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gradient_fuzzer's Introduction

gradient_fuzzer

Gradient fuzzing for tensorflow, inspired by Dave's fuzzer. The goal is to automatically build computation graphs and test random input values to detect errors in gradients.

TODO:

Scale this up, think of heuristic so that if gradient error is large, decrease finite difference epsilon, rerun many times, only throw exception if most finite difference checks fail.

Running

Fuzz single argument ops' gradients, their gradients of gradients, all permutations, and all gradients of gradients of their permutations: python gradient_fuzzer.py > job.log Example output:

➜  gradient_fuzzer git:(master) ✗ python gradient_fuzzer.py
Testing gradient of y = _identity(abs(x))
Testing gradient of y = _identity(acos(x))
Testing gradient of y = _identity(asin(x))
Testing gradient of y = _identity(atan(x))
Testing gradient of y = _identity(ceil(x))
Testing gradient of y = _identity(conj(x))
Testing gradient of y = _identity(cos(x))
Testing gradient of y = _identity(digamma(x))
Testing gradient of y = _identity(erf(x))
Testing gradient of y = _identity(erfc(x))
Testing gradient of y = _identity(exp(x))
Testing gradient of y = _identity(floor(x))
Testing gradient of y = _identity(is_finite(x))
Testing gradient of y = _identity(is_inf(x))
Testing gradient of y = _identity(is_nan(x))
Testing gradient of y = _identity(lgamma(x))
Testing gradient of y = _identity(log(x))
Testing gradient of y = _identity(log1p(x))
Testing gradient of y = _identity(neg(x))
Testing gradient of y = _identity(negative(x))
Testing gradient of y = _identity(reciprocal(x))
Testing gradient of y = _identity(rint(x))
Testing gradient of y = _identity(round(x))
Testing gradient of y = _identity(rsqrt(x))
Testing gradient of y = _identity(sigmoid(x))
Testing gradient of y = _identity(sign(x))
Testing gradient of y = _identity(sin(x))
Testing gradient of y = _identity(sqrt(x))
Testing gradient of y = _identity(square(x))
Testing gradient of y = _identity(tan(x))
Testing gradient of y = _identity(tanh(x))
Testing gradient of y = _identity(to_bfloat16(x))
Testing gradient of y = _identity(to_double(x))
Testing gradient of y = _identity(to_float(x))
Testing gradient of y = _identity(to_int32(x))
Testing gradient of y = _identity(to_int64(x))
Testing gradient of y = _gradient(abs(x))
Testing gradient of y = _gradient(acos(x))
Testing gradient of y = _gradient(asin(x))
Testing gradient of y = _gradient(atan(x))
Testing gradient of y = _gradient(conj(x))
Testing gradient of y = _gradient(cos(x))
Testing gradient of y = _gradient(digamma(x))
For y = _gradient(digamma(x)) point 2.154e+33, gradient error was 1.418e+10 at tolerance 1.000e-01
Testing gradient of y = _gradient(erf(x))
Testing gradient of y = _gradient(erfc(x))
Testing gradient of y = _gradient(exp(x))
Testing gradient of y = _gradient(floor(x))
Testing gradient of y = _gradient(lgamma(x))
For y = _gradient(lgamma(x)) point 1.000e+100, gradient error was 2.526e-01 at tolerance 1.000e-01
Testing gradient of y = _gradient(log(x))
Testing gradient of y = _gradient(log1p(x))
Testing gradient of y = _gradient(neg(x))
Testing gradient of y = _gradient(negative(x))
Testing gradient of y = _gradient(reciprocal(x))
For y = _gradient(reciprocal(x)) point 1.668e-78, gradient error was 4.095e+02 at tolerance 1.000e-01
For y = _gradient(reciprocal(x)) point 4.642e-34, gradient error was 3.383e+02 at tolerance 1.000e-01
Testing gradient of y = _gradient(rint(x))
Testing gradient of y = _gradient(rsqrt(x))
For y = _gradient(rsqrt(x)) point 2.783e-56, gradient error was 1.113e+02 at tolerance 1.000e-01
For y = _gradient(rsqrt(x)) point 2.154e+33, gradient error was 6.080e+04 at tolerance 1.000e-01
Testing gradient of y = _gradient(sigmoid(x))
Testing gradient of y = _gradient(sign(x))
Testing gradient of y = _gradient(sin(x))
Testing gradient of y = _gradient(sqrt(x))
Testing gradient of y = _gradient(square(x))
Testing gradient of y = _gradient(tan(x))
Testing gradient of y = _gradient(tanh(x))
Testing gradient of y = _gradient(to_double(x))
Testing gradient of y = _gradient(to_float(x))
Testing gradient of y = _gradient(to_int32(x))
Testing gradient of y = _gradient(to_int64(x))
Testing gradient of y = _chain(abs(acos(x))
Testing gradient of y = _chain(abs(asin(x))
Testing gradient of y = _chain(abs(atan(x))
Testing gradient of y = _chain(abs(ceil(x))
Testing gradient of y = _chain(abs(conj(x))
Testing gradient of y = _chain(abs(cos(x))
Testing gradient of y = _chain(abs(digamma(x))
Testing gradient of y = _chain(abs(erf(x))
Testing gradient of y = _chain(abs(erfc(x))
Testing gradient of y = _chain(abs(exp(x))
Testing gradient of y = _chain(abs(floor(x))
Testing gradient of y = _chain(abs(lgamma(x))
Testing gradient of y = _chain(abs(log(x))
Testing gradient of y = _chain(abs(log1p(x))
Testing gradient of y = _chain(abs(neg(x))
Testing gradient of y = _chain(abs(negative(x))
Testing gradient of y = _chain(abs(reciprocal(x))
Testing gradient of y = _chain(abs(rint(x))
Testing gradient of y = _chain(abs(round(x))
Testing gradient of y = _chain(abs(rsqrt(x))

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