void Scene::computeColorsAntialiasing(std::function<void(int, int, ColorCRef)> paint, int threadCount, int level) {
upto(threadCount, 1);
downto(threadCount, 4);
std::vector< std::vector <ColorFloat> > m(screen.width, std::vector<ColorFloat> (screen.height, ColorFloat()));
computeColors([paint, &m](int x, int y, ColorCRef c) { m[x][y] = c; paint(x, y, c); }, threadCount);
if (level > 1) {
for (int x = 1; x + 1 < screen.width; x++) {
for (int y = 1; y + 1 < screen.height; y++) {
int badness = 0;
for (int dx : {-1, 1})
for (int dy : {-1, 1})
badness += (m[x][y] - m[x + dx][y + dy]).norm();
if (badness > badnessLimit) {
paint(x, y, Color(255, 0, 0));
}
}
}
int taskCount = 10;
ThreadPool pool;
for (int t = 0; t < taskCount; t++)
pool.addTask([this, &paint, &m, level, t, taskCount]()
{ multiThreadAntialiasePart(paint, m, level, t, taskCount); });
pool.executeAll(threadCount);
}
}
void getmemmap(struct Bootinfo* boot)
{
memset(charbuff, 0, 80 * 25 * 2); //清屏
memset(MMAP, 0, MAXPAGE >> 3);
memset(MTMAP, 0xff, 1024 >> 8);
memset(PSL, 0, 0x100000);
if (boot->flags & (1 << 6)) {
struct memmap* map;
for (map = boot->mmap_addr;
(uint32)map < (uint32)boot->mmap_addr + boot->mmap_length;
map = (struct memmap*)((uint32)map + map->size + sizeof(map->size))) {
if (map->type == 1) {
printf("Avalable memory,addr:0x%X%08X,lenth:0x%X%08X\n",
map->base_addrh,
map->base_addr,
map->lengthh,
map->length);
uint8* tmpaddr = upto(map->base_addr, PAGESIZE);
map->length -= (tmpaddr - map->base_addr);
map->base_addr = tmpaddr;
size_t count = map->length / PAGESIZE;
size_t startp = (int)map->base_addr / PAGESIZE;
int i;
for (i = 0; i < count; ++i) {
setavl(MMAP, startp + i);
}
}
}
} else {
printf("Can't get memory map!\n");
}
memset(MMAP, 0x00, RESPAGE >> 3);
}
int sobel_argb32_3x3_partial(vbx_uword_t *sobel_out, vbx_uword_t *argb_in, const short image_width,
const short image_height, const short image_pitch, const short renorm)
{
VBX::Prefetcher<vbx_uword_t> input(1,image_width,argb_in,argb_in+image_height*image_pitch,image_pitch);
VBX::Vector<vbx_uword_t> output(image_width);
VBX::Vector<vbx_uhalf_t>* luma[3];
luma[0]=new VBX::Vector<vbx_uhalf_t>(image_width);
luma[1]=new VBX::Vector<vbx_uhalf_t>(image_width);
luma[2]=new VBX::Vector<vbx_uhalf_t>(image_width);
VBX::Vector<vbx_uhalf_t> gradient_x(image_width);
VBX::Vector<vbx_uhalf_t> gradient_y(image_width);
VBX::Vector<vbx_uhalf_t>* sobel_rows[3];
sobel_rows[0]=new VBX::Vector<vbx_uhalf_t>(image_width);
sobel_rows[1]=new VBX::Vector<vbx_uhalf_t>(image_width);
sobel_rows[2]=new VBX::Vector<vbx_uhalf_t>(image_width);
input.fetch();
int rowmod3=0;
for(int row=0;row<image_height;row++){
input.fetch();
VBX::Vector<vbx_uhalf_t>& sobel_top= *sobel_rows[rowmod3];
VBX::Vector<vbx_uhalf_t>& sobel_bot= *sobel_rows[mod3(rowmod3+2)];
VBX::Vector<vbx_uhalf_t>& luma_top= *luma[rowmod3];
VBX::Vector<vbx_uhalf_t>& luma_mid= *luma[mod3(rowmod3+1)];
VBX::Vector<vbx_uhalf_t>& luma_bot= *luma[mod3(rowmod3+2)];
rowmod3=mod3(rowmod3+1);
argb_to_luma8(luma_bot,input[0]);
sobel_row( sobel_bot ,luma_bot);
if(row<2){
continue;
}
gradient_y=absdiff(sobel_top,sobel_bot);
gradient_x=luma_top +luma_bot + luma_mid*2;
gradient_x[1 upto image_width-1]=absdiff(gradient_x[0 upto image_width-2],gradient_x[2 upto image_width]);
output=((gradient_x + gradient_y) >> renorm);
output.cond_move(output>0xFF,0xFF);
output*=0x010101;
//write to output buffer, skipping first and last elements
output[1 upto (image_width -1)].dma_write(sobel_out+(row-1)*image_pitch +1);
}
output=0;
output.dma_write(sobel_out);
output.dma_write(sobel_out+ (image_height-1)*image_pitch);
delete luma[0];
delete luma[1];
delete luma[2];
delete sobel_rows[0];
delete sobel_rows[1];
delete sobel_rows[2];
return 0;
}
void Scene::computeColors(std::function<void(int, int, ColorCRef)> paint, int threadCount) {
figuresKDTree.init(figures);
upto(threadCount, 1);
downto(threadCount, 4);
int taskCount = 10;
ThreadPool pool;
for (int t = 0; t < taskCount; t++)
pool.addTask([this, &paint, t, taskCount]() { multiThreadComputePartOfColors(paint, t, taskCount); });
pool.executeAll(threadCount);
}
/* note: argc, argv not used, but included per convention */
int main(int argc, char *argv[])
{
printf("/*** fib ***/\n");
unsigned int f0 = fib(0);
unsigned int f1 = fib(1);
unsigned int f2 = fib(2);
printf("fib(0)\t%d\n",f0);
printf("fib(1)\t%d\n",f1);
printf("fib(2)\t%d\n",f2);
printf("/*** fact ***/\n");
unsigned int t6 = fact(6);
unsigned int t7 = fact(7);
unsigned int t8 = fact(8);
printf("fact(6)\t%9d\n",t6);
printf("fact(7)\t%9d\n",t7);
printf("fact(8)\t%9d\n",t8);
printf("/*** int_new ***/\n");
int* h = int_new(99);
printf("h\t%p\n",h);
printf("h+1\t%p\n",h+1);
printf("*h\t%d\n",*h);
free(h);
printf("/*** upto ***/\n");
unsigned int* arr10 = upto(10);
int i;
for (i=0; i<=10; i++)
printf("arr10[%d]\t%2d\n",i,arr10[i]);
free(arr10);
printf("/*** num_evens ***/\n");
unsigned int e = num_evens(upto(10),11);
printf("num_evens(upto(10),11)\t%d\n",e);
return 0;
}
int file_write(filedes *file,const void *ptr,size_t len) {
uint32 tmpnode=file->curnode;
file->updatetime=kernel_getnowtime();
if(len+file->offset>file->length) {
tmpnode=Fat_seek(file->curnode,
file->length/file->nodebytes-file->offset/file->nodebytes
);
int c=Fat_expand(tmpnode,
(file->offset+len)/(file->nodebytes)-file->length/file->nodebytes,
FALSE
);
if(c<=0){
file->length=upto(file->length,file->nodebytes)+(-c)*file->nodebytes;
}else{
file->length=file->offset+len;
}
}
return Fat_write(file,ptr,len);
}
/* If we see "int main(" then it's probably a main program. */
void scan_cfile(const char *cfile)
{
struct stat cstat;
struct stat ostat;
struct clist_entry *cdata = clist_push(&clist);
cdata->need_compile = 0;
bufd_put(&cdata->cfile, cfile);
bufd_put(&cdata->ofile, opt_objdir.beg);
bufd_dirslash(&cdata->ofile);
bufd_put(&cdata->ofile, cfile);
bufd_clip(&cdata->ofile, 1);
bufd_putc(&cdata->ofile, 'o');
statfile(cdata->cfile.beg, &cstat);
statfile(cdata->ofile.beg, &ostat);
if (opt_force || cmp_stat(&cstat, &ostat) > 0)
cdata->need_compile = 1;
fp = fopen(cfile,"r");
while (getch() != EOF)
{
if (at("#""include"))
{
skipspace();
if (ch == '"')
{
const char *hfile = upto('"');
if (!cdata->need_compile)
{
struct stat hstat;
statfile(hfile, &hstat);
if (cmp_stat(&hstat, &ostat) > 0)
cdata->need_compile = 1;
}
strq_push(&cdata->loc_include, hfile);
}
else if (ch == '<')
{
const char *hfile = upto('>');
const char *lib = strq_assoc(&syshdr, hfile);
if (lib)
strq_push(&cdata->libs, lib);
strq_push(&cdata->sys_include, hfile);
}
}
else if (at("int") && isspace(ch) && skipspace() &&
at("main") && skipspace() && ch == '(')
{
cdata->is_main = 1;
}
}
if (fp)
{
fclose(fp);
fp = 0;
}
if (opt_analyze)
clist_entry_print(cdata);
}
int main(int argc, char** argv) {
// between
ok(between('a','z','c'), "c is between a and z");
fail(between('a','z','C'), "C is not between a and z");
// num
ok(num('0'), "0 is a number");
ok(num('9'), "9 is a number");
fail(num('/'), "/ is not a number");
fail(num(':'), "0 is not a number");
// alpha
ok(alpha('a'), "a is a letter");
ok(alpha('z'), "z is a letter");
ok(alpha('A'), "A is a letter");
ok(alpha('Z'), "Z is a letter");
fail(alpha('@'), "@ is not a letter");
fail(alpha('['), "[ is not a letter");
fail(alpha('`'), "` is not a letter");
fail(alpha('{'), "{ is not a letter");
// alphanum
ok(alphanum('a'), "a is alphanum");
ok(alphanum('z'), "z is alphanum");
ok(alphanum('A'), "A is alphanum");
ok(alphanum('Z'), "Z is alphanum");
ok(alphanum('0'), "0 is alphanum");
ok(alphanum('9'), "9 is alphanum");
fail(alpha('@'), "@ is not alphanum ");
fail(alpha('['), "[ is not alphanum");
fail(alpha('`'), "` is not alphanum");
fail(alpha('{'), "{ is not alphanum");
// space
ok(space(' '), "space is space");
fail(space('\n'), "new line is not space");
fail(space('\r'), "cr is not space");
fail(space('\t'), "tab is not space");
// tab
ok(tab('\t'), "tab is tab");
fail(tab(' '), "space is not tab");
fail(tab('\n'), "new line is not tab");
fail(tab('\r'), "cr is not tab");
// nl
ok(nl('\n'), "new line is new line");
fail(nl('\t'), "tab is not new line");
fail(nl(' '), "space is not new line");
fail(nl('\r'), "cr is not new line");
// cr
fail(cr('\n'), "new line is not cr");
fail(cr('\t'), "tab is not cr");
fail(cr(' '), "space is not cr");
ok(cr('\r'), "cr is cr");
// whitespace
ok(whitespace('\n'), "new line is whitespace");
ok(whitespace('\t'), "tab is whitespace");
ok(whitespace(' '), "space is whitespace");
ok(whitespace('\r'), "cr is whitespace");
fail(whitespace('\b'), "backspace is not whitespace");
// colon
ok(colon(':'), "colon is colon");
fail(colon(';'), "semicolon is not colon");
// semi
fail(semi(':'), "colon is not semicolon");
ok(semi(';'), "semicolon is semicolon");
// slash
fail(slash('\\'), "\\ is not /");
ok(slash('/'), "/ is /");
// dot
fail(dot('*'), "* is not .");
ok(dot('.'), ". is .");
// star
ok(star('*'), "* is *");
fail(star('.'), ". is not *");
// question
ok(question('?'), "? is ?");
// hex
ok(hex('a'), "a is hex");
ok(hex('f'), "f is hex");
ok(hex('A'), "A is hex");
ok(hex('F'), "F is hex");
ok(hex('0'), "0 is hex");
ok(hex('9'), "9 is hex");
fail(hex('g'), "g is not hex");
fail(hex('G'), "G is not hex");
// decimal
ok(decimal('0'), "0 is decimal");
ok(decimal('9'), "9 is decimal");
ok(decimal('.'), ". is decimal");
fail(decimal('a'), "a is not decimal");
// ctrl
ok(ctrl('\b'), "Backspace is ctrl");
ok(ctrl('\a'), "Bell is ctrl");
ok(ctrl(127), "Del is ctrl");
fail(ctrl('a'), "a is not ctrl");
// any
value(3,any(alpha,"abc123"), "three letters at abc123");
value(0,any(num,"abc123"), "no numbers at abc123");
value(6,any(alphanum,"abc123"), "six alphanum in abc123");
// until
value(5,until(space,"hello world!"), "5 letters until space");
value(11,until(question,"hello world?"), "11 letters until question");
value(12,until(ctrl,"hello world?"), "12 chacters till end");
// crlf, eol, and upto
value(6, upto(eol, "line 1\r\nline 1\r\n"), "6 chars upto crlf");
value(0, upto(eol, "\r\n\r\n"), "0 characters to end of line");
value(12, upto(eol, "hello world!"), "12 characters to eol");
// all test
value(5, all(dot, ".....\r\n"), "there are 5 dots");
return done("test_parse");
}
