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export const description = `
Execution Tests for non-matrix f32 remainder expression
`;
import { makeTestGroup } from '../../../../../common/framework/test_group.js';
import { GPUTest } from '../../../../gpu_test.js';
import { TypeF32, TypeVec } from '../../../../util/conversion.js';
import { FP, FPVector } from '../../../../util/floating_point.js';
import { sparseF32Range, sparseVectorF32Range } from '../../../../util/math.js';
import { makeCaseCache } from '../case_cache.js';
import { allInputSources, run } from '../expression.js';
import { binary, compoundBinary } from './binary.js';
const remainderVectorScalarInterval = (v: readonly number[], s: number): FPVector => {
return FP.f32.toVector(v.map(e => FP.f32.remainderInterval(e, s)));
};
const remainderScalarVectorInterval = (s: number, v: readonly number[]): FPVector => {
return FP.f32.toVector(v.map(e => FP.f32.remainderInterval(s, e)));
};
export const g = makeTestGroup(GPUTest);
const scalar_cases = ([true, false] as const)
.map(nonConst => ({
[`scalar_${nonConst ? 'non_const' : 'const'}`]: () => {
return FP.f32.generateScalarPairToIntervalCases(
sparseF32Range(),
sparseF32Range(),
nonConst ? 'unfiltered' : 'finite',
FP.f32.remainderInterval
);
},
}))
.reduce((a, b) => ({ ...a, ...b }), {});
const vector_scalar_cases = ([2, 3, 4] as const)
.flatMap(dim =>
([true, false] as const).map(nonConst => ({
[`vec${dim}_scalar_${nonConst ? 'non_const' : 'const'}`]: () => {
return FP.f32.generateVectorScalarToVectorCases(
sparseVectorF32Range(dim),
sparseF32Range(),
nonConst ? 'unfiltered' : 'finite',
remainderVectorScalarInterval
);
},
}))
)
.reduce((a, b) => ({ ...a, ...b }), {});
const scalar_vector_cases = ([2, 3, 4] as const)
.flatMap(dim =>
([true, false] as const).map(nonConst => ({
[`scalar_vec${dim}_${nonConst ? 'non_const' : 'const'}`]: () => {
return FP.f32.generateScalarVectorToVectorCases(
sparseF32Range(),
sparseVectorF32Range(dim),
nonConst ? 'unfiltered' : 'finite',
remainderScalarVectorInterval
);
},
}))
)
.reduce((a, b) => ({ ...a, ...b }), {});
export const d = makeCaseCache('binary/f32_remainder', {
...scalar_cases,
...vector_scalar_cases,
...scalar_vector_cases,
});
g.test('scalar')
.specURL('https://www.w3.org/TR/WGSL/#floating-point-evaluation')
.desc(
`
Expression: x % y, where x and y are scalars
Accuracy: Derived from x - y * trunc(x/y)
`
)
.params(u => u.combine('inputSource', allInputSources))
.fn(async t => {
const cases = await d.get(
t.params.inputSource === 'const' ? 'scalar_const' : 'scalar_non_const'
);
await run(t, binary('%'), [TypeF32, TypeF32], TypeF32, t.params, cases);
});
g.test('vector')
.specURL('https://www.w3.org/TR/WGSL/#floating-point-evaluation')
.desc(
`
Expression: x % y, where x and y are vectors
Accuracy: Derived from x - y * trunc(x/y)
`
)
.params(u => u.combine('inputSource', allInputSources).combine('vectorize', [2, 3, 4] as const))
.fn(async t => {
const cases = await d.get(
t.params.inputSource === 'const' ? 'scalar_const' : 'scalar_non_const' // Using vectorize to generate vector cases based on scalar cases
);
await run(t, binary('%'), [TypeF32, TypeF32], TypeF32, t.params, cases);
});
g.test('scalar_compound')
.specURL('https://www.w3.org/TR/WGSL/#floating-point-evaluation')
.desc(
`
Expression: x %= y
Accuracy: Derived from x - y * trunc(x/y)
`
)
.params(u =>
u.combine('inputSource', allInputSources).combine('vectorize', [undefined, 2, 3, 4] as const)
)
.fn(async t => {
const cases = await d.get(
t.params.inputSource === 'const' ? 'scalar_const' : 'scalar_non_const'
);
await run(t, compoundBinary('%='), [TypeF32, TypeF32], TypeF32, t.params, cases);
});
g.test('vector_scalar')
.specURL('https://www.w3.org/TR/WGSL/#floating-point-evaluation')
.desc(
`
Expression: x % y, where x is a vector and y is a scalar
Accuracy: Correctly rounded
`
)
.params(u => u.combine('inputSource', allInputSources).combine('dim', [2, 3, 4] as const))
.fn(async t => {
const dim = t.params.dim;
const cases = await d.get(
t.params.inputSource === 'const' ? `vec${dim}_scalar_const` : `vec${dim}_scalar_non_const`
);
await run(
t,
binary('%'),
[TypeVec(dim, TypeF32), TypeF32],
TypeVec(dim, TypeF32),
t.params,
cases
);
});
g.test('vector_scalar_compound')
.specURL('https://www.w3.org/TR/WGSL/#floating-point-evaluation')
.desc(
`
Expression: x %= y, where x is a vector and y is a scalar
Accuracy: Correctly rounded
`
)
.params(u => u.combine('inputSource', allInputSources).combine('dim', [2, 3, 4] as const))
.fn(async t => {
const dim = t.params.dim;
const cases = await d.get(
t.params.inputSource === 'const' ? `vec${dim}_scalar_const` : `vec${dim}_scalar_non_const`
);
await run(
t,
compoundBinary('%='),
[TypeVec(dim, TypeF32), TypeF32],
TypeVec(dim, TypeF32),
t.params,
cases
);
});
g.test('scalar_vector')
.specURL('https://www.w3.org/TR/WGSL/#floating-point-evaluation')
.desc(
`
Expression: x % y, where x is a scalar and y is a vector
Accuracy: Correctly rounded
`
)
.params(u => u.combine('inputSource', allInputSources).combine('dim', [2, 3, 4] as const))
.fn(async t => {
const dim = t.params.dim;
const cases = await d.get(
t.params.inputSource === 'const' ? `scalar_vec${dim}_const` : `scalar_vec${dim}_non_const`
);
await run(
t,
binary('%'),
[TypeF32, TypeVec(dim, TypeF32)],
TypeVec(dim, TypeF32),
t.params,
cases
);
});
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