public FPUWrapper(EISEVersion iseVer)
{
var a = new SLVSignal(32);
var b = new SLVSignal(32);
var r = new SLVSignal(32);
var clk = new SLSignal();
_fpu = new FloatingPointCore()
{
A = a,
B = b,
Clk = clk,
Result = r,
DSP48EUsage = FloatingPointCore.EDSP48EUsage.FullUsage,
Function = FloatingPointCore.EFunction.AddSubtract,
TargetDeviceFamily = SystemSharp.Interop.Xilinx.EDeviceFamily.Virtex6,
UseMaximumLatency = true,
Precision = FloatingPointCore.EPrecision.Single,
ResultPrecision = FloatingPointCore.EPrecision.Single,
AddSubSel = FloatingPointCore.EAddSub.Add,
TargetISEVersion = iseVer
};
Clk = clk;
A = a;
B = b;
R = r;
}
public FPUWrapper(EISEVersion iseVer)
{
var a = new SLVSignal(32);
var b = new SLVSignal(32);
var r = new SLVSignal(32);
var clk = new SLSignal();
_fpu = new FloatingPointCore()
{
A = a,
B = b,
Clk = clk,
Result = r,
DSP48EUsage = FloatingPointCore.EDSP48EUsage.FullUsage,
Function = FloatingPointCore.EFunction.AddSubtract,
TargetDeviceFamily = SystemSharp.Interop.Xilinx.EDeviceFamily.Virtex6,
UseMaximumLatency = true,
Precision = FloatingPointCore.EPrecision.Single,
ResultPrecision = FloatingPointCore.EPrecision.Single,
AddSubSel = FloatingPointCore.EAddSub.Add,
TargetISEVersion = iseVer
};
Clk = clk;
A = a;
B = b;
R = r;
}
/// <summary>
/// Constructs a new testbechn.
/// </summary>
/// <param name="userLogic">component under test</param>
public AXILiteSlaveUserLogicTestbench(AXILiteSlaveUserLogic userLogic)
{
user_logic = userLogic;
_sig_Bus2IP_Clk = new SLSignal();
_sig_Bus2IP_Resetn = new SLSignal() { InitialValue = '0' };
_sig_Bus2IP_Data = new SLVSignal(userLogic.SLVDWidth) { InitialValue = StdLogicVector.Xs(userLogic.SLVDWidth) };
_sig_Bus2IP_BE = new SLVSignal(userLogic.SLVDWidth / 8) { InitialValue = StdLogicVector._0s(userLogic.SLVDWidth / 8) };
_sig_Bus2IP_RdCE = new SLVSignal(userLogic.NumRegs) { InitialValue = StdLogicVector._0s(userLogic.NumRegs) };
_sig_Bus2IP_WrCE = new SLVSignal(userLogic.NumRegs) { InitialValue = StdLogicVector._0s(userLogic.NumRegs) };
_sig_IP2Bus_Data = new SLVSignal(userLogic.SLVDWidth) { InitialValue = StdLogicVector._0s(userLogic.SLVDWidth) };
_sig_IP2Bus_RdAck = new SLSignal() { InitialValue = '0' };
_sig_IP2Bus_WrAck = new SLSignal() { InitialValue = '0' };
_sig_IP2Bus_Error = new SLSignal() { InitialValue = '0' };
userLogic.Bus2IP_Clk = _sig_Bus2IP_Clk;
userLogic.Bus2IP_BE = _sig_Bus2IP_BE;
userLogic.Bus2IP_Clk = _sig_Bus2IP_Clk;
userLogic.Bus2IP_Data = _sig_Bus2IP_Data;
userLogic.Bus2IP_RdCE = _sig_Bus2IP_RdCE;
userLogic.Bus2IP_Resetn = _sig_Bus2IP_Resetn;
userLogic.Bus2IP_WrCE = _sig_Bus2IP_WrCE;
userLogic.IP2Bus_Data = _sig_IP2Bus_Data;
userLogic.IP2Bus_Error = _sig_IP2Bus_Error;
userLogic.IP2Bus_RdAck = _sig_IP2Bus_RdAck;
userLogic.IP2Bus_WrAck = _sig_IP2Bus_WrAck;
_clockGen = new Clock(new Time(10.0, ETimeUnit.ns))
{
Clk = _sig_Bus2IP_Clk
};
}
public override void Establish(IAutoBinder binder)
{
if (_realized)
{
return;
}
_addrBits = MathExt.CeilLog2(_array.ArrayObj.Length);
_dataBits = Marshal.SerializeForHW(_array.ElementType.GetSampleInstance()).Size;
_clkI = (SLSignal)binder.GetSignal(EPortUsage.Clock, "Clk", null, null);
_dataOutI = (SLVSignal)binder.GetSignal(EPortUsage.Default, "memIf_dataOut", null, StdLogicVector._0s(_dataBits));
_addrI = (SLVSignal)binder.GetSignal(EPortUsage.Default, "memIf_addr", null, StdLogicVector._0s(_addrBits));
_clk = _clkI.Descriptor;
_addr = _addrI.Descriptor;
_dataOut = _dataOutI.Descriptor;
if (NeedWriteAccess)
{
_wrEnI = (SLSignal)binder.GetSignal(EPortUsage.Default, "memIf_wrEn", null, StdLogic._0);
_dataInI = (SLVSignal)binder.GetSignal(EPortUsage.Default, "memIf_dataIn", null, StdLogicVector._0s(_dataBits));
_wrEn = _wrEnI.Descriptor;
_dataIn = _dataInI.Descriptor;
}
var memIfBuilder = new MemIfBuilder(this);
var memIfAlg = memIfBuilder.GetAlgorithm();
memIfAlg.Name = "MemIf";
binder.CreateProcess(Process.EProcessKind.Triggered, memIfAlg, _clk);
_realized = true;
}
/// <summary>
/// Constructs a new testbechn.
/// </summary>
/// <param name="userLogic">component under test</param>
public AXILiteSlaveUserLogicTestbench(AXILiteSlaveUserLogic userLogic)
{
user_logic = userLogic;
_sig_Bus2IP_Clk = new SLSignal();
_sig_Bus2IP_Resetn = new SLSignal()
{
InitialValue = '0'
};
_sig_Bus2IP_Data = new SLVSignal(userLogic.SLVDWidth)
{
InitialValue = StdLogicVector.Xs(userLogic.SLVDWidth)
};
_sig_Bus2IP_BE = new SLVSignal(userLogic.SLVDWidth / 8)
{
InitialValue = StdLogicVector._0s(userLogic.SLVDWidth / 8)
};
_sig_Bus2IP_RdCE = new SLVSignal(userLogic.NumRegs)
{
InitialValue = StdLogicVector._0s(userLogic.NumRegs)
};
_sig_Bus2IP_WrCE = new SLVSignal(userLogic.NumRegs)
{
InitialValue = StdLogicVector._0s(userLogic.NumRegs)
};
_sig_IP2Bus_Data = new SLVSignal(userLogic.SLVDWidth)
{
InitialValue = StdLogicVector._0s(userLogic.SLVDWidth)
};
_sig_IP2Bus_RdAck = new SLSignal()
{
InitialValue = '0'
};
_sig_IP2Bus_WrAck = new SLSignal()
{
InitialValue = '0'
};
_sig_IP2Bus_Error = new SLSignal()
{
InitialValue = '0'
};
userLogic.Bus2IP_Clk = _sig_Bus2IP_Clk;
userLogic.Bus2IP_BE = _sig_Bus2IP_BE;
userLogic.Bus2IP_Clk = _sig_Bus2IP_Clk;
userLogic.Bus2IP_Data = _sig_Bus2IP_Data;
userLogic.Bus2IP_RdCE = _sig_Bus2IP_RdCE;
userLogic.Bus2IP_Resetn = _sig_Bus2IP_Resetn;
userLogic.Bus2IP_WrCE = _sig_Bus2IP_WrCE;
userLogic.IP2Bus_Data = _sig_IP2Bus_Data;
userLogic.IP2Bus_Error = _sig_IP2Bus_Error;
userLogic.IP2Bus_RdAck = _sig_IP2Bus_RdAck;
userLogic.IP2Bus_WrAck = _sig_IP2Bus_WrAck;
_clockGen = new Clock(new Time(10.0, ETimeUnit.ns))
{
Clk = _sig_Bus2IP_Clk
};
}
private void CreateState(int ncsteps)
{
int pcWidth = MathExt.CeilLog2(ncsteps);
_pc = (SLVSignal)_binder.GetSignal(EPortUsage.State, "State", null, StdLogicVector._0s(pcWidth));
_altAddr = (SLVSignal)_binder.GetSignal(EPortUsage.Default, "BCU_AltAddr", null, StdLogicVector._0s(pcWidth));
_rdEn = (SLSignal)_binder.GetSignal(EPortUsage.Default, "ROM_RdEn", null, StdLogic._1);
_brP = (SLVSignal)_binder.GetSignal <StdLogicVector>(EPortUsage.Default, "BCU_BrP", null, "0");
_brN = (SLVSignal)_binder.GetSignal <StdLogicVector>(EPortUsage.Default, "BCU_BrN", null, "1");
_rst = (SLSignal)_binder.GetSignal(EPortUsage.Default, "BCU_Rst", null, StdLogic._1);
}
public void CreateStagedDecoder(IAutoBinder binder, SLVSignal cwSignal, SLSignal clkSignal, bool registered)
{
var valWordInit = StdLogicVector._0s(_vcf.ValueWordWidth);
var rcwSignal = (SLVSignal)binder.GetSignal(EPortUsage.Default, "D1_CW", null, valWordInit);
var rcwSignalDesc = rcwSignal.Descriptor;
SLVSignal rrcwSignal = null;
if (registered)
{
rrcwSignal = (SLVSignal)binder.GetSignal(EPortUsage.Default, "D2_CW", null, valWordInit);
}
var syncBuilder = new DefaultAlgorithmBuilder();
syncBuilder.If(clkSignal.ToSignalRef(SignalRef.EReferencedProperty.RisingEdge));
syncBuilder.Store(rcwSignal.ToSignalRef(SignalRef.EReferencedProperty.Next),
((ISignal)cwSignal[_vcf.ValueWordWidth - 1, 0]).ToSignalRef(SignalRef.EReferencedProperty.Cur));
if (registered)
{
syncBuilder.Store(rrcwSignal.ToSignalRef(SignalRef.EReferencedProperty.Next),
rcwSignal.ToSignalRef(SignalRef.EReferencedProperty.Cur));
}
foreach (var ms in _strings)
{
ms.AssembleStagedDecoderSync(binder, syncBuilder, cwSignal, registered);
}
syncBuilder.EndIf();
var syncFunc = syncBuilder.Complete();
syncFunc.Name = "cwdecode_sync";
binder.CreateProcess(SystemSharp.Components.Process.EProcessKind.Triggered, syncFunc, clkSignal.Descriptor);
var combBuilder = new DefaultAlgorithmBuilder();
var sensitivity = new HashSet <ISignalOrPortDescriptor>();
sensitivity.Add(cwSignal.Descriptor);
sensitivity.Add(rcwSignalDesc);
if (registered)
{
sensitivity.Add(rrcwSignal.Descriptor);
}
foreach (var ms in _strings)
{
ms.AssembleStagedDecoderComb(combBuilder, registered ? rrcwSignal : rcwSignal, sensitivity, registered);
}
var combFunc = combBuilder.Complete();
combFunc.Name = "cwdecode_comb";
binder.CreateProcess(SystemSharp.Components.Process.EProcessKind.Triggered, combFunc, sensitivity.ToArray());
}
/// <summary>
/// Maps a signal to a register.
/// </summary>
/// <param name="sig">signal to map</param>
/// <param name="mode">register access</param>
/// <param name="reg">register idnex</param>
/// <param name="startBit">bit offset in register</param>
protected void MapSignal(SLSignal sig, EAccessMode mode, int reg, int startBit)
{
if (mode != EAccessMode.Read)
{
_writeBits[reg, startBit] = sig;
_writeSignals.Add(sig);
}
if (mode != EAccessMode.Write)
{
_readBits[reg, startBit] = sig;
_readSignals.Add(sig);
}
}
public Mod2TestDesign(int inIntWidth, int fracWidth, int outIntWidth)
{
_clk = new SLSignal();
_x = new SLVSignal(inIntWidth + fracWidth) { InitialValue = StdLogicVector._0s(inIntWidth + fracWidth) };
_r = new SLVSignal(outIntWidth + fracWidth) { InitialValue = StdLogicVector._0s(outIntWidth + fracWidth) };
_clkGen = new Clock(new Time(10.0, ETimeUnit.ns));
Bind(() => _clkGen.Clk = _clk);
_mod2 = new FixFPMod1(inIntWidth, fracWidth, outIntWidth)
{
X = _x,
R = _r
};
}
private void updateSignalInfo()
{
lvSignals.Items.Clear();
SLTestCase testCase =
outputsTestSuites[lvOutputs.SelectedItems[0].SubItems[2].Text][lvTestCases.SelectedIndices[0]];
SLSignal signal = testCase.inputSignals[cmbInputVars.SelectedItem.ToString()];
for (int i = 0; i < signal.signalStepTimes.Count - 1; ++i)
{
String[] items = new String[2];
items[0] = signal.signalStepTimes[i].ToString();
items[1] = signal.signalValues[i].ToString();
ListViewItem listViewItem = new ListViewItem(items);
lvSignals.Items.Add(listViewItem);
}
}
public override void Establish(IAutoBinder binder)
{
if (_established)
{
return;
}
_clk = binder.GetSignal(EPortUsage.Clock, null, null, null).Descriptor;
_enI = (SLSignal)binder.GetSignal(EPortUsage.Default, _port.Name + "_en", null, StdLogic._1);
_en = _enI.Descriptor;
_slvSignalI = (SLVSignal)binder.GetSignal(EPortUsage.Default, _port.Name + "_in", null, StdLogicVector._0s(_dataWidth));
_slvSignal = _slvSignalI.Descriptor;
var templ = new ConvProcessBuilder(this);
var alg = templ.GetAlgorithm();
binder.CreateProcess(Process.EProcessKind.Triggered, alg, _clk, _en);
_established = true;
}
public Mod2TestDesign(int inIntWidth, int fracWidth, int outIntWidth)
{
_clk = new SLSignal();
_x = new SLVSignal(inIntWidth + fracWidth)
{
InitialValue = StdLogicVector._0s(inIntWidth + fracWidth)
};
_r = new SLVSignal(outIntWidth + fracWidth)
{
InitialValue = StdLogicVector._0s(outIntWidth + fracWidth)
};
_clkGen = new Clock(new Time(10.0, ETimeUnit.ns));
Bind(() => _clkGen.Clk = _clk);
_mod2 = new FixFPMod1(inIntWidth, fracWidth, outIntWidth)
{
X = _x,
R = _r
};
}
/// <summary>
/// Creates a signal implementation for a given initial value.
/// The factory method automatically selects the most suitable signal, i.e. an <c>SLSignal</c> if <paramref name="initialValue"/>
/// is of type <c>StdLogic</c>, <c>SLVSignal</c> if <paramref name="initialValue"/> is of type <c>StdLogicVector</c>, <c>Signal1D</c>
/// if <paramref name="initialValue"/> is an array or just <c>Signal</c> otherwise.
/// </summary>
/// <param name="initialValue">desired initial value for created signal</param>
public static SignalBase CreateInstance(object initialValue)
{
TypeDescriptor elemType = TypeDescriptor.GetTypeOf(initialValue);
SignalBase sinst;
if (elemType.CILType.Equals(typeof(StdLogic)))
{
sinst = new SLSignal();
sinst.InitialValueObject = initialValue;
}
else if (elemType.CILType.Equals(typeof(StdLogicVector)))
{
sinst = new SLVSignal(((StdLogicVector)initialValue).Size);
sinst.InitialValueObject = initialValue;
}
else if (elemType.CILType.IsArray && elemType.CILType.GetArrayRank() == 1)
{
Array array = (Array)initialValue;
Type subElemType = elemType.CILType.GetElementType();
int length = array.GetLength(0);
Array signalArray = Array.CreateInstance(typeof(Signal <>).MakeGenericType(subElemType), length);
for (int i = 0; i < length; i++)
{
signalArray.SetValue(CreateInstance(array.GetValue(i)), i);
}
sinst = (SignalBase)Activator.CreateInstance(
typeof(VSignal <>).MakeGenericType(subElemType), signalArray);
}
else if (elemType.CILType.IsArray)
{
throw new NotSupportedException("Signals of multi-dimensional arrays not supported");
}
else
{
sinst = (SignalBase)Activator.CreateInstance(typeof(Signal <>).MakeGenericType(elemType.CILType));
sinst.InitialValueObject = initialValue;
}
return(sinst);
}
public ALUTestDesign(int awidth, int bwidth, int pipelineDepth)
{
_clk = new SLSignal();
_a = new SLVSignal(awidth) { InitialValue = StdLogicVector._0s(awidth) };
_b = new SLVSignal(bwidth) { InitialValue = StdLogicVector._0s(bwidth) };
_ba = new SLVSignal(awidth) { InitialValue = StdLogicVector._0s(awidth) };
_clkGen = new Clock(new Time(10.0, ETimeUnit.ns));
Bind(() => _clkGen.Clk = _clk);
_add = new ALU(ALU.EFunction.Add, ALU.EArithMode.Signed, pipelineDepth,
awidth, bwidth, Math.Max(awidth, bwidth) + 1);
Bind(() =>
{
_add.Clk = _clk;
_add.A = _a;
_add.B = _b;
_add.R = _rAdd;
});
_rAdd = new SLVSignal(_add.RWidth);
_sub = new ALU(ALU.EFunction.Sub, ALU.EArithMode.Signed, pipelineDepth,
awidth, bwidth, Math.Max(awidth, bwidth) + 1);
Bind(() =>
{
_sub.Clk = _clk;
_sub.A = _a;
_sub.B = _b;
_sub.R = _rSub;
});
_rSub = new SLVSignal(_sub.RWidth);
_mul = new ALU(ALU.EFunction.Mul, ALU.EArithMode.Signed, pipelineDepth,
awidth, bwidth, awidth + bwidth);
Bind(() =>
{
_mul.Clk = _clk;
_mul.A = _a;
_mul.B = _b;
_mul.R = _rMul;
});
_rMul = new SLVSignal(_mul.RWidth);
_neg = new ALU(ALU.EFunction.Neg, ALU.EArithMode.Signed, pipelineDepth,
awidth, 0, awidth + 1);
Bind(() =>
{
_neg.Clk = _clk;
_neg.A = _a;
_neg.R = _rNeg;
});
_rNeg = new SLVSignal(_neg.RWidth);
_not = new ALU(ALU.EFunction.Not, ALU.EArithMode.Signed, pipelineDepth,
awidth, 0, awidth);
Bind(() =>
{
_not.Clk = _clk;
_not.A = _a;
_not.R = _rNot;
});
_rNot = new SLVSignal(_not.RWidth);
_and = new ALU(ALU.EFunction.And, ALU.EArithMode.Signed, pipelineDepth,
awidth, awidth, awidth);
Bind(() =>
{
_and.Clk = _clk;
_and.A = _a;
_and.B = _ba;
_and.R = _rAnd;
});
_rAnd = new SLVSignal(_and.RWidth);
_or = new ALU(ALU.EFunction.Or, ALU.EArithMode.Signed, pipelineDepth,
awidth, awidth, awidth);
Bind(() =>
{
_or.Clk = _clk;
_or.A = _a;
_or.B = _ba;
_or.R = _rOr;
});
_rOr = new SLVSignal(_or.RWidth);
}
public override void Establish(IAutoBinder binder)
{
if (_realized)
return;
object constValue;
var literal = (Literal)_literal;
if (literal.IsConst(out constValue))
{
var slv = Marshal.SerializeForHW(constValue);
_dataOutI = (SLVSignal)binder.GetSignal(EPortUsage.Default, "constSignal_" + constValue.ToString(), null, slv);
_dataOut = _dataOutI.Descriptor;
}
else
{
bool needRead = true, needWrite = true;
var fref = _literal as FieldRef;
if (fref != null)
{
needRead = fref.FieldDesc.IsReadInCurrentContext(Host.Context);
needWrite = fref.FieldDesc.IsWrittenInCurrentContext(Host.Context);
}
var stlit = (IStorableLiteral)_literal;
string name = stlit.Name;
var valueSample = _literal.Type.GetSampleInstance();
_dataBits = Marshal.SerializeForHW(valueSample).Size;
_clkI = (SLSignal)binder.GetSignal(EPortUsage.Clock, null, null, null);
_clk = _clkI.Descriptor;
if (needWrite)
{
_wrEnI = (SLSignal)binder.GetSignal(EPortUsage.Default, name + "_wrEn", null, StdLogic._0);
_wrEn = _wrEnI.Descriptor;
_dataInI = (SLVSignal)binder.GetSignal(EPortUsage.Default, name + "_dataIn", null, StdLogicVector._0s(_dataBits));
_dataIn = _dataInI.Descriptor;
}
if (needRead)
{
_dataOutI = (SLVSignal)binder.GetSignal(EPortUsage.Default, name + "_dataOut", null, StdLogicVector._0s(_dataBits));
_dataOut = _dataOutI.Descriptor;
}
//var apb = new AccessProcessBuilder(this, needRead, needWrite);
//var alg = apb.GetAlgorithm();
//alg.Name = name + "_process";
//binder.CreateProcess(Process.EProcessKind.Triggered, alg, _clk);
CommonClockProcess ccp = null;
string algName = name + "_process";
if (Host.Descriptor.HasAttribute<CommonClockProcess>())
{
ccp = Host.Descriptor.QueryAttribute<CommonClockProcess>();
Host.Descriptor.RemoveChild(ccp.CCProc);
}
else
{
ccp = new CommonClockProcess(_clk);
Host.Descriptor.AddAttribute(ccp);
}
ccp.AddAccessor(this, needRead, needWrite);
var alg = ccp.FrameBuilder.Complete();
alg.Name = algName;
ccp.CCProc = binder.CreateProcess(Process.EProcessKind.Triggered, alg, _clk);
}
_realized = true;
}
public static void Run()
{
System.Threading.Thread.CurrentThread.CurrentCulture = System.Globalization.CultureInfo.InvariantCulture;
GenTestData();
Signal <float> in_real = new Signal <float>();
Signal <float> in_imag = new Signal <float>();
Signal <bool> data_valid = new Signal <bool>();
Signal <bool> data_ack = new Signal <bool>();
Signal <float> out_real = new Signal <float>();
Signal <float> out_imag = new Signal <float>();
Signal <bool> data_req = new Signal <bool>();
Signal <bool> data_ready = new Signal <bool>();
Signal <bool> data_fin1 = new Signal <bool>();
Signal <bool> data_fin2 = new Signal <bool>();
SLSignal clk = new SLSignal();
Clock cgen = new Clock(new Time(10.0, ETimeUnit.ns), 0.5)
{
Clk = clk
};
FFT fft = new FFT()
{
CLK = clk,
in_real = in_real,
in_imag = in_imag,
data_valid = data_valid,
data_ack = data_ack,
out_real = out_real,
out_imag = out_imag,
data_req = data_req,
data_ready = data_ready,
data_fin_in = data_fin1,
data_fin_out = data_fin2
};
Source source = new Source()
{
RealPath = "in_real.large",
ImagPath = "in_imag.large",
data_req = data_req,
out_real = in_real,
out_imag = in_imag,
data_valid = data_valid,
data_fin = data_fin1,
CLK = clk
};
Sink sink = new Sink()
{
RealPath = "out_real.large",
ImagPath = "out_imag.large",
data_ready = data_ready,
data_ack = data_ack,
in_real = out_real,
in_imag = out_imag,
data_fin = data_fin2,
CLK = clk
};
DesignContext.Instance.Elaborate();
Log.Verbose = true;
long startTicks = DateTime.Now.Ticks;
DesignContext.Instance.Simulate(long.MaxValue);
long endTicks = DateTime.Now.Ticks;
double durationMS = (double)(endTicks - startTicks) / 10000.0;
Console.WriteLine("Analysis took " + durationMS + "ms");
}
public void CreateStagedDecoder(IAutoBinder binder, SLVSignal cwSignal, SLSignal clkSignal, bool registered)
{
var valWordInit = StdLogicVector._0s(_vcf.ValueWordWidth);
var rcwSignal = (SLVSignal)binder.GetSignal(EPortUsage.Default, "D1_CW", null, valWordInit);
var rcwSignalDesc = rcwSignal.Descriptor;
SLVSignal rrcwSignal = null;
if (registered)
{
rrcwSignal = (SLVSignal)binder.GetSignal(EPortUsage.Default, "D2_CW", null, valWordInit);
}
var syncBuilder = new DefaultAlgorithmBuilder();
syncBuilder.If(clkSignal.ToSignalRef(SignalRef.EReferencedProperty.RisingEdge));
syncBuilder.Store(rcwSignal.ToSignalRef(SignalRef.EReferencedProperty.Next),
((ISignal)cwSignal[_vcf.ValueWordWidth - 1, 0]).ToSignalRef(SignalRef.EReferencedProperty.Cur));
if (registered)
{
syncBuilder.Store(rrcwSignal.ToSignalRef(SignalRef.EReferencedProperty.Next),
rcwSignal.ToSignalRef(SignalRef.EReferencedProperty.Cur));
}
foreach (var ms in _strings)
{
ms.AssembleStagedDecoderSync(binder, syncBuilder, cwSignal, registered);
}
syncBuilder.EndIf();
var syncFunc = syncBuilder.Complete();
syncFunc.Name = "cwdecode_sync";
binder.CreateProcess(SystemSharp.Components.Process.EProcessKind.Triggered, syncFunc, clkSignal.Descriptor);
var combBuilder = new DefaultAlgorithmBuilder();
var sensitivity = new HashSet<ISignalOrPortDescriptor>();
sensitivity.Add(cwSignal.Descriptor);
sensitivity.Add(rcwSignalDesc);
if (registered)
sensitivity.Add(rrcwSignal.Descriptor);
foreach (var ms in _strings)
{
ms.AssembleStagedDecoderComb(combBuilder, registered ? rrcwSignal : rcwSignal, sensitivity, registered);
}
var combFunc = combBuilder.Complete();
combFunc.Name = "cwdecode_comb";
binder.CreateProcess(SystemSharp.Components.Process.EProcessKind.Triggered, combFunc, sensitivity.ToArray());
}
/// <summary>
/// Creates an instance.
/// </summary>
/// <param name="userLogic">component under test</param>
public AXIMasterUserLogicTestbench(AXIMasterUserLogic userLogic)
{
user_logic = userLogic;
_sig_Bus2IP_Clk = new SLSignal();
_sig_Bus2IP_Resetn = new SLSignal() { InitialValue = '0' };
_sig_Bus2IP_Data = new SLVSignal(userLogic.SLVDWidth) { InitialValue = StdLogicVector.Xs(userLogic.SLVDWidth) };
_sig_Bus2IP_BE = new SLVSignal(userLogic.SLVDWidth / 8) { InitialValue = StdLogicVector._0s(userLogic.SLVDWidth / 8) };
_sig_Bus2IP_RdCE = new SLVSignal(userLogic.NumRegs) { InitialValue = StdLogicVector._0s(userLogic.NumRegs) };
_sig_Bus2IP_WrCE = new SLVSignal(userLogic.NumRegs) { InitialValue = StdLogicVector._0s(userLogic.NumRegs) };
_sig_IP2Bus_Data = new SLVSignal(userLogic.SLVDWidth) { InitialValue = StdLogicVector._0s(userLogic.SLVDWidth) };
_sig_IP2Bus_RdAck = new SLSignal() { InitialValue = '0' };
_sig_IP2Bus_WrAck = new SLSignal() { InitialValue = '0' };
_sig_IP2Bus_Error = new SLSignal() { InitialValue = '0' };
_sig_ip2bus_mstrd_req = new SLSignal() { InitialValue = '0' };
_sig_ip2bus_mstwr_req = new SLSignal() { InitialValue = '0' };
_sig_ip2bus_mst_addr = new SLVSignal(userLogic.MasterAXIAddrWidth) { InitialValue = StdLogicVector.Us(userLogic.MasterAXIAddrWidth) };
_sig_ip2bus_mst_be = new SLVSignal(userLogic.NativeDataWidth/8) { InitialValue = StdLogicVector._1s(userLogic.NativeDataWidth/8) };
_sig_ip2bus_mst_length = new SLVSignal(userLogic.LengthWidth) { InitialValue = StdLogicVector._0s(userLogic.LengthWidth) };
_sig_ip2bus_mst_type = new SLSignal() { InitialValue = '0' };
_sig_ip2bus_mst_lock = new SLSignal() { InitialValue = '0' };
_sig_ip2bus_mst_reset = new SLSignal() { InitialValue = '0' };
_sig_bus2ip_mst_cmdack = new SLSignal() { InitialValue = '0' };
_sig_bus2ip_mst_cmplt = new SLSignal() { InitialValue = '0' };
_sig_bus2ip_mst_error = new SLSignal() { InitialValue = '0' };
_sig_bus2ip_mst_rearbitrate = new SLSignal() { InitialValue = '0' };
_sig_bus2ip_mst_cmd_timeout = new SLSignal() { InitialValue = '0' };
_sig_bus2ip_mstrd_d = new SLVSignal(userLogic.NativeDataWidth);
_sig_bus2ip_mstrd_rem = new SLVSignal(userLogic.NativeDataWidth / 8) { InitialValue = StdLogicVector._0s(userLogic.NativeDataWidth / 8) };
_sig_bus2ip_mstrd_sof_n = new SLSignal() { InitialValue = '0' };
_sig_bus2ip_mstrd_eof_n = new SLSignal() { InitialValue = '0' };
_sig_bus2ip_mstrd_src_rdy_n = new SLSignal() { InitialValue = '1' };
_sig_bus2ip_mstrd_src_dsc_n = new SLSignal() { InitialValue = '1' };
_sig_ip2bus_mstrd_dst_rdy_n = new SLSignal() { InitialValue = '1' };
_sig_ip2bus_mstrd_dst_dsc_n = new SLSignal() { InitialValue = '1' };
_sig_ip2bus_mstwr_d = new SLVSignal(userLogic.NativeDataWidth);
_sig_ip2bus_mstwr_rem = new SLVSignal(userLogic.NativeDataWidth / 8) { InitialValue = StdLogicVector._0s(userLogic.NativeDataWidth / 8) };
_sig_ip2bus_mstwr_src_rdy_n = new SLSignal() { InitialValue = '1' };
_sig_ip2bus_mstwr_src_dsc_n = new SLSignal() { InitialValue = '1' };
_sig_ip2bus_mstwr_sof_n = new SLSignal() { InitialValue = '1' };
_sig_ip2bus_mstwr_eof_n = new SLSignal() { InitialValue = '1' };
_sig_bus2ip_mstwr_dst_rdy_n = new SLSignal() { InitialValue = '1' };
_sig_bus2ip_mstwr_dst_dsc_n = new SLSignal() { InitialValue = '1' };
userLogic.Bus2IP_Clk = _sig_Bus2IP_Clk;
userLogic.Bus2IP_BE = _sig_Bus2IP_BE;
userLogic.Bus2IP_Clk = _sig_Bus2IP_Clk;
userLogic.Bus2IP_Data = _sig_Bus2IP_Data;
userLogic.Bus2IP_RdCE = _sig_Bus2IP_RdCE;
userLogic.Bus2IP_Resetn = _sig_Bus2IP_Resetn;
userLogic.Bus2IP_WrCE = _sig_Bus2IP_WrCE;
userLogic.IP2Bus_Data = _sig_IP2Bus_Data;
userLogic.IP2Bus_Error = _sig_IP2Bus_Error;
userLogic.IP2Bus_RdAck = _sig_IP2Bus_RdAck;
userLogic.IP2Bus_WrAck = _sig_IP2Bus_WrAck;
userLogic.ip2bus_mstrd_req = _sig_ip2bus_mstrd_req;
userLogic.ip2bus_mstwr_req = _sig_ip2bus_mstwr_req;
userLogic.ip2bus_mst_addr = _sig_ip2bus_mst_addr;
userLogic.ip2bus_mst_be = _sig_ip2bus_mst_be;
userLogic.ip2bus_mst_length = _sig_ip2bus_mst_length;
userLogic.ip2bus_mst_type = _sig_ip2bus_mst_type;
userLogic.ip2bus_mst_lock = _sig_ip2bus_mst_lock;
userLogic.ip2bus_mst_reset = _sig_ip2bus_mst_reset;
userLogic.bus2ip_mst_cmdack = _sig_bus2ip_mst_cmdack;
userLogic.bus2ip_mst_cmplt = _sig_bus2ip_mst_cmplt;
userLogic.bus2ip_mst_error = _sig_bus2ip_mst_error;
userLogic.bus2ip_mst_rearbitrate = _sig_bus2ip_mst_rearbitrate;
userLogic.bus2ip_mst_cmd_timeout = _sig_bus2ip_mst_cmd_timeout;
userLogic.bus2ip_mstrd_d = _sig_bus2ip_mstrd_d;
userLogic.bus2ip_mstrd_rem = _sig_bus2ip_mstrd_rem;
userLogic.bus2ip_mstrd_sof_n = _sig_bus2ip_mstrd_sof_n;
userLogic.bus2ip_mstrd_eof_n = _sig_bus2ip_mstrd_eof_n;
userLogic.bus2ip_mstrd_src_rdy_n = _sig_bus2ip_mstrd_src_rdy_n;
userLogic.bus2ip_mstrd_src_dsc_n = _sig_bus2ip_mstrd_src_dsc_n;
userLogic.ip2bus_mstrd_dst_rdy_n = _sig_ip2bus_mstrd_dst_rdy_n;
userLogic.ip2bus_mstrd_dst_dsc_n = _sig_ip2bus_mstrd_dst_dsc_n;
userLogic.ip2bus_mstwr_d = _sig_ip2bus_mstwr_d;
userLogic.ip2bus_mstwr_rem = _sig_ip2bus_mstwr_rem;
userLogic.ip2bus_mstwr_src_rdy_n = _sig_ip2bus_mstwr_src_rdy_n;
userLogic.ip2bus_mstwr_src_dsc_n = _sig_ip2bus_mstwr_src_dsc_n;
userLogic.ip2bus_mstwr_sof_n = _sig_ip2bus_mstwr_sof_n;
userLogic.ip2bus_mstwr_eof_n = _sig_ip2bus_mstwr_eof_n;
userLogic.bus2ip_mstwr_dst_rdy_n = _sig_bus2ip_mstwr_dst_rdy_n;
userLogic.bus2ip_mstwr_dst_dsc_n = _sig_bus2ip_mstwr_dst_dsc_n;
_clockGen = new Clock(new Time(10.0, ETimeUnit.ns))
{
Clk = _sig_Bus2IP_Clk
};
}
public ALUTestDesign(int awidth, int bwidth, int pipelineDepth)
{
_clk = new SLSignal();
_a = new SLVSignal(awidth)
{
InitialValue = StdLogicVector._0s(awidth)
};
_b = new SLVSignal(bwidth)
{
InitialValue = StdLogicVector._0s(bwidth)
};
_ba = new SLVSignal(awidth)
{
InitialValue = StdLogicVector._0s(awidth)
};
_clkGen = new Clock(new Time(10.0, ETimeUnit.ns));
Bind(() => _clkGen.Clk = _clk);
_add = new ALU(ALU.EFunction.Add, ALU.EArithMode.Signed, pipelineDepth,
awidth, bwidth, Math.Max(awidth, bwidth) + 1);
Bind(() =>
{
_add.Clk = _clk;
_add.A = _a;
_add.B = _b;
_add.R = _rAdd;
});
_rAdd = new SLVSignal(_add.RWidth);
_sub = new ALU(ALU.EFunction.Sub, ALU.EArithMode.Signed, pipelineDepth,
awidth, bwidth, Math.Max(awidth, bwidth) + 1);
Bind(() =>
{
_sub.Clk = _clk;
_sub.A = _a;
_sub.B = _b;
_sub.R = _rSub;
});
_rSub = new SLVSignal(_sub.RWidth);
_mul = new ALU(ALU.EFunction.Mul, ALU.EArithMode.Signed, pipelineDepth,
awidth, bwidth, awidth + bwidth);
Bind(() =>
{
_mul.Clk = _clk;
_mul.A = _a;
_mul.B = _b;
_mul.R = _rMul;
});
_rMul = new SLVSignal(_mul.RWidth);
_neg = new ALU(ALU.EFunction.Neg, ALU.EArithMode.Signed, pipelineDepth,
awidth, 0, awidth + 1);
Bind(() =>
{
_neg.Clk = _clk;
_neg.A = _a;
_neg.R = _rNeg;
});
_rNeg = new SLVSignal(_neg.RWidth);
_not = new ALU(ALU.EFunction.Not, ALU.EArithMode.Signed, pipelineDepth,
awidth, 0, awidth);
Bind(() =>
{
_not.Clk = _clk;
_not.A = _a;
_not.R = _rNot;
});
_rNot = new SLVSignal(_not.RWidth);
_and = new ALU(ALU.EFunction.And, ALU.EArithMode.Signed, pipelineDepth,
awidth, awidth, awidth);
Bind(() =>
{
_and.Clk = _clk;
_and.A = _a;
_and.B = _ba;
_and.R = _rAnd;
});
_rAnd = new SLVSignal(_and.RWidth);
_or = new ALU(ALU.EFunction.Or, ALU.EArithMode.Signed, pipelineDepth,
awidth, awidth, awidth);
Bind(() =>
{
_or.Clk = _clk;
_or.A = _a;
_or.B = _ba;
_or.R = _rOr;
});
_rOr = new SLVSignal(_or.RWidth);
}
public Dictionary <string, Dictionary <string, List <SLTestCase> > > LoadTestSuitesToSLTestWorkspace(string testWorkspaceName)
{
Dictionary <string, Dictionary <string, List <SLTestCase> > > testSuites =
new Dictionary <string, Dictionary <string, List <SLTestCase> > >();
string workspaceResultsPath = GetWorkspaceResultsPath(testWorkspaceName);
if (!Directory.Exists(workspaceResultsPath))
{
return(testSuites);
}
XmlReaderSettings xmlSettings = new XmlReaderSettings();
xmlSettings.ValidationType = ValidationType.None;
List <string> criteriaDirectories = new List <string>(Directory.EnumerateDirectories(workspaceResultsPath));
foreach (string criterionDirectory in criteriaDirectories)
{
int startIndexOfCriDirName = criterionDirectory.LastIndexOf('\\');
string criterionDirectoryName = criterionDirectory.Substring(startIndexOfCriDirName + 1);
Dictionary <string, List <SLTestCase> > criterionTestSuites = new Dictionary <string, List <SLTestCase> >();
List <string> outputDirectories = new List <string>(Directory.EnumerateDirectories(criterionDirectory));
foreach (string outputDirectory in outputDirectories)
{
int startIndexOfOutDirName = outputDirectory.LastIndexOf('\\');
string outptuDirectoryName = outputDirectory.Substring(startIndexOfOutDirName + 1);
List <SLTestCase> outputTestCases = new List <SLTestCase>();
string testSuiteFilePath = outputDirectory + "\\TestSuite.xml";
if (!File.Exists(testSuiteFilePath))
{
continue;
}
XmlReader workspaceReader = XmlReader.Create(
testSuiteFilePath, xmlSettings);
while (workspaceReader.Read())
{
if (workspaceReader.NodeType == XmlNodeType.Element &&
workspaceReader.Name == "TestCase")
{
SLTestCase slTestCase = new SLTestCase();
string varName, varType;
while (workspaceReader.Read())
{
if (workspaceReader.NodeType == XmlNodeType.Element &&
workspaceReader.Name == "Input")
{
do
{
workspaceReader.Read();
}while (workspaceReader.Name != "VarName");
workspaceReader.Read();
varName = workspaceReader.Value;
do
{
workspaceReader.Read();
}while (workspaceReader.Name != "Type");
workspaceReader.Read();
varType = workspaceReader.Value;
if (varType.Equals("Input"))
{
do
{
workspaceReader.Read();
}while (workspaceReader.Name != "NoSegments");
workspaceReader.Read();
int noSegs = Int16.Parse(workspaceReader.Value);
SLSignal slSignal = new SLSignal();
for (int i = 0; i <= noSegs; ++i)
{
do
{
workspaceReader.Read();
}while (workspaceReader.Name != "StepTime");
workspaceReader.Read();
float stepTime = float.Parse(workspaceReader.Value);
slSignal.signalStepTimes.Add(stepTime);
do
{
workspaceReader.Read();
}while (workspaceReader.Name != "Value");
workspaceReader.Read();
float sigValue = float.Parse(workspaceReader.Value);
slSignal.signalValues.Add(sigValue);
}
slTestCase.inputSignals.Add(varName, slSignal);
}
else if (varType.Equals("Calibration"))
{
do
{
workspaceReader.Read();
}while (workspaceReader.Name != "Value");
workspaceReader.Read();
slTestCase.calibrationVars.Add(varName, float.Parse(workspaceReader.Value));
}
}
else if (workspaceReader.NodeType == XmlNodeType.EndElement &&
workspaceReader.Name == "TestCase")
{
outputTestCases.Add(slTestCase);
break;
}
}
}
}
criterionTestSuites.Add(outptuDirectoryName, outputTestCases);
}
testSuites.Add(criterionDirectoryName, criterionTestSuites);
}
return(testSuites);
}
public override void Establish(IAutoBinder binder)
{
if (_realized)
return;
_addrBits = MathExt.CeilLog2(_array.ArrayObj.Length);
_dataBits = Marshal.SerializeForHW(_array.ElementType.GetSampleInstance()).Size;
_clkI = (SLSignal)binder.GetSignal(EPortUsage.Clock, "Clk", null, null);
_dataOutI = (SLVSignal)binder.GetSignal(EPortUsage.Default, "memIf_dataOut", null, StdLogicVector._0s(_dataBits));
_addrI = (SLVSignal)binder.GetSignal(EPortUsage.Default, "memIf_addr", null, StdLogicVector._0s(_addrBits));
_clk = _clkI.Descriptor;
_addr = _addrI.Descriptor;
_dataOut = _dataOutI.Descriptor;
if (NeedWriteAccess)
{
_wrEnI = (SLSignal)binder.GetSignal(EPortUsage.Default, "memIf_wrEn", null, StdLogic._0);
_dataInI = (SLVSignal)binder.GetSignal(EPortUsage.Default, "memIf_dataIn", null, StdLogicVector._0s(_dataBits));
_wrEn = _wrEnI.Descriptor;
_dataIn = _dataInI.Descriptor;
}
var memIfBuilder = new MemIfBuilder(this);
var memIfAlg = memIfBuilder.GetAlgorithm();
memIfAlg.Name = "MemIf";
binder.CreateProcess(Process.EProcessKind.Triggered, memIfAlg, _clk);
_realized = true;
}
public static void Run()
{
System.Threading.Thread.CurrentThread.CurrentCulture = System.Globalization.CultureInfo.InvariantCulture;
GenTestData();
Signal<float> in_real = new Signal<float>();
Signal<float> in_imag = new Signal<float>();
Signal<bool> data_valid = new Signal<bool>();
Signal<bool> data_ack = new Signal<bool>();
Signal<float> out_real = new Signal<float>();
Signal<float> out_imag = new Signal<float>();
Signal<bool> data_req = new Signal<bool>();
Signal<bool> data_ready = new Signal<bool>();
Signal<bool> data_fin1 = new Signal<bool>();
Signal<bool> data_fin2 = new Signal<bool>();
SLSignal clk = new SLSignal();
Clock cgen = new Clock(new Time(10.0, ETimeUnit.ns), 0.5)
{
Clk = clk
};
FFT fft = new FFT()
{
CLK = clk,
in_real = in_real,
in_imag = in_imag,
data_valid = data_valid,
data_ack = data_ack,
out_real = out_real,
out_imag = out_imag,
data_req = data_req,
data_ready = data_ready,
data_fin_in = data_fin1,
data_fin_out = data_fin2
};
Source source = new Source()
{
RealPath = "in_real.large",
ImagPath = "in_imag.large",
data_req = data_req,
out_real = in_real,
out_imag = in_imag,
data_valid = data_valid,
data_fin = data_fin1,
CLK = clk
};
Sink sink = new Sink()
{
RealPath = "out_real.large",
ImagPath = "out_imag.large",
data_ready = data_ready,
data_ack = data_ack,
in_real = out_real,
in_imag = out_imag,
data_fin = data_fin2,
CLK = clk
};
DesignContext.Instance.Elaborate();
Log.Verbose = true;
long startTicks = DateTime.Now.Ticks;
DesignContext.Instance.Simulate(long.MaxValue);
long endTicks = DateTime.Now.Ticks;
double durationMS = (double)(endTicks - startTicks) / 10000.0;
Console.WriteLine("Analysis took " + durationMS + "ms");
}
/// <summary>
/// Maps a signal to a register.
/// </summary>
/// <param name="sig">signal to map</param>
/// <param name="mode">register access</param>
/// <param name="reg">register index</param>
/// <param name="startBit">offset into register</param>
protected void MapSignal(SLSignal sig, EAccessMode mode, int reg, int startBit)
{
if (mode != EAccessMode.Read)
{
_writeBits[reg, startBit] = sig;
_writeSignals.Add(sig);
}
if (mode != EAccessMode.Write)
{
_readBits[reg, startBit] = sig;
_readSignals.Add(sig);
}
}
/// <summary>
/// Creates an instance.
/// </summary>
/// <param name="userLogic">component under test</param>
public AXIMasterUserLogicTestbench(AXIMasterUserLogic userLogic)
{
user_logic = userLogic;
_sig_Bus2IP_Clk = new SLSignal();
_sig_Bus2IP_Resetn = new SLSignal()
{
InitialValue = '0'
};
_sig_Bus2IP_Data = new SLVSignal(userLogic.SLVDWidth)
{
InitialValue = StdLogicVector.Xs(userLogic.SLVDWidth)
};
_sig_Bus2IP_BE = new SLVSignal(userLogic.SLVDWidth / 8)
{
InitialValue = StdLogicVector._0s(userLogic.SLVDWidth / 8)
};
_sig_Bus2IP_RdCE = new SLVSignal(userLogic.NumRegs)
{
InitialValue = StdLogicVector._0s(userLogic.NumRegs)
};
_sig_Bus2IP_WrCE = new SLVSignal(userLogic.NumRegs)
{
InitialValue = StdLogicVector._0s(userLogic.NumRegs)
};
_sig_IP2Bus_Data = new SLVSignal(userLogic.SLVDWidth)
{
InitialValue = StdLogicVector._0s(userLogic.SLVDWidth)
};
_sig_IP2Bus_RdAck = new SLSignal()
{
InitialValue = '0'
};
_sig_IP2Bus_WrAck = new SLSignal()
{
InitialValue = '0'
};
_sig_IP2Bus_Error = new SLSignal()
{
InitialValue = '0'
};
_sig_ip2bus_mstrd_req = new SLSignal()
{
InitialValue = '0'
};
_sig_ip2bus_mstwr_req = new SLSignal()
{
InitialValue = '0'
};
_sig_ip2bus_mst_addr = new SLVSignal(userLogic.MasterAXIAddrWidth)
{
InitialValue = StdLogicVector.Us(userLogic.MasterAXIAddrWidth)
};
_sig_ip2bus_mst_be = new SLVSignal(userLogic.NativeDataWidth / 8)
{
InitialValue = StdLogicVector._1s(userLogic.NativeDataWidth / 8)
};
_sig_ip2bus_mst_length = new SLVSignal(userLogic.LengthWidth)
{
InitialValue = StdLogicVector._0s(userLogic.LengthWidth)
};
_sig_ip2bus_mst_type = new SLSignal()
{
InitialValue = '0'
};
_sig_ip2bus_mst_lock = new SLSignal()
{
InitialValue = '0'
};
_sig_ip2bus_mst_reset = new SLSignal()
{
InitialValue = '0'
};
_sig_bus2ip_mst_cmdack = new SLSignal()
{
InitialValue = '0'
};
_sig_bus2ip_mst_cmplt = new SLSignal()
{
InitialValue = '0'
};
_sig_bus2ip_mst_error = new SLSignal()
{
InitialValue = '0'
};
_sig_bus2ip_mst_rearbitrate = new SLSignal()
{
InitialValue = '0'
};
_sig_bus2ip_mst_cmd_timeout = new SLSignal()
{
InitialValue = '0'
};
_sig_bus2ip_mstrd_d = new SLVSignal(userLogic.NativeDataWidth);
_sig_bus2ip_mstrd_rem = new SLVSignal(userLogic.NativeDataWidth / 8)
{
InitialValue = StdLogicVector._0s(userLogic.NativeDataWidth / 8)
};
_sig_bus2ip_mstrd_sof_n = new SLSignal()
{
InitialValue = '0'
};
_sig_bus2ip_mstrd_eof_n = new SLSignal()
{
InitialValue = '0'
};
_sig_bus2ip_mstrd_src_rdy_n = new SLSignal()
{
InitialValue = '1'
};
_sig_bus2ip_mstrd_src_dsc_n = new SLSignal()
{
InitialValue = '1'
};
_sig_ip2bus_mstrd_dst_rdy_n = new SLSignal()
{
InitialValue = '1'
};
_sig_ip2bus_mstrd_dst_dsc_n = new SLSignal()
{
InitialValue = '1'
};
_sig_ip2bus_mstwr_d = new SLVSignal(userLogic.NativeDataWidth);
_sig_ip2bus_mstwr_rem = new SLVSignal(userLogic.NativeDataWidth / 8)
{
InitialValue = StdLogicVector._0s(userLogic.NativeDataWidth / 8)
};
_sig_ip2bus_mstwr_src_rdy_n = new SLSignal()
{
InitialValue = '1'
};
_sig_ip2bus_mstwr_src_dsc_n = new SLSignal()
{
InitialValue = '1'
};
_sig_ip2bus_mstwr_sof_n = new SLSignal()
{
InitialValue = '1'
};
_sig_ip2bus_mstwr_eof_n = new SLSignal()
{
InitialValue = '1'
};
_sig_bus2ip_mstwr_dst_rdy_n = new SLSignal()
{
InitialValue = '1'
};
_sig_bus2ip_mstwr_dst_dsc_n = new SLSignal()
{
InitialValue = '1'
};
userLogic.Bus2IP_Clk = _sig_Bus2IP_Clk;
userLogic.Bus2IP_BE = _sig_Bus2IP_BE;
userLogic.Bus2IP_Clk = _sig_Bus2IP_Clk;
userLogic.Bus2IP_Data = _sig_Bus2IP_Data;
userLogic.Bus2IP_RdCE = _sig_Bus2IP_RdCE;
userLogic.Bus2IP_Resetn = _sig_Bus2IP_Resetn;
userLogic.Bus2IP_WrCE = _sig_Bus2IP_WrCE;
userLogic.IP2Bus_Data = _sig_IP2Bus_Data;
userLogic.IP2Bus_Error = _sig_IP2Bus_Error;
userLogic.IP2Bus_RdAck = _sig_IP2Bus_RdAck;
userLogic.IP2Bus_WrAck = _sig_IP2Bus_WrAck;
userLogic.ip2bus_mstrd_req = _sig_ip2bus_mstrd_req;
userLogic.ip2bus_mstwr_req = _sig_ip2bus_mstwr_req;
userLogic.ip2bus_mst_addr = _sig_ip2bus_mst_addr;
userLogic.ip2bus_mst_be = _sig_ip2bus_mst_be;
userLogic.ip2bus_mst_length = _sig_ip2bus_mst_length;
userLogic.ip2bus_mst_type = _sig_ip2bus_mst_type;
userLogic.ip2bus_mst_lock = _sig_ip2bus_mst_lock;
userLogic.ip2bus_mst_reset = _sig_ip2bus_mst_reset;
userLogic.bus2ip_mst_cmdack = _sig_bus2ip_mst_cmdack;
userLogic.bus2ip_mst_cmplt = _sig_bus2ip_mst_cmplt;
userLogic.bus2ip_mst_error = _sig_bus2ip_mst_error;
userLogic.bus2ip_mst_rearbitrate = _sig_bus2ip_mst_rearbitrate;
userLogic.bus2ip_mst_cmd_timeout = _sig_bus2ip_mst_cmd_timeout;
userLogic.bus2ip_mstrd_d = _sig_bus2ip_mstrd_d;
userLogic.bus2ip_mstrd_rem = _sig_bus2ip_mstrd_rem;
userLogic.bus2ip_mstrd_sof_n = _sig_bus2ip_mstrd_sof_n;
userLogic.bus2ip_mstrd_eof_n = _sig_bus2ip_mstrd_eof_n;
userLogic.bus2ip_mstrd_src_rdy_n = _sig_bus2ip_mstrd_src_rdy_n;
userLogic.bus2ip_mstrd_src_dsc_n = _sig_bus2ip_mstrd_src_dsc_n;
userLogic.ip2bus_mstrd_dst_rdy_n = _sig_ip2bus_mstrd_dst_rdy_n;
userLogic.ip2bus_mstrd_dst_dsc_n = _sig_ip2bus_mstrd_dst_dsc_n;
userLogic.ip2bus_mstwr_d = _sig_ip2bus_mstwr_d;
userLogic.ip2bus_mstwr_rem = _sig_ip2bus_mstwr_rem;
userLogic.ip2bus_mstwr_src_rdy_n = _sig_ip2bus_mstwr_src_rdy_n;
userLogic.ip2bus_mstwr_src_dsc_n = _sig_ip2bus_mstwr_src_dsc_n;
userLogic.ip2bus_mstwr_sof_n = _sig_ip2bus_mstwr_sof_n;
userLogic.ip2bus_mstwr_eof_n = _sig_ip2bus_mstwr_eof_n;
userLogic.bus2ip_mstwr_dst_rdy_n = _sig_bus2ip_mstwr_dst_rdy_n;
userLogic.bus2ip_mstwr_dst_dsc_n = _sig_bus2ip_mstwr_dst_dsc_n;
_clockGen = new Clock(new Time(10.0, ETimeUnit.ns))
{
Clk = _sig_Bus2IP_Clk
};
}
public override void Establish(IAutoBinder binder)
{
if (_realized)
{
return;
}
object constValue;
var literal = (Literal)_literal;
if (literal.IsConst(out constValue))
{
var slv = Marshal.SerializeForHW(constValue);
_dataOutI = (SLVSignal)binder.GetSignal(EPortUsage.Default, "constSignal_" + constValue.ToString(), null, slv);
_dataOut = _dataOutI.Descriptor;
}
else
{
bool needRead = true, needWrite = true;
var fref = _literal as FieldRef;
if (fref != null)
{
needRead = fref.FieldDesc.IsReadInCurrentContext(Host.Context);
needWrite = fref.FieldDesc.IsWrittenInCurrentContext(Host.Context);
}
var stlit = (IStorableLiteral)_literal;
string name = stlit.Name;
var valueSample = _literal.Type.GetSampleInstance();
_dataBits = Marshal.SerializeForHW(valueSample).Size;
_clkI = (SLSignal)binder.GetSignal(EPortUsage.Clock, null, null, null);
_clk = _clkI.Descriptor;
if (needWrite)
{
_wrEnI = (SLSignal)binder.GetSignal(EPortUsage.Default, name + "_wrEn", null, StdLogic._0);
_wrEn = _wrEnI.Descriptor;
_dataInI = (SLVSignal)binder.GetSignal(EPortUsage.Default, name + "_dataIn", null, StdLogicVector._0s(_dataBits));
_dataIn = _dataInI.Descriptor;
}
if (needRead)
{
_dataOutI = (SLVSignal)binder.GetSignal(EPortUsage.Default, name + "_dataOut", null, StdLogicVector._0s(_dataBits));
_dataOut = _dataOutI.Descriptor;
}
//var apb = new AccessProcessBuilder(this, needRead, needWrite);
//var alg = apb.GetAlgorithm();
//alg.Name = name + "_process";
//binder.CreateProcess(Process.EProcessKind.Triggered, alg, _clk);
CommonClockProcess ccp = null;
string algName = name + "_process";
if (Host.Descriptor.HasAttribute <CommonClockProcess>())
{
ccp = Host.Descriptor.QueryAttribute <CommonClockProcess>();
Host.Descriptor.RemoveChild(ccp.CCProc);
}
else
{
ccp = new CommonClockProcess(_clk);
Host.Descriptor.AddAttribute(ccp);
}
ccp.AddAccessor(this, needRead, needWrite);
var alg = ccp.FrameBuilder.Complete();
alg.Name = algName;
ccp.CCProc = binder.CreateProcess(Process.EProcessKind.Triggered, alg, _clk);
}
_realized = true;
}
public override bool Rewrite(CodeDescriptor decompilee, Expression waitObject, IDecompiler stack, IFunctionBuilder builder)
{
if (stack.HasAttribute <Analysis.M2M.HLS>())
{
return(true);
}
var curps = DesignContext.Instance.CurrentProcess;
SLSignal clk = (SLSignal)curps.Sensitivity[0].Owner;
SignalRef srEdge;
if (curps.Predicate.Equals((Func <bool>)clk.RisingEdge))
{
srEdge = SignalRef.Create(clk.Descriptor, SignalRef.EReferencedProperty.RisingEdge);
}
else
{
srEdge = SignalRef.Create(clk.Descriptor, SignalRef.EReferencedProperty.FallingEdge);
}
var lrEdge = new LiteralReference(srEdge);
int nwait = 0;
var nwaitEx = waitObject.Children[0];
bool nwaitConst = nwaitEx.IsConst();
if (nwaitConst)
{
nwait = (int)TypeConversions.ConvertValue(
nwaitEx.Eval(DefaultEvaluator.DefaultConstEvaluator),
typeof(int));
}
var fspec = new FunctionSpec(typeof(void))
{
IntrinsicRep = IntrinsicFunctions.Wait(WaitParams.EWaitKind.WaitUntil)
};
Variable v = null;
LiteralReference lrV = null;
if (!nwaitConst || nwait > 3)
{
v = new Variable(typeof(int))
{
Name = "_wait_i" + (ictr++)
};
builder.DeclareLocal(v);
lrV = new LiteralReference(v);
builder.Store(v, LiteralReference.CreateConstant((int)0));
var loop = builder.Loop();
builder.If(Expression.Equal(lrV, nwaitEx));
{
builder.Break(loop);
}
builder.EndIf();
}
int ncalls = 1;
if (nwaitConst && nwait <= 3)
{
ncalls = nwait;
}
for (int i = 0; i < ncalls; i++)
{
builder.Call(fspec, lrEdge);
}
if (!nwaitConst || nwait > 3)
{
builder.Store(v, lrV + LiteralReference.CreateConstant((int)1));
builder.EndLoop();
}
return(true);
}