public void ExecuteIn(Vm vm)
{
var lhs = lhExpr.EvalInt(vm);
RelOp relOp;
if (relop.s == ">")
{
relOp = new GT();
}
else if (relop.s == ">=")
{
relOp = new GTE();
}
else if (relop.s == "<")
{
relOp = new LT();
}
else if (relop.s == "<=")
{
relOp = new LTE();
}
else if (relop.s == "<>")
{
relOp = new NEQ();
}
else
{
relOp = new EQ();
}
var rhs = rhExpr.EvalInt(vm);
var pass = relOp.Execute(lhs, rhs);
if (pass)
{
statement.Command.ExecuteIn(vm);
}
}
/// <summary>
/// Create a single component from XML data
/// </summary>
/// <param name="node">XML node containing component data</param>
/// <returns>Created Component</returns>
private static ComponentBase CreateComponent(XmlNode node)
{
ComponentBase component;
switch (node.LocalName)
{
#region Basic
case "Coil":
Coil coil = new Coil();
coil.Mode = node.Attributes["Mode"].Value.ToEnum <Coil.CoilMode>();
coil.Type = node.Attributes["Type"].Value.ToEnum <Coil.CoilType>();
component = coil;
break;
case "Contact":
Contact contact = new Contact();
contact.IsClosed = node.Attributes["IsClosed"].Value.ToBool();
contact.IsInverted = node.Attributes["IsInverted"].Value.ToBool();
contact.Type = node.Attributes["Type"].Value.ToEnum <Contact.ContactType>();
component = contact;
break;
case "SC": component = new SC(); break;
case "OSF": component = new OSF(); break;
case "OSR": component = new OSR(); break;
#endregion Basic
#region Compare Components
case "EQU": component = new EQU(); break;
case "GEQ": component = new GEQ(); break;
case "GRT": component = new GRT(); break;
case "LEG": component = new LEG(); break;
case "LES": component = new LES(); break;
case "NEQ": component = new NEQ(); break;
#endregion Compare Components
#region Counter Components
case "CTC": component = new CTC(); break;
case "CTD": component = new CTD(); break;
case "CTU": component = new CTU(); break;
case "RES": component = new RES(); break;
#endregion Counter Components
#region Math Components
case "ADD": component = new ADD(); break;
case "DIV": component = new DIV(); break;
case "MUL": component = new MUL(); break;
case "SUB": component = new SUB(); break;
case "MOV": component = new MOV(); break;
#endregion Math Components
#region Analog Components
case "ADC":
ADC adc = new ADC();
adc.Destination = node.Attributes["Destination"].Value;
component = adc;
break;
case "PWM":
PWM pwm = new PWM();
pwm.DudyCycle = node.Attributes["DudyCycle"].Value;
component = pwm;
break;
#endregion Analog Components
#region Function Components
case "ELF":
ELF elf = new ELF();
elf.Name = node.Attributes["Name"].Value;
elf.Code = node.InnerText;
component = elf;
break;
#endregion Function Components
default:
throw new ArgumentException("Unknow Component", "node");
}
component.Comment = node.Attributes["Comment"].Value;
#region Extra Processing based on Components Base Class
if (component is NameableComponent)
{
(component as NameableComponent).Name = node.Attributes["Name"].Value;
}
if (component is CompareComponent)
{
(component as CompareComponent).VarA = node.Attributes["VarA"].Value;
(component as CompareComponent).VarB = node.Attributes["VarB"].Value;
}
else if (component is CounterComponent)
{
(component as CounterComponent).Limit = node.Attributes["Limit"].Value;
}
else if (component is MathComponent)
{
(component as MathComponent).Destination = node.Attributes["Destination"].Value;
(component as MathComponent).VarA = node.Attributes["VarA"].Value;
(component as MathComponent).VarB = node.Attributes["VarB"].Value;
}
#endregion Extra Processing based on Components Base Class
return(component);
}
private void initOperators()
{
setName(NEG, "-");
operators[NEG.operatorIndex()] = new[] {
unary(NEG, TypeTag.INT, TypeTag.INT),
unary(NEG, TypeTag.LONG, TypeTag.LONG),
unary(NEG, TypeTag.FLOAT, TypeTag.DOUBLE),
unary(NEG, TypeTag.DOUBLE, TypeTag.DOUBLE),
};
setName(NOT, "!");
operators[NOT.operatorIndex()] = new[] {
unary(NOT, TypeTag.BOOLEAN, TypeTag.BOOLEAN)
};
setName(COMPL, "~");
operators[COMPL.operatorIndex()] = new[] {
unary(COMPL, TypeTag.INT, TypeTag.INT),
unary(COMPL, TypeTag.LONG, TypeTag.LONG)
};
setName(PRE_INC, "++");
operators[PRE_INC.operatorIndex()] = new[] {
unary(PRE_INC, TypeTag.INT, TypeTag.INT, LLVMAdd),
unary(PRE_INC, TypeTag.LONG, TypeTag.LONG, LLVMAdd),
unary(PRE_INC, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFAdd),
unary(PRE_INC, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFAdd)
};
setName(PRE_DEC, "--");
operators[PRE_DEC.operatorIndex()] = new[] {
unary(PRE_DEC, TypeTag.INT, TypeTag.INT, LLVMSub),
unary(PRE_DEC, TypeTag.LONG, TypeTag.LONG, LLVMSub),
unary(PRE_DEC, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFSub),
unary(PRE_DEC, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFSub)
};
setName(POST_INC, "++");
operators[POST_INC.operatorIndex()] = new[] {
unary(POST_INC, TypeTag.INT, TypeTag.INT, LLVMAdd),
unary(POST_INC, TypeTag.LONG, TypeTag.LONG, LLVMAdd),
unary(POST_INC, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFAdd),
unary(POST_INC, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFAdd)
};
setName(POST_DEC, "--");
operators[POST_DEC.operatorIndex()] = new[] {
unary(POST_DEC, TypeTag.INT, TypeTag.INT, LLVMSub),
unary(POST_DEC, TypeTag.LONG, TypeTag.LONG, LLVMSub),
unary(POST_DEC, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFSub),
unary(POST_DEC, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFSub)
};
setName(OR, "||");
operators[OR.operatorIndex()] = new[] {
binary(OR, TypeTag.BOOLEAN, TypeTag.BOOLEAN, TypeTag.BOOLEAN, LLVMOr),
};
setName(AND, "&&");
operators[AND.operatorIndex()] = new[] {
binary(AND, TypeTag.BOOLEAN, TypeTag.BOOLEAN, TypeTag.BOOLEAN, LLVMAnd),
};
// Order of combination listing for binary operators matters for correct resolution
// More assignable types must be listed after less assignable ones,
// which is the order listed in the TypeTag enum.
setName(BITOR, "|");
operators[BITOR.operatorIndex()] = new[] {
binary(BITOR, TypeTag.BOOLEAN, TypeTag.BOOLEAN, TypeTag.BOOLEAN, LLVMOr),
binary(BITOR, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMOr),
binary(BITOR, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMOr),
};
setName(BITXOR, "^");
operators[BITXOR.operatorIndex()] = new[] {
binary(BITXOR, TypeTag.BOOLEAN, TypeTag.BOOLEAN, TypeTag.BOOLEAN, LLVMXor),
binary(BITXOR, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMXor),
binary(BITXOR, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMXor),
};
setName(BITAND, "&");
operators[BITAND.operatorIndex()] = new[] {
binary(BITAND, TypeTag.BOOLEAN, TypeTag.BOOLEAN, TypeTag.BOOLEAN, LLVMAnd),
binary(BITAND, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMAnd),
binary(BITAND, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMAnd),
};
setName(EQ, "==");
operators[EQ.operatorIndex()] = new[] {
binary(EQ, TypeTag.BOOLEAN, TypeTag.BOOLEAN, TypeTag.BOOLEAN, LLVMICmp, LLVMIntEQ),
binary(EQ, TypeTag.CHAR, TypeTag.CHAR, TypeTag.BOOLEAN, LLVMICmp, LLVMIntEQ),
binary(EQ, TypeTag.INT, TypeTag.INT, TypeTag.BOOLEAN, LLVMICmp, LLVMIntEQ),
binary(EQ, TypeTag.LONG, TypeTag.LONG, TypeTag.BOOLEAN, LLVMICmp, LLVMIntEQ),
binary(EQ, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOEQ),
binary(EQ, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOEQ),
};
setName(NEQ, "!=");
operators[NEQ.operatorIndex()] = new[] {
binary(NEQ, TypeTag.BOOLEAN, TypeTag.BOOLEAN, TypeTag.BOOLEAN, LLVMICmp, LLVMIntNE),
binary(NEQ, TypeTag.CHAR, TypeTag.CHAR, TypeTag.BOOLEAN, LLVMICmp, LLVMIntNE),
binary(NEQ, TypeTag.INT, TypeTag.INT, TypeTag.BOOLEAN, LLVMICmp, LLVMIntNE),
binary(NEQ, TypeTag.LONG, TypeTag.LONG, TypeTag.BOOLEAN, LLVMICmp, LLVMIntNE),
binary(NEQ, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealONE),
binary(NEQ, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealONE),
};
setName(LT, "<");
operators[LT.operatorIndex()] = new[] {
binary(LT, TypeTag.CHAR, TypeTag.CHAR, TypeTag.BOOLEAN, LLVMICmp, LLVMIntULT),
binary(LT, TypeTag.INT, TypeTag.INT, TypeTag.BOOLEAN, LLVMICmp, LLVMIntSLT),
binary(LT, TypeTag.LONG, TypeTag.LONG, TypeTag.BOOLEAN, LLVMICmp, LLVMIntSLT),
binary(LT, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOLT),
binary(LT, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOLT),
};
setName(GT, ">");
operators[GT.operatorIndex()] = new[] {
binary(GT, TypeTag.CHAR, TypeTag.CHAR, TypeTag.BOOLEAN, LLVMICmp, LLVMIntUGT),
binary(GT, TypeTag.INT, TypeTag.INT, TypeTag.BOOLEAN, LLVMICmp, LLVMIntSGT),
binary(GT, TypeTag.LONG, TypeTag.LONG, TypeTag.BOOLEAN, LLVMICmp, LLVMIntSGT),
binary(GT, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOGT),
binary(GT, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOGT),
};
setName(LE, "<=");
operators[LE.operatorIndex()] = new[] {
binary(LE, TypeTag.CHAR, TypeTag.CHAR, TypeTag.BOOLEAN, LLVMICmp, LLVMIntULE),
binary(LE, TypeTag.INT, TypeTag.INT, TypeTag.BOOLEAN, LLVMICmp, LLVMIntSLE),
binary(LE, TypeTag.LONG, TypeTag.LONG, TypeTag.BOOLEAN, LLVMICmp, LLVMIntSLE),
binary(LE, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOLE),
binary(LE, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOLE),
};
setName(GE, ">=");
operators[GE.operatorIndex()] = new[] {
binary(GE, TypeTag.CHAR, TypeTag.CHAR, TypeTag.BOOLEAN, LLVMICmp, LLVMIntUGE),
binary(GE, TypeTag.INT, TypeTag.INT, TypeTag.BOOLEAN, LLVMICmp, LLVMIntSGE),
binary(GE, TypeTag.LONG, TypeTag.LONG, TypeTag.BOOLEAN, LLVMICmp, LLVMIntSGE),
binary(GE, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOGE),
binary(GE, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.BOOLEAN, LLVMFCmp, LLVMRealOGE),
};
setName(SHL, "<<");
operators[SHL.operatorIndex()] = new[] {
binary(SHL, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMShl),
binary(SHL, TypeTag.INT, TypeTag.LONG, TypeTag.INT, LLVMShl),
binary(SHL, TypeTag.LONG, TypeTag.INT, TypeTag.LONG, LLVMShl),
binary(SHL, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMShl),
};
setName(SHR, ">>");
operators[SHR.operatorIndex()] = new[] {
binary(SHR, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMLShr),
binary(SHR, TypeTag.INT, TypeTag.LONG, TypeTag.INT, LLVMLShr),
binary(SHR, TypeTag.LONG, TypeTag.INT, TypeTag.LONG, LLVMLShr),
binary(SHR, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMLShr),
};
setName(PLUS, "+");
operators[PLUS.operatorIndex()] = new[] {
binary(PLUS, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMAdd),
binary(PLUS, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMAdd),
binary(PLUS, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFAdd),
binary(PLUS, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFAdd),
};
setName(MINUS, "-");
operators[MINUS.operatorIndex()] = new[] {
binary(MINUS, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMSub),
binary(MINUS, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMSub),
binary(MINUS, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFSub),
binary(MINUS, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFSub),
};
setName(MUL, "*");
operators[MUL.operatorIndex()] = new[] {
binary(MUL, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMMul),
binary(MUL, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMMul),
binary(MUL, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFMul),
binary(MUL, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFMul),
};
setName(DIV, "/");
operators[DIV.operatorIndex()] = new[] {
binary(DIV, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMSDiv),
binary(DIV, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMSDiv),
binary(DIV, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFDiv),
binary(DIV, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFDiv),
};
setName(MOD, "%");
operators[MOD.operatorIndex()] = new[] {
binary(MOD, TypeTag.INT, TypeTag.INT, TypeTag.INT, LLVMSRem),
binary(MOD, TypeTag.LONG, TypeTag.LONG, TypeTag.LONG, LLVMSRem),
binary(MOD, TypeTag.FLOAT, TypeTag.FLOAT, TypeTag.FLOAT, LLVMFRem),
binary(MOD, TypeTag.DOUBLE, TypeTag.DOUBLE, TypeTag.DOUBLE, LLVMFRem),
};
}
public void Compare()
{
#region Startup
var TestTable = new LadderDataTable();
Node PowerRail = new Node();
EQU equ = new EQU();
equ.LeftLide = PowerRail;
equ.VarA = "VarA";
equ.VarB = "VarB";
equ.DataTable = TestTable;
GEQ geq = new GEQ();
geq.LeftLide = PowerRail;
geq.VarA = "VarA";
geq.VarB = "VarB";
geq.DataTable = TestTable;
GRT grt = new GRT();
grt.LeftLide = PowerRail;
grt.VarA = "VarA";
grt.VarB = "VarB";
grt.DataTable = TestTable;
LEG leg = new LEG();
leg.LeftLide = PowerRail;
leg.VarA = "VarA";
leg.VarB = "VarB";
leg.DataTable = TestTable;
LES les = new LES();
les.LeftLide = PowerRail;
les.VarA = "VarA";
les.VarB = "VarB";
les.DataTable = TestTable;
NEQ neq = new NEQ();
neq.LeftLide = PowerRail;
neq.VarA = "VarA";
neq.VarB = "VarB";
neq.DataTable = TestTable;
#endregion Startup
#region EQU
Trace.WriteLine("EQU", "Unit Test");
Trace.Indent();
Trace.WriteLine("Input False", "EQU");
Trace.Indent();
PowerRail.LogicLevel = false;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(equ.Execute());
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(equ.Execute());
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
Assert.IsFalse(equ.Execute());
Trace.Unindent();
Trace.WriteLine("Input True", "EQU");
Trace.Indent();
PowerRail.LogicLevel = true;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
Assert.IsTrue(equ.Execute());
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(equ.Execute());
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
Assert.IsFalse(equ.Execute());
Trace.Unindent();
Trace.Unindent();
#endregion EQU
#region GEQ
Trace.WriteLine("GEQ", "Unit Test");
Trace.Indent();
Trace.WriteLine("Input False", "GEQ");
Trace.Indent();
PowerRail.LogicLevel = false;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(geq.Execute());
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(geq.Execute());
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
Assert.IsFalse(geq.Execute());
Trace.Unindent();
Trace.WriteLine("Input True", "GEQ");
Trace.Indent();
PowerRail.LogicLevel = true;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
Assert.IsTrue(geq.Execute());
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(geq.Execute());
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
Assert.IsTrue(geq.Execute());
Trace.Unindent();
Trace.Unindent();
#endregion GEQ
#region GRT
Trace.WriteLine("GRT", "Unit Test");
Trace.Indent();
Trace.WriteLine("Input False", "GRT");
Trace.Indent();
PowerRail.LogicLevel = false;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
grt.Execute();
Assert.IsFalse(grt.InternalState);
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
grt.Execute();
Assert.IsFalse(grt.InternalState);
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
grt.Execute();
Assert.IsFalse(grt.InternalState);
Trace.Unindent();
Trace.WriteLine("Input True", "GRT");
Trace.Indent();
PowerRail.LogicLevel = true;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
grt.Execute();
Assert.IsFalse(grt.InternalState);
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
grt.Execute();
Assert.IsFalse(grt.InternalState);
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
grt.Execute();
Assert.IsTrue(grt.InternalState);
Trace.Unindent();
Trace.Unindent();
#endregion GRT
#region LEG
Trace.WriteLine("LEG", "Unit Test");
Trace.Indent();
Trace.WriteLine("Input False", "LEG");
Trace.Indent();
PowerRail.LogicLevel = false;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
leg.Execute();
Assert.IsFalse(leg.InternalState);
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
leg.Execute();
Assert.IsFalse(leg.InternalState);
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
leg.Execute();
Assert.IsFalse(leg.InternalState);
Trace.Unindent();
Trace.WriteLine("Input True", "LEG");
Trace.Indent();
PowerRail.LogicLevel = true;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
leg.Execute();
Assert.IsTrue(leg.InternalState);
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
leg.Execute();
Assert.IsTrue(leg.InternalState);
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
leg.Execute();
Assert.IsFalse(leg.InternalState);
Trace.Unindent();
Trace.Unindent();
#endregion LEG
#region LES
Trace.WriteLine("LES", "Unit Test");
Trace.Indent();
Trace.WriteLine("Input False", "LES");
Trace.Indent();
PowerRail.LogicLevel = false;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(les.Execute());
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(les.Execute());
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
Assert.IsFalse(les.Execute());
Trace.Unindent();
Trace.WriteLine("Input True", "LES");
Trace.Indent();
PowerRail.LogicLevel = true;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(les.Execute());
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
Assert.IsTrue(les.Execute());
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
Assert.IsFalse(les.Execute());
Trace.Unindent();
Trace.Unindent();
#endregion LES
#region NEQ
Trace.WriteLine("NEQ", "Unit Test");
Trace.Indent();
Trace.WriteLine("Input False", "NEQ");
Trace.Indent();
PowerRail.LogicLevel = false;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(neq.Execute());
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(neq.Execute());
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
Assert.IsFalse(neq.Execute());
Trace.Unindent();
Trace.WriteLine("Input True", "NEQ");
Trace.Indent();
PowerRail.LogicLevel = true;
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)1);
Assert.IsFalse(neq.Execute());
TestTable.SetValue(0, (short)0);
TestTable.SetValue(1, (short)1);
Assert.IsTrue(neq.Execute());
TestTable.SetValue(0, (short)1);
TestTable.SetValue(1, (short)0);
Assert.IsTrue(neq.Execute());
Trace.Unindent();
Trace.Unindent();
#endregion NEQ
}