GetWidth(src)-1; x++) {
BYTE *bdstpix = (BYTE *) dstbits + dpitch*y + 3*x;
double R=0.0;
double G=0.0;
double B=0.0;
for (unsigned kx=0; kx<3; kx++) {
int ix=kx*3;
for (int ky=0; ky<3; ky++) {
int i = ix+ky;
BYTE *pixel = (BYTE *) srcbits + spitch*(y-1+ky) + 3*(x-1+kx);
R += pixel[FI_RGBA_RED] * kernel[kx][ky];
G += pixel[FI_RGBA_GREEN] * kernel[kx][ky];
B += pixel[FI_RGBA_BLUE] * kernel[kx][ky];
}
bdstpix[FI_RGBA_RED] = std::min(std::max(int(R), 0), 255);
bdstpix[FI_RGBA_GREEN] = std::min(std::max(int(G), 0), 255);
bdstpix[FI_RGBA_BLUE] = std::min(std::max(int(B), 0), 255);
}
}
}
break;
}
return _duration();
}
