
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor h) dX.v))
(t_1 (* (floor w) dY.u))
(t_2 (* (floor w) dX.u))
(t_3 (+ (* t_2 t_2) (* t_0 t_0)))
(t_4 (* (floor h) dY.v))
(t_5 (+ (* t_1 t_1) (* t_4 t_4)))
(t_6 (/ 1.0 (sqrt (fmax t_3 t_5)))))
(if (>= t_3 t_5) (* t_6 t_0) (* t_6 t_4))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(h) * dX_46_v;
float t_1 = floorf(w) * dY_46_u;
float t_2 = floorf(w) * dX_46_u;
float t_3 = (t_2 * t_2) + (t_0 * t_0);
float t_4 = floorf(h) * dY_46_v;
float t_5 = (t_1 * t_1) + (t_4 * t_4);
float t_6 = 1.0f / sqrtf(fmaxf(t_3, t_5));
float tmp;
if (t_3 >= t_5) {
tmp = t_6 * t_0;
} else {
tmp = t_6 * t_4;
}
return tmp;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(h) * dX_46_v) t_1 = Float32(floor(w) * dY_46_u) t_2 = Float32(floor(w) * dX_46_u) t_3 = Float32(Float32(t_2 * t_2) + Float32(t_0 * t_0)) t_4 = Float32(floor(h) * dY_46_v) t_5 = Float32(Float32(t_1 * t_1) + Float32(t_4 * t_4)) t_6 = Float32(Float32(1.0) / sqrt(((t_3 != t_3) ? t_5 : ((t_5 != t_5) ? t_3 : max(t_3, t_5))))) tmp = Float32(0.0) if (t_3 >= t_5) tmp = Float32(t_6 * t_0); else tmp = Float32(t_6 * t_4); end return tmp end
function tmp_2 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(h) * dX_46_v; t_1 = floor(w) * dY_46_u; t_2 = floor(w) * dX_46_u; t_3 = (t_2 * t_2) + (t_0 * t_0); t_4 = floor(h) * dY_46_v; t_5 = (t_1 * t_1) + (t_4 * t_4); t_6 = single(1.0) / sqrt(max(t_3, t_5)); tmp = single(0.0); if (t_3 >= t_5) tmp = t_6 * t_0; else tmp = t_6 * t_4; end tmp_2 = tmp; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor h\right\rfloor \cdot dX.v\\
t_1 := \left\lfloor w\right\rfloor \cdot dY.u\\
t_2 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_3 := t\_2 \cdot t\_2 + t\_0 \cdot t\_0\\
t_4 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_5 := t\_1 \cdot t\_1 + t\_4 \cdot t\_4\\
t_6 := \frac{1}{\sqrt{\mathsf{max}\left(t\_3, t\_5\right)}}\\
\mathbf{if}\;t\_3 \geq t\_5:\\
\;\;\;\;t\_6 \cdot t\_0\\
\mathbf{else}:\\
\;\;\;\;t\_6 \cdot t\_4\\
\end{array}
\end{array}
Sampling outcomes in binary32 precision:
Herbie found 10 alternatives:
| Alternative | Accuracy | Speedup |
|---|
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor h) dX.v))
(t_1 (* (floor w) dY.u))
(t_2 (* (floor w) dX.u))
(t_3 (+ (* t_2 t_2) (* t_0 t_0)))
(t_4 (* (floor h) dY.v))
(t_5 (+ (* t_1 t_1) (* t_4 t_4)))
(t_6 (/ 1.0 (sqrt (fmax t_3 t_5)))))
(if (>= t_3 t_5) (* t_6 t_0) (* t_6 t_4))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(h) * dX_46_v;
float t_1 = floorf(w) * dY_46_u;
float t_2 = floorf(w) * dX_46_u;
float t_3 = (t_2 * t_2) + (t_0 * t_0);
float t_4 = floorf(h) * dY_46_v;
float t_5 = (t_1 * t_1) + (t_4 * t_4);
float t_6 = 1.0f / sqrtf(fmaxf(t_3, t_5));
float tmp;
if (t_3 >= t_5) {
tmp = t_6 * t_0;
} else {
tmp = t_6 * t_4;
}
return tmp;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(h) * dX_46_v) t_1 = Float32(floor(w) * dY_46_u) t_2 = Float32(floor(w) * dX_46_u) t_3 = Float32(Float32(t_2 * t_2) + Float32(t_0 * t_0)) t_4 = Float32(floor(h) * dY_46_v) t_5 = Float32(Float32(t_1 * t_1) + Float32(t_4 * t_4)) t_6 = Float32(Float32(1.0) / sqrt(((t_3 != t_3) ? t_5 : ((t_5 != t_5) ? t_3 : max(t_3, t_5))))) tmp = Float32(0.0) if (t_3 >= t_5) tmp = Float32(t_6 * t_0); else tmp = Float32(t_6 * t_4); end return tmp end
function tmp_2 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(h) * dX_46_v; t_1 = floor(w) * dY_46_u; t_2 = floor(w) * dX_46_u; t_3 = (t_2 * t_2) + (t_0 * t_0); t_4 = floor(h) * dY_46_v; t_5 = (t_1 * t_1) + (t_4 * t_4); t_6 = single(1.0) / sqrt(max(t_3, t_5)); tmp = single(0.0); if (t_3 >= t_5) tmp = t_6 * t_0; else tmp = t_6 * t_4; end tmp_2 = tmp; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor h\right\rfloor \cdot dX.v\\
t_1 := \left\lfloor w\right\rfloor \cdot dY.u\\
t_2 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_3 := t\_2 \cdot t\_2 + t\_0 \cdot t\_0\\
t_4 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_5 := t\_1 \cdot t\_1 + t\_4 \cdot t\_4\\
t_6 := \frac{1}{\sqrt{\mathsf{max}\left(t\_3, t\_5\right)}}\\
\mathbf{if}\;t\_3 \geq t\_5:\\
\;\;\;\;t\_6 \cdot t\_0\\
\mathbf{else}:\\
\;\;\;\;t\_6 \cdot t\_4\\
\end{array}
\end{array}
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor w) dY.u))
(t_1 (* (floor h) dX.v))
(t_2 (* (floor w) dX.u))
(t_3 (* (floor h) dY.v))
(t_4 (fma t_0 t_0 (* (floor h) (* dY.v t_3))))
(t_5 (sqrt (fmax (fma t_2 t_2 (* t_1 t_1)) t_4))))
(if (>= (fma t_2 t_2 (pow t_1 2.0)) t_4) (/ t_1 t_5) (* t_3 (/ 1.0 t_5)))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(w) * dY_46_u;
float t_1 = floorf(h) * dX_46_v;
float t_2 = floorf(w) * dX_46_u;
float t_3 = floorf(h) * dY_46_v;
float t_4 = fmaf(t_0, t_0, (floorf(h) * (dY_46_v * t_3)));
float t_5 = sqrtf(fmaxf(fmaf(t_2, t_2, (t_1 * t_1)), t_4));
float tmp;
if (fmaf(t_2, t_2, powf(t_1, 2.0f)) >= t_4) {
tmp = t_1 / t_5;
} else {
tmp = t_3 * (1.0f / t_5);
}
return tmp;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(w) * dY_46_u) t_1 = Float32(floor(h) * dX_46_v) t_2 = Float32(floor(w) * dX_46_u) t_3 = Float32(floor(h) * dY_46_v) t_4 = fma(t_0, t_0, Float32(floor(h) * Float32(dY_46_v * t_3))) t_5 = sqrt(((fma(t_2, t_2, Float32(t_1 * t_1)) != fma(t_2, t_2, Float32(t_1 * t_1))) ? t_4 : ((t_4 != t_4) ? fma(t_2, t_2, Float32(t_1 * t_1)) : max(fma(t_2, t_2, Float32(t_1 * t_1)), t_4)))) tmp = Float32(0.0) if (fma(t_2, t_2, (t_1 ^ Float32(2.0))) >= t_4) tmp = Float32(t_1 / t_5); else tmp = Float32(t_3 * Float32(Float32(1.0) / t_5)); end return tmp end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor w\right\rfloor \cdot dY.u\\
t_1 := \left\lfloor h\right\rfloor \cdot dX.v\\
t_2 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_3 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_4 := \mathsf{fma}\left(t\_0, t\_0, \left\lfloor h\right\rfloor \cdot \left(dY.v \cdot t\_3\right)\right)\\
t_5 := \sqrt{\mathsf{max}\left(\mathsf{fma}\left(t\_2, t\_2, t\_1 \cdot t\_1\right), t\_4\right)}\\
\mathbf{if}\;\mathsf{fma}\left(t\_2, t\_2, {t\_1}^{2}\right) \geq t\_4:\\
\;\;\;\;\frac{t\_1}{t\_5}\\
\mathbf{else}:\\
\;\;\;\;t\_3 \cdot \frac{1}{t\_5}\\
\end{array}
\end{array}
Initial program 76.9%
Simplified76.9%
pow276.9%
Applied egg-rr76.9%
Final simplification76.9%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor h) dY.v))
(t_1 (pow (hypot (* (floor w) dY.u) t_0) 2.0))
(t_2 (pow (hypot (* (floor h) dX.v) (* (floor w) dX.u)) 2.0))
(t_3 (sqrt (fmax t_2 t_1))))
(if (>= t_2 t_1) (* dX.v (/ (floor h) t_3)) (/ t_0 t_3))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(h) * dY_46_v;
float t_1 = powf(hypotf((floorf(w) * dY_46_u), t_0), 2.0f);
float t_2 = powf(hypotf((floorf(h) * dX_46_v), (floorf(w) * dX_46_u)), 2.0f);
float t_3 = sqrtf(fmaxf(t_2, t_1));
float tmp;
if (t_2 >= t_1) {
tmp = dX_46_v * (floorf(h) / t_3);
} else {
tmp = t_0 / t_3;
}
return tmp;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(h) * dY_46_v) t_1 = hypot(Float32(floor(w) * dY_46_u), t_0) ^ Float32(2.0) t_2 = hypot(Float32(floor(h) * dX_46_v), Float32(floor(w) * dX_46_u)) ^ Float32(2.0) t_3 = sqrt(((t_2 != t_2) ? t_1 : ((t_1 != t_1) ? t_2 : max(t_2, t_1)))) tmp = Float32(0.0) if (t_2 >= t_1) tmp = Float32(dX_46_v * Float32(floor(h) / t_3)); else tmp = Float32(t_0 / t_3); end return tmp end
function tmp_2 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(h) * dY_46_v; t_1 = hypot((floor(w) * dY_46_u), t_0) ^ single(2.0); t_2 = hypot((floor(h) * dX_46_v), (floor(w) * dX_46_u)) ^ single(2.0); t_3 = sqrt(max(t_2, t_1)); tmp = single(0.0); if (t_2 >= t_1) tmp = dX_46_v * (floor(h) / t_3); else tmp = t_0 / t_3; end tmp_2 = tmp; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_1 := {\left(\mathsf{hypot}\left(\left\lfloor w\right\rfloor \cdot dY.u, t\_0\right)\right)}^{2}\\
t_2 := {\left(\mathsf{hypot}\left(\left\lfloor h\right\rfloor \cdot dX.v, \left\lfloor w\right\rfloor \cdot dX.u\right)\right)}^{2}\\
t_3 := \sqrt{\mathsf{max}\left(t\_2, t\_1\right)}\\
\mathbf{if}\;t\_2 \geq t\_1:\\
\;\;\;\;dX.v \cdot \frac{\left\lfloor h\right\rfloor }{t\_3}\\
\mathbf{else}:\\
\;\;\;\;\frac{t\_0}{t\_3}\\
\end{array}
\end{array}
Initial program 76.9%
Simplified76.9%
pow276.9%
Applied egg-rr76.9%
Taylor expanded in w around 0 76.5%
Simplified76.8%
Taylor expanded in dX.u around 0 76.5%
Simplified76.9%
Final simplification76.9%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (pow (hypot (* (floor w) dY.u) (* (floor h) dY.v)) 2.0))
(t_1 (* (floor h) dX.v))
(t_2 (pow (hypot (* (floor w) dX.u) t_1) 2.0))
(t_3 (sqrt (fmax t_2 t_0))))
(if (>= t_2 t_0) (/ t_1 t_3) (* (floor h) (/ dY.v t_3)))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = powf(hypotf((floorf(w) * dY_46_u), (floorf(h) * dY_46_v)), 2.0f);
float t_1 = floorf(h) * dX_46_v;
float t_2 = powf(hypotf((floorf(w) * dX_46_u), t_1), 2.0f);
float t_3 = sqrtf(fmaxf(t_2, t_0));
float tmp;
if (t_2 >= t_0) {
tmp = t_1 / t_3;
} else {
tmp = floorf(h) * (dY_46_v / t_3);
}
return tmp;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = hypot(Float32(floor(w) * dY_46_u), Float32(floor(h) * dY_46_v)) ^ Float32(2.0) t_1 = Float32(floor(h) * dX_46_v) t_2 = hypot(Float32(floor(w) * dX_46_u), t_1) ^ Float32(2.0) t_3 = sqrt(((t_2 != t_2) ? t_0 : ((t_0 != t_0) ? t_2 : max(t_2, t_0)))) tmp = Float32(0.0) if (t_2 >= t_0) tmp = Float32(t_1 / t_3); else tmp = Float32(floor(h) * Float32(dY_46_v / t_3)); end return tmp end
function tmp_2 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = hypot((floor(w) * dY_46_u), (floor(h) * dY_46_v)) ^ single(2.0); t_1 = floor(h) * dX_46_v; t_2 = hypot((floor(w) * dX_46_u), t_1) ^ single(2.0); t_3 = sqrt(max(t_2, t_0)); tmp = single(0.0); if (t_2 >= t_0) tmp = t_1 / t_3; else tmp = floor(h) * (dY_46_v / t_3); end tmp_2 = tmp; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := {\left(\mathsf{hypot}\left(\left\lfloor w\right\rfloor \cdot dY.u, \left\lfloor h\right\rfloor \cdot dY.v\right)\right)}^{2}\\
t_1 := \left\lfloor h\right\rfloor \cdot dX.v\\
t_2 := {\left(\mathsf{hypot}\left(\left\lfloor w\right\rfloor \cdot dX.u, t\_1\right)\right)}^{2}\\
t_3 := \sqrt{\mathsf{max}\left(t\_2, t\_0\right)}\\
\mathbf{if}\;t\_2 \geq t\_0:\\
\;\;\;\;\frac{t\_1}{t\_3}\\
\mathbf{else}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \frac{dY.v}{t\_3}\\
\end{array}
\end{array}
Initial program 76.9%
Simplified76.9%
pow276.9%
Applied egg-rr76.9%
Taylor expanded in w around 0 76.5%
Simplified76.8%
Final simplification76.8%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor w) dY.u))
(t_1 (* (floor w) dX.u))
(t_2 (* (floor h) dY.v))
(t_3 (* (floor h) dX.v))
(t_4 (pow (hypot t_1 t_3) 2.0))
(t_5 (pow (hypot t_3 t_1) 2.0))
(t_6 (pow (hypot t_0 t_2) 2.0))
(t_7 (sqrt (fmax t_4 t_6)))
(t_8 (sqrt (fmax t_5 t_6))))
(if (<= dY.u 12.0)
(if (>= t_5 (pow t_2 2.0)) (* dX.v (/ (floor h) t_8)) (/ t_2 t_8))
(if (>= t_4 (pow t_0 2.0)) (/ t_3 t_7) (* (floor h) (/ dY.v t_7))))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(w) * dY_46_u;
float t_1 = floorf(w) * dX_46_u;
float t_2 = floorf(h) * dY_46_v;
float t_3 = floorf(h) * dX_46_v;
float t_4 = powf(hypotf(t_1, t_3), 2.0f);
float t_5 = powf(hypotf(t_3, t_1), 2.0f);
float t_6 = powf(hypotf(t_0, t_2), 2.0f);
float t_7 = sqrtf(fmaxf(t_4, t_6));
float t_8 = sqrtf(fmaxf(t_5, t_6));
float tmp_1;
if (dY_46_u <= 12.0f) {
float tmp_2;
if (t_5 >= powf(t_2, 2.0f)) {
tmp_2 = dX_46_v * (floorf(h) / t_8);
} else {
tmp_2 = t_2 / t_8;
}
tmp_1 = tmp_2;
} else if (t_4 >= powf(t_0, 2.0f)) {
tmp_1 = t_3 / t_7;
} else {
tmp_1 = floorf(h) * (dY_46_v / t_7);
}
return tmp_1;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(w) * dY_46_u) t_1 = Float32(floor(w) * dX_46_u) t_2 = Float32(floor(h) * dY_46_v) t_3 = Float32(floor(h) * dX_46_v) t_4 = hypot(t_1, t_3) ^ Float32(2.0) t_5 = hypot(t_3, t_1) ^ Float32(2.0) t_6 = hypot(t_0, t_2) ^ Float32(2.0) t_7 = sqrt(((t_4 != t_4) ? t_6 : ((t_6 != t_6) ? t_4 : max(t_4, t_6)))) t_8 = sqrt(((t_5 != t_5) ? t_6 : ((t_6 != t_6) ? t_5 : max(t_5, t_6)))) tmp_1 = Float32(0.0) if (dY_46_u <= Float32(12.0)) tmp_2 = Float32(0.0) if (t_5 >= (t_2 ^ Float32(2.0))) tmp_2 = Float32(dX_46_v * Float32(floor(h) / t_8)); else tmp_2 = Float32(t_2 / t_8); end tmp_1 = tmp_2; elseif (t_4 >= (t_0 ^ Float32(2.0))) tmp_1 = Float32(t_3 / t_7); else tmp_1 = Float32(floor(h) * Float32(dY_46_v / t_7)); end return tmp_1 end
function tmp_4 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(w) * dY_46_u; t_1 = floor(w) * dX_46_u; t_2 = floor(h) * dY_46_v; t_3 = floor(h) * dX_46_v; t_4 = hypot(t_1, t_3) ^ single(2.0); t_5 = hypot(t_3, t_1) ^ single(2.0); t_6 = hypot(t_0, t_2) ^ single(2.0); t_7 = sqrt(max(t_4, t_6)); t_8 = sqrt(max(t_5, t_6)); tmp_2 = single(0.0); if (dY_46_u <= single(12.0)) tmp_3 = single(0.0); if (t_5 >= (t_2 ^ single(2.0))) tmp_3 = dX_46_v * (floor(h) / t_8); else tmp_3 = t_2 / t_8; end tmp_2 = tmp_3; elseif (t_4 >= (t_0 ^ single(2.0))) tmp_2 = t_3 / t_7; else tmp_2 = floor(h) * (dY_46_v / t_7); end tmp_4 = tmp_2; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor w\right\rfloor \cdot dY.u\\
t_1 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_2 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_3 := \left\lfloor h\right\rfloor \cdot dX.v\\
t_4 := {\left(\mathsf{hypot}\left(t\_1, t\_3\right)\right)}^{2}\\
t_5 := {\left(\mathsf{hypot}\left(t\_3, t\_1\right)\right)}^{2}\\
t_6 := {\left(\mathsf{hypot}\left(t\_0, t\_2\right)\right)}^{2}\\
t_7 := \sqrt{\mathsf{max}\left(t\_4, t\_6\right)}\\
t_8 := \sqrt{\mathsf{max}\left(t\_5, t\_6\right)}\\
\mathbf{if}\;dY.u \leq 12:\\
\;\;\;\;\begin{array}{l}
\mathbf{if}\;t\_5 \geq {t\_2}^{2}:\\
\;\;\;\;dX.v \cdot \frac{\left\lfloor h\right\rfloor }{t\_8}\\
\mathbf{else}:\\
\;\;\;\;\frac{t\_2}{t\_8}\\
\end{array}\\
\mathbf{elif}\;t\_4 \geq {t\_0}^{2}:\\
\;\;\;\;\frac{t\_3}{t\_7}\\
\mathbf{else}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \frac{dY.v}{t\_7}\\
\end{array}
\end{array}
if dY.u < 12Initial program 78.5%
Simplified78.4%
Taylor expanded in w around 0 78.2%
Simplified78.0%
Taylor expanded in dY.v around inf 71.7%
*-commutative71.7%
unpow271.7%
unpow271.7%
swap-sqr71.7%
unpow271.7%
Simplified71.7%
Taylor expanded in dX.u around 0 71.9%
Simplified72.3%
if 12 < dY.u Initial program 70.7%
Simplified71.1%
pow271.1%
Applied egg-rr71.1%
Taylor expanded in w around 0 70.4%
Simplified71.0%
Taylor expanded in dY.u around inf 71.0%
*-commutative71.0%
unpow271.0%
unpow271.0%
swap-sqr71.0%
unpow271.0%
Simplified71.0%
Final simplification72.0%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor w) dX.u))
(t_1 (* (floor h) dX.v))
(t_2 (pow (hypot t_0 t_1) 2.0))
(t_3 (* (floor h) dY.v))
(t_4 (* (floor w) dY.u))
(t_5 (pow (hypot t_3 t_4) 2.0))
(t_6 (sqrt (fmax t_2 (pow (hypot t_4 t_3) 2.0)))))
(if (<= dY.u 12.0)
(if (>= (pow t_0 2.0) (pow t_3 2.0))
(* (floor h) (* dX.v (sqrt (/ 1.0 (fmax t_2 t_5)))))
(*
(floor h)
(* dY.v (sqrt (/ 1.0 (fmax (pow (* (floor w) (- dX.u)) 2.0) t_5))))))
(if (>= t_2 (pow t_4 2.0)) (/ t_1 t_6) (* (floor h) (/ dY.v t_6))))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(w) * dX_46_u;
float t_1 = floorf(h) * dX_46_v;
float t_2 = powf(hypotf(t_0, t_1), 2.0f);
float t_3 = floorf(h) * dY_46_v;
float t_4 = floorf(w) * dY_46_u;
float t_5 = powf(hypotf(t_3, t_4), 2.0f);
float t_6 = sqrtf(fmaxf(t_2, powf(hypotf(t_4, t_3), 2.0f)));
float tmp_1;
if (dY_46_u <= 12.0f) {
float tmp_2;
if (powf(t_0, 2.0f) >= powf(t_3, 2.0f)) {
tmp_2 = floorf(h) * (dX_46_v * sqrtf((1.0f / fmaxf(t_2, t_5))));
} else {
tmp_2 = floorf(h) * (dY_46_v * sqrtf((1.0f / fmaxf(powf((floorf(w) * -dX_46_u), 2.0f), t_5))));
}
tmp_1 = tmp_2;
} else if (t_2 >= powf(t_4, 2.0f)) {
tmp_1 = t_1 / t_6;
} else {
tmp_1 = floorf(h) * (dY_46_v / t_6);
}
return tmp_1;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(w) * dX_46_u) t_1 = Float32(floor(h) * dX_46_v) t_2 = hypot(t_0, t_1) ^ Float32(2.0) t_3 = Float32(floor(h) * dY_46_v) t_4 = Float32(floor(w) * dY_46_u) t_5 = hypot(t_3, t_4) ^ Float32(2.0) t_6 = sqrt(((t_2 != t_2) ? (hypot(t_4, t_3) ^ Float32(2.0)) : (((hypot(t_4, t_3) ^ Float32(2.0)) != (hypot(t_4, t_3) ^ Float32(2.0))) ? t_2 : max(t_2, (hypot(t_4, t_3) ^ Float32(2.0)))))) tmp_1 = Float32(0.0) if (dY_46_u <= Float32(12.0)) tmp_2 = Float32(0.0) if ((t_0 ^ Float32(2.0)) >= (t_3 ^ Float32(2.0))) tmp_2 = Float32(floor(h) * Float32(dX_46_v * sqrt(Float32(Float32(1.0) / ((t_2 != t_2) ? t_5 : ((t_5 != t_5) ? t_2 : max(t_2, t_5))))))); else tmp_2 = Float32(floor(h) * Float32(dY_46_v * sqrt(Float32(Float32(1.0) / (((Float32(floor(w) * Float32(-dX_46_u)) ^ Float32(2.0)) != (Float32(floor(w) * Float32(-dX_46_u)) ^ Float32(2.0))) ? t_5 : ((t_5 != t_5) ? (Float32(floor(w) * Float32(-dX_46_u)) ^ Float32(2.0)) : max((Float32(floor(w) * Float32(-dX_46_u)) ^ Float32(2.0)), t_5))))))); end tmp_1 = tmp_2; elseif (t_2 >= (t_4 ^ Float32(2.0))) tmp_1 = Float32(t_1 / t_6); else tmp_1 = Float32(floor(h) * Float32(dY_46_v / t_6)); end return tmp_1 end
function tmp_4 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(w) * dX_46_u; t_1 = floor(h) * dX_46_v; t_2 = hypot(t_0, t_1) ^ single(2.0); t_3 = floor(h) * dY_46_v; t_4 = floor(w) * dY_46_u; t_5 = hypot(t_3, t_4) ^ single(2.0); t_6 = sqrt(max(t_2, (hypot(t_4, t_3) ^ single(2.0)))); tmp_2 = single(0.0); if (dY_46_u <= single(12.0)) tmp_3 = single(0.0); if ((t_0 ^ single(2.0)) >= (t_3 ^ single(2.0))) tmp_3 = floor(h) * (dX_46_v * sqrt((single(1.0) / max(t_2, t_5)))); else tmp_3 = floor(h) * (dY_46_v * sqrt((single(1.0) / max(((floor(w) * -dX_46_u) ^ single(2.0)), t_5)))); end tmp_2 = tmp_3; elseif (t_2 >= (t_4 ^ single(2.0))) tmp_2 = t_1 / t_6; else tmp_2 = floor(h) * (dY_46_v / t_6); end tmp_4 = tmp_2; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_1 := \left\lfloor h\right\rfloor \cdot dX.v\\
t_2 := {\left(\mathsf{hypot}\left(t\_0, t\_1\right)\right)}^{2}\\
t_3 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_4 := \left\lfloor w\right\rfloor \cdot dY.u\\
t_5 := {\left(\mathsf{hypot}\left(t\_3, t\_4\right)\right)}^{2}\\
t_6 := \sqrt{\mathsf{max}\left(t\_2, {\left(\mathsf{hypot}\left(t\_4, t\_3\right)\right)}^{2}\right)}\\
\mathbf{if}\;dY.u \leq 12:\\
\;\;\;\;\begin{array}{l}
\mathbf{if}\;{t\_0}^{2} \geq {t\_3}^{2}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dX.v \cdot \sqrt{\frac{1}{\mathsf{max}\left(t\_2, t\_5\right)}}\right)\\
\mathbf{else}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dY.v \cdot \sqrt{\frac{1}{\mathsf{max}\left({\left(\left\lfloor w\right\rfloor \cdot \left(-dX.u\right)\right)}^{2}, t\_5\right)}}\right)\\
\end{array}\\
\mathbf{elif}\;t\_2 \geq {t\_4}^{2}:\\
\;\;\;\;\frac{t\_1}{t\_6}\\
\mathbf{else}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \frac{dY.v}{t\_6}\\
\end{array}
\end{array}
if dY.u < 12Initial program 78.5%
Simplified78.4%
Taylor expanded in w around 0 78.2%
Simplified78.0%
Taylor expanded in dY.v around inf 71.7%
*-commutative71.7%
unpow271.7%
unpow271.7%
swap-sqr71.7%
unpow271.7%
Simplified71.7%
Taylor expanded in dX.u around inf 64.6%
Taylor expanded in dX.u around -inf 67.2%
mul-1-neg67.2%
*-commutative67.2%
distribute-rgt-neg-in67.2%
Simplified67.2%
if 12 < dY.u Initial program 70.7%
Simplified71.1%
pow271.1%
Applied egg-rr71.1%
Taylor expanded in w around 0 70.4%
Simplified71.0%
Taylor expanded in dY.u around inf 71.0%
*-commutative71.0%
unpow271.0%
unpow271.0%
swap-sqr71.0%
unpow271.0%
Simplified71.0%
Final simplification68.0%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor w) dX.u))
(t_1 (* (floor w) dY.u))
(t_2 (* (floor h) dY.v))
(t_3 (pow (hypot t_1 t_2) 2.0))
(t_4 (* (floor h) dX.v))
(t_5 (sqrt (fmax (pow (hypot t_4 t_0) 2.0) t_3)))
(t_6 (pow (hypot t_0 t_4) 2.0)))
(if (<= dX.u 320000.0)
(if (>= (pow t_4 2.0) t_3) (* dX.v (/ (floor h) t_5)) (/ t_2 t_5))
(if (>= (pow t_0 2.0) (pow t_2 2.0))
(* (floor h) (* dX.v (/ 1.0 (sqrt (fmax t_6 t_3)))))
(*
(floor h)
(* dY.v (sqrt (/ 1.0 (fmax t_6 (pow (hypot t_2 t_1) 2.0))))))))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(w) * dX_46_u;
float t_1 = floorf(w) * dY_46_u;
float t_2 = floorf(h) * dY_46_v;
float t_3 = powf(hypotf(t_1, t_2), 2.0f);
float t_4 = floorf(h) * dX_46_v;
float t_5 = sqrtf(fmaxf(powf(hypotf(t_4, t_0), 2.0f), t_3));
float t_6 = powf(hypotf(t_0, t_4), 2.0f);
float tmp_1;
if (dX_46_u <= 320000.0f) {
float tmp_2;
if (powf(t_4, 2.0f) >= t_3) {
tmp_2 = dX_46_v * (floorf(h) / t_5);
} else {
tmp_2 = t_2 / t_5;
}
tmp_1 = tmp_2;
} else if (powf(t_0, 2.0f) >= powf(t_2, 2.0f)) {
tmp_1 = floorf(h) * (dX_46_v * (1.0f / sqrtf(fmaxf(t_6, t_3))));
} else {
tmp_1 = floorf(h) * (dY_46_v * sqrtf((1.0f / fmaxf(t_6, powf(hypotf(t_2, t_1), 2.0f)))));
}
return tmp_1;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(w) * dX_46_u) t_1 = Float32(floor(w) * dY_46_u) t_2 = Float32(floor(h) * dY_46_v) t_3 = hypot(t_1, t_2) ^ Float32(2.0) t_4 = Float32(floor(h) * dX_46_v) t_5 = sqrt((((hypot(t_4, t_0) ^ Float32(2.0)) != (hypot(t_4, t_0) ^ Float32(2.0))) ? t_3 : ((t_3 != t_3) ? (hypot(t_4, t_0) ^ Float32(2.0)) : max((hypot(t_4, t_0) ^ Float32(2.0)), t_3)))) t_6 = hypot(t_0, t_4) ^ Float32(2.0) tmp_1 = Float32(0.0) if (dX_46_u <= Float32(320000.0)) tmp_2 = Float32(0.0) if ((t_4 ^ Float32(2.0)) >= t_3) tmp_2 = Float32(dX_46_v * Float32(floor(h) / t_5)); else tmp_2 = Float32(t_2 / t_5); end tmp_1 = tmp_2; elseif ((t_0 ^ Float32(2.0)) >= (t_2 ^ Float32(2.0))) tmp_1 = Float32(floor(h) * Float32(dX_46_v * Float32(Float32(1.0) / sqrt(((t_6 != t_6) ? t_3 : ((t_3 != t_3) ? t_6 : max(t_6, t_3))))))); else tmp_1 = Float32(floor(h) * Float32(dY_46_v * sqrt(Float32(Float32(1.0) / ((t_6 != t_6) ? (hypot(t_2, t_1) ^ Float32(2.0)) : (((hypot(t_2, t_1) ^ Float32(2.0)) != (hypot(t_2, t_1) ^ Float32(2.0))) ? t_6 : max(t_6, (hypot(t_2, t_1) ^ Float32(2.0))))))))); end return tmp_1 end
function tmp_4 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(w) * dX_46_u; t_1 = floor(w) * dY_46_u; t_2 = floor(h) * dY_46_v; t_3 = hypot(t_1, t_2) ^ single(2.0); t_4 = floor(h) * dX_46_v; t_5 = sqrt(max((hypot(t_4, t_0) ^ single(2.0)), t_3)); t_6 = hypot(t_0, t_4) ^ single(2.0); tmp_2 = single(0.0); if (dX_46_u <= single(320000.0)) tmp_3 = single(0.0); if ((t_4 ^ single(2.0)) >= t_3) tmp_3 = dX_46_v * (floor(h) / t_5); else tmp_3 = t_2 / t_5; end tmp_2 = tmp_3; elseif ((t_0 ^ single(2.0)) >= (t_2 ^ single(2.0))) tmp_2 = floor(h) * (dX_46_v * (single(1.0) / sqrt(max(t_6, t_3)))); else tmp_2 = floor(h) * (dY_46_v * sqrt((single(1.0) / max(t_6, (hypot(t_2, t_1) ^ single(2.0)))))); end tmp_4 = tmp_2; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_1 := \left\lfloor w\right\rfloor \cdot dY.u\\
t_2 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_3 := {\left(\mathsf{hypot}\left(t\_1, t\_2\right)\right)}^{2}\\
t_4 := \left\lfloor h\right\rfloor \cdot dX.v\\
t_5 := \sqrt{\mathsf{max}\left({\left(\mathsf{hypot}\left(t\_4, t\_0\right)\right)}^{2}, t\_3\right)}\\
t_6 := {\left(\mathsf{hypot}\left(t\_0, t\_4\right)\right)}^{2}\\
\mathbf{if}\;dX.u \leq 320000:\\
\;\;\;\;\begin{array}{l}
\mathbf{if}\;{t\_4}^{2} \geq t\_3:\\
\;\;\;\;dX.v \cdot \frac{\left\lfloor h\right\rfloor }{t\_5}\\
\mathbf{else}:\\
\;\;\;\;\frac{t\_2}{t\_5}\\
\end{array}\\
\mathbf{elif}\;{t\_0}^{2} \geq {t\_2}^{2}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dX.v \cdot \frac{1}{\sqrt{\mathsf{max}\left(t\_6, t\_3\right)}}\right)\\
\mathbf{else}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dY.v \cdot \sqrt{\frac{1}{\mathsf{max}\left(t\_6, {\left(\mathsf{hypot}\left(t\_2, t\_1\right)\right)}^{2}\right)}}\right)\\
\end{array}
\end{array}
if dX.u < 3.2e5Initial program 80.7%
Simplified80.8%
pow280.8%
Applied egg-rr80.8%
Taylor expanded in w around 0 80.3%
Simplified80.6%
Taylor expanded in dX.u around 0 80.3%
Simplified80.7%
Taylor expanded in dX.v around inf 70.5%
unpow270.5%
unpow270.5%
swap-sqr70.5%
unpow270.5%
Simplified70.5%
if 3.2e5 < dX.u Initial program 58.9%
Simplified59.0%
Taylor expanded in w around 0 58.8%
Simplified58.9%
Taylor expanded in dY.v around inf 55.0%
*-commutative55.0%
unpow255.0%
unpow255.0%
swap-sqr55.0%
unpow255.0%
Simplified55.0%
Taylor expanded in dX.u around inf 52.9%
Applied egg-rr52.9%
Final simplification67.4%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor h) dY.v))
(t_1 (pow t_0 2.0))
(t_2 (* (floor w) dY.u))
(t_3 (* (floor h) dX.v))
(t_4 (* (floor w) dX.u))
(t_5 (pow (hypot t_4 t_3) 2.0))
(t_6 (sqrt (/ 1.0 (fmax t_5 (pow (hypot t_0 t_2) 2.0)))))
(t_7 (* (floor h) (* dY.v t_6))))
(if (<= dX.u 120000.0)
(if (>= (pow t_3 2.0) t_1) (* (floor h) (* dX.v t_6)) t_7)
(if (>= (pow t_4 2.0) t_1)
(*
(floor h)
(* dX.v (/ 1.0 (sqrt (fmax t_5 (pow (hypot t_2 t_0) 2.0))))))
t_7))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(h) * dY_46_v;
float t_1 = powf(t_0, 2.0f);
float t_2 = floorf(w) * dY_46_u;
float t_3 = floorf(h) * dX_46_v;
float t_4 = floorf(w) * dX_46_u;
float t_5 = powf(hypotf(t_4, t_3), 2.0f);
float t_6 = sqrtf((1.0f / fmaxf(t_5, powf(hypotf(t_0, t_2), 2.0f))));
float t_7 = floorf(h) * (dY_46_v * t_6);
float tmp_1;
if (dX_46_u <= 120000.0f) {
float tmp_2;
if (powf(t_3, 2.0f) >= t_1) {
tmp_2 = floorf(h) * (dX_46_v * t_6);
} else {
tmp_2 = t_7;
}
tmp_1 = tmp_2;
} else if (powf(t_4, 2.0f) >= t_1) {
tmp_1 = floorf(h) * (dX_46_v * (1.0f / sqrtf(fmaxf(t_5, powf(hypotf(t_2, t_0), 2.0f)))));
} else {
tmp_1 = t_7;
}
return tmp_1;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(h) * dY_46_v) t_1 = t_0 ^ Float32(2.0) t_2 = Float32(floor(w) * dY_46_u) t_3 = Float32(floor(h) * dX_46_v) t_4 = Float32(floor(w) * dX_46_u) t_5 = hypot(t_4, t_3) ^ Float32(2.0) t_6 = sqrt(Float32(Float32(1.0) / ((t_5 != t_5) ? (hypot(t_0, t_2) ^ Float32(2.0)) : (((hypot(t_0, t_2) ^ Float32(2.0)) != (hypot(t_0, t_2) ^ Float32(2.0))) ? t_5 : max(t_5, (hypot(t_0, t_2) ^ Float32(2.0))))))) t_7 = Float32(floor(h) * Float32(dY_46_v * t_6)) tmp_1 = Float32(0.0) if (dX_46_u <= Float32(120000.0)) tmp_2 = Float32(0.0) if ((t_3 ^ Float32(2.0)) >= t_1) tmp_2 = Float32(floor(h) * Float32(dX_46_v * t_6)); else tmp_2 = t_7; end tmp_1 = tmp_2; elseif ((t_4 ^ Float32(2.0)) >= t_1) tmp_1 = Float32(floor(h) * Float32(dX_46_v * Float32(Float32(1.0) / sqrt(((t_5 != t_5) ? (hypot(t_2, t_0) ^ Float32(2.0)) : (((hypot(t_2, t_0) ^ Float32(2.0)) != (hypot(t_2, t_0) ^ Float32(2.0))) ? t_5 : max(t_5, (hypot(t_2, t_0) ^ Float32(2.0))))))))); else tmp_1 = t_7; end return tmp_1 end
function tmp_4 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(h) * dY_46_v; t_1 = t_0 ^ single(2.0); t_2 = floor(w) * dY_46_u; t_3 = floor(h) * dX_46_v; t_4 = floor(w) * dX_46_u; t_5 = hypot(t_4, t_3) ^ single(2.0); t_6 = sqrt((single(1.0) / max(t_5, (hypot(t_0, t_2) ^ single(2.0))))); t_7 = floor(h) * (dY_46_v * t_6); tmp_2 = single(0.0); if (dX_46_u <= single(120000.0)) tmp_3 = single(0.0); if ((t_3 ^ single(2.0)) >= t_1) tmp_3 = floor(h) * (dX_46_v * t_6); else tmp_3 = t_7; end tmp_2 = tmp_3; elseif ((t_4 ^ single(2.0)) >= t_1) tmp_2 = floor(h) * (dX_46_v * (single(1.0) / sqrt(max(t_5, (hypot(t_2, t_0) ^ single(2.0)))))); else tmp_2 = t_7; end tmp_4 = tmp_2; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_1 := {t\_0}^{2}\\
t_2 := \left\lfloor w\right\rfloor \cdot dY.u\\
t_3 := \left\lfloor h\right\rfloor \cdot dX.v\\
t_4 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_5 := {\left(\mathsf{hypot}\left(t\_4, t\_3\right)\right)}^{2}\\
t_6 := \sqrt{\frac{1}{\mathsf{max}\left(t\_5, {\left(\mathsf{hypot}\left(t\_0, t\_2\right)\right)}^{2}\right)}}\\
t_7 := \left\lfloor h\right\rfloor \cdot \left(dY.v \cdot t\_6\right)\\
\mathbf{if}\;dX.u \leq 120000:\\
\;\;\;\;\begin{array}{l}
\mathbf{if}\;{t\_3}^{2} \geq t\_1:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dX.v \cdot t\_6\right)\\
\mathbf{else}:\\
\;\;\;\;t\_7\\
\end{array}\\
\mathbf{elif}\;{t\_4}^{2} \geq t\_1:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dX.v \cdot \frac{1}{\sqrt{\mathsf{max}\left(t\_5, {\left(\mathsf{hypot}\left(t\_2, t\_0\right)\right)}^{2}\right)}}\right)\\
\mathbf{else}:\\
\;\;\;\;t\_7\\
\end{array}
\end{array}
if dX.u < 1.2e5Initial program 80.4%
Simplified80.4%
Taylor expanded in w around 0 80.0%
Simplified79.9%
Taylor expanded in dY.v around inf 68.2%
*-commutative68.2%
unpow268.2%
unpow268.2%
swap-sqr68.2%
unpow268.2%
Simplified68.2%
Taylor expanded in dX.u around 0 65.2%
if 1.2e5 < dX.u Initial program 61.5%
Simplified61.5%
Taylor expanded in w around 0 61.2%
Simplified61.3%
Taylor expanded in dY.v around inf 55.8%
*-commutative55.8%
unpow255.8%
unpow255.8%
swap-sqr55.8%
unpow255.8%
Simplified55.8%
Taylor expanded in dX.u around inf 53.8%
Applied egg-rr53.8%
Final simplification63.1%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor h) dY.v))
(t_1 (pow (hypot t_0 (* (floor w) dY.u)) 2.0))
(t_2 (* (floor w) dX.u))
(t_3
(*
(floor h)
(*
dY.v
(sqrt
(/ 1.0 (fmax (pow (hypot t_2 (* (floor h) dX.v)) 2.0) t_1))))))
(t_4 (>= (pow t_2 2.0) (pow t_0 2.0))))
(if (<= dX.u 0.25)
(if t_4
(*
(floor h)
(* dX.v (sqrt (/ 1.0 (fmax (pow (* (floor h) (- dX.v)) 2.0) t_1)))))
t_3)
(if t_4
(*
(floor h)
(*
dX.v
(sqrt (/ 1.0 (fmax (* (pow dX.u 2.0) (pow (floor w) 2.0)) t_1)))))
t_3))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(h) * dY_46_v;
float t_1 = powf(hypotf(t_0, (floorf(w) * dY_46_u)), 2.0f);
float t_2 = floorf(w) * dX_46_u;
float t_3 = floorf(h) * (dY_46_v * sqrtf((1.0f / fmaxf(powf(hypotf(t_2, (floorf(h) * dX_46_v)), 2.0f), t_1))));
int t_4 = powf(t_2, 2.0f) >= powf(t_0, 2.0f);
float tmp_1;
if (dX_46_u <= 0.25f) {
float tmp_2;
if (t_4) {
tmp_2 = floorf(h) * (dX_46_v * sqrtf((1.0f / fmaxf(powf((floorf(h) * -dX_46_v), 2.0f), t_1))));
} else {
tmp_2 = t_3;
}
tmp_1 = tmp_2;
} else if (t_4) {
tmp_1 = floorf(h) * (dX_46_v * sqrtf((1.0f / fmaxf((powf(dX_46_u, 2.0f) * powf(floorf(w), 2.0f)), t_1))));
} else {
tmp_1 = t_3;
}
return tmp_1;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(h) * dY_46_v) t_1 = hypot(t_0, Float32(floor(w) * dY_46_u)) ^ Float32(2.0) t_2 = Float32(floor(w) * dX_46_u) t_3 = Float32(floor(h) * Float32(dY_46_v * sqrt(Float32(Float32(1.0) / (((hypot(t_2, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)) != (hypot(t_2, Float32(floor(h) * dX_46_v)) ^ Float32(2.0))) ? t_1 : ((t_1 != t_1) ? (hypot(t_2, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)) : max((hypot(t_2, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)), t_1))))))) t_4 = (t_2 ^ Float32(2.0)) >= (t_0 ^ Float32(2.0)) tmp_1 = Float32(0.0) if (dX_46_u <= Float32(0.25)) tmp_2 = Float32(0.0) if (t_4) tmp_2 = Float32(floor(h) * Float32(dX_46_v * sqrt(Float32(Float32(1.0) / (((Float32(floor(h) * Float32(-dX_46_v)) ^ Float32(2.0)) != (Float32(floor(h) * Float32(-dX_46_v)) ^ Float32(2.0))) ? t_1 : ((t_1 != t_1) ? (Float32(floor(h) * Float32(-dX_46_v)) ^ Float32(2.0)) : max((Float32(floor(h) * Float32(-dX_46_v)) ^ Float32(2.0)), t_1))))))); else tmp_2 = t_3; end tmp_1 = tmp_2; elseif (t_4) tmp_1 = Float32(floor(h) * Float32(dX_46_v * sqrt(Float32(Float32(1.0) / ((Float32((dX_46_u ^ Float32(2.0)) * (floor(w) ^ Float32(2.0))) != Float32((dX_46_u ^ Float32(2.0)) * (floor(w) ^ Float32(2.0)))) ? t_1 : ((t_1 != t_1) ? Float32((dX_46_u ^ Float32(2.0)) * (floor(w) ^ Float32(2.0))) : max(Float32((dX_46_u ^ Float32(2.0)) * (floor(w) ^ Float32(2.0))), t_1))))))); else tmp_1 = t_3; end return tmp_1 end
function tmp_4 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(h) * dY_46_v; t_1 = hypot(t_0, (floor(w) * dY_46_u)) ^ single(2.0); t_2 = floor(w) * dX_46_u; t_3 = floor(h) * (dY_46_v * sqrt((single(1.0) / max((hypot(t_2, (floor(h) * dX_46_v)) ^ single(2.0)), t_1)))); t_4 = (t_2 ^ single(2.0)) >= (t_0 ^ single(2.0)); tmp_2 = single(0.0); if (dX_46_u <= single(0.25)) tmp_3 = single(0.0); if (t_4) tmp_3 = floor(h) * (dX_46_v * sqrt((single(1.0) / max(((floor(h) * -dX_46_v) ^ single(2.0)), t_1)))); else tmp_3 = t_3; end tmp_2 = tmp_3; elseif (t_4) tmp_2 = floor(h) * (dX_46_v * sqrt((single(1.0) / max(((dX_46_u ^ single(2.0)) * (floor(w) ^ single(2.0))), t_1)))); else tmp_2 = t_3; end tmp_4 = tmp_2; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_1 := {\left(\mathsf{hypot}\left(t\_0, \left\lfloor w\right\rfloor \cdot dY.u\right)\right)}^{2}\\
t_2 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_3 := \left\lfloor h\right\rfloor \cdot \left(dY.v \cdot \sqrt{\frac{1}{\mathsf{max}\left({\left(\mathsf{hypot}\left(t\_2, \left\lfloor h\right\rfloor \cdot dX.v\right)\right)}^{2}, t\_1\right)}}\right)\\
t_4 := {t\_2}^{2} \geq {t\_0}^{2}\\
\mathbf{if}\;dX.u \leq 0.25:\\
\;\;\;\;\begin{array}{l}
\mathbf{if}\;t\_4:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dX.v \cdot \sqrt{\frac{1}{\mathsf{max}\left({\left(\left\lfloor h\right\rfloor \cdot \left(-dX.v\right)\right)}^{2}, t\_1\right)}}\right)\\
\mathbf{else}:\\
\;\;\;\;t\_3\\
\end{array}\\
\mathbf{elif}\;t\_4:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dX.v \cdot \sqrt{\frac{1}{\mathsf{max}\left({dX.u}^{2} \cdot {\left(\left\lfloor w\right\rfloor \right)}^{2}, t\_1\right)}}\right)\\
\mathbf{else}:\\
\;\;\;\;t\_3\\
\end{array}
\end{array}
if dX.u < 0.25Initial program 79.5%
Simplified79.6%
Taylor expanded in w around 0 79.2%
Simplified79.0%
Taylor expanded in dY.v around inf 67.4%
*-commutative67.4%
unpow267.4%
unpow267.4%
swap-sqr67.4%
unpow267.4%
Simplified67.4%
Taylor expanded in dX.u around inf 57.8%
Taylor expanded in dX.v around -inf 44.8%
mul-1-neg44.8%
distribute-rgt-neg-in44.8%
Simplified44.8%
if 0.25 < dX.u Initial program 69.9%
Simplified69.7%
Taylor expanded in w around 0 69.5%
Simplified69.5%
Taylor expanded in dY.v around inf 62.0%
*-commutative62.0%
unpow262.0%
unpow262.0%
swap-sqr62.0%
unpow262.0%
Simplified62.0%
Taylor expanded in dX.u around inf 59.3%
Taylor expanded in dX.u around inf 50.3%
Final simplification46.3%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor h) dY.v))
(t_1 (* (floor w) dX.u))
(t_2 (pow (hypot t_0 (* (floor w) dY.u)) 2.0)))
(if (>= (pow t_1 2.0) (pow t_0 2.0))
(*
(floor h)
(*
dX.v
(sqrt (/ 1.0 (fmax (pow (hypot t_1 (* (floor h) dX.v)) 2.0) t_2)))))
(*
(floor h)
(* dY.v (sqrt (/ 1.0 (fmax (pow (* (floor w) (- dX.u)) 2.0) t_2))))))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(h) * dY_46_v;
float t_1 = floorf(w) * dX_46_u;
float t_2 = powf(hypotf(t_0, (floorf(w) * dY_46_u)), 2.0f);
float tmp;
if (powf(t_1, 2.0f) >= powf(t_0, 2.0f)) {
tmp = floorf(h) * (dX_46_v * sqrtf((1.0f / fmaxf(powf(hypotf(t_1, (floorf(h) * dX_46_v)), 2.0f), t_2))));
} else {
tmp = floorf(h) * (dY_46_v * sqrtf((1.0f / fmaxf(powf((floorf(w) * -dX_46_u), 2.0f), t_2))));
}
return tmp;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(h) * dY_46_v) t_1 = Float32(floor(w) * dX_46_u) t_2 = hypot(t_0, Float32(floor(w) * dY_46_u)) ^ Float32(2.0) tmp = Float32(0.0) if ((t_1 ^ Float32(2.0)) >= (t_0 ^ Float32(2.0))) tmp = Float32(floor(h) * Float32(dX_46_v * sqrt(Float32(Float32(1.0) / (((hypot(t_1, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)) != (hypot(t_1, Float32(floor(h) * dX_46_v)) ^ Float32(2.0))) ? t_2 : ((t_2 != t_2) ? (hypot(t_1, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)) : max((hypot(t_1, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)), t_2))))))); else tmp = Float32(floor(h) * Float32(dY_46_v * sqrt(Float32(Float32(1.0) / (((Float32(floor(w) * Float32(-dX_46_u)) ^ Float32(2.0)) != (Float32(floor(w) * Float32(-dX_46_u)) ^ Float32(2.0))) ? t_2 : ((t_2 != t_2) ? (Float32(floor(w) * Float32(-dX_46_u)) ^ Float32(2.0)) : max((Float32(floor(w) * Float32(-dX_46_u)) ^ Float32(2.0)), t_2))))))); end return tmp end
function tmp_2 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(h) * dY_46_v; t_1 = floor(w) * dX_46_u; t_2 = hypot(t_0, (floor(w) * dY_46_u)) ^ single(2.0); tmp = single(0.0); if ((t_1 ^ single(2.0)) >= (t_0 ^ single(2.0))) tmp = floor(h) * (dX_46_v * sqrt((single(1.0) / max((hypot(t_1, (floor(h) * dX_46_v)) ^ single(2.0)), t_2)))); else tmp = floor(h) * (dY_46_v * sqrt((single(1.0) / max(((floor(w) * -dX_46_u) ^ single(2.0)), t_2)))); end tmp_2 = tmp; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_1 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_2 := {\left(\mathsf{hypot}\left(t\_0, \left\lfloor w\right\rfloor \cdot dY.u\right)\right)}^{2}\\
\mathbf{if}\;{t\_1}^{2} \geq {t\_0}^{2}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dX.v \cdot \sqrt{\frac{1}{\mathsf{max}\left({\left(\mathsf{hypot}\left(t\_1, \left\lfloor h\right\rfloor \cdot dX.v\right)\right)}^{2}, t\_2\right)}}\right)\\
\mathbf{else}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dY.v \cdot \sqrt{\frac{1}{\mathsf{max}\left({\left(\left\lfloor w\right\rfloor \cdot \left(-dX.u\right)\right)}^{2}, t\_2\right)}}\right)\\
\end{array}
\end{array}
Initial program 76.9%
Simplified76.8%
Taylor expanded in w around 0 76.5%
Simplified76.4%
Taylor expanded in dY.v around inf 65.9%
*-commutative65.9%
unpow265.9%
unpow265.9%
swap-sqr65.9%
unpow265.9%
Simplified65.9%
Taylor expanded in dX.u around inf 58.2%
Taylor expanded in dX.u around -inf 60.3%
mul-1-neg60.3%
*-commutative60.3%
distribute-rgt-neg-in60.3%
Simplified60.3%
Final simplification60.3%
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:precision binary32
(let* ((t_0 (* (floor h) dY.v))
(t_1 (* (floor w) dX.u))
(t_2 (pow (hypot t_0 (* (floor w) dY.u)) 2.0)))
(if (>= (pow t_1 2.0) (pow t_0 2.0))
(*
(floor h)
(*
dX.v
(sqrt (/ 1.0 (fmax (* (pow dX.u 2.0) (pow (floor w) 2.0)) t_2)))))
(*
(floor h)
(*
dY.v
(sqrt (/ 1.0 (fmax (pow (hypot t_1 (* (floor h) dX.v)) 2.0) t_2))))))))
float code(float w, float h, float dX_46_u, float dX_46_v, float dY_46_u, float dY_46_v, float maxAniso) {
float t_0 = floorf(h) * dY_46_v;
float t_1 = floorf(w) * dX_46_u;
float t_2 = powf(hypotf(t_0, (floorf(w) * dY_46_u)), 2.0f);
float tmp;
if (powf(t_1, 2.0f) >= powf(t_0, 2.0f)) {
tmp = floorf(h) * (dX_46_v * sqrtf((1.0f / fmaxf((powf(dX_46_u, 2.0f) * powf(floorf(w), 2.0f)), t_2))));
} else {
tmp = floorf(h) * (dY_46_v * sqrtf((1.0f / fmaxf(powf(hypotf(t_1, (floorf(h) * dX_46_v)), 2.0f), t_2))));
}
return tmp;
}
function code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = Float32(floor(h) * dY_46_v) t_1 = Float32(floor(w) * dX_46_u) t_2 = hypot(t_0, Float32(floor(w) * dY_46_u)) ^ Float32(2.0) tmp = Float32(0.0) if ((t_1 ^ Float32(2.0)) >= (t_0 ^ Float32(2.0))) tmp = Float32(floor(h) * Float32(dX_46_v * sqrt(Float32(Float32(1.0) / ((Float32((dX_46_u ^ Float32(2.0)) * (floor(w) ^ Float32(2.0))) != Float32((dX_46_u ^ Float32(2.0)) * (floor(w) ^ Float32(2.0)))) ? t_2 : ((t_2 != t_2) ? Float32((dX_46_u ^ Float32(2.0)) * (floor(w) ^ Float32(2.0))) : max(Float32((dX_46_u ^ Float32(2.0)) * (floor(w) ^ Float32(2.0))), t_2))))))); else tmp = Float32(floor(h) * Float32(dY_46_v * sqrt(Float32(Float32(1.0) / (((hypot(t_1, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)) != (hypot(t_1, Float32(floor(h) * dX_46_v)) ^ Float32(2.0))) ? t_2 : ((t_2 != t_2) ? (hypot(t_1, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)) : max((hypot(t_1, Float32(floor(h) * dX_46_v)) ^ Float32(2.0)), t_2))))))); end return tmp end
function tmp_2 = code(w, h, dX_46_u, dX_46_v, dY_46_u, dY_46_v, maxAniso) t_0 = floor(h) * dY_46_v; t_1 = floor(w) * dX_46_u; t_2 = hypot(t_0, (floor(w) * dY_46_u)) ^ single(2.0); tmp = single(0.0); if ((t_1 ^ single(2.0)) >= (t_0 ^ single(2.0))) tmp = floor(h) * (dX_46_v * sqrt((single(1.0) / max(((dX_46_u ^ single(2.0)) * (floor(w) ^ single(2.0))), t_2)))); else tmp = floor(h) * (dY_46_v * sqrt((single(1.0) / max((hypot(t_1, (floor(h) * dX_46_v)) ^ single(2.0)), t_2)))); end tmp_2 = tmp; end
\begin{array}{l}
\\
\begin{array}{l}
t_0 := \left\lfloor h\right\rfloor \cdot dY.v\\
t_1 := \left\lfloor w\right\rfloor \cdot dX.u\\
t_2 := {\left(\mathsf{hypot}\left(t\_0, \left\lfloor w\right\rfloor \cdot dY.u\right)\right)}^{2}\\
\mathbf{if}\;{t\_1}^{2} \geq {t\_0}^{2}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dX.v \cdot \sqrt{\frac{1}{\mathsf{max}\left({dX.u}^{2} \cdot {\left(\left\lfloor w\right\rfloor \right)}^{2}, t\_2\right)}}\right)\\
\mathbf{else}:\\
\;\;\;\;\left\lfloor h\right\rfloor \cdot \left(dY.v \cdot \sqrt{\frac{1}{\mathsf{max}\left({\left(\mathsf{hypot}\left(t\_1, \left\lfloor h\right\rfloor \cdot dX.v\right)\right)}^{2}, t\_2\right)}}\right)\\
\end{array}
\end{array}
Initial program 76.9%
Simplified76.8%
Taylor expanded in w around 0 76.5%
Simplified76.4%
Taylor expanded in dY.v around inf 65.9%
*-commutative65.9%
unpow265.9%
unpow265.9%
swap-sqr65.9%
unpow265.9%
Simplified65.9%
Taylor expanded in dX.u around inf 58.2%
Taylor expanded in dX.u around inf 49.0%
Final simplification49.0%
herbie shell --seed 2024191
(FPCore (w h dX.u dX.v dY.u dY.v maxAniso)
:name "Anisotropic x16 LOD (line direction, v)"
:precision binary32
:pre (and (and (and (and (and (and (and (<= 1.0 w) (<= w 16384.0)) (and (<= 1.0 h) (<= h 16384.0))) (and (<= 1e-20 (fabs dX.u)) (<= (fabs dX.u) 1e+20))) (and (<= 1e-20 (fabs dX.v)) (<= (fabs dX.v) 1e+20))) (and (<= 1e-20 (fabs dY.u)) (<= (fabs dY.u) 1e+20))) (and (<= 1e-20 (fabs dY.v)) (<= (fabs dY.v) 1e+20))) (== maxAniso 16.0))
(if (>= (+ (* (* (floor w) dX.u) (* (floor w) dX.u)) (* (* (floor h) dX.v) (* (floor h) dX.v))) (+ (* (* (floor w) dY.u) (* (floor w) dY.u)) (* (* (floor h) dY.v) (* (floor h) dY.v)))) (* (/ 1.0 (sqrt (fmax (+ (* (* (floor w) dX.u) (* (floor w) dX.u)) (* (* (floor h) dX.v) (* (floor h) dX.v))) (+ (* (* (floor w) dY.u) (* (floor w) dY.u)) (* (* (floor h) dY.v) (* (floor h) dY.v)))))) (* (floor h) dX.v)) (* (/ 1.0 (sqrt (fmax (+ (* (* (floor w) dX.u) (* (floor w) dX.u)) (* (* (floor h) dX.v) (* (floor h) dX.v))) (+ (* (* (floor w) dY.u) (* (floor w) dY.u)) (* (* (floor h) dY.v) (* (floor h) dY.v)))))) (* (floor h) dY.v))))