| /external/qemu/distrib/sdl-1.2.15/Xcode/TemplatesForXcodeLeopard/SDL OpenGL Application/atlantis/ |
| swim.c | 48 glRotatef(fish->theta, 1.0, 0.0, 0.0);
57 fish->theta = 0.0;
60 fish->x += WHALESPEED * fish->v * cos(fish->psi / RAD) * cos(fish->theta / RAD);
61 fish->y += WHALESPEED * fish->v * sin(fish->psi / RAD) * cos(fish->theta / RAD);
62 fish->z += WHALESPEED * fish->v * sin(fish->theta / RAD);
79 thetal = fish->theta;
83 if (ttheta > fish->theta + 0.25) {
84 fish->theta += 0.5;
85 } else if (ttheta < fish->theta - 0.25) {
86 fish->theta -= 0.5
[all...] |
| /external/qemu/distrib/sdl-1.2.15/Xcode/TemplatesForXcodeSnowLeopard/SDL OpenGL Application/atlantis/ |
| swim.c | 48 glRotatef(fish->theta, 1.0, 0.0, 0.0);
57 fish->theta = 0.0;
60 fish->x += WHALESPEED * fish->v * cos(fish->psi / RAD) * cos(fish->theta / RAD);
61 fish->y += WHALESPEED * fish->v * sin(fish->psi / RAD) * cos(fish->theta / RAD);
62 fish->z += WHALESPEED * fish->v * sin(fish->theta / RAD);
79 thetal = fish->theta;
83 if (ttheta > fish->theta + 0.25) {
84 fish->theta += 0.5;
85 } else if (ttheta < fish->theta - 0.25) {
86 fish->theta -= 0.5
[all...] |
| /external/qemu/distrib/sdl-1.2.15/Xcode/TemplatesForXcodeTiger/SDL OpenGL Application/atlantis/ |
| swim.c | 48 glRotatef(fish->theta, 1.0, 0.0, 0.0);
57 fish->theta = 0.0;
60 fish->x += WHALESPEED * fish->v * cos(fish->psi / RAD) * cos(fish->theta / RAD);
61 fish->y += WHALESPEED * fish->v * sin(fish->psi / RAD) * cos(fish->theta / RAD);
62 fish->z += WHALESPEED * fish->v * sin(fish->theta / RAD);
79 thetal = fish->theta;
83 if (ttheta > fish->theta + 0.25) {
84 fish->theta += 0.5;
85 } else if (ttheta < fish->theta - 0.25) {
86 fish->theta -= 0.5
[all...] |
| /external/valgrind/main/none/tests/amd64/ |
| bug132918.c | 44 double theta; local
50 theta = (2.0 * 3.14159) / 10.0 * (double)i;
51 do_fprem(&r, 12.3*sin(theta), cos(theta)); show("xx", &r);
|
| /external/freetype/src/base/ |
| fttrigon.c | 187 FT_Angle theta )
198 while ( theta <= -FT_ANGLE_PI2 )
202 theta += FT_ANGLE_PI;
205 while ( theta > FT_ANGLE_PI2 )
209 theta -= FT_ANGLE_PI;
215 if ( theta < 0 )
220 theta += *arctanptr++;
227 theta -= *arctanptr++;
234 if ( theta < 0 )
239 theta += *arctanptr++
258 FT_Fixed theta; local
[all...] |
| /external/llvm/test/CodeGen/X86/ |
| legalize-libcalls.ll | 6 define float @MakeSphere(float %theta.079) nounwind {
8 %add36 = fadd float %theta.079, undef
9 %call = call float @cosf(float %theta.079) nounwind readnone
10 %call45 = call float @sinf(float %theta.079) nounwind readnone
|
| 2011-02-23-UnfoldBug.ll | 10 %theta.0.ph = phi <2 x double> [ undef, %entry ], [ %theta.1, %if.end71 ]
11 %mul.i97 = fmul <2 x double> %theta.0.ph, undef
33 %theta.1 = phi <2 x double> [ %vecins.i91, %if.then67 ], [ %theta.0.ph, %for.end ]
|
| /frameworks/base/media/mca/filterpacks/java/android/filterpacks/imageproc/ |
| BlackWhiteFilter.java | 59 // Compute sin(theta), theta = 12.9898 x + 78.233y
60 // because floating point has limited range, make theta = theta1 + theta2
62 // Note that theta1 and theta2 cover diffent range of theta.
65 // Use the property sin(theta) = cos(theta1)*sin(theta2)+sin(theta1)*cos(theta2)
66 // this approach also increases the precisions of sin(theta)
70 // fract(43758 * sin(theta)) = mod(221 * mod(198*sin(theta), 1.0), 1.0)
72 // mod(mod(198*sin(theta)) = mod(mod(197*sin(theta) + sin(theta)
[all...] |
| /packages/apps/Gallery2/jni/filters/ |
| tinyplanet.cc | 109 float theta = angle+atan2(yf, xf); local
110 if (theta>PI_F) theta-=2*PI_F;
114 // (theta stays the same)
117 float px = (theta / (2 * PI_F)) * input_width;
|
| /external/jmonkeyengine/engine/src/core/com/jme3/scene/shape/ |
| PQTorus.java | 150 float r, x, y, z, theta = 0.0f, beta = 0.0f; local
155 theta += thetaStep;
159 r = (0.5f * (2.0f + FastMath.sin(q * theta)) * radius);
160 x = (r * FastMath.cos(p * theta) * radius);
161 y = (r * FastMath.sin(p * theta) * radius);
162 z = (r * FastMath.cos(q * theta) * radius);
166 r = (0.5f * (2.0f + FastMath.sin(q * (theta + 0.01f))) * radius);
167 x = (r * FastMath.cos(p * (theta + 0.01f)) * radius);
168 y = (r * FastMath.sin(p * (theta + 0.01f)) * radius);
169 z = (r * FastMath.cos(q * (theta + 0.01f)) * radius)
[all...] |
| /external/webkit/Source/WebCore/platform/audio/ |
| Biquad.cpp | 199 double theta = piDouble * cutoff;
200 double sn = 0.5 * d * sin(theta);
202 double gamma = (0.5 + beta) * cos(theta);
220 double theta = piDouble * cutoff;
221 double sn = 0.5 * d * sin(theta);
223 double gamma = (0.5 + beta) * cos(theta);
235 double theta = piDouble * cutoff;
239 double alpha = 0.5 * sin(theta) * sqrt((A + 1.0 / A) * (1.0 / S - 1.0) + 2.0);
241 double k = cos(theta);
|
| /packages/apps/Camera/jni/feature_stab/db_vlvm/ |
| db_utilities_camera.h | 259 [s 0][ cos(theta) sin(theta)]
260 [0 s][-sin(theta) cos(theta)]
274 [s 0][ cos(theta) sin(theta)]
275 [0 s][-sin(theta) cos(theta)]
278 inline void db_MultiplyRotationOntoImageHomography(double H[9],double theta)
283 c=cos(theta);
[all...] |
| /packages/apps/LegacyCamera/jni/feature_stab/db_vlvm/ |
| db_utilities_camera.h | 259 [s 0][ cos(theta) sin(theta)]
260 [0 s][-sin(theta) cos(theta)]
274 [s 0][ cos(theta) sin(theta)]
275 [0 s][-sin(theta) cos(theta)]
278 inline void db_MultiplyRotationOntoImageHomography(double H[9],double theta)
283 c=cos(theta);
[all...] |
| /external/opencv/cv/src/ |
| cvhough.cpp | 78 rho and theta are discretization steps (in pixels and radians correspondingly).
81 array of (rho, theta) pairs. linesMax is the buffer size (number of pairs).
85 icvHoughLinesStandard( const CvMat* img, float rho, float theta,
114 numangle = cvRound(CV_PI / theta);
123 for( ang = 0, n = 0; n < numangle; ang += theta, n++ )
166 line.angle = n * theta;
192 float rho, float theta, int threshold,
211 int rn, tn; /* number of rho and theta discrete values */
215 float r, t; /* Current rho and theta */
238 CV_ASSERT( linesMax > 0 && rho > 0 && theta > 0 )
[all...] |
| cvcamshift.cpp | 175 double theta = 0, square; local
235 theta = atan2( 2 * b, a - c + square );
238 cs = cos( theta );
239 sn = sin( theta );
253 theta = CV_PI*0.5 - theta;
292 box->angle = (float)(theta*180./CV_PI);
|
| /hardware/libhardware/include/hardware/ |
| sensors.h | 257 * theta around an axis <x, y, z>. The three elements of the rotation vector
258 * are <x*sin(theta/2), y*sin(theta/2), z*sin(theta/2)>, such that the magnitude
259 * of the rotation vector is equal to sin(theta/2), and the direction of the
262 * unit quaternion <cos(theta/2), x*sin(theta/2), y*sin(theta/2), z*sin(theta/2)>.
280 * sensors_event_t.data[0] = x*sin(theta/2
[all...] |
| /bionic/libm/man/ |
| atan2.3 | 118 (r,theta)
123 r\(**cos theta
128 r\(**sin theta.
134 (r=0,theta=0).
142 theta := atan2(y,x).
|
| /frameworks/wilhelm/src/itf/ |
| I3DLocation.c | 213 static SLresult I3DLocation_Rotate(SL3DLocationItf self, SLmillidegree theta, const SLVec3D *pAxis)
217 if (!((-360000 <= theta) && (theta <= 360000)) || (NULL == pAxis)) {
230 thiz->mTheta = theta;
|
| I3DMacroscopic.c | 122 SLmillidegree theta, const SLVec3D *pAxis)
126 if (!((-360000 <= theta) && (theta <= 360000)) || NULL == pAxis) {
135 thiz->mTheta = theta;
|
| /external/srec/srec/clib/ |
| jacobi.c | 128 double theta = 0.5 * h / a[i][j]; local
129 t = 1.0 / (fabs(theta) + sqrt(1.0 + theta * theta));
130 if (theta < 0.0) t = -t;
|
| /frameworks/ml/bordeaux/learning/stochastic_linear_ranker/native/ |
| sparse_weight_vector.cpp | 289 const double theta = abs_val_vec[curr_l0_norm - req_l0_norm]; local
294 if ((fabs(iter->second/normalizer_) - theta) < 0) {
327 double theta = 0; local
333 theta = (cum_sum - l1_norm)/curr_index;
334 if (((*val_iter) - theta) <= 0) {
345 (fabs(iter->second/normalizer_) - theta),
|
| /prebuilts/gcc/linux-x86/host/i686-linux-glibc2.7-4.4.3/i686-linux/include/c++/4.4.3/tr1/ |
| legendre_function.tcc | 189 * and @f$ \theta @f$ is defined as @f$ Y_l^m(\theta,0) @f$ where
191 * Y_l^m(\theta,\phi) = (-1)^m[\frac{(2l+1)}{4\pi}
193 * P_l^m(\cos\theta) \exp^{im\phi}
199 * argument (@f$x = \cos(\theta)@f$) and by a normalization factor
208 * @param theta The radian angle argument of the spherical associated
|
| /prebuilts/gcc/linux-x86/host/i686-linux-glibc2.7-4.6/i686-linux/include/c++/4.6.x-google/tr1/ |
| legendre_function.tcc | 189 * and @f$ \theta @f$ is defined as @f$ Y_l^m(\theta,0) @f$ where
191 * Y_l^m(\theta,\phi) = (-1)^m[\frac{(2l+1)}{4\pi}
193 * P_l^m(\cos\theta) \exp^{im\phi}
199 * argument (@f$x = \cos(\theta)@f$) and by a normalization factor
208 * @param theta The radian angle argument of the spherical associated
|
| /prebuilts/gcc/linux-x86/host/x86_64-linux-glibc2.7-4.6/x86_64-linux/include/c++/4.6.x-google/tr1/ |
| legendre_function.tcc | 189 * and @f$ \theta @f$ is defined as @f$ Y_l^m(\theta,0) @f$ where
191 * Y_l^m(\theta,\phi) = (-1)^m[\frac{(2l+1)}{4\pi}
193 * P_l^m(\cos\theta) \exp^{im\phi}
199 * argument (@f$x = \cos(\theta)@f$) and by a normalization factor
208 * @param theta The radian angle argument of the spherical associated
|
| /prebuilts/ndk/5/sources/cxx-stl/gnu-libstdc++/include/tr1/ |
| legendre_function.tcc | 189 * and @f$ \theta @f$ is defined as @f$ Y_l^m(\theta,0) @f$ where
191 * Y_l^m(\theta,\phi) = (-1)^m[\frac{(2l+1)}{4\pi}
193 * P_l^m(\cos\theta) \exp^{im\phi}
199 * argument (@f$x = \cos(\theta)@f$) and by a normalization factor
208 * @param theta The radian angle argument of the spherical associated
|
