public void Byte3_ParseFromString_ArbitarySpace(byte v0, byte v1, byte v2)
{
foreach (string fmt in ArbitaryWhiteSpaceFormat)
{
string s = fmt.F(v0, v1, v2);
byte3 n = new byte3(v0, v1, v2);
byte3 ns = byte3.Parse(s);
Assert.That(ns, Is.EqualTo(n));
}
}
internal static byte3 vdiv_byte(byte3 dividend, byte3 divisor)
{
Assert.AreNotEqual(divisor.x, 0);
Assert.AreNotEqual(divisor.y, 0);
Assert.AreNotEqual(divisor.z, 0);
v128 floatResult = vdiv_byte_quotient((int3)dividend, (int3)divisor);
return((byte3)(*(float3 *)&floatResult));
}
public void Byte3_SetIndices(byte v0, byte v1, byte v2)
{
byte3 n = new byte3();
n[0] = v0;
n[1] = v1;
n[2] = v2;
Assert.That(n[0], Is.EqualTo(v0));
Assert.That(n[1], Is.EqualTo(v1));
Assert.That(n[2], Is.EqualTo(v2));
}
public static bool all_eq(byte3 c)
{
if (Ssse3.IsSsse3Supported)
{
return(c.xxx.Equals(c));
}
else
{
return(c.x == c.y & c.x == c.z);
}
}
public static quarter3 asquarter(byte3 x)
{
if (Sse.IsSseSupported)
{
return((v128)x);
}
else
{
return(*(quarter3 *)&x);
}
}
public static byte3 avg(byte3 x, byte3 y)
{
if (Sse2.IsSse2Supported)
{
return(Sse2.avg_epu8(x, y));
}
else
{
return(new byte3((byte)((x.x + y.x + 1) >> 1), (byte)((x.y + y.y + 1) >> 1), (byte)((x.z + y.z + 1) >> 1)));
}
}
public static byte3 max(byte3 a, byte3 b)
{
if (Sse2.IsSse2Supported)
{
return(Sse2.max_epu8(a, b));
}
else
{
return(new byte3((byte)math.max((uint)a.x, (uint)b.x), (byte)math.max((uint)a.y, (uint)b.y), (byte)math.max((uint)a.z, (uint)b.z)));
}
}
public static bool any(byte3 x)
{
if (Sse2.IsSse2Supported)
{
return(0 != (bitmask32(24) & ((v128)x).UInt0));
}
else
{
return(math.any(x != 0));
}
}
public static bool all(byte3 x)
{
if (Sse2.IsSse2Supported)
{
return(0 == (bitmask32(24) & Sse2.cmpeq_epi8(x, default(v128)).UInt0));
}
else
{
return(math.all(x != 0));
}
}
public static void byte3()
{
Random8 rng = new Random8(135);
for (int i = 0; i < 64; i++)
{
byte3 x = rng.NextByte3();
Assert.AreEqual(new byte3((byte)_intsqrt(x.x), (byte)_intsqrt(x.y), (byte)_intsqrt(x.z)), maxmath.intsqrt(x));
}
}
public static byte3 andnot(byte3 left, byte3 right)
{
if (Sse2.IsSse2Supported)
{
return(Sse2.andnot_si128(right, left));
}
else
{
return(left & ~right);
}
}
public static byte3 subadd(byte3 a, byte3 b)
{
if (Ssse3.IsSsse3Supported)
{
return(a + Ssse3.sign_epi8(b, new byte4(255, 1, 255, 1)));
}
else
{
return(a - select(b, (byte3)(-(sbyte3)b), new bool3(false, true, false)));
}
}
public static uint csum(byte3 x)
{
if (Sse2.IsSse2Supported)
{
return(sad(x, byte3.zero));
}
else
{
return((uint)(x.x + x.y + x.z));
}
}
public static byte3 countbits(byte3 x)
{
if (Ssse3.IsSsse3Supported)
{
return((v128)countbits((byte16)(v128)x));
}
else
{
return(new byte3((byte)math.countbits((uint)x.x), (byte)math.countbits((uint)x.y), (byte)math.countbits((uint)x.z)));
}
}
public static void byte3()
{
Random8 rng = new Random8(135);
for (int i = 0; i < 64; i++)
{
byte3 x = rng.NextByte3();
byte3 y = rng.NextByte3();
Assert.AreEqual(new byte3((byte)_gcd(x.x, y.x), (byte)_gcd(x.y, y.y), (byte)_gcd(x.z, y.z)), maxmath.gcd(x, y));
}
}
internal static byte3 vrem_byte(byte3 dividend, byte3 divisor)
{
Assert.AreNotEqual(divisor.x, 0);
Assert.AreNotEqual(divisor.y, 0);
Assert.AreNotEqual(divisor.z, 0);
int3 castDividend = dividend;
int3 castDivisor = divisor;
v128 floatResult = vdiv_byte_quotient(castDividend, castDivisor);
return((byte3)(castDividend - ((int3)(*(float3 *)&floatResult) * castDivisor)));
}
public static void sbyte3()
{
Random8 rng = new Random8(135);
for (int i = 0; i < 64; i++)
{
sbyte3 x = rng.NextSByte3();
byte3 n = rng.NextByte3();
Assert.AreEqual(new sbyte3((sbyte)_intpow(x.x, n.x), (sbyte)_intpow(x.y, n.y), (sbyte)_intpow(x.z, n.z)), maxmath.intpow(x, n));
}
}
public static byte3 divrem(byte3 dividend, byte3 divisor, out byte3 remainder)
{
if (Sse2.IsSse2Supported)
{
return(Operator.vdivrem_byte(dividend, divisor, out remainder));
}
else
{
remainder = dividend % divisor;
return(dividend / divisor);
}
}
public static byte3 divrem(byte3 dividend, byte divisor, out byte3 remainder)
{
if (Constant.IsConstantExpression(divisor))
{
remainder = dividend % divisor;
return(dividend / divisor);
}
else
{
return(divrem(dividend, (byte3)divisor, out remainder));
}
}
public static bool3 tobool3(int mask)
{
if (Avx2.IsAvx2Supported)
{
byte3 temp = (byte3)(1 & shrl(mask, new int3(0, 1, 2)));
return(*(bool3 *)&temp);
}
else
{
return(tobool(1 & new byte3((byte)mask, (byte)(mask >> 1), (byte)(mask >> 2))));
}
}
public static bool3 ispow2(long3 x)
{
if (Avx2.IsAvx2Supported)
{
v128 result = new byte3(1) & ((byte3)(ulong3)Avx2.mm256_and_si256(Avx2.mm256_cmpgt_epi64(x, default(v256)),
Avx2.mm256_cmpeq_epi64(default(v256), x & (x - 1))));
return(*(bool3 *)&result);
}
else
{
return(new bool3(ispow2(x.xy), ispow2(x.z)));
}
}
public byte3 NextByte3(byte3 max)
{
if (Ssse3.IsSsse3Supported)
{
short3 temp = (short3)max * new short3(NextState(), NextState(), NextState());
return(Ssse3.shuffle_epi8(temp, new byte4(1, 3, 5, 0)));
}
else
{
return((byte3)(((short3)max * new short3(NextState(), NextState(), NextState())) >> 8));
}
}
public static byte cmin(byte3 x)
{
if (Ssse3.IsSsse3Supported)
{
x = min(x, x.zyz);
return(min(x, x.yyy).x);
}
else
{
return((byte)math.min((uint)x.x, math.min((uint)x.y, (uint)x.z)));
}
}
public static bool3 ispow2(byte3 x)
{
if (Sse2.IsSse2Supported)
{
v128 result = Sse2.and_si128(Sse2.and_si128(Operator.greater_mask_byte(x, default(v128)),
Sse2.cmpeq_epi8(default(v128), x & (x - 1))),
new byte16(1));
return(*(bool3 *)&result);
}
else
{
return(new bool3(math.ispow2((uint)x.x), math.ispow2((uint)x.y), math.ispow2((uint)x.z)));
}
}
public static uint sad(byte3 a, byte3 b)
{
if (Sse2.IsSse2Supported)
{
v128 maskedA = Sse2.and_si128(a, new v128(maxmath.bitmask32(24), 0, 0, 0));
v128 maskedB = Sse2.and_si128(b, new v128(maxmath.bitmask32(24), 0, 0, 0));
return(Sse2.sad_epu8(maskedA, maskedB).UShort0);
}
else
{
return((uint)(math.abs(a.x - b.x) + math.abs(a.y - b.y) + math.abs(a.z - b.z)));
}
}
internal static byte3 vdivrem_byte(byte3 dividend, byte3 divisor, out byte3 remainder)
{
Assert.AreNotEqual(divisor.x, 0);
Assert.AreNotEqual(divisor.y, 0);
Assert.AreNotEqual(divisor.z, 0);
int3 castDividend = dividend;
int3 castDivisor = divisor;
v128 floatResult = vdiv_byte_quotient(castDividend, castDivisor);
int3 quotientCast = (int3)(*(float3 *)&floatResult);
remainder = (byte3)(castDividend - quotientCast * castDivisor);
return((byte3)quotientCast);
}
public static byte3 gcd(byte3 x, byte3 y)
{
if (Sse2.IsSse2Supported)
{
v128 ZERO = default(v128);
v128 result = ZERO;
v128 result_if_zero_any = ZERO;
v128 x_is_zero = Sse2.cmpeq_epi8(x, ZERO);
v128 y_is_zero = Sse2.cmpeq_epi8(y, ZERO);
v128 any_zero = Sse2.or_si128(x_is_zero, y_is_zero);
result_if_zero_any = Mask.BlendV(result_if_zero_any, y, x_is_zero);
result_if_zero_any = Mask.BlendV(result_if_zero_any, x, y_is_zero);
v128 doneMask = any_zero;
byte3 shift = tzcnt(x | y);
x = shrl(x, tzcnt(x));
do
{
y = shrl(y, tzcnt(y));
v128 tempX = x;
x = Sse2.min_epu8(x, y);
y = Sse2.max_epu8(y, tempX);
y -= x;
v128 loopCheck = Sse2.andnot_si128(doneMask, Sse2.cmpeq_epi8(y, ZERO));
result = Mask.BlendV(result, x, loopCheck);
doneMask = Sse2.or_si128(doneMask, loopCheck);
} while (bitmask32(3 * sizeof(byte)) != (bitmask32(3 * sizeof(byte)) & Sse2.movemask_epi8(doneMask)));
result = shl(result, shift);
result = Mask.BlendV(result, result_if_zero_any, any_zero);
return(result);
}
else
{
return(new byte3((byte)gcd((uint)x.x, (uint)y.x), (byte)gcd((uint)x.y, (uint)y.y), (byte)gcd((uint)x.z, (uint)y.z)));
}
}
public static void Remainder()
{
bool result = true;
for (int i = 0; i < NUM_TESTS; i++)
{
byte3 x = TestData_LHS[i] % TestData_RHS[i];
result &= x.x == (byte)(TestData_LHS[i].x % TestData_RHS[i].x) &
x.y == (byte)(TestData_LHS[i].y % TestData_RHS[i].y) &
x.z == (byte)(TestData_LHS[i].z % TestData_RHS[i].z);
}
Assert.AreEqual(true, result);
}
public static void Cast_ToByte()
{
bool result = true;
for (int i = 0; i < NUM_TESTS; i++)
{
byte3 x = (byte3)TestData_LHS[i];
result &= x.x == (byte)TestData_LHS[i].x &
x.y == (byte)TestData_LHS[i].y &
x.z == (byte)TestData_LHS[i].z;
}
Assert.AreEqual(true, result);
}
public static void NOT()
{
bool result = true;
for (int i = 0; i < NUM_TESTS; i++)
{
byte3 x = ~TestData_LHS[i];
result &= x.x == (byte)(~TestData_LHS[i].x) &
x.y == (byte)(~TestData_LHS[i].y) &
x.z == (byte)(~TestData_LHS[i].z);
}
Assert.AreEqual(true, result);
}