pow
pow (const complex<_FLT>&, const complex<_FLT>&) __attribute__ ((const));
pow (const complex<_FLT>&, _FLT) __attribute__ ((const));
pow (const complex<_FLT>&, int) __attribute__ ((const));
pow (_FLT, const complex<_FLT>&) __attribute__ ((const));
_DEFINE_EXPR_BINARY_FUNCTION(pow)
t.r = pow(t.r * s, gamma);
t.g = pow(t.g * s, gamma);
t.b = pow(t.b * s, gamma);
return pow(x, m_gamma);
uround(pow(i / double(gamma_mask), m_gamma) * double(hi_res_mask));
uround(pow(i / double(hi_res_mask), inv_g) * double(gamma_mask));
MAPM pow(const MAPM &m,int toDigits) const
MAPM pow(const MAPM &m) const {return pow(m,digits(m));}
inline MAPM pow(const MAPM &x,const MAPM &y,int toDigits)
{return x.pow(y,toDigits);}
{return x.pow(y);}
extern double pow(double x, double y);
uint16_t pow;
pow = cal->pt_ratetable_20m[idx];
cmd->power_levellist[i] = htole16(pow);
uint16_t pow = hc->targetPowers[i];
if (pow > maxtxpow)
pow = maxtxpow;
pCmd->PowerLevelList[i] = htole16(pow);
int j, pow;
for (pow=1,i=1; i < len; i++) pow = pow * 10;
a = (msg[0] - 48) * pow;
for (pow=1,j=i; j < len-1; j++) pow = pow * 10;
a = a + c * pow;
for (pow=1,j=i; j < len-1; j++) pow = pow * 10;
a = a + c * pow;
for (pow=1,j=i; j < len-1; j++) pow = pow * 10;
a = a + c * pow;
fGainVector[c][i] = pow(10, adjust[i] / 20) - 1;
db = db * (pow(abs(DB_MAX), (1.0 / DB_EXPONENT_POSITIVE))
db = pow(db, DB_EXPONENT_POSITIVE);
db = db * (pow(abs(DB_MIN), (1.0 / DB_EXPONENT_NEGATIVE))
db = pow(db, DB_EXPONENT_NEGATIVE);
return pow(10.0, db / 20.0);
db = pow(db, (1.0 / DB_EXPONENT_POSITIVE));
db = db * (abs(DB_MAX) / pow(abs(DB_MAX),
db = pow(db, (1.0 / DB_EXPONENT_NEGATIVE));
db = db * (abs(DB_MIN) / pow(abs(DB_MIN),
if (val <= -pow(2, 31)) {
} else if (val >= pow(2, 31)) {
fFlurryInfo->drag = (float)pow(0.9965, fFlurryInfo->fDeltaTime * 85.0);
const double brite = pow(deltaFrameTime, 0.75) * 10.0;
R = R > 0.0031308 ? pow(R, 1.0 / 2.4) * 1.055 - 0.055
G = G > 0.0031308 ? pow(G, 1.0 / 2.4) * 1.055 - 0.055
B = B > 0.0031308 ? pow(B, 1.0 / 2.4) * 1.055 - 0.055
cbrt[i] = r > 0.008856 ? pow(r, 1 / 3.0) : 7.787 * r + 16 / 116.0;
r <= 0.00304 ? r*12.92 : pow(r,2.5/6)*1.055-0.055));
r <= 0.018 ? r*4.5 : pow(r,0.45)*1.099-0.099));
fMeta.iso_speed = 50 * pow(2, fRead.Next<uint16>() / 32.0 - 4);
fMeta.aperture = pow(2, fRead.Next<uint16>() / 64.0);
fMeta.shutter = pow(2, fRead.Next<int16>() / -32.0);
fMeta.shutter = pow(2, expo);
= pow(2, fRead.NextDouble(TIFF_FRACTION_TYPE) / 2);
R = (uint8)constrain_int32_0_255((int32)(pow(linearR, 0.4) * 255.0 + 0.5));
G = (uint8)constrain_int32_0_255((int32)(pow(linearG, 0.4) * 255.0 + 0.5));
B = (uint8)constrain_int32_0_255((int32)(pow(linearB, 0.4) * 255.0 + 0.5));
return pow(t, 1.0 / 3.0);
L = 116.0 * pow(Yq, 1.0 / 3.0) - 16;
table[i + GAMMA_ZERO_ENTRIES] = (uint8)(pow((float)i / (float)(GAMMA_ENTRIES - 1), 0.4) * 255.0 + 0.5);
table[i] = pow((float)i / 255.0, 2.5);
length = sqrt(pow(b.x - a.x, 2) + pow(b.y - a.y, 2));
length = sqrt(pow(eo.x - so.x, 2) + pow(eo.y - so.y, 2));
double factor = pow(10, -fFractionalDigits);
double factor = pow(10, fFractionalDigits);
double ret = (double)_ValueFixed() / pow(10, fFractionalDigits);
double scaleFactor = pow(10, fFractionalDigits);
int64 segmentFactor = (int64)pow(10, fFractionalDigits + segment->scaleFactor());
double max = pow(10, fWholeDigits) - pow(10, -fFractionalDigits);
acc += digitSegment->value() * (int64)pow(10,
int64 hiCut = fixed % (int64)pow(10,
int64 segmentValue = hiCut / (int64)pow(10,
rounded = (int32)(n * pow(10, maxDigits));
res += (double)fracPart / pow(10.0, (double)(end - cur));
res *= pow(10.0, (double)expPart);
db = db * (pow(fabs(kVolumeDbMax), (1.0 / kVolumeDbExpPositive))
db = pow(db, kVolumeDbExpPositive);
db = db * (pow(fabs(kVolumeDbMin), (1.0 / kVolumeDbExpNegative))
db = pow(db, kVolumeDbExpNegative);
db = pow(db, (1.0 / kVolumeDbExpPositive));
db = db * (fabs(kVolumeDbMax) / pow(fabs(kVolumeDbMax),
db = pow(db, (1.0 / kVolumeDbExpNegative));
db = db * (fabs(kVolumeDbMin) / pow(fabs(kVolumeDbMin),
return pow(10.0, db / 20.0);
return floor(value * pow(10.0, n) + 0.5) / pow(10.0, n);
return pow(10.0, VolumeDB(true) / 20.0);
value = value.pow(_ParseUnary());
return _ParseFactorial(values[0].pow(values[1]));
return value.pow(value) / value.exp()
+ (MAPM(1) / (MAPM(288) * value.pow(2)))
- (MAPM(139) / (MAPM(51840) * value.pow(3)))
- (MAPM(571) / (MAPM(2488320) * value.pow(4)))
+ (MAPM(163879) / (MAPM(209018880) * value.pow(5)))
+ MAPM(84869155)) * value.pow(6)))
+ MAPM(1018429860)) * value.pow(7)))
* value.pow(8)))
* value.pow(9))));
const double kGammaCorrectedValue = pow((double)i / 255.0, gamma);
return pow(2.0, value / 100.0);
template c pow (ccr, ccr);
template c pow (ccr, f);
template c pow (ccr, int);
template c pow (f, ccr);
(int32)pow(2, value * 6.0 / 1000) * 8192);
(int32)pow(value * 4.0 / 1000, 2) * 16384);
int32 value = (int32)pow(2, speed * 6.0 / 1000) * 8192;
int32 value = (int32)pow(accel * 4.0 / 1000, 2) * 16384;
max = (int32)pow(10, (float)max);
float pRadius = sqrt(pow(point.x, 2) + pow(point.y, 2));
error += pow(fFreeAreaRight->Position() - fFreeAreaLeft->Position()
error += pow(fFreeAreaBottom->Position() - fFreeAreaTop->Position()
long n = static_cast<long>(pow(2, nLog2));
return pow(10.0, x);
return pow(x, y);
return pow(x, y);
z = pow(y, 0.5*z);