public void RunStructLclFldScenario_Load()
{
TestLibrary.TestFramework.BeginScenario(nameof(RunStructLclFldScenario_Load));
var test = TestStruct.Create();
var result = Sse2.AndNot(
Sse2.LoadVector128((Int32 *)(&test._fld1)),
Sse2.LoadVector128((Int32 *)(&test._fld2))
);
Unsafe.Write(_dataTable.outArrayPtr, result);
ValidateResult(test._fld1, test._fld2, _dataTable.outArrayPtr);
}
public void RunStructFldScenario_Load(SimpleBinaryOpTest__AndNotUInt32 testClass)
{
fixed(Vector128 <UInt32> *pFld1 = &_fld1)
fixed(Vector128 <UInt32> *pFld2 = &_fld2)
{
var result = Sse2.AndNot(
Sse2.LoadVector128((UInt32 *)(pFld1)),
Sse2.LoadVector128((UInt32 *)(pFld2))
);
Unsafe.Write(testClass._dataTable.outArrayPtr, result);
testClass.ValidateResult(_fld1, _fld2, testClass._dataTable.outArrayPtr);
}
}
public void RunClassFldScenario_Load()
{
TestLibrary.TestFramework.BeginScenario(nameof(RunClassFldScenario_Load));
fixed(Vector128 <UInt32> *pFld1 = &_fld1)
fixed(Vector128 <UInt32> *pFld2 = &_fld2)
{
var result = Sse2.AndNot(
Sse2.LoadVector128((UInt32 *)(pFld1)),
Sse2.LoadVector128((UInt32 *)(pFld2))
);
Unsafe.Write(_dataTable.outArrayPtr, result);
ValidateResult(_fld1, _fld2, _dataTable.outArrayPtr);
}
}
public void RunClsVarScenario_Load()
{
TestLibrary.TestFramework.BeginScenario(nameof(RunClsVarScenario_Load));
fixed(Vector128 <Double> *pClsVar1 = &_clsVar1)
fixed(Vector128 <Double> *pClsVar2 = &_clsVar2)
{
var result = Sse2.AndNot(
Sse2.LoadVector128((Double *)(pClsVar1)),
Sse2.LoadVector128((Double *)(pClsVar2))
);
Unsafe.Write(_dataTable.outArrayPtr, result);
ValidateResult(_clsVar1, _clsVar2, _dataTable.outArrayPtr);
}
}
public void RunClassLclFldScenario_Load()
{
TestLibrary.TestFramework.BeginScenario(nameof(RunClassLclFldScenario_Load));
var test = new SimpleBinaryOpTest__AndNotDouble();
fixed(Vector128 <Double> *pFld1 = &test._fld1)
fixed(Vector128 <Double> *pFld2 = &test._fld2)
{
var result = Sse2.AndNot(
Sse2.LoadVector128((Double *)(pFld1)),
Sse2.LoadVector128((Double *)(pFld2))
);
Unsafe.Write(_dataTable.outArrayPtr, result);
ValidateResult(test._fld1, test._fld2, _dataTable.outArrayPtr);
}
}
public static Vector128 <double> ConditionalSelectBitwise(Vector128 <double> selector, Vector128 <double> ifTrue, Vector128 <double> ifFalse)
{
// This implementation is based on the DirectX Math Library XMVector4NotEqual method
// https://github.com/microsoft/DirectXMath/blob/master/Inc/DirectXMathVector.inl
if (AdvSimd.IsSupported)
{
return(AdvSimd.BitwiseSelect(selector, ifTrue, ifFalse));
}
else if (Sse2.IsSupported)
{
return(Sse2.Or(Sse2.And(ifTrue, selector), Sse2.AndNot(selector, ifFalse)));
}
else
{
// Redundant test so we won't prejit remainder of this method on platforms without AdvSimd.
throw new PlatformNotSupportedException();
}
}
// Returns &inputBuffer[inputLength] if the input buffer is valid.
/// <summary>
/// Given an input buffer <paramref name="pInputBuffer"/> of char length <paramref name="inputLength"/>,
/// returns a pointer to where the first invalid data appears in <paramref name="pInputBuffer"/>.
/// </summary>
/// <remarks>
/// Returns a pointer to the end of <paramref name="pInputBuffer"/> if the buffer is well-formed.
/// </remarks>
public static char *GetPointerToFirstInvalidChar(char *pInputBuffer, int inputLength, out long utf8CodeUnitCountAdjustment, out int scalarCountAdjustment)
{
Debug.Assert(inputLength >= 0, "Input length must not be negative.");
Debug.Assert(pInputBuffer != null || inputLength == 0, "Input length must be zero if input buffer pointer is null.");
// First, we'll handle the common case of all-ASCII. If this is able to
// consume the entire buffer, we'll skip the remainder of this method's logic.
int numAsciiCharsConsumedJustNow = (int)ASCIIUtility.GetIndexOfFirstNonAsciiChar(pInputBuffer, (uint)inputLength);
Debug.Assert(0 <= numAsciiCharsConsumedJustNow && numAsciiCharsConsumedJustNow <= inputLength);
pInputBuffer += (uint)numAsciiCharsConsumedJustNow;
inputLength -= numAsciiCharsConsumedJustNow;
if (inputLength == 0)
{
utf8CodeUnitCountAdjustment = 0;
scalarCountAdjustment = 0;
return(pInputBuffer);
}
// If we got here, it means we saw some non-ASCII data, so within our
// vectorized code paths below we'll handle all non-surrogate UTF-16
// code points branchlessly. We'll only branch if we see surrogates.
//
// We still optimistically assume the data is mostly ASCII. This means that the
// number of UTF-8 code units and the number of scalars almost matches the number
// of UTF-16 code units. As we go through the input and find non-ASCII
// characters, we'll keep track of these "adjustment" fixups. To get the
// total number of UTF-8 code units required to encode the input data, add
// the UTF-8 code unit count adjustment to the number of UTF-16 code units
// seen. To get the total number of scalars present in the input data,
// add the scalar count adjustment to the number of UTF-16 code units seen.
long tempUtf8CodeUnitCountAdjustment = 0;
int tempScalarCountAdjustment = 0;
if ((AdvSimd.Arm64.IsSupported && BitConverter.IsLittleEndian) || Sse2.IsSupported)
{
if (inputLength >= Vector128 <ushort> .Count)
{
Vector128 <ushort> vector0080 = Vector128.Create((ushort)0x80);
Vector128 <ushort> vectorA800 = Vector128.Create((ushort)0xA800);
Vector128 <short> vector8800 = Vector128.Create(unchecked ((short)0x8800));
Vector128 <ushort> vectorZero = Vector128 <ushort> .Zero;
do
{
Vector128 <ushort> utf16Data;
if (AdvSimd.Arm64.IsSupported)
{
utf16Data = AdvSimd.LoadVector128((ushort *)pInputBuffer); // unaligned
}
else
{
utf16Data = Sse2.LoadVector128((ushort *)pInputBuffer); // unaligned
}
Vector128 <ushort> charIsNonAscii;
if (AdvSimd.Arm64.IsSupported)
{
// Sets the 0x0080 bit of each element in 'charIsNonAscii' if the corresponding
// input was 0x0080 <= [value]. (i.e., [value] is non-ASCII.)
charIsNonAscii = AdvSimd.Min(utf16Data, vector0080);
}
else if (Sse41.IsSupported)
{
// Sets the 0x0080 bit of each element in 'charIsNonAscii' if the corresponding
// input was 0x0080 <= [value]. (i.e., [value] is non-ASCII.)
charIsNonAscii = Sse41.Min(utf16Data, vector0080);
}
else
{
// Sets the 0x0080 bit of each element in 'charIsNonAscii' if the corresponding
// input was 0x0080 <= [value] <= 0x7FFF. The case where 0x8000 <= [value] will
// be handled in a few lines.
charIsNonAscii = Sse2.AndNot(Sse2.CompareGreaterThan(vector0080.AsInt16(), utf16Data.AsInt16()).AsUInt16(), vector0080);
}
#if DEBUG
// Quick check to ensure we didn't accidentally set the 0x8000 bit of any element.
uint debugMask;
if (AdvSimd.Arm64.IsSupported)
{
debugMask = GetNonAsciiBytes(charIsNonAscii.AsByte());
}
else
{
debugMask = (uint)Sse2.MoveMask(charIsNonAscii.AsByte());
}
Debug.Assert((debugMask & 0b_1010_1010_1010_1010) == 0, "Shouldn't have set the 0x8000 bit of any element in 'charIsNonAscii'.");
#endif // DEBUG
// Sets the 0x8080 bits of each element in 'charIsNonAscii' if the corresponding
// input was 0x0800 <= [value]. This also handles the missing range a few lines above.
Vector128 <ushort> charIsThreeByteUtf8Encoded;
uint mask;
if (AdvSimd.IsSupported)
{
charIsThreeByteUtf8Encoded = AdvSimd.Subtract(vectorZero, AdvSimd.ShiftRightLogical(utf16Data, 11));
mask = GetNonAsciiBytes(AdvSimd.Or(charIsNonAscii, charIsThreeByteUtf8Encoded).AsByte());
}
else
{
charIsThreeByteUtf8Encoded = Sse2.Subtract(vectorZero, Sse2.ShiftRightLogical(utf16Data, 11));
mask = (uint)Sse2.MoveMask(Sse2.Or(charIsNonAscii, charIsThreeByteUtf8Encoded).AsByte());
}
// Each even bit of mask will be 1 only if the char was >= 0x0080,
// and each odd bit of mask will be 1 only if the char was >= 0x0800.
//
// Example for UTF-16 input "[ 0123 ] [ 1234 ] ...":
//
// ,-- set if char[1] is >= 0x0800
// | ,-- set if char[0] is >= 0x0800
// v v
// mask = ... 1 1 0 1
// ^ ^-- set if char[0] is non-ASCII
// `-- set if char[1] is non-ASCII
//
// This means we can popcnt the number of set bits, and the result is the
// number of *additional* UTF-8 bytes that each UTF-16 code unit requires as
// it expands. This results in the wrong count for UTF-16 surrogate code
// units (we just counted that each individual code unit expands to 3 bytes,
// but in reality a well-formed UTF-16 surrogate pair expands to 4 bytes).
// We'll handle this in just a moment.
//
// For now, compute the popcnt but squirrel it away. We'll fold it in to the
// cumulative UTF-8 adjustment factor once we determine that there are no
// unpaired surrogates in our data. (Unpaired surrogates would invalidate
// our computed result and we'd have to throw it away.)
uint popcnt = (uint)BitOperations.PopCount(mask);
// Surrogates need to be special-cased for two reasons: (a) we need
// to account for the fact that we over-counted in the addition above;
// and (b) they require separate validation.
if (AdvSimd.Arm64.IsSupported)
{
utf16Data = AdvSimd.Add(utf16Data, vectorA800);
mask = GetNonAsciiBytes(AdvSimd.CompareLessThan(utf16Data.AsInt16(), vector8800).AsByte());
}
else
{
utf16Data = Sse2.Add(utf16Data, vectorA800);
mask = (uint)Sse2.MoveMask(Sse2.CompareLessThan(utf16Data.AsInt16(), vector8800).AsByte());
}
if (mask != 0)
{
// There's at least one UTF-16 surrogate code unit present.
// Since we performed a pmovmskb operation on the result of a 16-bit pcmpgtw,
// the resulting bits of 'mask' will occur in pairs:
// - 00 if the corresponding UTF-16 char was not a surrogate code unit;
// - 11 if the corresponding UTF-16 char was a surrogate code unit.
//
// A UTF-16 high/low surrogate code unit has the bit pattern [ 11011q## ######## ],
// where # is any bit; q = 0 represents a high surrogate, and q = 1 represents
// a low surrogate. Since we added 0xA800 in the vectorized operation above,
// our surrogate pairs will now have the bit pattern [ 10000q## ######## ].
// If we logical right-shift each word by 3, we'll end up with the bit pattern
// [ 00010000 q####### ], which means that we can immediately use pmovmskb to
// determine whether a given char was a high or a low surrogate.
//
// Therefore the resulting bits of 'mask2' will occur in pairs:
// - 00 if the corresponding UTF-16 char was a high surrogate code unit;
// - 01 if the corresponding UTF-16 char was a low surrogate code unit;
// - ## (garbage) if the corresponding UTF-16 char was not a surrogate code unit.
// Since 'mask' already has 00 in these positions (since the corresponding char
// wasn't a surrogate), "mask AND mask2 == 00" holds for these positions.
uint mask2;
if (AdvSimd.Arm64.IsSupported)
{
mask2 = GetNonAsciiBytes(AdvSimd.ShiftRightLogical(utf16Data, 3).AsByte());
}
else
{
mask2 = (uint)Sse2.MoveMask(Sse2.ShiftRightLogical(utf16Data, 3).AsByte());
}
// 'lowSurrogatesMask' has its bits occur in pairs:
// - 01 if the corresponding char was a low surrogate char,
// - 00 if the corresponding char was a high surrogate char or not a surrogate at all.
uint lowSurrogatesMask = mask2 & mask;
// 'highSurrogatesMask' has its bits occur in pairs:
// - 01 if the corresponding char was a high surrogate char,
// - 00 if the corresponding char was a low surrogate char or not a surrogate at all.
uint highSurrogatesMask = (mask2 ^ 0b_0101_0101_0101_0101u /* flip all even-numbered bits 00 <-> 01 */) & mask;
Debug.Assert((highSurrogatesMask & lowSurrogatesMask) == 0,
"A char cannot simultaneously be both a high and a low surrogate char.");
Debug.Assert(((highSurrogatesMask | lowSurrogatesMask) & 0b_1010_1010_1010_1010u) == 0,
"Only even bits (no odd bits) of the masks should be set.");
// Now check that each high surrogate is followed by a low surrogate and that each
// low surrogate follows a high surrogate. We make an exception for the case where
// the final char of the vector is a high surrogate, since we can't perform validation
// on it until the next iteration of the loop when we hope to consume the matching
// low surrogate.
highSurrogatesMask <<= 2;
if ((ushort)highSurrogatesMask != lowSurrogatesMask)
{
goto NonVectorizedLoop; // error: mismatched surrogate pair; break out of vectorized logic
}
if (highSurrogatesMask > ushort.MaxValue)
{
// There was a standalone high surrogate at the end of the vector.
// We'll adjust our counters so that we don't consider this char consumed.
highSurrogatesMask = (ushort)highSurrogatesMask; // don't allow stray high surrogate to be consumed by popcnt
popcnt -= 2; // the '0xC000_0000' bits in the original mask are shifted out and discarded, so account for that here
pInputBuffer--;
inputLength++;
}
// If we're 64-bit, we can perform the zero-extension of the surrogate pairs count for
// free right now, saving the extension step a few lines below. If we're 32-bit, the
// convertion to nuint immediately below is a no-op, and we'll pay the cost of the real
// 64 -bit extension a few lines below.
nuint surrogatePairsCountNuint = (uint)BitOperations.PopCount(highSurrogatesMask);
// 2 UTF-16 chars become 1 Unicode scalar
tempScalarCountAdjustment -= (int)surrogatePairsCountNuint;
// Since each surrogate code unit was >= 0x0800, we eagerly assumed
// it'd be encoded as 3 UTF-8 code units, so our earlier popcnt computation
// assumes that the pair is encoded as 6 UTF-8 code units. Since each
// pair is in reality only encoded as 4 UTF-8 code units, we need to
// perform this adjustment now.
if (IntPtr.Size == 8)
{
// Since we've already zero-extended surrogatePairsCountNuint, we can directly
// sub + sub. It's more efficient than shl + sub.
tempUtf8CodeUnitCountAdjustment -= (long)surrogatePairsCountNuint;
tempUtf8CodeUnitCountAdjustment -= (long)surrogatePairsCountNuint;
}
else
{
// Take the hit of the 64-bit extension now.
tempUtf8CodeUnitCountAdjustment -= 2 * (uint)surrogatePairsCountNuint;
}
}
tempUtf8CodeUnitCountAdjustment += popcnt;
pInputBuffer += Vector128 <ushort> .Count;
inputLength -= Vector128 <ushort> .Count;
} while (inputLength >= Vector128 <ushort> .Count);
}
}
else if (Vector.IsHardwareAccelerated)
{
if (inputLength >= Vector <ushort> .Count)
{
Vector <ushort> vector0080 = new Vector <ushort>(0x0080);
Vector <ushort> vector0400 = new Vector <ushort>(0x0400);
Vector <ushort> vector0800 = new Vector <ushort>(0x0800);
Vector <ushort> vectorD800 = new Vector <ushort>(0xD800);
do
{
// The 'twoOrMoreUtf8Bytes' and 'threeOrMoreUtf8Bytes' vectors will contain
// elements whose values are 0xFFFF (-1 as signed word) iff the corresponding
// UTF-16 code unit was >= 0x0080 and >= 0x0800, respectively. By summing these
// vectors, each element of the sum will contain one of three values:
//
// 0x0000 ( 0) = original char was 0000..007F
// 0xFFFF (-1) = original char was 0080..07FF
// 0xFFFE (-2) = original char was 0800..FFFF
//
// We'll negate them to produce a value 0..2 for each element, then sum all the
// elements together to produce the number of *additional* UTF-8 code units
// required to represent this UTF-16 data. This is similar to the popcnt step
// performed by the SSE2 code path. This will overcount surrogates, but we'll
// handle that shortly.
Vector <ushort> utf16Data = Unsafe.ReadUnaligned <Vector <ushort> >(pInputBuffer);
Vector <ushort> twoOrMoreUtf8Bytes = Vector.GreaterThanOrEqual(utf16Data, vector0080);
Vector <ushort> threeOrMoreUtf8Bytes = Vector.GreaterThanOrEqual(utf16Data, vector0800);
Vector <nuint_t> sumVector = (Vector <nuint_t>)(Vector <ushort> .Zero - twoOrMoreUtf8Bytes - threeOrMoreUtf8Bytes);
// We'll try summing by a natural word (rather than a 16-bit word) at a time,
// which should halve the number of operations we must perform.
nuint popcnt = 0;
for (int i = 0; i < Vector <nuint_t> .Count; i++)
{
popcnt += (nuint)sumVector[i];
}
uint popcnt32 = (uint)popcnt;
if (IntPtr.Size == 8)
{
popcnt32 += (uint)(popcnt >> 32);
}
// As in the SSE4.1 paths, compute popcnt but don't fold it in until we
// know there aren't any unpaired surrogates in the input data.
popcnt32 = (ushort)popcnt32 + (popcnt32 >> 16);
// Now check for surrogates.
utf16Data -= vectorD800;
Vector <ushort> surrogateChars = Vector.LessThan(utf16Data, vector0800);
if (surrogateChars != Vector <ushort> .Zero)
{
// There's at least one surrogate (high or low) UTF-16 code unit in
// the vector. We'll build up additional vectors: 'highSurrogateChars'
// and 'lowSurrogateChars', where the elements are 0xFFFF iff the original
// UTF-16 code unit was a high or low surrogate, respectively.
Vector <ushort> highSurrogateChars = Vector.LessThan(utf16Data, vector0400);
Vector <ushort> lowSurrogateChars = Vector.AndNot(surrogateChars, highSurrogateChars);
// We want to make sure that each high surrogate code unit is followed by
// a low surrogate code unit and each low surrogate code unit follows a
// high surrogate code unit. Since we don't have an equivalent of pmovmskb
// or palignr available to us, we'll do this as a loop. We won't look at
// the very last high surrogate char element since we don't yet know if
// the next vector read will have a low surrogate char element.
if (lowSurrogateChars[0] != 0)
{
goto Error; // error: start of buffer contains standalone low surrogate char
}
ushort surrogatePairsCount = 0;
for (int i = 0; i < Vector <ushort> .Count - 1; i++)
{
surrogatePairsCount -= highSurrogateChars[i]; // turns into +1 or +0
if (highSurrogateChars[i] != lowSurrogateChars[i + 1])
{
goto NonVectorizedLoop; // error: mismatched surrogate pair; break out of vectorized logic
}
}
if (highSurrogateChars[Vector <ushort> .Count - 1] != 0)
{
// There was a standalone high surrogate at the end of the vector.
// We'll adjust our counters so that we don't consider this char consumed.
pInputBuffer--;
inputLength++;
popcnt32 -= 2;
}
nint surrogatePairsCountNint = (nint)surrogatePairsCount; // zero-extend to native int size
// 2 UTF-16 chars become 1 Unicode scalar
tempScalarCountAdjustment -= (int)surrogatePairsCountNint;
// Since each surrogate code unit was >= 0x0800, we eagerly assumed
// it'd be encoded as 3 UTF-8 code units. Each surrogate half is only
// encoded as 2 UTF-8 code units (for 4 UTF-8 code units total),
// so we'll adjust this now.
tempUtf8CodeUnitCountAdjustment -= surrogatePairsCountNint;
tempUtf8CodeUnitCountAdjustment -= surrogatePairsCountNint;
}
tempUtf8CodeUnitCountAdjustment += popcnt32;
pInputBuffer += Vector <ushort> .Count;
inputLength -= Vector <ushort> .Count;
} while (inputLength >= Vector <ushort> .Count);
}
}
NonVectorizedLoop:
// Vectorization isn't supported on our current platform, or the input was too small to benefit
// from vectorization, or we saw invalid UTF-16 data in the vectorized code paths and need to
// drain remaining valid chars before we report failure.
for (; inputLength > 0; pInputBuffer++, inputLength--)
{
uint thisChar = pInputBuffer[0];
if (thisChar <= 0x7F)
{
continue;
}
// Bump adjustment by +1 for U+0080..U+07FF; by +2 for U+0800..U+FFFF.
// This optimistically assumes no surrogates, which we'll handle shortly.
tempUtf8CodeUnitCountAdjustment += (thisChar + 0x0001_F800u) >> 16;
if (!UnicodeUtility.IsSurrogateCodePoint(thisChar))
{
continue;
}
// Found a surrogate char. Back out the adjustment we made above, then
// try to consume the entire surrogate pair all at once. We won't bother
// trying to interpret the surrogate pair as a scalar value; we'll only
// validate that its bit pattern matches what's expected for a surrogate pair.
tempUtf8CodeUnitCountAdjustment -= 2;
if (inputLength == 1)
{
goto Error; // input buffer too small to read a surrogate pair
}
thisChar = Unsafe.ReadUnaligned <uint>(pInputBuffer);
if (((thisChar - (BitConverter.IsLittleEndian ? 0xDC00_D800u : 0xD800_DC00u)) & 0xFC00_FC00u) != 0)
{
goto Error; // not a well-formed surrogate pair
}
tempScalarCountAdjustment--; // 2 UTF-16 code units -> 1 scalar
tempUtf8CodeUnitCountAdjustment += 2; // 2 UTF-16 code units -> 4 UTF-8 code units
pInputBuffer++; // consumed one extra char
inputLength--;
}
Error:
// Also used for normal return.
utf8CodeUnitCountAdjustment = tempUtf8CodeUnitCountAdjustment;
scalarCountAdjustment = tempScalarCountAdjustment;
return(pInputBuffer);
}
public unsafe void Serialize(ref MessagePackWriter writer, int[]?value, MessagePackSerializerOptions options)
{
if (value == null)
{
writer.WriteNil();
return;
}
var inputLength = value.Length;
writer.WriteArrayHeader(inputLength);
if (inputLength == 0)
{
return;
}
fixed(int *pSource = &value[0])
{
var inputEnd = pSource + inputLength;
var inputIterator = pSource;
if (Sse41.IsSupported)
{
const int ShiftCount = 2;
const int Stride = 1 << ShiftCount;
if (inputLength < Stride << 1)
{
goto ProcessEach;
}
{
// Make InputIterator Aligned
var offset = UnsafeMemoryAlignmentUtility.CalculateDifferenceAlign16(inputIterator);
// When offset is times of 4, you can adjust memory address.
if ((offset & 3) == 0)
{
offset >>= 2;
inputLength -= offset;
var offsetEnd = inputIterator + offset;
while (inputIterator != offsetEnd)
{
writer.Write(*inputIterator++);
}
}
}
fixed(byte *tablePointer = &ShuffleAndMaskTable[0])
{
var countPointer = (int *)(tablePointer + CountTableOffset);
fixed(byte *maskTablePointer = &SingleInstructionMultipleDataPrimitiveArrayFormatterHelper.StoreMaskTable[0])
{
var vectorShortMinValueM1 = Vector128.Create(short.MinValue - 1);
var vectorSByteMinValueM1 = Vector128.Create(sbyte.MinValue - 1);
var vectorMinFixNegIntM1 = Vector128.Create(MessagePackRange.MinFixNegativeInt - 1);
var vectorSByteMaxValue = Vector128.Create((int)sbyte.MaxValue);
var vectorByteMaxValue = Vector128.Create((int)byte.MaxValue);
var vectorUShortMaxValue = Vector128.Create((int)ushort.MaxValue);
var vectorM1M7 = Vector128.Create(-1, -7, -1, -7);
var vectorIn1Range = Vector128.Create(0, 4, 8, 12, 0x80, 0x80, 0x80, 0x80, 0x80, 0x80, 0x80, 0x80, 0x80, 0x80, 0x80, 0x80);
for (var vectorizedEnd = inputIterator + ((inputLength >> ShiftCount) << ShiftCount); inputIterator != vectorizedEnd; inputIterator += Stride)
{
var current = Sse2.LoadVector128(inputIterator);
var isGreaterThanMinFixNegIntM1 = Sse2.CompareGreaterThan(current, vectorMinFixNegIntM1);
var isGreaterThanSByteMaxValue = Sse2.CompareGreaterThan(current, vectorSByteMaxValue);
if (Sse2.MoveMask(Sse2.AndNot(isGreaterThanSByteMaxValue, isGreaterThanMinFixNegIntM1).AsByte()) == 0xFFFF)
{
var answer = Ssse3.Shuffle(current.AsByte(), vectorIn1Range).AsUInt32();
var span = writer.GetSpan(Stride);
Unsafe.As <byte, uint>(ref span[0]) = answer.GetElement(0);
writer.Advance(Stride);
continue;
}
var indexVector = Sse2.Add(isGreaterThanSByteMaxValue, isGreaterThanMinFixNegIntM1);
indexVector = Sse2.Add(indexVector, Sse2.CompareGreaterThan(current, vectorUShortMaxValue));
indexVector = Sse2.Add(indexVector, Sse2.CompareGreaterThan(current, vectorByteMaxValue));
indexVector = Sse2.Add(indexVector, Sse2.CompareGreaterThan(current, vectorShortMinValueM1));
indexVector = Sse2.Add(indexVector, Sse2.CompareGreaterThan(current, vectorSByteMinValueM1));
indexVector = Sse41.MultiplyLow(indexVector, vectorM1M7);
indexVector = Ssse3.HorizontalAdd(indexVector, indexVector);
var index0 = indexVector.GetElement(0);
var index1 = indexVector.GetElement(1);
var count0 = countPointer[index0];
var count1 = countPointer[index1];
var countTotal = count0 + count1;
var destination = writer.GetSpan(countTotal);
fixed(byte *pDestination = &destination[0])
{
var tmpDestination = pDestination;
var item0 = tablePointer + (index0 << 5);
var shuffle0 = Sse2.LoadVector128(item0);
var shuffled0 = Ssse3.Shuffle(current.AsByte(), shuffle0);
var constant0 = Sse2.LoadVector128(item0 + 16);
var answer0 = Sse2.Or(shuffled0, constant0);
Sse2.MaskMove(answer0, Sse2.LoadVector128(maskTablePointer + (count0 << 4)), pDestination);
tmpDestination += count0;
var shift1 = Sse2.ShiftRightLogical128BitLane(current, 8).AsByte();
var item1 = tablePointer + (index1 << 5);
var shuffle1 = Sse2.LoadVector128(item1);
var shuffled1 = Ssse3.Shuffle(shift1, shuffle1);
var constant1 = Sse2.LoadVector128(item1 + 16);
var answer1 = Sse2.Or(shuffled1, constant1);
Sse2.MaskMove(answer1, Sse2.LoadVector128(maskTablePointer + (count1 << 4)), tmpDestination);
}
writer.Advance(countTotal);
}
}
}
}
ProcessEach:
while (inputIterator != inputEnd)
{
writer.Write(*inputIterator++);
}
}
}
public static unsafe int GetUtf16CharCountFromKnownWellFormedUtf8(ReadOnlySpan <byte> utf8Data)
{
// Remember: the number of resulting UTF-16 chars will never be greater than the number
// of UTF-8 bytes given well-formed input, so we can get away with casting the final
// result to an 'int'.
fixed(byte *pPinnedUtf8Data = &MemoryMarshal.GetReference(utf8Data))
{
if (Sse2.IsSupported && Popcnt.IsSupported)
{
// Optimizations via SSE2 & POPCNT are available - use them.
Debug.Assert(BitConverter.IsLittleEndian, "SSE2 only supported on little-endian platforms.");
Debug.Assert(sizeof(nint) == IntPtr.Size, "nint defined incorrectly.");
Debug.Assert(sizeof(nuint) == IntPtr.Size, "nuint defined incorrectly.");
byte *pBuffer = pPinnedUtf8Data;
nuint bufferLength = (uint)utf8Data.Length;
// Optimization: Can we stay in the all-ASCII code paths?
nuint utf16CharCount = GetIndexOfFirstNonAsciiByte_Sse2(pBuffer, bufferLength);
if (utf16CharCount != bufferLength)
{
// Found at least one non-ASCII byte, so fall down the slower (but still vectorized) code paths.
// Given well-formed UTF-8 input, we can compute the number of resulting UTF-16 code units
// using the following formula:
//
// utf16CharCount = utf8ByteCount - numUtf8ContinuationBytes + numUtf8FourByteHeaders
utf16CharCount = bufferLength;
Vector128 <sbyte> vecAllC0 = Vector128.Create(unchecked ((sbyte)0xC0));
Vector128 <sbyte> vecAll80 = Vector128.Create(unchecked ((sbyte)0x80));
Vector128 <sbyte> vecAll6F = Vector128.Create(unchecked ((sbyte)0x6F));
{
// Perform an aligned read of the first part of the buffer.
// We'll mask out any data at the start of the buffer we don't care about.
//
// For example, if (pBuffer MOD 16) = 2:
// [ AA BB CC DD ... ] <-- original vector
// [ 00 00 CC DD ... ] <-- after PANDN operation
nint offset = -((nint)pBuffer & (sizeof(Vector128 <sbyte>) - 1));
Vector128 <sbyte> shouldBeMaskedOut = Sse2.CompareGreaterThan(Vector128.Create((byte)((int)offset + sizeof(Vector128 <sbyte>) - 1)).AsSByte(), VectorOfElementIndices);
Vector128 <sbyte> thisVector = Sse2.AndNot(shouldBeMaskedOut, Unsafe.Read <Vector128 <sbyte> >(pBuffer + offset));
// If there's any data at the end of the buffer we don't care about, mask it out now.
// If this happens the 'bufferLength' value will be a lie, but it'll cause all of the
// branches later in the method to be skipped, so it's not a huge problem.
if (bufferLength < (nuint)offset + (uint)sizeof(Vector128 <sbyte>))
{
Vector128 <sbyte> shouldBeAllowed = Sse2.CompareLessThan(VectorOfElementIndices, Vector128.Create((byte)((int)bufferLength - (int)offset)).AsSByte());
thisVector = Sse2.And(shouldBeAllowed, thisVector);
bufferLength = (nuint)offset + (uint)sizeof(Vector128 <sbyte>);
}
uint maskOfContinuationBytes = (uint)Sse2.MoveMask(Sse2.CompareGreaterThan(vecAllC0, thisVector));
uint countOfContinuationBytes = Popcnt.PopCount(maskOfContinuationBytes);
utf16CharCount -= countOfContinuationBytes;
uint maskOfFourByteHeaders = (uint)Sse2.MoveMask(Sse2.CompareGreaterThan(Sse2.Xor(thisVector, vecAll80), vecAll6F));
uint countOfFourByteHeaders = Popcnt.PopCount(maskOfFourByteHeaders);
utf16CharCount += countOfFourByteHeaders;
bufferLength -= (nuint)offset;
bufferLength -= (uint)sizeof(Vector128 <sbyte>);
pBuffer += offset;
pBuffer += (uint)sizeof(Vector128 <sbyte>);
}
// At this point, pBuffer is guaranteed aligned.
Debug.Assert((nuint)pBuffer % (uint)sizeof(Vector128 <sbyte>) == 0, "pBuffer should have been aligned.");
while (bufferLength >= (uint)sizeof(Vector128 <sbyte>))
{
Vector128 <sbyte> thisVector = Sse2.LoadAlignedVector128((sbyte *)pBuffer);
uint maskOfContinuationBytes = (uint)Sse2.MoveMask(Sse2.CompareGreaterThan(vecAllC0, thisVector));
uint countOfContinuationBytes = Popcnt.PopCount(maskOfContinuationBytes);
utf16CharCount -= countOfContinuationBytes;
uint maskOfFourByteHeaders = (uint)Sse2.MoveMask(Sse2.CompareGreaterThan(Sse2.Xor(thisVector, vecAll80), vecAll6F));
uint countOfFourByteHeaders = Popcnt.PopCount(maskOfFourByteHeaders);
utf16CharCount += countOfFourByteHeaders;
pBuffer += sizeof(Vector128 <sbyte>);
bufferLength -= (uint)sizeof(Vector128 <sbyte>);
}
if ((uint)bufferLength > 0)
{
// There's still more data to be read.
// We need to mask out elements of the vector we don't care about.
// These elements will occur at the end of the vector.
//
// For example, if 14 bytes remain in the input stream:
// [ ... CC DD EE FF ] <-- original vector
// [ ... CC DD 00 00 ] <-- after PANDN operation
Vector128 <sbyte> shouldBeMaskedOut = Sse2.CompareGreaterThan(VectorOfElementIndices, Vector128.Create((byte)((int)bufferLength - 1)).AsSByte());
Vector128 <sbyte> thisVector = Sse2.AndNot(shouldBeMaskedOut, *(Vector128 <sbyte> *)pBuffer);
uint maskOfContinuationBytes = (uint)Sse2.MoveMask(Sse2.CompareGreaterThan(vecAllC0, thisVector));
uint countOfContinuationBytes = Popcnt.PopCount(maskOfContinuationBytes);
utf16CharCount -= countOfContinuationBytes;
uint maskOfFourByteHeaders = (uint)Sse2.MoveMask(Sse2.CompareGreaterThan(Sse2.Xor(thisVector, vecAll80), vecAll6F));
uint countOfFourByteHeaders = Popcnt.PopCount(maskOfFourByteHeaders);
utf16CharCount += countOfFourByteHeaders;
}
}
return((int)utf16CharCount);
}
else
{
// Cannot use SSE2 & POPCNT. Fall back to slower code paths.
throw new NotImplementedException();
}
}
}
/// <summary>
/// Performs an NAND operation against two <see cref="ReadOnlySpan{byte}"/>.
/// </summary>
/// <param name="l"></param>
/// <param name="r"></param>
/// <param name="o"></param>
public static void AndNot(this ReadOnlySpan <byte> l, ReadOnlySpan <byte> r, Span <byte> o)
{
var s = o.Length;
if (l.Length != s)
{
throw new ArgumentException("Left span size must be equal to output size.");
}
if (r.Length != s)
{
throw new ArgumentException("Right span size must be equal to output size.");
}
#if NETCOREAPP3_0
if (Avx2.IsSupported)
{
while (o.Length >= 32)
{
var al = MemoryMarshal.Cast <byte, ulong>(l);
var rl = MemoryMarshal.Cast <byte, ulong>(r);
var ol = MemoryMarshal.Cast <byte, ulong>(o);
unsafe
{
fixed(ulong *lp = al)
fixed(ulong *rp = rl)
fixed(ulong *op = ol)
{
var av = Avx.LoadVector256(lp);
var bv = Avx.LoadVector256(rp);
var ov = Avx2.AndNot(av, bv);
Avx.Store(op, ov);
}
}
l = l.Slice(32);
r = r.Slice(32);
o = o.Slice(32);
}
}
#endif
#if NETCOREAPP3_0
if (Sse2.IsSupported)
{
while (o.Length >= 16)
{
var ll = MemoryMarshal.Cast <byte, ulong>(l);
var rl = MemoryMarshal.Cast <byte, ulong>(r);
var ol = MemoryMarshal.Cast <byte, ulong>(o);
unsafe
{
fixed(ulong *lp = ll)
fixed(ulong *rp = rl)
fixed(ulong *op = ol)
{
var av = Sse2.LoadVector128(lp);
var bv = Sse2.LoadVector128(rp);
var ov = Sse2.AndNot(av, bv);
Sse2.Store(op, ov);
}
}
l = l.Slice(16);
r = r.Slice(16);
o = o.Slice(16);
}
}
#endif
while (o.Length >= sizeof(ulong))
{
var ll = MemoryMarshal.Cast <byte, ulong>(l);
var rl = MemoryMarshal.Cast <byte, ulong>(r);
var ol = MemoryMarshal.Cast <byte, ulong>(o);
ol[0] = ~ll[0] & rl[0];
l = l.Slice(sizeof(ulong));
r = r.Slice(sizeof(ulong));
o = o.Slice(sizeof(ulong));
}
while (o.Length >= sizeof(uint))
{
var ll = MemoryMarshal.Cast <byte, uint>(l);
var rl = MemoryMarshal.Cast <byte, uint>(r);
var ol = MemoryMarshal.Cast <byte, uint>(o);
ol[0] = ~ll[0] & rl[0];
l = l.Slice(sizeof(uint));
r = r.Slice(sizeof(uint));
o = o.Slice(sizeof(uint));
}
// finish remaining bytes
if (o.Length > 0)
{
for (var i = 0; i < o.Length; i++)
{
o[i] = (byte)((uint)~l[i] & r[i]);
}
}
}
public void ResizeBicubic(FastBitmap rtnImage)
{
float scaleX = (float)this.width / rtnImage.width;
float scaleY = (float)this.height / rtnImage.height;
if (scaleX > 1 || scaleY > 1)
{
throw new Exception("拡大のみ対応");
}
float[] tmpa = new float[rtnImage.width * 4 * this.height];
fixed(float *tmpp = tmpa)
{
float *tmp = tmpp;
var _00mask = Vector128.Create(0, 255, 255, 255, 1, 255, 255, 255, 2, 255, 255, 255, 3, 255, 255, 255);
var _01mask = Vector128.Create(4, 255, 255, 255, 5, 255, 255, 255, 6, 255, 255, 255, 7, 255, 255, 255);
var _10mask = Vector128.Create(8, 255, 255, 255, 9, 255, 255, 255, 10, 255, 255, 255, 11, 255, 255, 255);
var _11mask = Vector128.Create(12, 255, 255, 255, 13, 255, 255, 255, 14, 255, 255, 255, 15, 255, 255, 255);
var _vmask = Vector128.Create(0, 4, 8, 12, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255);
var _1012 = Vector128.Create(-1, 0, 1, 2);
var _0123i = Vector128.Create(0, 1, 2, 3);
var _0000 = Vector128.Create(0, 0, 0, 0);
var _0000f = Vector128.Create(0f, 0, 0, 0);
var _255f = Vector128.Create(255f, 255, 255, 255);
var _1111 = Vector128.Create(1, 1, 1, 1);
var _1111f = Vector128.Create(1f, 1, 1, 1);
var _4444f = Vector128.Create(4f, 4, 4, 4);
var _4444 = Vector128.Create(4, 4, 4, 4);
var _5555f = Vector128.Create(5f, 5, 5, 5);
var _2222f = Vector128.Create(2f, 2, 2, 2);
var _8888f = Vector128.Create(8f, 8, 8, 8);
var _7f = Vector128.Create(0x7fffffff, 0x7fffffff, 0x7fffffff, 0x7fffffff).AsSingle();
var _ff = Vector128.Create(-1, -1, -1, -1);
var _stride = Vector128.Create(rtnImage.width * 4, rtnImage.width * 4, rtnImage.width * 4, rtnImage.width * 4);
Parallel.For(0, this.height, (y) =>
{
float py = (y * scaleY);
float *tmpPos = tmp + y * rtnImage.width * 4;
for (int x = 0; x < rtnImage.width; x++)
{
float px = (x * scaleX);
int sx = (int)px;
var _px = Vector128.CreateScalar(px);
_px = Sse.Shuffle(_px, _px, 0);
var _sx = Vector128.CreateScalar(sx);
_sx = Sse2.Shuffle(_sx, 0);
var _width = Vector128.CreateScalar(this.width);
_width = Sse2.Shuffle(_width, 0);
var _x2 = Sse2.Add(_sx, _1012);
var _d = Sse.And(Sse.Subtract(_px, Sse2.ConvertToVector128Single(_x2)), _7f);
var _d2 = Sse.Multiply(_d, _d);
var _d3 = Sse.Multiply(_d2, _d);
var w1 = Sse.Add(_1111f, Sse.Subtract(_d3, Sse.Multiply(_2222f, _d2)));
var w2 = Sse.Subtract(Sse.Subtract(Sse.Add(_4444f, Sse.Multiply(_5555f, _d2)), Sse.Multiply(_d, _8888f)), _d3);
var wb = Sse2.CompareGreaterThan(_d, _1111f);
var _w = Sse41.BlendVariable(w1, w2, wb);
var _xpb = Sse2.Or(Sse2.CompareLessThan(_x2, _0000), Sse41.MultiplyLow(Sse2.AndNot(Sse2.CompareLessThan(_x2, _width), _1111).AsInt32(), _ff));
var _xpp = Sse2.And(_sx, _xpb);
var _xp = Sse41.BlendVariable(_x2, _xpp, _xpb);
var p = Avx2.GatherVector128((uint *)(this._ptr + this._stride * y), _xp, 4).AsByte();
var _p0 = Sse2.ConvertToVector128Single(Ssse3.Shuffle(p, _00mask).AsInt32());
var _p1 = Sse2.ConvertToVector128Single(Ssse3.Shuffle(p, _01mask).AsInt32());
var _p2 = Sse2.ConvertToVector128Single(Ssse3.Shuffle(p, _10mask).AsInt32());
var _p3 = Sse2.ConvertToVector128Single(Ssse3.Shuffle(p, _11mask).AsInt32());
var _w0 = Sse.Shuffle(_w, _w, 0);
var _w1 = Sse.Shuffle(_w, _w, 0b01010101);
var _w2 = Sse.Shuffle(_w, _w, 0b10101010);
var _w3 = Sse.Shuffle(_w, _w, 0b11111111);
var rgbaf = Sse.Add(Sse.Add(Sse.Multiply(_p0, _w0), Sse.Multiply(_p1, _w1)), Sse.Add(Sse.Multiply(_p2, _w2), Sse.Multiply(_p3, _w3)));
Sse2.Store(tmpPos + x * 4, rgbaf);
}
});
Parallel.For(0, rtnImage.height, (y) =>
{
float py = (y * scaleY);
int sy = (int)py;
uint *store = stackalloc uint[4];
var _py = Vector128.CreateScalar(py);
_py = Sse.Shuffle(_py, _py, 0);
var _sy = Vector128.CreateScalar(sy);
_sy = Sse2.Shuffle(_sy, 0);
var _height = Vector128.CreateScalar(this.height);
_height = Sse2.Shuffle(_height, 0);
var _y2 = Sse2.Add(_sy, _1012);
var _d = Sse.And(Sse.Subtract(_py, Sse2.ConvertToVector128Single(_y2)), _7f);
var _d2 = Sse.Multiply(_d, _d);
var _d3 = Sse.Multiply(_d2, _d);
var w1 = Sse.Add(_1111f, Sse.Subtract(_d3, Sse.Multiply(_2222f, _d2)));
var w2 = Sse.Subtract(Sse.Subtract(Sse.Add(_4444f, Sse.Multiply(_5555f, _d2)), Sse.Multiply(_d, _8888f)), _d3);
var wb = Sse2.CompareGreaterThan(_d, _1111f);
var _w = Sse41.BlendVariable(w1, w2, wb);
var _ypb = Sse2.Or(Sse2.CompareLessThan(_y2, _0000), Sse41.MultiplyLow(Sse2.AndNot(Sse2.CompareLessThan(_y2, _height), _1111).AsInt32(), _ff));
var _ypp = Sse2.And(_sy, _ypb);
var _yp = Sse41.BlendVariable(_y2, _ypp, _ypb);
var _yps = Sse41.MultiplyLow(_yp, _stride);
var _yp0 = Sse2.Add(Sse2.Shuffle(_yps, 0), _0123i);
var _yp1 = Sse2.Add(Sse2.Shuffle(_yps, 0b01010101), _0123i);
var _yp2 = Sse2.Add(Sse2.Shuffle(_yps, 0b10101010), _0123i);
var _yp3 = Sse2.Add(Sse2.Shuffle(_yps, 0b11111111), _0123i);
uint *rtn = (uint *)(rtnImage._ptr + rtnImage._stride * y);
for (int x = 0; x < rtnImage.width; x++)
{
var _p0 = Avx2.GatherVector128((float *)(tmp), _yp0, 4);
var _p1 = Avx2.GatherVector128((float *)(tmp), _yp1, 4);
var _p2 = Avx2.GatherVector128((float *)(tmp), _yp2, 4);
var _p3 = Avx2.GatherVector128((float *)(tmp), _yp3, 4);
var _w0 = Sse.Shuffle(_w, _w, 0);
var _w1 = Sse.Shuffle(_w, _w, 0b01010101);
var _w2 = Sse.Shuffle(_w, _w, 0b10101010);
var _w3 = Sse.Shuffle(_w, _w, 0b11111111);
var rgbaf = Sse.Add(Sse.Add(Sse.Multiply(_p0, _w0), Sse.Multiply(_p1, _w1)), Sse.Add(Sse.Multiply(_p2, _w2), Sse.Multiply(_p3, _w3)));
var _b0 = Sse.CompareLessThan(rgbaf, _0000f);
rgbaf = Sse41.BlendVariable(rgbaf, _0000f, _b0);
var _b1 = Sse.CompareGreaterThan(rgbaf, _255f);
rgbaf = Sse41.BlendVariable(rgbaf, _255f, _b1);
var rgbab = Sse2.ConvertToVector128Int32(rgbaf).AsByte();
var rgba = Ssse3.Shuffle(rgbab, _vmask).AsUInt32();
Sse2.Store(store, rgba);
_yp0 = Sse2.Add(_yp0, _4444);
_yp1 = Sse2.Add(_yp1, _4444);
_yp2 = Sse2.Add(_yp2, _4444);
_yp3 = Sse2.Add(_yp3, _4444);
*rtn = *store;
rtn++;
}
});
public static unsafe void Encrypt4(uint[] rk, ReadOnlySpan <byte> source, Span <byte> destination)
{
var p32 = MemoryMarshal.Cast <byte, uint>(source);
var t3 = Vector128.Create(p32[3], p32[7], p32[11], p32[15]).ReverseEndianness32();
var t2 = Vector128.Create(p32[2], p32[6], p32[10], p32[14]).ReverseEndianness32();
var t1 = Vector128.Create(p32[1], p32[5], p32[9], p32[13]).ReverseEndianness32();
var t0 = Vector128.Create(p32[0], p32[4], p32[8], p32[12]).ReverseEndianness32();
for (var i = 0; i < 32; ++i)
{
var x = t1.Xor(t2).Xor(t3).Xor(Vector128.Create(rk[i]).AsByte());
var y = Sse2.And(x, c0f); // inner affine
y = Ssse3.Shuffle(m1l, y);
x = Sse2.ShiftRightLogical(x.AsUInt64(), 4).AsByte();
x = Sse2.And(x, c0f);
x = Ssse3.Shuffle(m1h, x).Xor(y);
x = Ssse3.Shuffle(x, shr); // inverse MixColumns
x = Aes.EncryptLast(x, c0f); // AES-NI
y = Sse2.AndNot(x, c0f); // outer affine
y = Ssse3.Shuffle(m2l, y);
x = Sse2.ShiftRightLogical(x.AsUInt64(), 4).AsByte();
x = Sse2.And(x, c0f);
x = Ssse3.Shuffle(m2h, x).Xor(y);
// 4 parallel L1 linear transforms
y = x.Xor(x.RotateLeftUInt32_8()).Xor(x.RotateLeftUInt32_16());
y = y.AsUInt32().RotateLeftUInt32(2).AsByte();
x = x.Xor(y).Xor(x.RotateLeftUInt32_24());
// rotate registers
x = x.Xor(t0);
t0 = t1;
t1 = t2;
t2 = t3;
t3 = x;
}
var a = t3.ReverseEndianness32().AsUInt32();
var b = t2.ReverseEndianness32().AsUInt32();
var c = t1.ReverseEndianness32().AsUInt32();
var d = t0.ReverseEndianness32().AsUInt32();
var x0 = Sse2.UnpackLow(a, b);
var x1 = Sse2.UnpackLow(c, d);
var x2 = Sse2.UnpackHigh(a, b);
var x3 = Sse2.UnpackHigh(c, d);
t0 = Sse2.UnpackLow(x0.AsUInt64(), x1.AsUInt64()).AsByte();
t1 = Sse2.UnpackHigh(x0.AsUInt64(), x1.AsUInt64()).AsByte();
t2 = Sse2.UnpackLow(x2.AsUInt64(), x3.AsUInt64()).AsByte();
t3 = Sse2.UnpackHigh(x2.AsUInt64(), x3.AsUInt64()).AsByte();
fixed(byte *p = destination)
{
Sse2.Store(p, t0);
Sse2.Store(p + 16, t1);
Sse2.Store(p + 32, t2);
Sse2.Store(p + 48, t3);
}
}
static unsafe int Main(string[] args)
{
int testResult = Pass;
int testsCount = 21;
string methodUnderTestName = nameof(Sse2.AndNot);
if (Sse2.IsSupported)
{
using (var doubleTable = TestTableSse2 <double> .Create(testsCount))
using (var longTable = TestTableSse2 <long> .Create(testsCount))
using (var ulongTable = TestTableSse2 <ulong> .Create(testsCount))
using (var intTable = TestTableSse2 <int> .Create(testsCount))
using (var uintTable = TestTableSse2 <uint> .Create(testsCount))
using (var shortTable = TestTableSse2 <short> .Create(testsCount))
using (var ushortTable = TestTableSse2 <ushort> .Create(testsCount))
using (var sbyteTable = TestTableSse2 <sbyte> .Create(testsCount))
using (var byteTable = TestTableSse2 <byte> .Create(testsCount))
{
for (int i = 0; i < testsCount; i++)
{
(Vector128 <double>, Vector128 <double>, Vector128 <double>)value = doubleTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
doubleTable.SetOutArray(result);
}
for (int i = 0; i < testsCount; i++)
{
(Vector128 <long>, Vector128 <long>, Vector128 <long>)value = longTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
longTable.SetOutArray(result);
}
for (int i = 0; i < testsCount; i++)
{
(Vector128 <ulong>, Vector128 <ulong>, Vector128 <ulong>)value = ulongTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
ulongTable.SetOutArray(result);
}
for (int i = 0; i < testsCount; i++)
{
(Vector128 <int>, Vector128 <int>, Vector128 <int>)value = intTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
intTable.SetOutArray(result);
}
for (int i = 0; i < testsCount; i++)
{
(Vector128 <uint>, Vector128 <uint>, Vector128 <uint>)value = uintTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
uintTable.SetOutArray(result);
}
for (int i = 0; i < testsCount; i++)
{
(Vector128 <short>, Vector128 <short>, Vector128 <short>)value = shortTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
shortTable.SetOutArray(result);
}
for (int i = 0; i < testsCount; i++)
{
(Vector128 <ushort>, Vector128 <ushort>, Vector128 <ushort>)value = ushortTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
ushortTable.SetOutArray(result);
}
for (int i = 0; i < testsCount; i++)
{
(Vector128 <sbyte>, Vector128 <sbyte>, Vector128 <sbyte>)value = sbyteTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
sbyteTable.SetOutArray(result);
}
for (int i = 0; i < testsCount; i++)
{
(Vector128 <byte>, Vector128 <byte>, Vector128 <byte>)value = byteTable[i];
var result = Sse2.AndNot(value.Item1, value.Item2);
byteTable.SetOutArray(result);
}
CheckMethod <double> checkDouble = (double x, double y, double z, ref double a) => (a = BinaryAndNot(x, y)) == z;
if (!doubleTable.CheckResult(checkDouble))
{
PrintError(doubleTable, methodUnderTestName, "(double x, double y, double z, ref double a) => (a = BinaryAndNot(x, y)) == z", checkDouble);
testResult = Fail;
}
CheckMethod <long> checkLong = (long x, long y, long z, ref long a) => (a = (~x) & y) == z;
if (!longTable.CheckResult(checkLong))
{
PrintError(longTable, methodUnderTestName, "(long x, long y, long z, ref long a) => (a = (~x) & y) == z", checkLong);
testResult = Fail;
}
CheckMethod <ulong> checkUlong = (ulong x, ulong y, ulong z, ref ulong a) => (a = (~x) & y) == z;
if (!longTable.CheckResult(checkLong))
{
PrintError(ulongTable, methodUnderTestName, "(ulong x, ulong y, ulong z, ref ulong a) => (a = (~x) & y) == z", checkUlong);
testResult = Fail;
}
CheckMethod <int> checkInt32 = (int x, int y, int z, ref int a) => (a = (~x) & y) == z;
if (!intTable.CheckResult(checkInt32))
{
PrintError(intTable, methodUnderTestName, "(int x, int y, int z, ref int a) => (a = (~x) & y) == z", checkInt32);
testResult = Fail;
}
CheckMethod <uint> checkUInt32 = (uint x, uint y, uint z, ref uint a) => (a = (~x) & y) == z;
if (!uintTable.CheckResult(checkUInt32))
{
PrintError(uintTable, methodUnderTestName, "(uint x, uint y, uint z, ref uint a) => (a = (~x) & y) == z", checkUInt32);
testResult = Fail;
}
CheckMethod <short> checkInt16 = (short x, short y, short z, ref short a) => (a = (short)((~x) & y)) == z;
if (!shortTable.CheckResult(checkInt16))
{
PrintError(shortTable, methodUnderTestName, "(short x, short y, short z, ref short a) => (a = (short)((~x) & y)) == z", checkInt16);
testResult = Fail;
}
CheckMethod <ushort> checkUInt16 = (ushort x, ushort y, ushort z, ref ushort a) => (a = (ushort)((~x) & y)) == z;
if (!ushortTable.CheckResult(checkUInt16))
{
PrintError(ushortTable, methodUnderTestName, "(ushort x, ushort y, ushort z, ref ushort a) => (a = (ushort)((~x) & y)) == z", checkUInt16);
testResult = Fail;
}
CheckMethod <sbyte> checkSByte = (sbyte x, sbyte y, sbyte z, ref sbyte a) => (a = (sbyte)((~x) & y)) == z;
if (!sbyteTable.CheckResult(checkSByte))
{
PrintError(sbyteTable, methodUnderTestName, "(sbyte x, sbyte y, sbyte z, ref sbyte a) =>(a = (sbyte)((~x) & y)) == z", checkSByte);
testResult = Fail;
}
CheckMethod <byte> checkByte = (byte x, byte y, byte z, ref byte a) => (a = (byte)((~x) & y)) == z;
if (!byteTable.CheckResult(checkByte))
{
PrintError(byteTable, methodUnderTestName, "(byte x, byte y, byte z, ref byte a) => (a = (byte)((~x) & y)) == z", checkByte);
testResult = Fail;
}
}
}
else
{
Console.WriteLine($"Sse2.IsSupported: {Sse2.IsSupported}, skipped tests of {typeof(Sse2)}.{methodUnderTestName}");
}
return(testResult);
}
public static i32 NMask_i32(i32 a, m32 m)
{
return(Sse2.AndNot(m, a));
}
public static m32 BitwiseAndNot_m32(m32 a, m32 b)
{
return(Sse2.AndNot(b, a));
}
public static i32 BitwiseAndNot_i32(i32 a, i32 b)
{
return(Sse2.AndNot(b, a));
}
