struct ResType
{
    float _m0;
    int _m1;
};

static const uint3 gl_WorkGroupSize = uint3(1u, 1u, 1u);

RWByteAddressBuffer _19 : register(u0);

uint SPIRV_Cross_packHalf2x16(float2 value)
{
    uint2 Packed = f32tof16(value);
    return Packed.x | (Packed.y << 16);
}

float2 SPIRV_Cross_unpackHalf2x16(uint value)
{
    return f16tof32(uint2(value & 0xffff, value >> 16));
}

uint SPIRV_Cross_packUnorm4x8(float4 value)
{
    uint4 Packed = uint4(round(saturate(value) * 255.0));
    return Packed.x | (Packed.y << 8) | (Packed.z << 16) | (Packed.w << 24);
}

float4 SPIRV_Cross_unpackUnorm4x8(uint value)
{
    uint4 Packed = uint4(value & 0xff, (value >> 8) & 0xff, (value >> 16) & 0xff, value >> 24);
    return float4(Packed) / 255.0;
}

uint SPIRV_Cross_packSnorm4x8(float4 value)
{
    int4 Packed = int4(round(clamp(value, -1.0, 1.0) * 127.0)) & 0xff;
    return uint(Packed.x | (Packed.y << 8) | (Packed.z << 16) | (Packed.w << 24));
}

float4 SPIRV_Cross_unpackSnorm4x8(uint value)
{
    int SignedValue = int(value);
    int4 Packed = int4(SignedValue << 24, SignedValue << 16, SignedValue << 8, SignedValue) >> 24;
    return clamp(float4(Packed) / 127.0, -1.0, 1.0);
}

uint SPIRV_Cross_packUnorm2x16(float2 value)
{
    uint2 Packed = uint2(round(saturate(value) * 65535.0));
    return Packed.x | (Packed.y << 16);
}

float2 SPIRV_Cross_unpackUnorm2x16(uint value)
{
    uint2 Packed = uint2(value & 0xffff, value >> 16);
    return float2(Packed) / 65535.0;
}

uint SPIRV_Cross_packSnorm2x16(float2 value)
{
    int2 Packed = int2(round(clamp(value, -1.0, 1.0) * 32767.0)) & 0xffff;
    return uint(Packed.x | (Packed.y << 16));
}

float2 SPIRV_Cross_unpackSnorm2x16(uint value)
{
    int SignedValue = int(value);
    int2 Packed = int2(SignedValue << 16, SignedValue) >> 16;
    return clamp(float2(Packed) / 32767.0, -1.0, 1.0);
}

// Returns the inverse of a matrix, by using the algorithm of calculating the classical
// adjoint and dividing by the determinant. The contents of the matrix are changed.
float2x2 SPIRV_Cross_Inverse(float2x2 m)
{
    float2x2 adj;	// The adjoint matrix (inverse after dividing by determinant)

    // Create the transpose of the cofactors, as the classical adjoint of the matrix.
    adj[0][0] =  m[1][1];
    adj[0][1] = -m[0][1];

    adj[1][0] = -m[1][0];
    adj[1][1] =  m[0][0];

    // Calculate the determinant as a combination of the cofactors of the first row.
    float det = (adj[0][0] * m[0][0]) + (adj[0][1] * m[1][0]);

    // Divide the classical adjoint matrix by the determinant.
    // If determinant is zero, matrix is not invertable, so leave it unchanged.
    return (det != 0.0f) ? (adj * (1.0f / det)) : m;
}

// Returns the determinant of a 2x2 matrix.
float SPIRV_Cross_Det2x2(float a1, float a2, float b1, float b2)
{
    return a1 * b2 - b1 * a2;
}

// Returns the inverse of a matrix, by using the algorithm of calculating the classical
// adjoint and dividing by the determinant. The contents of the matrix are changed.
float3x3 SPIRV_Cross_Inverse(float3x3 m)
{
    float3x3 adj;	// The adjoint matrix (inverse after dividing by determinant)

    // Create the transpose of the cofactors, as the classical adjoint of the matrix.
    adj[0][0] =  SPIRV_Cross_Det2x2(m[1][1], m[1][2], m[2][1], m[2][2]);
    adj[0][1] = -SPIRV_Cross_Det2x2(m[0][1], m[0][2], m[2][1], m[2][2]);
    adj[0][2] =  SPIRV_Cross_Det2x2(m[0][1], m[0][2], m[1][1], m[1][2]);

    adj[1][0] = -SPIRV_Cross_Det2x2(m[1][0], m[1][2], m[2][0], m[2][2]);
    adj[1][1] =  SPIRV_Cross_Det2x2(m[0][0], m[0][2], m[2][0], m[2][2]);
    adj[1][2] = -SPIRV_Cross_Det2x2(m[0][0], m[0][2], m[1][0], m[1][2]);

    adj[2][0] =  SPIRV_Cross_Det2x2(m[1][0], m[1][1], m[2][0], m[2][1]);
    adj[2][1] = -SPIRV_Cross_Det2x2(m[0][0], m[0][1], m[2][0], m[2][1]);
    adj[2][2] =  SPIRV_Cross_Det2x2(m[0][0], m[0][1], m[1][0], m[1][1]);

    // Calculate the determinant as a combination of the cofactors of the first row.
    float det = (adj[0][0] * m[0][0]) + (adj[0][1] * m[1][0]) + (adj[0][2] * m[2][0]);

    // Divide the classical adjoint matrix by the determinant.
    // If determinant is zero, matrix is not invertable, so leave it unchanged.
    return (det != 0.0f) ? (adj * (1.0f / det)) : m;
}

// Returns the determinant of a 3x3 matrix.
float SPIRV_Cross_Det3x3(float a1, float a2, float a3, float b1, float b2, float b3, float c1, float c2, float c3)
{
    return a1 * SPIRV_Cross_Det2x2(b2, b3, c2, c3) - b1 * SPIRV_Cross_Det2x2(a2, a3, c2, c3) + c1 * SPIRV_Cross_Det2x2(a2, a3, b2, b3);
}

// Returns the inverse of a matrix, by using the algorithm of calculating the classical
// adjoint and dividing by the determinant. The contents of the matrix are changed.
float4x4 SPIRV_Cross_Inverse(float4x4 m)
{
    float4x4 adj;	// The adjoint matrix (inverse after dividing by determinant)

    // Create the transpose of the cofactors, as the classical adjoint of the matrix.
    adj[0][0] =  SPIRV_Cross_Det3x3(m[1][1], m[1][2], m[1][3], m[2][1], m[2][2], m[2][3], m[3][1], m[3][2], m[3][3]);
    adj[0][1] = -SPIRV_Cross_Det3x3(m[0][1], m[0][2], m[0][3], m[2][1], m[2][2], m[2][3], m[3][1], m[3][2], m[3][3]);
    adj[0][2] =  SPIRV_Cross_Det3x3(m[0][1], m[0][2], m[0][3], m[1][1], m[1][2], m[1][3], m[3][1], m[3][2], m[3][3]);
    adj[0][3] = -SPIRV_Cross_Det3x3(m[0][1], m[0][2], m[0][3], m[1][1], m[1][2], m[1][3], m[2][1], m[2][2], m[2][3]);

    adj[1][0] = -SPIRV_Cross_Det3x3(m[1][0], m[1][2], m[1][3], m[2][0], m[2][2], m[2][3], m[3][0], m[3][2], m[3][3]);
    adj[1][1] =  SPIRV_Cross_Det3x3(m[0][0], m[0][2], m[0][3], m[2][0], m[2][2], m[2][3], m[3][0], m[3][2], m[3][3]);
    adj[1][2] = -SPIRV_Cross_Det3x3(m[0][0], m[0][2], m[0][3], m[1][0], m[1][2], m[1][3], m[3][0], m[3][2], m[3][3]);
    adj[1][3] =  SPIRV_Cross_Det3x3(m[0][0], m[0][2], m[0][3], m[1][0], m[1][2], m[1][3], m[2][0], m[2][2], m[2][3]);

    adj[2][0] =  SPIRV_Cross_Det3x3(m[1][0], m[1][1], m[1][3], m[2][0], m[2][1], m[2][3], m[3][0], m[3][1], m[3][3]);
    adj[2][1] = -SPIRV_Cross_Det3x3(m[0][0], m[0][1], m[0][3], m[2][0], m[2][1], m[2][3], m[3][0], m[3][1], m[3][3]);
    adj[2][2] =  SPIRV_Cross_Det3x3(m[0][0], m[0][1], m[0][3], m[1][0], m[1][1], m[1][3], m[3][0], m[3][1], m[3][3]);
    adj[2][3] = -SPIRV_Cross_Det3x3(m[0][0], m[0][1], m[0][3], m[1][0], m[1][1], m[1][3], m[2][0], m[2][1], m[2][3]);

    adj[3][0] = -SPIRV_Cross_Det3x3(m[1][0], m[1][1], m[1][2], m[2][0], m[2][1], m[2][2], m[3][0], m[3][1], m[3][2]);
    adj[3][1] =  SPIRV_Cross_Det3x3(m[0][0], m[0][1], m[0][2], m[2][0], m[2][1], m[2][2], m[3][0], m[3][1], m[3][2]);
    adj[3][2] = -SPIRV_Cross_Det3x3(m[0][0], m[0][1], m[0][2], m[1][0], m[1][1], m[1][2], m[3][0], m[3][1], m[3][2]);
    adj[3][3] =  SPIRV_Cross_Det3x3(m[0][0], m[0][1], m[0][2], m[1][0], m[1][1], m[1][2], m[2][0], m[2][1], m[2][2]);

    // Calculate the determinant as a combination of the cofactors of the first row.
    float det = (adj[0][0] * m[0][0]) + (adj[0][1] * m[1][0]) + (adj[0][2] * m[2][0]) + (adj[0][3] * m[3][0]);

    // Divide the classical adjoint matrix by the determinant.
    // If determinant is zero, matrix is not invertable, so leave it unchanged.
    return (det != 0.0f) ? (adj * (1.0f / det)) : m;
}

float SPIRV_Cross_Reflect(float i, float n)
{
    return i - 2.0 * dot(n, i) * n;
}

float SPIRV_Cross_Refract(float i, float n, float eta)
{
    float NoI = n * i;
    float NoI2 = NoI * NoI;
    float k = 1.0 - eta * eta * (1.0 - NoI2);
    if (k < 0.0)
    {
        return 0.0;
    }
    else
    {
        return eta * i - (eta * NoI + sqrt(k)) * n;
    }
}

float SPIRV_Cross_FaceForward(float n, float i, float nref)
{
    return i * nref < 0.0 ? n : -n;
}

void comp_main()
{
    _19.Store(0, asuint(round(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(trunc(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(abs(asfloat(_19.Load(16)))));
    _19.Store(4, uint(abs(int(_19.Load(32)))));
    _19.Store(0, asuint(sign(asfloat(_19.Load(16)))));
    _19.Store(4, uint(sign(int(_19.Load(32)))));
    _19.Store(0, asuint(floor(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(ceil(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(frac(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(radians(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(degrees(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(sin(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(cos(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(tan(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(asin(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(acos(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(atan(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(sinh(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(cosh(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(tanh(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(atan2(asfloat(_19.Load(16)), asfloat(_19.Load(20)))));
    _19.Store(0, asuint(pow(asfloat(_19.Load(16)), asfloat(_19.Load(20)))));
    _19.Store(0, asuint(exp(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(log(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(exp2(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(log2(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(sqrt(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(rsqrt(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(length(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(distance(asfloat(_19.Load(16)), asfloat(_19.Load(20)))));
    _19.Store(0, asuint(sign(asfloat(_19.Load(16)))));
    _19.Store(0, asuint(SPIRV_Cross_FaceForward(asfloat(_19.Load(16)), asfloat(_19.Load(20)), asfloat(_19.Load(24)))));
    _19.Store(0, asuint(SPIRV_Cross_Reflect(asfloat(_19.Load(16)), asfloat(_19.Load(20)))));
    _19.Store(0, asuint(SPIRV_Cross_Refract(asfloat(_19.Load(16)), asfloat(_19.Load(20)), asfloat(_19.Load(24)))));
    _19.Store(0, asuint(length(asfloat(_19.Load4(16)).xy)));
    _19.Store(0, asuint(distance(asfloat(_19.Load4(16)).xy, asfloat(_19.Load4(16)).zw)));
    float2 v2 = normalize(asfloat(_19.Load4(16)).xy);
    v2 = faceforward(asfloat(_19.Load4(16)).xy, asfloat(_19.Load4(16)).yz, asfloat(_19.Load4(16)).zw);
    v2 = reflect(asfloat(_19.Load4(16)).xy, asfloat(_19.Load4(16)).zw);
    v2 = refract(asfloat(_19.Load4(16)).xy, asfloat(_19.Load4(16)).yz, asfloat(_19.Load(28)));
    float3 v3 = cross(asfloat(_19.Load4(16)).xyz, asfloat(_19.Load4(16)).yzw);
    float2x2 _240 = asfloat(uint2x2(_19.Load2(64), _19.Load2(72)));
    _19.Store(0, asuint(determinant(_240)));
    float3x3 _246 = asfloat(uint3x3(_19.Load3(80), _19.Load3(96), _19.Load3(112)));
    _19.Store(0, asuint(determinant(_246)));
    float4x4 _252 = asfloat(uint4x4(_19.Load4(128), _19.Load4(144), _19.Load4(160), _19.Load4(176)));
    _19.Store(0, asuint(determinant(_252)));
    float2x2 _256 = asfloat(uint2x2(_19.Load2(64), _19.Load2(72)));
    float2x2 _257 = SPIRV_Cross_Inverse(_256);
    _19.Store2(64, asuint(_257[0]));
    _19.Store2(72, asuint(_257[1]));
    float3x3 _260 = asfloat(uint3x3(_19.Load3(80), _19.Load3(96), _19.Load3(112)));
    float3x3 _261 = SPIRV_Cross_Inverse(_260);
    _19.Store3(80, asuint(_261[0]));
    _19.Store3(96, asuint(_261[1]));
    _19.Store3(112, asuint(_261[2]));
    float4x4 _264 = asfloat(uint4x4(_19.Load4(128), _19.Load4(144), _19.Load4(160), _19.Load4(176)));
    float4x4 _265 = SPIRV_Cross_Inverse(_264);
    _19.Store4(128, asuint(_265[0]));
    _19.Store4(144, asuint(_265[1]));
    _19.Store4(160, asuint(_265[2]));
    _19.Store4(176, asuint(_265[3]));
    float tmp;
    float _271 = modf(asfloat(_19.Load(16)), tmp);
    _19.Store(0, asuint(_271));
    _19.Store(0, asuint(min(asfloat(_19.Load(16)), asfloat(_19.Load(20)))));
    _19.Store(8, min(_19.Load(48), _19.Load(52)));
    _19.Store(4, uint(min(int(_19.Load(32)), int(_19.Load(36)))));
    _19.Store(0, asuint(max(asfloat(_19.Load(16)), asfloat(_19.Load(20)))));
    _19.Store(8, max(_19.Load(48), _19.Load(52)));
    _19.Store(4, uint(max(int(_19.Load(32)), int(_19.Load(36)))));
    _19.Store(0, asuint(clamp(asfloat(_19.Load(16)), asfloat(_19.Load(20)), asfloat(_19.Load(24)))));
    _19.Store(8, clamp(_19.Load(48), _19.Load(52), _19.Load(56)));
    _19.Store(4, uint(clamp(int(_19.Load(32)), int(_19.Load(36)), int(_19.Load(40)))));
    _19.Store(0, asuint(lerp(asfloat(_19.Load(16)), asfloat(_19.Load(20)), asfloat(_19.Load(24)))));
    _19.Store(0, asuint(step(asfloat(_19.Load(16)), asfloat(_19.Load(20)))));
    _19.Store(0, asuint(smoothstep(asfloat(_19.Load(16)), asfloat(_19.Load(20)), asfloat(_19.Load(24)))));
    _19.Store(0, asuint(mad(asfloat(_19.Load(16)), asfloat(_19.Load(20)), asfloat(_19.Load(24)))));
    ResType _371;
    _371._m0 = frexp(asfloat(_19.Load(16)), _371._m1);
    int itmp = _371._m1;
    _19.Store(0, asuint(_371._m0));
    _19.Store(0, asuint(ldexp(asfloat(_19.Load(16)), itmp)));
    _19.Store(8, SPIRV_Cross_packSnorm4x8(asfloat(_19.Load4(16))));
    _19.Store(8, SPIRV_Cross_packUnorm4x8(asfloat(_19.Load4(16))));
    _19.Store(8, SPIRV_Cross_packSnorm2x16(asfloat(_19.Load4(16)).xy));
    _19.Store(8, SPIRV_Cross_packUnorm2x16(asfloat(_19.Load4(16)).xy));
    _19.Store(8, SPIRV_Cross_packHalf2x16(asfloat(_19.Load4(16)).xy));
    v2 = SPIRV_Cross_unpackSnorm2x16(_19.Load(48));
    v2 = SPIRV_Cross_unpackUnorm2x16(_19.Load(48));
    v2 = SPIRV_Cross_unpackHalf2x16(_19.Load(48));
    float4 v4 = SPIRV_Cross_unpackSnorm4x8(_19.Load(48));
    v4 = SPIRV_Cross_unpackUnorm4x8(_19.Load(48));
    _19.Store4(32, uint4(firstbitlow(int4(_19.Load4(32)))));
    _19.Store4(32, uint4(int4(firstbitlow(_19.Load4(48)))));
    _19.Store4(32, uint4(firstbithigh(int4(_19.Load4(32)))));
    _19.Store4(32, uint4(int4(firstbithigh(_19.Load4(48)))));
}

[numthreads(1, 1, 1)]
void main()
{
    comp_main();
}
