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Searched
refs:aRe
(Results
1 - 4
of
4
) sorted by null
/external/webrtc/webrtc/modules/audio_processing/aec/
aec_core_mips.c
341
float*
aRe
= x_fft_buf[0] + xPos;
352
"lwc1 %[f0], 0(%[
aRe
]) \n\t"
356
"lwc1 %[f4], 4(%[
aRe
]) \n\t"
368
"addiu %[
aRe
], %[
aRe
], 8 \n\t"
380
"addiu %[
aRe
], %[
aRe
], 8 \n\t"
405
"lwc1 %[f0], 0(%[
aRe
]) \n\t"
433
[f12] "=&f" (f12), [f13] "=&f" (f13), [
aRe
] "+r" (
aRe
),
[
all
...]
aec_core_neon.c
29
__inline static float MulRe(float
aRe
, float aIm, float bRe, float bIm) {
30
return
aRe
* bRe - aIm * bIm;
33
__inline static float MulIm(float
aRe
, float aIm, float bRe, float bIm) {
34
return
aRe
* bIm + aIm * bRe;
214
// re(conjugate(a) * b) =
aRe
* bRe + aIm * bIm
215
// im(conjugate(a) * b)=
aRe
* bIm - aIm * bRe
269
// exp2(x) and log2(x)
are
calculated using polynomial approximations.
429
// here because we
are
making an additive change with comfort noise.
451
// here because we
are
making an additive change with comfort noise.
509
// upon actions
are
taken
[
all
...]
aec_core_sse2.c
24
__inline static float MulRe(float
aRe
, float aIm, float bRe, float bIm) {
25
return
aRe
* bRe - aIm * bIm;
28
__inline static float MulIm(float
aRe
, float aIm, float bRe, float bIm) {
29
return
aRe
* bIm + aIm * bRe;
175
// re(conjugate(a) * b) =
aRe
* bRe + aIm * bIm
176
// im(conjugate(a) * b)=
aRe
* bIm - aIm * bRe
235
// exp2(x) and log2(x)
are
calculated using polynomial approximations.
410
// here because we
are
making an additive change with comfort noise.
430
// here because we
are
making an additive change with comfort noise.
488
// upon actions
are
taken
[
all
...]
aec_core.c
141
__inline static float MulRe(float
aRe
, float aIm, float bRe, float bIm) {
142
return
aRe
* bRe - aIm * bIm;
145
__inline static float MulIm(float
aRe
, float aIm, float bRe, float bIm) {
146
return
aRe
* bIm + aIm * bRe;
288
// because we
are
making an additive change with comfort noise.
577
// where N = PART_LEN2. Since we
are
only interested in calculating the energy
586
// [PART_LEN+1, PART_LEN2-1]. These values
are
, up to a phase shift, identical
594
// Imaginary parts
are
zero at end points and left out of the calculation.
795
// Determine fraction of delays that
are
out of bounds, that is, either
865
// from the delay estimation
are
not compensated for lookahead. Hence,
[
all
...]
Completed in 99 milliseconds