[ARMeilleure] Address dotnet-format issues (#5357)

* dotnet format style --severity info

Some changes were manually reverted.

* dotnet format analyzers --serverity info

Some changes have been minimally adapted.

* Restore a few unused methods and variables

* Silence dotnet format IDE0060 warnings

* Silence dotnet format IDE0052 warnings

* Address or silence dotnet format IDE1006 warnings

* Address or silence dotnet format CA2208 warnings

* Address dotnet format CA1822 warnings

* Address or silence dotnet format CA1069 warnings

* Silence CA1806 and CA1834 issues

* Address dotnet format CA1401 warnings

* Fix new dotnet-format issues after rebase

* Address review comments

* Address dotnet format CA2208 warnings properly

* Fix formatting for switch expressions

* Address most dotnet format whitespace warnings

* Apply dotnet format whitespace formatting

A few of them have been manually reverted and the corresponding warning was silenced

* Add previously silenced warnings back

I have no clue how these disappeared

* Revert formatting changes for OpCodeTable.cs

* Enable formatting for a few cases again

* Format if-blocks correctly

* Enable formatting for a few more cases again

* Fix inline comment alignment

* Run dotnet format after rebase and remove unused usings

- analyzers
- style
- whitespace

* Disable 'prefer switch expression' rule

* Add comments to disabled warnings

* Remove a few unused parameters

* Adjust namespaces

* Simplify properties and array initialization, Use const when possible, Remove trailing commas

* Start working on disabled warnings

* Fix and silence a few dotnet-format warnings again

* Address IDE0251 warnings

* Address a few disabled IDE0060 warnings

* Silence IDE0060 in .editorconfig

* Revert "Simplify properties and array initialization, Use const when possible, Remove trailing commas"

This reverts commit 9462e4136c0a2100dc28b20cf9542e06790aa67e.

* dotnet format whitespace after rebase

* First dotnet format pass

* Remove unnecessary formatting exclusion

* Add unsafe dotnet format changes

* Change visibility of JitSupportDarwin to internal
This commit is contained in:
TSRBerry
2023-06-26 07:25:06 +02:00
committed by GitHub
parent 2de78a2d55
commit ff53dcf560
300 changed files with 3515 additions and 3120 deletions

View File

@ -104,11 +104,11 @@ namespace ARMeilleure.CodeGen.X86
case Instruction.Tailcall:
if (callConv == CallConvName.Windows)
{
PreAllocatorWindows.InsertTailcallCopies(block.Operations, stackAlloc, node);
PreAllocatorWindows.InsertTailcallCopies(block.Operations, node);
}
else
{
PreAllocatorSystemV.InsertTailcallCopies(block.Operations, stackAlloc, node);
PreAllocatorSystemV.InsertTailcallCopies(block.Operations, node);
}
break;
@ -177,10 +177,7 @@ namespace ARMeilleure.CodeGen.X86
{
src2 = node.GetSource(1);
Operand temp = src1;
src1 = src2;
src2 = temp;
(src2, src1) = (src1, src2);
node.SetSource(0, src1);
node.SetSource(1, src2);
@ -228,151 +225,151 @@ namespace ARMeilleure.CodeGen.X86
case Instruction.CompareAndSwap:
case Instruction.CompareAndSwap16:
case Instruction.CompareAndSwap8:
{
OperandType type = node.GetSource(1).Type;
if (type == OperandType.V128)
{
// Handle the many restrictions of the compare and exchange (16 bytes) instruction:
// - The expected value should be in RDX:RAX.
// - The new value to be written should be in RCX:RBX.
// - The value at the memory location is loaded to RDX:RAX.
void SplitOperand(Operand source, Operand lr, Operand hr)
OperandType type = node.GetSource(1).Type;
if (type == OperandType.V128)
{
nodes.AddBefore(node, Operation(Instruction.VectorExtract, lr, source, Const(0)));
nodes.AddBefore(node, Operation(Instruction.VectorExtract, hr, source, Const(1)));
// Handle the many restrictions of the compare and exchange (16 bytes) instruction:
// - The expected value should be in RDX:RAX.
// - The new value to be written should be in RCX:RBX.
// - The value at the memory location is loaded to RDX:RAX.
void SplitOperand(Operand source, Operand lr, Operand hr)
{
nodes.AddBefore(node, Operation(Instruction.VectorExtract, lr, source, Const(0)));
nodes.AddBefore(node, Operation(Instruction.VectorExtract, hr, source, Const(1)));
}
Operand rax = Gpr(X86Register.Rax, OperandType.I64);
Operand rbx = Gpr(X86Register.Rbx, OperandType.I64);
Operand rcx = Gpr(X86Register.Rcx, OperandType.I64);
Operand rdx = Gpr(X86Register.Rdx, OperandType.I64);
SplitOperand(node.GetSource(1), rax, rdx);
SplitOperand(node.GetSource(2), rbx, rcx);
Operation operation = node;
node = nodes.AddAfter(node, Operation(Instruction.VectorCreateScalar, dest, rax));
nodes.AddAfter(node, Operation(Instruction.VectorInsert, dest, dest, rdx, Const(1)));
operation.SetDestinations(new Operand[] { rdx, rax });
operation.SetSources(new Operand[] { operation.GetSource(0), rdx, rax, rcx, rbx });
}
else
{
// Handle the many restrictions of the compare and exchange (32/64) instruction:
// - The expected value should be in (E/R)AX.
// - The value at the memory location is loaded to (E/R)AX.
Operand expected = node.GetSource(1);
Operand newValue = node.GetSource(2);
Operand rax = Gpr(X86Register.Rax, expected.Type);
nodes.AddBefore(node, Operation(Instruction.Copy, rax, expected));
// We need to store the new value into a temp, since it may
// be a constant, and this instruction does not support immediate operands.
Operand temp = Local(newValue.Type);
nodes.AddBefore(node, Operation(Instruction.Copy, temp, newValue));
node.SetSources(new Operand[] { node.GetSource(0), rax, temp });
nodes.AddAfter(node, Operation(Instruction.Copy, dest, rax));
node.Destination = rax;
}
Operand rax = Gpr(X86Register.Rax, OperandType.I64);
Operand rbx = Gpr(X86Register.Rbx, OperandType.I64);
Operand rcx = Gpr(X86Register.Rcx, OperandType.I64);
Operand rdx = Gpr(X86Register.Rdx, OperandType.I64);
SplitOperand(node.GetSource(1), rax, rdx);
SplitOperand(node.GetSource(2), rbx, rcx);
Operation operation = node;
node = nodes.AddAfter(node, Operation(Instruction.VectorCreateScalar, dest, rax));
nodes.AddAfter(node, Operation(Instruction.VectorInsert, dest, dest, rdx, Const(1)));
operation.SetDestinations(new Operand[] { rdx, rax });
operation.SetSources(new Operand[] { operation.GetSource(0), rdx, rax, rcx, rbx });
break;
}
else
{
// Handle the many restrictions of the compare and exchange (32/64) instruction:
// - The expected value should be in (E/R)AX.
// - The value at the memory location is loaded to (E/R)AX.
Operand expected = node.GetSource(1);
Operand newValue = node.GetSource(2);
Operand rax = Gpr(X86Register.Rax, expected.Type);
nodes.AddBefore(node, Operation(Instruction.Copy, rax, expected));
// We need to store the new value into a temp, since it may
// be a constant, and this instruction does not support immediate operands.
Operand temp = Local(newValue.Type);
nodes.AddBefore(node, Operation(Instruction.Copy, temp, newValue));
node.SetSources(new Operand[] { node.GetSource(0), rax, temp });
nodes.AddAfter(node, Operation(Instruction.Copy, dest, rax));
node.Destination = rax;
}
break;
}
case Instruction.Divide:
case Instruction.DivideUI:
{
// Handle the many restrictions of the division instructions:
// - The dividend is always in RDX:RAX.
// - The result is always in RAX.
// - Additionally it also writes the remainder in RDX.
if (dest.Type.IsInteger())
{
// Handle the many restrictions of the division instructions:
// - The dividend is always in RDX:RAX.
// - The result is always in RAX.
// - Additionally it also writes the remainder in RDX.
if (dest.Type.IsInteger())
{
Operand src1 = node.GetSource(0);
Operand rax = Gpr(X86Register.Rax, src1.Type);
Operand rdx = Gpr(X86Register.Rdx, src1.Type);
nodes.AddBefore(node, Operation(Instruction.Copy, rax, src1));
nodes.AddBefore(node, Operation(Instruction.Clobber, rdx));
nodes.AddAfter(node, Operation(Instruction.Copy, dest, rax));
node.SetSources(new Operand[] { rdx, rax, node.GetSource(1) });
node.Destination = rax;
}
break;
}
case Instruction.Extended:
{
bool isBlend = node.Intrinsic == Intrinsic.X86Blendvpd ||
node.Intrinsic == Intrinsic.X86Blendvps ||
node.Intrinsic == Intrinsic.X86Pblendvb;
// BLENDVPD, BLENDVPS, PBLENDVB last operand is always implied to be XMM0 when VEX is not supported.
// SHA256RNDS2 always has an implied XMM0 as a last operand.
if ((isBlend && !HardwareCapabilities.SupportsVexEncoding) || node.Intrinsic == Intrinsic.X86Sha256Rnds2)
{
Operand xmm0 = Xmm(X86Register.Xmm0, OperandType.V128);
nodes.AddBefore(node, Operation(Instruction.Copy, xmm0, node.GetSource(2)));
node.SetSource(2, xmm0);
}
break;
}
case Instruction.Multiply64HighSI:
case Instruction.Multiply64HighUI:
{
// Handle the many restrictions of the i64 * i64 = i128 multiply instructions:
// - The multiplicand is always in RAX.
// - The lower 64-bits of the result is always in RAX.
// - The higher 64-bits of the result is always in RDX.
Operand src1 = node.GetSource(0);
Operand rax = Gpr(X86Register.Rax, src1.Type);
Operand rdx = Gpr(X86Register.Rdx, src1.Type);
nodes.AddBefore(node, Operation(Instruction.Copy, rax, src1));
nodes.AddBefore(node, Operation(Instruction.Clobber, rdx));
nodes.AddBefore(node, Operation(Instruction.Copy, rax, src1));
nodes.AddAfter(node, Operation(Instruction.Copy, dest, rax));
node.SetSource(0, rax);
node.SetSources(new Operand[] { rdx, rax, node.GetSource(1) });
node.Destination = rax;
nodes.AddAfter(node, Operation(Instruction.Copy, dest, rdx));
node.SetDestinations(new Operand[] { rdx, rax });
break;
}
break;
}
case Instruction.Extended:
{
bool isBlend = node.Intrinsic == Intrinsic.X86Blendvpd ||
node.Intrinsic == Intrinsic.X86Blendvps ||
node.Intrinsic == Intrinsic.X86Pblendvb;
// BLENDVPD, BLENDVPS, PBLENDVB last operand is always implied to be XMM0 when VEX is not supported.
// SHA256RNDS2 always has an implied XMM0 as a last operand.
if ((isBlend && !HardwareCapabilities.SupportsVexEncoding) || node.Intrinsic == Intrinsic.X86Sha256Rnds2)
{
Operand xmm0 = Xmm(X86Register.Xmm0, OperandType.V128);
nodes.AddBefore(node, Operation(Instruction.Copy, xmm0, node.GetSource(2)));
node.SetSource(2, xmm0);
}
break;
}
case Instruction.Multiply64HighSI:
case Instruction.Multiply64HighUI:
{
// Handle the many restrictions of the i64 * i64 = i128 multiply instructions:
// - The multiplicand is always in RAX.
// - The lower 64-bits of the result is always in RAX.
// - The higher 64-bits of the result is always in RDX.
Operand src1 = node.GetSource(0);
Operand rax = Gpr(X86Register.Rax, src1.Type);
Operand rdx = Gpr(X86Register.Rdx, src1.Type);
nodes.AddBefore(node, Operation(Instruction.Copy, rax, src1));
node.SetSource(0, rax);
nodes.AddAfter(node, Operation(Instruction.Copy, dest, rdx));
node.SetDestinations(new Operand[] { rdx, rax });
break;
}
case Instruction.RotateRight:
case Instruction.ShiftLeft:
case Instruction.ShiftRightSI:
case Instruction.ShiftRightUI:
{
// The shift register is always implied to be CL (low 8-bits of RCX or ECX).
if (node.GetSource(1).Kind == OperandKind.LocalVariable)
{
Operand rcx = Gpr(X86Register.Rcx, OperandType.I32);
// The shift register is always implied to be CL (low 8-bits of RCX or ECX).
if (node.GetSource(1).Kind == OperandKind.LocalVariable)
{
Operand rcx = Gpr(X86Register.Rcx, OperandType.I32);
nodes.AddBefore(node, Operation(Instruction.Copy, rcx, node.GetSource(1)));
nodes.AddBefore(node, Operation(Instruction.Copy, rcx, node.GetSource(1)));
node.SetSource(1, rcx);
node.SetSource(1, rcx);
}
break;
}
break;
}
}
}
@ -459,7 +456,7 @@ namespace ARMeilleure.CodeGen.X86
// Unsigned integer to FP conversions are not supported on X86.
// We need to turn them into signed integer to FP conversions, and
// adjust the final result.
Operand dest = node.Destination;
Operand dest = node.Destination;
Operand source = node.GetSource(0);
Debug.Assert(source.Type.IsInteger(), $"Invalid source type \"{source.Type}\".");
@ -472,8 +469,8 @@ namespace ARMeilleure.CodeGen.X86
// and then use the 64-bits signed conversion instructions.
Operand zex = Local(OperandType.I64);
node = nodes.AddAfter(node, Operation(Instruction.ZeroExtend32, zex, source));
node = nodes.AddAfter(node, Operation(Instruction.ConvertToFP, dest, zex));
node = nodes.AddAfter(node, Operation(Instruction.ZeroExtend32, zex, source));
nodes.AddAfter(node, Operation(Instruction.ConvertToFP, dest, zex));
}
else /* if (source.Type == OperandType.I64) */
{
@ -487,15 +484,15 @@ namespace ARMeilleure.CodeGen.X86
// --- This can be done efficiently by adding the result to itself.
// -- Then, we need to add the least significant bit that was shifted out.
// --- We can convert the least significant bit to float, and add it to the result.
Operand lsb = Local(OperandType.I64);
Operand lsb = Local(OperandType.I64);
Operand half = Local(OperandType.I64);
Operand lsbF = Local(dest.Type);
node = nodes.AddAfter(node, Operation(Instruction.Copy, lsb, source));
node = nodes.AddAfter(node, Operation(Instruction.Copy, lsb, source));
node = nodes.AddAfter(node, Operation(Instruction.Copy, half, source));
node = nodes.AddAfter(node, Operation(Instruction.BitwiseAnd, lsb, lsb, Const(1L)));
node = nodes.AddAfter(node, Operation(Instruction.BitwiseAnd, lsb, lsb, Const(1L)));
node = nodes.AddAfter(node, Operation(Instruction.ShiftRightUI, half, half, Const(1)));
node = nodes.AddAfter(node, Operation(Instruction.ConvertToFP, lsbF, lsb));
@ -513,7 +510,7 @@ namespace ARMeilleure.CodeGen.X86
// There's no SSE FP negate instruction, so we need to transform that into
// a XOR of the value to be negated with a mask with the highest bit set.
// This also produces -0 for a negation of the value 0.
Operand dest = node.Destination;
Operand dest = node.Destination;
Operand source = node.GetSource(0);
Debug.Assert(dest.Type == OperandType.FP32 ||
@ -569,14 +566,14 @@ namespace ARMeilleure.CodeGen.X86
if ((index & 1) != 0)
{
node = nodes.AddAfter(node, Operation(Instruction.ZeroExtend8, temp1, temp1));
node = nodes.AddAfter(node, Operation(Instruction.ShiftLeft, temp2, temp2, Const(8)));
node = nodes.AddAfter(node, Operation(Instruction.BitwiseOr, temp1, temp1, temp2));
node = nodes.AddAfter(node, Operation(Instruction.ShiftLeft, temp2, temp2, Const(8)));
node = nodes.AddAfter(node, Operation(Instruction.BitwiseOr, temp1, temp1, temp2));
}
else
{
node = nodes.AddAfter(node, Operation(Instruction.ZeroExtend8, temp2, temp2));
node = nodes.AddAfter(node, Operation(Instruction.BitwiseAnd, temp1, temp1, Const(0xff00)));
node = nodes.AddAfter(node, Operation(Instruction.BitwiseOr, temp1, temp1, temp2));
node = nodes.AddAfter(node, Operation(Instruction.BitwiseAnd, temp1, temp1, Const(0xff00)));
node = nodes.AddAfter(node, Operation(Instruction.BitwiseOr, temp1, temp1, temp2));
}
Operation vinsOp = Operation(Instruction.VectorInsert16, dest, src1, temp1, Const(index >> 1));
@ -709,16 +706,11 @@ namespace ARMeilleure.CodeGen.X86
private static bool HasConstSrc1(Instruction inst)
{
switch (inst)
return inst switch
{
case Instruction.Copy:
case Instruction.LoadArgument:
case Instruction.Spill:
case Instruction.SpillArg:
return true;
}
return false;
Instruction.Copy or Instruction.LoadArgument or Instruction.Spill or Instruction.SpillArg => true,
_ => false,
};
}
private static bool HasConstSrc2(Instruction inst)
@ -762,15 +754,15 @@ namespace ARMeilleure.CodeGen.X86
case Instruction.BranchIf:
case Instruction.Compare:
{
Operand comp = operation.GetSource(2);
{
Operand comp = operation.GetSource(2);
Debug.Assert(comp.Kind == OperandKind.Constant);
Debug.Assert(comp.Kind == OperandKind.Constant);
var compType = (Comparison)comp.AsInt32();
var compType = (Comparison)comp.AsInt32();
return compType == Comparison.Equal || compType == Comparison.NotEqual;
}
return compType == Comparison.Equal || compType == Comparison.NotEqual;
}
}
return false;
@ -793,4 +785,4 @@ namespace ARMeilleure.CodeGen.X86
return info.Type != IntrinsicType.Crc32;
}
}
}
}