public void GetAndSet()
{
var rs = new RegisterSet(Pow(2, 4));
rs.Set(0, 11);
Assert.That(rs.Get(0), Is.EqualTo(11));
}
public void GetAndSet_WithSmallBits()
{
var rs = new RegisterSet(6);
rs.Set(0, 11);
Assert.That(rs.Get(0), Is.EqualTo(11));
}
public Ps1InstructionSet(RegisterSet gprRs, RegisterSet cop0Rs, RegisterSet cop2cRs, RegisterSet cop2dRs)
: base(gprRs)
{
this.cop0Rs = cop0Rs;
this.cop2cRs = cop2cRs;
this.cop2dRs = cop2dRs;
}
public void MergeUsingUpdate()
{
const int count = 32;
var rand = new Random(2);
var rs = new RegisterSet(count);
var rss = new RegisterSet[5];
for (var i = 0; i < rss.Length; ++i)
{
rss[i] = new RegisterSet(count);
for (uint pos = 0; pos < rs.Count; ++pos)
{
var val = (uint)rand.Next(10);
rs.UpdateIfGreater(pos, val);
rss[i].Set(pos, val);
}
}
var merged = new RegisterSet(count);
foreach (var t in rss)
{
for (uint pos = 0; pos < rs.Count; pos++)
{
merged.UpdateIfGreater(pos, t.Get(pos));
}
}
for (uint pos = 0; pos < rs.Count; pos++)
{
Assert.That(merged.Get(pos), Is.EqualTo(rs.Get(pos)));
}
}
private ConstantDeclaration ReadConstantDeclaration(BinaryReader ctabReader)
{
var ctabStream = ctabReader.BaseStream;
// D3DXSHADER_CONSTANTINFO
int nameOffset = ctabReader.ReadInt32();
RegisterSet registerSet = (RegisterSet)ctabReader.ReadInt16();
short registerIndex = ctabReader.ReadInt16();
short registerCount = ctabReader.ReadInt16();
ctabStream.Position += sizeof(short); // Reserved
int typeInfoOffset = ctabReader.ReadInt32();
int defaultValueOffset = ctabReader.ReadInt32();
System.Diagnostics.Debug.Assert(defaultValueOffset == 0);
ctabStream.Position = nameOffset;
string name = ReadStringNullTerminated(ctabStream);
// D3DXSHADER_TYPEINFO
ctabStream.Position = typeInfoOffset;
ParameterClass cl = (ParameterClass)ctabReader.ReadInt16();
ParameterType type = (ParameterType)ctabReader.ReadInt16();
short rows = ctabReader.ReadInt16();
short columns = ctabReader.ReadInt16();
short numElements = ctabReader.ReadInt16();
short numStructMembers = ctabReader.ReadInt16();
int structMemberInfoOffset = ctabReader.ReadInt32();
//System.Diagnostics.Debug.Assert(numElements == 1);
System.Diagnostics.Debug.Assert(structMemberInfoOffset == 0);
return(new ConstantDeclaration(name, registerSet, registerIndex, registerCount, cl, type, rows, columns));
}
public static Instruction CreateBinaryInstruction(
string mnemonic, OperationNode op, int exUnit,
ValueNode vres, RegisterSet vresRegs,
ValueNode v1, RegisterSet v1Regs,
ValueNode v2, RegisterSet v2Regs)
{
InstructionPattern ip = new InstructionPattern();
ip.AddNode(op);
ip.AddNode(vres);
ip.AddNode(v1);
ip.AddNode(v2);
ip.AddEdge(op, vres);
ip.AddEdge(v1, op);
ip.AddEdge(v2, op);
ip.OperandValues.Add(v1);
ip.OperandValues.Add(v2);
ip.ResultValue = vres;
Instruction i = new Instruction(mnemonic, ip);
i.ExecutionUnit = exUnit;
i.ResultRegisters = vresRegs;
i.OperandsRegisters[0] = v1Regs;
i.OperandsRegisters[1] = v2Regs;
return i;
}
private void ProcessConstants(IShaderDom shader)
{
RegisterSet registers = asm.CommonRegisters;
for (int i = 0; i < registers.RegisterCount; i++)
{
Register reg = registers.GetRegister(i);
if (reg.Category == RegisterCategory.Float4 ||
reg.Category == RegisterCategory.Boolean)
{
if (reg.Semantic == null)
{
this.attributeNames.Add(reg.Name);
}
else
{
ExtractSemantic(shader, reg);
}
}
else if (reg.Semantic != null && reg.Category != RegisterCategory.Texture)
{
throw new CompileException(string.Format("Error parsing semantic for '{1} {0}'. Semantic bound types may only be processed as Float4 or Texture registers", reg.Name, reg.Type));
}
}
}
public void GetAndSet_AllPositions()
{
var rs = new RegisterSet(Pow(2, 4));
for (uint i = 0; i < Pow(2, 4); ++i)
{
rs.Set(i, i % 31);
Assert.That(rs.Get(i), Is.EqualTo(i % 31));
}
}
public ConstantDeclaration(string name, RegisterSet registerSet, short registerIndex, short registerCount,
ParameterClass parameterClass, ParameterType parameterType, int rows, int columns, int elements, List <float> defaultValue)
{
Name = name;
RegisterSet = registerSet;
RegisterIndex = registerIndex;
RegisterCount = registerCount;
ParameterClass = parameterClass;
ParameterType = parameterType;
Rows = rows;
Columns = columns;
Elements = elements;
DefaultValue = defaultValue;
}
private int MaxSamplers(RegisterSet set)
{
int maxSampler = 0;
for (int i = 0; i < set.RegisterCount; i++)
{
Register reg = set.GetRegister(i);
if (reg.Category == RegisterCategory.Sampler)
{
maxSampler = Math.Max(reg.Index, maxSampler);
}
}
return(maxSampler);
}
public void Merge(RegisterSet other)
{
for (var bucket = 0; bucket < M.Length; ++bucket)
{
uint word = 0;
for (var j = 0; j < Log2BitsPerWord; ++j)
{
uint mask = 0x1Fu << (RegisterSize * j);
uint thisVal = M[bucket] & mask;
uint otherVal = other.M[bucket] & mask;
word |= (thisVal < otherVal) ? otherVal : thisVal;
}
M[bucket] = word;
}
}
public void Get_The_Current_Frame_Correctly()
{
// arrange
var engBuilder = new DebugEngineProxyBuilder();
engBuilder.WithExecuteResult("!positions", @">Thread ID=0x7590 - Position: 168CC:0
Thread ID=0x12A0 - Position: 211F5:0
Thread ID=0x6CDC - Position: 21D59:0
Thread ID=0x2984 - Position: 21DFE:0
Thread ID=0x3484 - Position: 21ECA:0
Thread ID=0x60B4 - Position: 2414F:0
Thread ID=0x1F54 - Position: 241DE:0
");
engBuilder.With32Bit(false);
engBuilder.WithThreadId(0x7590);
var stackBuilder = new StackFacadeBuilder();
var stackTrace = new StackTrace(new List <StackFrame>());
stackBuilder.WithGetCurrentStackTrace(stackTrace);
var registerSet = new RegisterSet();
var registerBuilder = new RegisterFacadeBuilder();
registerBuilder.WithGetCurrentRegisterSet(Register.All, registerSet);
var disassemblyLine = new DisassemblyLine(0x00007ffa51315595, ByteArrayBuilder.StringToByteArray("4d3bd1"),
"cmp", "r10,r9");
var disBuilder = new DisassemblyFacadeBuilder();
disBuilder.WithGetDisassemblyLines(1, new[] { disassemblyLine });
var facade = new TimeTravelFacade
{
DebugEngineProxy = engBuilder.Build(),
StackFacade = stackBuilder.Build(),
RegisterFacade = registerBuilder.Build(),
DisassemblyFacade = disBuilder.Build()
};
// act
var frame = facade.GetCurrentFrame();
// assert
frame.Position.Should().Be(new Position(0x168CC, 0));
frame.DisassemblyLine.Should().Be(disassemblyLine);
frame.RegisterSet.Should().Be(registerSet);
frame.StackTrace.Should().Be(stackTrace);
frame.ThreadId.Should().Be(0x7590);
}
protected void CreateAddressIncInstructions(IList mi, int eu)
{
for (int i = 0; i < AR.Count; i++) {
RegisterSet rs = new RegisterSet();
rs.Add(AR[i]);
mi.Add(Utilities.CreateBinaryRightConstantInstruction(
"$0++",
new ConstOperationNode(), new AddOperationNode(), eu,
new AddressRegisterNode(), rs,
new AddressRegisterNode(), rs,
new IntConstantNode(4), null));
}
}
public ConstantDeclaration(string name, RegisterSet registerSet, short registerIndex, short registerCount,
ParameterClass parameterClass, ParameterType parameterType, int rows, int columns, int elements, List <float> defaultValue)
{
Name = name;
RegisterSet = registerSet;
RegisterIndex = (ushort)registerIndex;
RegisterCount = (ushort)registerCount;
Type = new ConstantType()
{
ParameterClass = parameterClass,
ParameterType = parameterType,
Rows = (uint)rows,
Columns = (uint)columns,
Elements = (uint)elements,
};
DefaultValue = defaultValue;
}
private ConstantDeclaration ReadConstantDeclaration(BinaryReader ctabReader)
{
var ctabStream = ctabReader.BaseStream;
// D3DXSHADER_CONSTANTINFO
int nameOffset = ctabReader.ReadInt32();
RegisterSet registerSet = (RegisterSet)ctabReader.ReadInt16();
short registerIndex = ctabReader.ReadInt16();
short registerCount = ctabReader.ReadInt16();
ctabStream.Position += sizeof(short); // Reserved
int typeInfoOffset = ctabReader.ReadInt32();
int defaultValueOffset = ctabReader.ReadInt32();
List <float> defaultValue = new List <float>();;
ctabStream.Position = nameOffset;
string name = ReadStringNullTerminated(ctabStream);
if (defaultValueOffset != 0)
{
//Note: thre are corrisponding def instructions. TODO: check that they are the same
ctabStream.Position = defaultValueOffset;
for (int i = 0; i < 4; i++)
{
defaultValue.Add(ctabReader.ReadSingle());
}
}
// D3DXSHADER_TYPEINFO
ctabStream.Position = typeInfoOffset;
ParameterClass cl = (ParameterClass)ctabReader.ReadInt16();
ParameterType type = (ParameterType)ctabReader.ReadInt16();
short rows = ctabReader.ReadInt16();
short columns = ctabReader.ReadInt16();
short numElements = ctabReader.ReadInt16();
short numStructMembers = ctabReader.ReadInt16();
int structMemberInfoOffset = ctabReader.ReadInt32();
//System.Diagnostics.Debug.Assert(numElements == 1);
System.Diagnostics.Debug.Assert(structMemberInfoOffset == 0);
return(new ConstantDeclaration(name, registerSet, registerIndex, registerCount, cl, type, rows, columns, numElements, defaultValue));
}
public static Instruction CreateLeftTernaryInstruction(
string mnemonic, OperationNode op1, OperationNode op2, int exUnit,
ValueNode vres, RegisterSet vresRegs,
ValueNode v1, RegisterSet v1Regs,
ValueNode v2, RegisterSet v2Regs,
ValueNode v3, RegisterSet v3Regs)
{
InstructionPattern ip = new InstructionPattern();
ip.AddNode(op1);
ip.AddNode(op2);
ip.AddNode(vres);
ip.AddNode(v1);
ip.AddNode(v2);
ip.AddNode(v3);
ValueNode iv1 = new RegisterValueNode(v1.Datatype);
ip.AddNode(iv1);
ip.AddEdge(v1, op1);
ip.AddEdge(v2, op1);
ip.AddEdge(op1, iv1);
ip.AddEdge(iv1, op2);
ip.AddEdge(v3, op2);
ip.AddEdge(op2, vres);
ip.OperandValues.Add(v1);
ip.OperandValues.Add(v2);
ip.OperandValues.Add(v3);
ip.ResultValue = vres;
Instruction i = new Instruction(mnemonic, ip);
i.ExecutionUnit = exUnit;
i.ResultRegisters = vresRegs;
i.OperandsRegisters[0] = v1Regs;
i.OperandsRegisters[1] = v2Regs;
i.OperandsRegisters[2] = v3Regs;
return i;
}
public static string GetDescription(this RegisterSet value)
{
switch (value)
{
case RegisterSet.Bool:
return("b");
case RegisterSet.Float4:
return("c");
case RegisterSet.Int4:
return("i");
case RegisterSet.Sampler:
return("s");
default:
throw new InvalidOperationException();
}
}
#pragma warning disable IDE1006 // Naming Styles
static void Main(string[] args)
#pragma warning restore IDE1006 // Naming Styles
{
Oscillator.InitClock();
Oscillator.Tick += on_tick;
RegisterSet regs = new RegisterSet();
BusInterfaceUnit biu = new BusInterfaceUnit(regs);
biu.SetMemory(0, 0b11000111);
biu.SetMemory(1, 0b00000110);
biu.SetMemory(2, 0x00);
biu.SetMemory(3, 0x10);
biu.SetMemory(4, 0x30);
biu.SetMemory(5, 0x40);
biu.WatchTicks();
ExecutionUnit test = new ExecutionUnit(regs, biu);
while (ticks < 40)
{
}
}
public void Execute(IMemory mem, RegisterSet registerSet)
{
if (errorWhileParsing) return;
if (!useRegister)
{
registerSet.Accu += registerSet.GetRegisterVal(register);
return;
}
registerSet.Accu += value;
return;
}
protected void CreateMachineRegisters()
{
GR = new RegisterSet();
AR = new RegisterSet();
for (int i = 0; i < 8; i++) {
GR.Add(new Register("GR" + i, Datatype.FloatValue));
AR.Add(new Register("AR" + i, Datatype.AddressValue));
}
machineRegisters = new ArrayList();
foreach (Register r in GR.Registers)
machineRegisters.Add(r);
foreach (Register r in AR.Registers)
machineRegisters.Add(r);
}
private void ShowRegisters( RegisterSet set )
{
CoreState state = this.Debugger.Host.CpuHook.GetCoreState( 0 );
this.pcTextBox.Text = string.Format( "0x{0:X8}", state.ProgramCounter );
if( this.CurrentRegisterSet != set )
{
this.CurrentRegisterSet = set;
switch( set )
{
case RegisterSet.Gpr:
this.registerToggleToolStripSplitButton.Text = "GPR";
break;
case RegisterSet.Fpu:
this.registerToggleToolStripSplitButton.Text = "FPU";
break;
case RegisterSet.Vfpu:
this.registerToggleToolStripSplitButton.Text = "VFPU";
break;
}
}
RegisterBank bank;
switch( set )
{
default:
case RegisterSet.Gpr:
bank = RegisterBanks.General;
break;
case RegisterSet.Fpu:
bank = RegisterBanks.Fpu;
break;
case RegisterSet.Vfpu:
bank = RegisterBanks.Vfpu;
break;
}
this.registersListView.BeginUpdate();
this.registersListView.Items.Clear();
foreach( Register register in bank.Registers )
{
string prettyValue = string.Empty;
string rawValue = string.Empty;
switch( set )
{
case RegisterSet.Gpr:
uint uv = this.Debugger.Host.CpuHook.GetRegister<uint>( set, register.Ordinal );
prettyValue = uv.ToString();
rawValue = string.Format( "{0:X8}", uv );
break;
case RegisterSet.Fpu:
case RegisterSet.Vfpu:
float fv = this.Debugger.Host.CpuHook.GetRegister<float>( set, register.Ordinal );
prettyValue = fv.ToString();
break;
}
ListViewItem item = new ListViewItem( new string[]{
register.ToString(), prettyValue, rawValue,
} );
this.registersListView.Items.Add( item );
}
this.registersListView.EndUpdate();
}
public void Execute(IMemory mem, RegisterSet registerSet)
{
if (errorWhileParsing) return;
registerSet.SetRegisterVal(registerNr, value);
}
public RegisterBank( string name, RegisterSet set, Register[] registers )
{
this.Name = name;
this.Set = set;
this.Registers = registers;
foreach( Register register in registers )
register.Bank = this;
}
private void CreateConstantSetters(IShaderDom shader, Action <CodeTypeMember, string> add, string name, CodeExpression assignmentField, CodeExpression assignmentArrayField)
{
/*
* Something like:
*
* public void SetInvTargetSize(ref Microsoft.Xna.Framework.Vector2 value)
* {
* this.vreg.SetVector2(130, ref value);
* }
*
* public Microsoft.Xna.Framework.Vector2 InvTargetSize
* {
* set
* {
* this.SetInvTargetSize(ref value);
* }
* }*/
Register reg;
Type dataType;
bool hasSetMethod;
int stride;
if (!ExtractRegType(name, out reg, out dataType, out hasSetMethod, out stride))
{
return;
}
Type arrayOrSingleType = dataType;
//right...
//create the method of the given type.
//public void SetInvTargetSize(ref Microsoft.Xna.Framework.Vector2 value)
CodeStatementCollection methodStatements = new CodeStatementCollection();
CodeParameterDeclarationExpression param = new CodeParameterDeclarationExpression(dataType, "value");
if (reg.ArraySize == -1)
{
param.Direction = FieldDirection.Ref;
}
else
{
arrayOrSingleType = dataType.MakeArrayType();
param.Type = new CodeTypeReference(arrayOrSingleType);
}
CodeExpression valueRef = new CodeArgumentReferenceExpression(param.Name);
//when there isn't a set method, there is just a set property
if (!hasSetMethod)
{
valueRef = new CodePropertySetValueReferenceExpression();
}
//create the guts
//depends on what constants use it...
//eg:
//this.vreg.SetVector2(130, ref value);
Register sreg;
if (dataType == typeof(bool))
{
//special case for booleans, assign the array directly.
//looks like:
//
// if (preg_bool[index] != value)
// {
// preg_bool[index] = value;
// preg_bool_changed = true;
// }
foreach (KeyValuePair <AsmListing, CodeExpression> listing in listingRegisters)
{
RegisterSet registers = listing.Key.RegisterSet;
CodeExpression registersRef = listing.Value;
if (registers.TryGetRegister(name, out sreg))
{
if (listing.Key == asm.PixelShader)
{
CodeExpression arrayIndex = new CodeArrayIndexerExpression(shader.PixelShaderBooleanRegistersRef, new CodePrimitiveExpression(sreg.Index));
CodeStatement assign = new CodeAssignStatement(arrayIndex, new CodePropertySetValueReferenceExpression());
CodeStatement change = new CodeAssignStatement(shader.PixelShaderBooleanRegistersChangedRef, new CodePrimitiveExpression(true));
CodeStatement condition = new CodeConditionStatement(
new CodeBinaryOperatorExpression(arrayIndex, CodeBinaryOperatorType.IdentityInequality, new CodePropertySetValueReferenceExpression()),
new CodeStatement[] { assign, change });
methodStatements.Add(condition);
}
if (listing.Key == asm.VertexShader)
{
CodeExpression arrayIndex = new CodeArrayIndexerExpression(shader.VertexShaderBooleanRegistersRef, new CodePrimitiveExpression(sreg.Index));
CodeStatement assign = new CodeAssignStatement(arrayIndex, new CodePropertySetValueReferenceExpression());
CodeStatement change = new CodeAssignStatement(shader.VertexShaderBooleanRegistersChangedRef, new CodePrimitiveExpression(true));
CodeStatement condition = new CodeConditionStatement(
new CodeBinaryOperatorExpression(arrayIndex, CodeBinaryOperatorType.IdentityInequality, new CodePropertySetValueReferenceExpression()),
new CodeStatement[] { assign, change });
methodStatements.Add(condition);
}
}
}
}
else
{
string targetName = "Set" + dataType.Name;
if (dataType == typeof(Matrix))
{
targetName += stride;
targetName += "Transpose";
}
if (reg.ArraySize == -1)
{
//not an array..
foreach (KeyValuePair <AsmListing, CodeExpression> listing in listingRegisters)
{
RegisterSet registers = listing.Key.RegisterSet;
CodeExpression registersRef = listing.Value;
if (registers.TryGetRegister(name, out sreg))
{
//set the regiser (eg, may be vertex shader register)
CodeExpression methodInvoke =
new CodeMethodInvokeExpression(registersRef, targetName,
new CodePrimitiveExpression(sreg.Index),
new CodeDirectionExpression(FieldDirection.Ref, valueRef));
methodStatements.Add(shader.ETS(methodInvoke));
}
}
}
else
{
//is an array...
//simply call SetArray on the array object.
CodeExpression methodInvoke =
new CodeMethodInvokeExpression(assignmentArrayField, "SetArray",
valueRef);
methodStatements.Add(shader.ETS(methodInvoke));
}
}
string upperName = Common.ToUpper(name);
//there is always a setable property
CodeMemberProperty property = new CodeMemberProperty();
property.Name = upperName;
property.Type = param.Type;
property.Attributes = MemberAttributes.Final | MemberAttributes.Public;
property.HasSet = reg.ArraySize == -1;
property.HasGet = reg.ArraySize != -1;
//there isn't always a set method
CodeMemberMethod method = null;
CodeStatement assignAttribute = null;
if (hasSetMethod || reg.ArraySize != -1)
{
//create the method to set the value
string methodName = "Set" + upperName;
method = new CodeMemberMethod();
method.Name = methodName;
method.Attributes = MemberAttributes.Final | MemberAttributes.Public;
method.Parameters.Add(param);
method.Statements.AddRange(methodStatements);
//create a property that calls the Set method if not an array, get method if it is an array
if (reg.ArraySize == -1)
{
//is not an array
CodeExpression invokeSetter =
new CodeMethodInvokeExpression(
shader.Instance, method.Name,
new CodeDirectionExpression(FieldDirection.Ref, new CodePropertySetValueReferenceExpression()));
property.SetStatements.Add(invokeSetter);
}
else
{
//is an array, return the array object directly.
property.GetStatements.Add(new CodeMethodReturnStatement(assignmentArrayField));
//set the type of the property to IArray<float>, etc
Type interfaceType = typeof(Xen.Graphics.ShaderSystem.Constants.IArray <float>).GetGenericTypeDefinition();
interfaceType = interfaceType.MakeGenericType(dataType);
property.Type = new CodeTypeReference(interfaceType);
}
//call the method as well for attribute assign
CodeExpression assignSetter =
new CodeMethodInvokeExpression(
shader.Instance, method.Name,
new CodeDirectionExpression(param.Direction, shader.AttributeAssignValue));
assignAttribute = shader.ETS(assignSetter);
}
else
{
//create a property to directly set the value
property.SetStatements.AddRange(methodStatements);
//attribute assign sets the property
assignAttribute = new CodeAssignStatement(
new CodePropertyReferenceExpression(shader.Instance, property.Name),
shader.AttributeAssignValue);
}
if (reg.ArraySize > 0)
{
if (method != null)
{
add(method, string.Format("Set the shader array value '{0} {1}[{2}]'", reg.Type, reg.Name, reg.ArraySize));
}
add(property, string.Format("Get the array for the shader value '{0} {1}[{2}]'", reg.Type, reg.Name, reg.ArraySize));
}
else
{
if (method != null)
{
add(method, string.Format("Set the shader value '{0} {1}'", reg.Type, reg.Name));
}
add(property, string.Format("Assign the shader value '{0} {1}'", reg.Type, reg.Name));
}
//create the attribute assignment value statement.
List <CodeStatement> assignList;
if (!attributeAssignment.TryGetValue(arrayOrSingleType, out assignList))
{
assignList = new List <CodeStatement>();
attributeAssignment.Add(arrayOrSingleType, assignList);
}
//create the statement...
CodeExpression assignIdsMatch =
new CodeBinaryOperatorExpression(shader.AttributeAssignId, CodeBinaryOperatorType.IdentityEquality, assignmentField);
CodeConditionStatement performAssign =
new CodeConditionStatement(assignIdsMatch,
assignAttribute, //call the assignment code
new CodeMethodReturnStatement(new CodePrimitiveExpression(true))); //return true, set correctly.
assignList.Add(performAssign);
}
public override void AddConstructor(IShaderDom shader, Action <CodeStatement> add)
{
//set the semantic change IDs to -1
foreach (SemanticMapping mapping in semanticMapping)
{
for (int i = 0; i < mapping.ChangeRefs.Length; i++)
{
CodeAssignStatement assign = new CodeAssignStatement(mapping.ChangeRefs[i], new CodePrimitiveExpression(-1));
add(assign);
}
}
//init the array attributes
for (int i = 0; i < attributeNames.Count; i++)
{
//if it's an array, it needs an array object...
Register reg;
Type dataType;
if (ExtractRegType(attributeNames[i], out reg, out dataType) && reg.ArraySize != -1)
{
//things get a bit funky here.
//if the array is used by more than one register set, it must be wrapped up in a 'DualArray'
//so a call to 'SetValue' on the array gets passed to both copies.
//This can occur if both the vertex and pixel shader access a constant array, or a preshader, etc.
Type dualType = typeof(Xen.Graphics.ShaderSystem.Constants.DualArray <float>).GetGenericTypeDefinition();
dualType = dualType.MakeGenericType(dataType);
//this.attributeArrayFields[i].FieldName
CodeExpression initExpression = null;
Type arrayType = GetArrayType(reg);
foreach (KeyValuePair <AsmListing, CodeExpression> listing in listingRegisters)
{
Register sreg;
RegisterSet registers = listing.Key.RegisterSet;
CodeExpression registersRef = listing.Value;
if (registers.TryGetRegister(reg.Name, out sreg))
{
CodeExpression create;
create = new CodeObjectCreateExpression(arrayType,
registersRef, //vreg
new CodePrimitiveExpression(sreg.Index),
new CodePrimitiveExpression(sreg.Size));
if (initExpression == null)
{
initExpression = create;
}
else
{
//darn. wrap in a dual array.
initExpression = new CodeObjectCreateExpression(
dualType,
create, initExpression);
}
}
}
CodeAssignStatement assign = new CodeAssignStatement(this.attributeArrayFields[i], initExpression);
add(assign);
}
}
//set the global change IDs to -1 (unless it's an array)...
foreach (GlobalAttribute global in globals)
{
int changeRefIndex = 0;
foreach (KeyValuePair <AsmListing, CodeExpression> listing in listingRegisters)
{
Register sreg;
RegisterSet registers = listing.Key.RegisterSet;
CodeExpression registersRef = listing.Value;
if (registers.TryGetRegister(global.Register.Name, out sreg) && sreg.Category != RegisterCategory.Boolean)
{
CodeAssignStatement assign = new CodeAssignStatement(global.ChangeRefs[changeRefIndex], new CodePrimitiveExpression(-1));
add(assign);
//arrays require the array wrapper to be initalised
if (global.Register.ArraySize != -1)
{
//arrays are stored differently.. eg as IArray<Matrix>
//eg:
//new Xen.Graphics.ShaderSystem.Constants.Matrix4Array(this.vreg, 217, 4);
Type arrayType = GetArrayType(global.Register);
CodeExpression create;
create = new CodeObjectCreateExpression(arrayType,
registersRef, //vreg
new CodePrimitiveExpression(sreg.Index),
new CodePrimitiveExpression(sreg.Size));
assign = new CodeAssignStatement(global.ArrayRefs[changeRefIndex], create);
add(assign);
}
changeRefIndex++;
}
}
}
}
public override void AddBind(IShaderDom shader, Action <CodeStatement, string> add)
{
//bind the semantics bound attributes
foreach (SemanticMapping mapping in semanticMapping)
{
//eg:
//state.SetWorldMatrix(this.vreg.Matrix4Transpose(8), ref this.v_8);
string method = string.Format("Set{0}{1}", mapping.Type.Mapping, mapping.Type.Type.Name);
bool transpose = mapping.Type.Transpose ^ (mapping.Type.Type == typeof(Matrix));
string registerTypeName = mapping.Type.Type.Name;
if (mapping.Type.Type == typeof(Matrix))
{
registerTypeName += (int)mapping.Register.Rank;
}
if (transpose)
{
registerTypeName += "Transpose";
}
//for each register set, see if it uses this mapping
int changeRefIndex = 0;
foreach (KeyValuePair <AsmListing, CodeExpression> listing in listingRegisters)
{
Register sreg;
RegisterSet registers = listing.Key.RegisterSet;
CodeExpression registersRef = listing.Value;
if (registers.TryGetRegister(mapping.Register.Name, out sreg))
{
//it does.. so the constants need setting..
//state.SetWorldMatrix(this.vreg.Matrix4Transpose(8), ref this.v_8);
CodeExpression changeRef = new CodeDirectionExpression(FieldDirection.Ref, mapping.ChangeRefs[changeRefIndex]);
CodeExpression getRegister = //this.vreg.Matrix4Transpose(8)
new CodeMethodInvokeExpression(registersRef, registerTypeName, new CodePrimitiveExpression(sreg.Index));
//invoke
CodeExpression invokeSet =
new CodeMethodInvokeExpression(shader.ShaderSystemRef, method, getRegister, changeRef);
add(shader.ETS(invokeSet), changeRefIndex != 0 ? null : string.Format("Set the value for attribute '{0}'", mapping.Register.Name));
changeRefIndex++;
}
}
}
//bind the shader globals
foreach (GlobalAttribute global in globals)
{
string registerTypeName = global.Type.Name;
if (global.Type == typeof(Matrix))
{
registerTypeName += (int)global.Register.Rank;
registerTypeName += "Transpose";
}
int changeRefIndex = 0;
foreach (KeyValuePair <AsmListing, CodeExpression> listing in listingRegisters)
{
Register sreg;
RegisterSet registers = listing.Key.RegisterSet;
CodeExpression registersRef = listing.Value;
if (registers.TryGetRegister(global.Register.Name, out sreg))
{
//special case the booleans, as they have different logic to set globally.
if (sreg.Category == RegisterCategory.Boolean)
{
if (global.Register.ArraySize != -1)
{
throw new CompileException("'GLOBAL' Boolean Arrays are not supported");
}
//this is a bit of a hack :-/
//need to figure out if this is a vertex or pixel boolean constant.
if (listing.Key == asm.VertexShader)
{
add(shader.ETS(
new CodeMethodInvokeExpression(shader.ShaderSystemRef, "SetGlobal", shader.VertexShaderBooleanRegistersRef, new CodePrimitiveExpression(sreg.Index), global.GlobalIdRef, new CodeDirectionExpression(FieldDirection.Ref, shader.VertexShaderBooleanRegistersChangedRef))),
string.Format("Set the value for global 'bool {0}'", global.Register.Name));
}
if (listing.Key == asm.PixelShader)
{
add(shader.ETS(
new CodeMethodInvokeExpression(shader.ShaderSystemRef, "SetGlobal", shader.PixelShaderBooleanRegistersRef, new CodePrimitiveExpression(sreg.Index), global.GlobalIdRef, new CodeDirectionExpression(FieldDirection.Ref, shader.PixelShaderBooleanRegistersChangedRef))),
string.Format("Set the value for global 'bool {0}'", global.Register.Name));
}
}
else
{
//eg:
//state.SetGlobal(this.vreg.Matrix4Transpose(8), ShadowShaderBlend.g_id0, ref this.g_0);
CodeExpression getRegister = //this.vreg.Matrix4Transpose(8)
new CodeMethodInvokeExpression(registersRef, registerTypeName, new CodePrimitiveExpression(sreg.Index));
CodeExpression changeParam = new CodeDirectionExpression(FieldDirection.Ref, global.ChangeRefs[changeRefIndex]);
CodeExpression invokeSet;
//logic changes for arrays
if (global.Register.ArraySize != -1)
{
invokeSet =
new CodeMethodInvokeExpression(shader.ShaderSystemRef, "SetGlobal", global.ArrayRefs[changeRefIndex], global.GlobalIdRef, changeParam);
//state.SetGlobal(this.ga0, ShadowShaderBlend.g_id0, ref this.g_0);
}
else
{
//state.SetGlobal(this.vreg.Matrix4Transpose(8), ShadowShaderBlend.g_id0, ref this.g_0);
invokeSet =
new CodeMethodInvokeExpression(shader.ShaderSystemRef, "SetGlobal", getRegister, global.GlobalIdRef, changeParam);
}
add(shader.ETS(invokeSet), changeRefIndex != 0 ? null : string.Format("Set the value for global '{0}'", global.Register.Name));
changeRefIndex++;
}
}
}
}
}
//pull a semantic bound register
private void ExtractSemantic(IShaderDom shader, Register reg)
{
string semantic = reg.Semantic;
Type dataType = null;
switch (reg.Rank)
{
case RegisterRank.FloatNx1:
{
switch (reg.Type)
{
case "float":
case "float1": //?
dataType = typeof(Single);
break;
case "float2":
dataType = typeof(Vector2);
break;
case "float3":
dataType = typeof(Vector3);
break;
case "float4":
dataType = typeof(Vector4);
break;
}
}
break;
case RegisterRank.FloatNx2:
case RegisterRank.FloatNx3:
case RegisterRank.FloatNx4:
dataType = typeof(Matrix);
break;
case RegisterRank.IntNx1:
case RegisterRank.IntNx2:
case RegisterRank.IntNx3:
case RegisterRank.IntNx4:
{
//ints are almost always mapped to floats for semantic bound types (EG vertex count)
//since the register category has been validated to Float4, this is the case here
switch (reg.Type)
{
case "int":
case "int1": //?
dataType = typeof(Single);
break;
case "int2":
dataType = typeof(Vector2);
break;
case "int3":
dataType = typeof(Vector3);
break;
case "int4":
dataType = typeof(Vector4);
break;
}
}
break;
case RegisterRank.Bool:
dataType = typeof(Single);
break;
}
if (reg.Category == RegisterCategory.Boolean)
{
dataType = typeof(bool);
}
if (semantic.Length == 6 && semantic.Equals("global", StringComparison.InvariantCultureIgnoreCase))
{
//special case global value.
if (dataType == null)
{
throw new CompileException(string.Format("Error parsing semantic for '{0}'. Global values of type '{1}' are not supported.", reg.Name, reg.Type));
}
GlobalAttribute global = new GlobalAttribute();
global.Register = reg;
global.Type = dataType;
global.GlobalIdRef = new CodeFieldReferenceExpression(shader.ShaderClassEx, string.Format("gid{0}", globals.Count));
List <CodeFieldReferenceExpression> globalRefs = new List <CodeFieldReferenceExpression>();
List <CodeFieldReferenceExpression> arrayRefs = new List <CodeFieldReferenceExpression>();
foreach (KeyValuePair <AsmListing, CodeExpression> listing in listingRegisters)
{
Register sreg;
RegisterSet registers = listing.Key.RegisterSet;
CodeExpression registersRef = listing.Value;
if (registers.TryGetRegister(reg.Name, out sreg))
{
if (sreg.Category != RegisterCategory.Boolean)
{
string refId = string.Format("gc{0}", globalRefCount);
globalRefs.Add(new CodeFieldReferenceExpression(shader.Instance, refId));
if (reg.ArraySize != -1)
{
refId = string.Format("ga{0}", globalRefCount);
arrayRefs.Add(new CodeFieldReferenceExpression(shader.Instance, refId));
}
globalRefCount++;
}
}
}
global.ChangeRefs = globalRefs.ToArray();
global.ArrayRefs = arrayRefs.ToArray();
globals.Add(global);
return;
}
if (reg.ArraySize != -1)
{
//INVALID. EXTERMINATE.
throw new CompileException(string.Format("Shader attribute '{0}' is defined as an array and has a semantic '{1}'. Semantics other than 'GLOBAL' are invalid for Array types.", reg.Name, reg.Semantic));
}
bool isTranspose = semantic.Length > 9 && semantic.EndsWith("transpose", StringComparison.InvariantCultureIgnoreCase);
if (isTranspose)
{
semantic = semantic.Substring(0, semantic.Length - 9);
}
SemanticType?dataSemanticType = null;
foreach (SemanticType semanticType in semanticTypes)
{
if (semanticType.Transpose == isTranspose &&
semanticType.Type == dataType &&
semanticType.Mapping.Equals(semantic, StringComparison.InvariantCultureIgnoreCase))
{
dataSemanticType = semanticType;
break;
}
}
if (dataSemanticType == null)
{
//INVALID. EXTERMINATE.
throw new CompileException(string.Format("Shader attribute '{0}' has unrecognised semantic '{1}'.", reg.Name, reg.Semantic));
}
//create the mapping...
SemanticMapping mapping = new SemanticMapping();
mapping.Register = reg;
mapping.Type = dataSemanticType.Value;
//figure out how often this semantic is used..
List <CodeFieldReferenceExpression> changeRefs = new List <CodeFieldReferenceExpression>();
foreach (KeyValuePair <AsmListing, CodeExpression> listing in listingRegisters)
{
Register sreg;
RegisterSet registers = listing.Key.RegisterSet;
CodeExpression registersRef = listing.Value;
if (registers.TryGetRegister(reg.Name, out sreg))
{
string changeId = string.Format("sc{0}", semanticMappingRefCount++);
changeRefs.Add(new CodeFieldReferenceExpression(shader.Instance, changeId));
}
}
mapping.ChangeRefs = changeRefs.ToArray();
this.semanticMapping.Add(mapping);
}
private void OnGDBPaused(StopReply response)
{
this.CurrentBreakpoint = null;
this.CurrentObjectFile = null;
// Update Registers
this.registers = this.connector.ReadRegisters();
var regs = this.registers.Keys.ToArray();
var trues = regs.Select((_) => true).ToArray();
this.Registers = new RegisterSet(regs, trues, new bool[regs.Length]);
// Fire event
if (this.RefreshRegisters != null)
{
// Do a batch update of all regs
this.RefreshRegisters(this, new RegistersChangedEventArgs(
this.registers.Keys.Select((reg) => reg.Name).ToArray()));
}
// Update current address
foreach (var pair in this.registers)
{
if (pair.Key.Type == RegisterType.InstructionPointer)
{
this.CurrentAddress = Utils.LongFromBytes(pair.Value);
break;
}
}
// Update breakpoint
foreach (Breakpoint bp in this.breakpoints)
{
if (bp.Address == this.CurrentAddress)
{
this.CurrentBreakpoint = bp; break;
}
}
// Update object file
foreach (ObjectCodeFile file in Application.Session.LoadedImages)
{
if (file.Sections[0].LoadMemoryAddress <= this.CurrentAddress &&
file.Sections[0].LoadMemoryAddress + file.Size > this.CurrentAddress)
{
this.CurrentObjectFile = file; break;
}
}
// If object file found, try and load current code unit
if (this.CurrentObjectFile != null)
{
this.CurrentCodeUnit = this.CurrentObjectFile.GetCode(this.CurrentAddress);
}
// Fire stepped event
if (this.Suspended != null) this.Suspended(this, null);
// Qemu gets stuck on the current line unless the breakpoint is disabled
if (this.CurrentBreakpoint != null)
{
this.ClearBreakpoint(this.CurrentBreakpoint.Address);
}
}
/// <summary>
/// Called when one or more registers have been refreshed.
/// </summary>
private void OnRegistersUpdated(RegistersChangedEventArgs e)
{
Register[] regs = this.connector.AvailableRegisters;
// Update the register listing
this.Registers = new RegisterSet(regs, regs.Select((_)=>true).ToArray(),
new bool[regs.Length]);
if (this.RefreshRegisters != null)
{
this.RefreshRegisters(this, e);
}
}
protected void CreateMachineRegisters()
{
X = new RegisterSet();
Y = new RegisterSet();
A = new RegisterSet();
RX = new RegisterSet();
RY = new RegisterSet();
for (int i = 0; i < 4; i++) {
X.Add(new Register("X" + i, Datatype.FloatValue));
Y.Add(new Register("Y" + i, Datatype.FloatValue));
A.Add(new Register("A" + i, Datatype.FloatValue));
}
for (int i = 0; i < 8; i++) {
Register r = new Register("R" + i, Datatype.AddressValue);
if (i < 4)
RX.Add(r);
else
RY.Add(r);
}
R = RX + RY;
XA = X + A;
YA = Y + A;
XYA = X + Y + A;
machineRegisters = new ArrayList();
foreach (Register r in X.Registers)
machineRegisters.Add(r);
foreach (Register r in Y.Registers)
machineRegisters.Add(r);
foreach (Register r in R.Registers)
machineRegisters.Add(r);
}
public void Execute(IMemory mem, RegisterSet registerSet)
{
throw new NotImplementedException();
}