wgpu/naga/tests/out/wgsl/wgsl-math-functions.wgsl

@fragment 
fn main() {
    let v = vec4(0f);
    let a = degrees(1f);
    let b = radians(1f);
    let c = degrees(v);
    let d = radians(v);
    let e = saturate(v);
    let g = refract(v, v, 1f);
    let sign_b = vec4<i32>(-1i, -1i, -1i, -1i);
    let sign_d = vec4<f32>(-1f, -1f, -1f, -1f);
    let flb_b = vec2<i32>(-1i, -1i);
    let flb_c = vec2<u32>(0u, 0u);
    let ftb_c = vec2<i32>(0i, 0i);
    let ftb_d = vec2<u32>(0u, 0u);
    let ctz_e = vec2<u32>(32u, 32u);
    let ctz_f = vec2<i32>(32i, 32i);
    let ctz_g = vec2<u32>(0u, 0u);
    let ctz_h = vec2<i32>(0i, 0i);
    let clz_c = vec2<i32>(0i, 0i);
    let clz_d = vec2<u32>(31u, 31u);
    let lde_a = ldexp(1f, 2i);
    let lde_b = ldexp(vec2<f32>(1f, 2f), vec2<i32>(3i, 4i));
    let modf_a = modf(1.5f);
    let modf_b = modf(1.5f).fract;
    let modf_c = modf(1.5f).whole;
    let modf_d = modf(vec2<f32>(1.5f, 1.5f));
    let modf_e = modf(vec4<f32>(1.5f, 1.5f, 1.5f, 1.5f)).whole.x;
    let modf_f = modf(vec2<f32>(1.5f, 1.5f)).fract.y;
    let frexp_a = frexp(1.5f);
    let frexp_b = frexp(1.5f).fract;
    let frexp_c = frexp(1.5f).exp;
    let frexp_d = frexp(vec4<f32>(1.5f, 1.5f, 1.5f, 1.5f)).exp.x;
    let quantizeToF16_a = quantizeToF16(1f);
    let quantizeToF16_b = quantizeToF16(vec2<f32>(1f, 1f));
    let quantizeToF16_c = quantizeToF16(vec3<f32>(1f, 1f, 1f));
    let quantizeToF16_d = quantizeToF16(vec4<f32>(1f, 1f, 1f, 1f));
    return;
}