| /xsrc/external/mit/xf86-video-cirrus/dist/src/ |
| lg_xaa.h | 127 #define LgSETPHASE0(phase) memwl( OP0_opRDRAM, phase);
129 #define LgSETPHASE1(phase) memwl(OP1_opRDRAM, phase);
131 #define LgSETPHASE2(phase) memwl( OP2_opRDRAM, phase);
133 #define LgSETMPHASE0(phase) memwl(OP0_opMRDRAM, phase);
135 #define LgSETMPHASE1(phase) memwl(OP1_opMRDRAM, phase);
[all...] |
| /xsrc/external/mit/xorg-server/dist/hw/xfree86/os-support/solaris/ |
| sun_bell.c | 59 double ampl, cyclen, phase; local
90 phase = 0.0;
93 samples[i] = (short) (ampl * sin(2.0 * M_PI * phase));
94 phase += cyclen;
95 if (phase >= 1.0)
96 phase -= 1.0;
|
| /xsrc/external/mit/xorg-server.old/dist/hw/xfree86/os-support/solaris/ |
| sun_bell.c | 59 double ampl, cyclen, phase; local
90 phase = 0.0;
93 samples[i] = (short) (ampl * sin(2.0 * M_PI * phase));
94 phase += cyclen;
95 if (phase >= 1.0)
96 phase -= 1.0;
|
| /xsrc/external/mit/x11perf/dist/ |
| do_segs.c | 38 int phase; /* how far into 0..8*size we are */ local
39 int phaseinc; /* how much to increment phase at each segment */
69 phase = 0;
75 switch (phase / size) {
80 y2 = phase;
84 x1 = phase % size;
93 x2 = size - phase % size;
99 y1 = phase % size;
108 y2 = size - phase % size;
112 x1 = size - phase % size
[all...] |
| do_lines.c | 39 int phase; /* how far into 0..4*(size_1) we are */ local
79 phase = phasef;
80 switch (phase / (size+1)) {
83 y1 = phase;
87 x1 = size - phase % (size+1);
92 x1 = phase % (size+1);
98 y1 = size - phase % (size+1);
|
| /xsrc/external/mit/xf86-video-intel/dist/test/ |
| present-race.c | 174 const char *phase; local
187 phase = "root";
194 phase = "fullscreen";
203 phase = "window";
216 phase = "composite";
220 phase = "broken";
234 printf("%s: Testing basic flip: %dx%d\n", phase, width, height);
296 const char *phase; local
309 phase = "root";
316 phase = "fullscreen"
[all...] |
| present-test.c | 265 static int test_whole(Display *dpy, Window win, const char *phase)
281 printf("%s: Testing simple flip: %dx%d\n", phase, width, height);
369 static int test_double(Display *dpy, Window win, const char *phase, void *Q)
386 printf("%s: Testing flip double buffering: %dx%d\n", phase, width, height);
450 static int test_future(Display *dpy, Window win, const char *phase, void *Q)
471 printf("%s: Testing flips into the future: %dx%d\n", phase, width, height);
590 static int test_exhaustion(Display *dpy, Window win, const char *phase, void *Q)
610 printf("%s: Testing flips with long vblank queues: %dx%d\n", phase, width, height);
714 static int test_accuracy(Display *dpy, Window win, const char *phase, void *Q)
731 printf("%s: Testing flip accuracy: %dx%d\n", phase, width, height)
2121 const char *phase; local
[all...] |
| /xsrc/external/mit/MesaLib/dist/src/gallium/drivers/r300/compiler/ |
| radeon_dataflow_swizzles.c | 55 for(unsigned int phase = 0; phase < split.NumPhases; ++phase) {
63 mov->U.I.DstReg.WriteMask = split.Phase[phase];
69 if (!GET_BIT(split.Phase[phase], chan))
77 masked_negate = split.Phase[phase] & mov->U.I.SrcReg[0].Negate;
80 else if (masked_negate == split.Phase[phase]
[all...] |
| /xsrc/external/mit/MesaLib.old/dist/src/gallium/drivers/r300/compiler/ |
| radeon_dataflow_swizzles.c | 55 for(unsigned int phase = 0; phase < split.NumPhases; ++phase) {
63 mov->U.I.DstReg.WriteMask = split.Phase[phase];
69 if (!GET_BIT(split.Phase[phase], chan))
77 masked_negate = split.Phase[phase] & mov->U.I.SrcReg[0].Negate;
80 else if (masked_negate == split.Phase[phase]
[all...] |
| /xsrc/external/mit/freetype/dist/src/lzw/ |
| ftzopen.c | 203 state->phase = FT_LZW_PHASE_START;
270 switch ( state->phase )
311 state->phase = FT_LZW_PHASE_CODE;
369 state->phase = FT_LZW_PHASE_STACK;
403 state->phase = FT_LZW_PHASE_CODE;
419 state->phase = FT_LZW_PHASE_EOF;
|
| ftzopen.h | 115 FT_LzwPhase phase; member in struct:FT_LzwStateRec_
|
| /xsrc/external/mit/pixman/dist/pixman/ |
| pixman-filter.c | 355 /* The position of the first sample of the phase corresponding to
370 * start at the last phase and go backwards.
391 * So in this case we need to start with the phase whose frac is
393 * until we hit the first phase, then wrap around to the last
394 * phase and continue backwards.
396 * Which phase is as close as possible 0.5? The locations of the
397 * sampling point corresponding to the kth phase is given by
406 * rounded down is the phase in question.
417 int phase = first - i; local
420 if (phase < 0
[all...] |
| /xsrc/external/mit/freetype/dist/src/pfr/ |
| pfrsbit.c | 127 FT_Int phase, count, counts[2]; local
137 phase = 1;
149 if ( phase )
160 phase = 0;
165 phase = 1;
172 if ( phase )
208 FT_Int phase, count; local
218 phase = 1;
232 phase = phase ^ 1
[all...] |
| /xsrc/external/mit/MesaLib/dist/src/broadcom/compiler/ |
| vir.c | 2018 * the first phase tries to fit the program into the total available
2019 * VPM memory. If we succeed at that, then the second phase attempts
2025 uint32_t phase = 0; local
2027 vpm_cfg[phase].As = 1;
2028 vpm_cfg[phase].Gs = 1;
2029 vpm_cfg[phase].Gd = gs->vpm_output_size;
2030 vpm_cfg[phase].gs_width = gs->simd_width;
2042 vpm_cfg[phase].Vc = 2;
2056 vpm_cfg[phase].Gv = 3;
2062 vpm_cfg[phase].Ve = vpm_cfg[phase].Gv
[all...] |
| /xsrc/external/mit/freetype/dist/src/cff/ |
| cffparse.c | 254 FT_UInt phase; local
274 phase = 4;
278 /* If we entered this iteration with phase == 4, we need to */
280 if ( phase )
290 nib = (FT_Int)( p[0] >> phase ) & 0xF;
291 phase = 4 - phase;
315 /* If we entered this iteration with phase == 4, we need */
317 if ( phase )
327 nib = ( p[0] >> phase ) & 0xF
[all...] |
| /xsrc/external/mit/xf86-video-s3/dist/src/ |
| s3_accel.c | 410 int octant, int phase)
475 pattern = (phase) ? (DashPattern[LINE_PATTERN_START] << phase) |
476 (DashPattern[LINE_PATTERN_START] >> (32 - phase)) :
502 register int offset = phase;
513 int offset = phase;
|
| /xsrc/external/mit/xf86-video-trident/dist/src/ |
| xp4_xaa.c | 58 int phase);
424 int octant, int phase)
433 TGUI_STYLE(((pTrident->LinePattern >> phase) |
434 (pTrident->LinePattern << (16 - phase))) & 0x0000FFFF);
|
| xp_xaa.c | 58 int octant, int phase);
456 int octant, int phase)
465 TGUI_STYLE(((pTrident->LinePattern >> phase) |
466 (pTrident->LinePattern << (16 - phase))) &
|
| tgui_xaa.c | 59 int phase);
488 int octant, int phase)
497 TGUI_STYLE(((pTrident->LinePattern >> phase) |
498 (pTrident->LinePattern << (16-phase))) & 0x0000FFFF);
|
| blade_xaa.c | 71 int flags, int phase);
562 int flags, int phase)
569 BLADE_OUT(0x216C, (pTrident->LinePattern >> phase) |
570 (pTrident->LinePattern << (16 - phase)));
|
| /xsrc/external/mit/xf86-video-tga/dist/src/ |
| tga.h | 223 int octant, int flags, int phase);
226 int err, int phase);
|
| tga_accel.c | 1370 int y2, int octant, int flags, int phase)
1436 /* set up our first pattern with phase. Keep track of if we overflow the
1439 if(phase) {
1440 line_mask = pTga->line_pattern >> phase;
1441 l = (pTga->line_pattern_length - phase);
1495 int err, int phase)
1528 if(phase) {
1529 line_mask = pTga->line_pattern >> phase;
1530 l = (pTga->line_pattern_length - phase);
|
| /xsrc/external/mit/xf86-video-geode/dist/src/ |
| gx_accel.c | 349 * patx int pattern phase x offset
350 * paty int pattern phase y offset
441 * patx int pattern phase x offset
442 * paty int pattern phase y offset
1345 int err, int len, int octant, int phase)
1355 i = phase >= 32 ? (phase -= 32, 1) : 0;
1356 n = 32 - phase;
1358 ((gdln.pat[i] >> phase) & ((1UL << n) - 1)) | (gdln.pat[1 - i] << n);
1360 ((gdln.pat[1 - i] >> phase) & ((1UL << n) - 1)) | (gdln.pat[i] << n)
[all...] |
| /xsrc/external/mit/freetype/dist/src/psaux/ |
| cffdecode.c | 1097 FT_Int phase = ( op == cff_op_hlineto ); local
1118 if ( phase )
1127 phase ^= 1;
1268 FT_Int phase; local
1290 phase = ( op == cff_op_hvcurveto );
1295 if ( phase )
1324 phase ^= 1;
|
| /xsrc/external/mit/freetype/dist/src/truetype/ |
| ttinterp.h | 220 FT_F26Dot6 phase; /* `SuperRounding' */ member in struct:TT_ExecContextRec_
|
