Exemple #1
0
        public override void Clone(JsNode node)
        {
            base.Clone(node);
            var node2 = (JsVariableDeclarationStatement)node;

            node2.Declaration = Declaration.Clone();
        }
Exemple #2
0
        // special treatment for np.arange which is a "monster"
        private IEnumerable <Declaration> ExpandArange(Declaration decl)
        {
            // numpy.arange([start, ]stop, [step, ]dtype=None)
            var dtype = decl.Arguments.Last();

            dtype.IsNullable = true;
            dtype.IsNamedArg = true;
            if (decl.Arguments.Any(a => a.Type == "number"))
            {
                foreach (var type in "byte short int long float double".Split())
                {
                    // start, stop
                    var clone_decl = decl.Clone();
                    clone_decl.Arguments.ForEach(a =>
                    {
                        if (a.Type == "number")
                        {
                            a.Type = type;
                        }
                    });
                    clone_decl.Arguments[0].IsNamedArg   = false;
                    clone_decl.Arguments[0].IsNullable   = false;
                    clone_decl.Arguments[0].DefaultValue = null;
                    yield return(clone_decl);

                    // [start=0] <-- remove start from arg list
                    clone_decl = clone_decl.Clone(); // <---- clone from the clone, as it has the correct type
                    clone_decl.Arguments.RemoveAt(0);
                    yield return(clone_decl);
                }
                yield break;
            }
        }
        private IEnumerable <Declaration> InferOverloads(Declaration decl)
        {
            // without args we don't need to consider possible overloads
            if (decl.Arguments.Count == 0)
            {
                yield return(decl);

                yield break;
            }
            // array_like
            if (decl.Arguments.Any(a => a.Type == "(array_like)"))
            {
                foreach (var type in "NDarray T[]".Split())
                {
                    var clone_decl = decl.Clone();
                    clone_decl.Arguments.ForEach(a =>
                    {
                        if (a.Type == "array_like")
                        {
                            a.Type = type;
                        }
                    });
                    if (type == "T[]")
                    {
                        clone_decl.Generics = new string[] { "T" }
                    }
                    ;
                    yield return(clone_decl);
                }
                yield break;
            }
            yield return(decl);
        }
 protected virtual IEnumerable <Declaration> ExpandOverloads(Declaration decl)
 {
     // todo: let's hope there are not multiple expansions in one declaration, or else this will get complicated
     if (decl.Arguments.Any(a => a.Type == "(array_like)"))
     {
         foreach (var type in "NumSharp.NDArray T[]".Split())
         {
             var clone_decl = decl.Clone();
             clone_decl.Arguments.ForEach(a =>
             {
                 if (a.Type == "(array_like)")
                 {
                     a.Type = type;
                 }
             });
             if (type == "T[]")
             {
                 clone_decl.Generics = new string[] { "T" }
             }
             ;
             yield return(clone_decl);
         }
         yield break;
     }
     yield return(decl);
 }
        internal void DualiseKernel()
        {
            List <Declaration> NewTopLevelDeclarations = new List <Declaration>();

            // This loop really does have to be a "for(i ...)" loop.  The reason is
            // that dualisation may add additional functions to the program, which
            // get put into the program's top level declarations and also need to
            // be dualised.
            var decls = verifier.Program.TopLevelDeclarations.ToList();

            for (int i = 0; i < UpdateDeclarationsAndCountTotal(decls); i++)
            {
                Declaration d = decls[i];

                if (d is Axiom)
                {
                    VariableDualiser vd1       = new VariableDualiser(1, null, null);
                    VariableDualiser vd2       = new VariableDualiser(2, null, null);
                    Axiom            NewAxiom1 = vd1.VisitAxiom(d.Clone() as Axiom);
                    Axiom            NewAxiom2 = vd2.VisitAxiom(d.Clone() as Axiom);
                    NewTopLevelDeclarations.Add(NewAxiom1);

                    // Test whether dualisation had any effect by seeing whether the new
                    // axioms are syntactically indistinguishable.  If they are, then there
                    // is no point adding the second axiom.
                    if (!NewAxiom1.ToString().Equals(NewAxiom2.ToString()))
                    {
                        NewTopLevelDeclarations.Add(NewAxiom2);
                    }
                    continue;
                }

                if (d is Procedure)
                {
                    DualiseProcedure(d as Procedure);
                    NewTopLevelDeclarations.Add(d);
                    continue;
                }

                if (d is Implementation)
                {
                    DualiseImplementation(d as Implementation);
                    NewTopLevelDeclarations.Add(d);
                    continue;
                }

                if (d is Variable && ((d as Variable).IsMutable ||
                                      GPUVerifier.IsThreadLocalIdConstant(d as Variable) ||
                                      (GPUVerifier.IsGroupIdConstant(d as Variable) && !GPUVerifyVCGenCommandLineOptions.OnlyIntraGroupRaceChecking)))
                {
                    var v = d as Variable;

                    if (v.Name.Contains("_NOT_ACCESSED_") || v.Name.Contains("_ARRAY_OFFSET"))
                    {
                        NewTopLevelDeclarations.Add(v);
                        continue;
                    }
                    if (QKeyValue.FindBoolAttribute(v.Attributes, "atomic_usedmap"))
                    {
                        NewTopLevelDeclarations.Add(v);
                        continue;
                    }

                    if (verifier.KernelArrayInfo.GetGlobalArrays(true).Contains(v))
                    {
                        NewTopLevelDeclarations.Add(v);
                        continue;
                    }

                    if (verifier.KernelArrayInfo.GetGroupSharedArrays(true).Contains(v))
                    {
                        if (!GPUVerifyVCGenCommandLineOptions.OnlyIntraGroupRaceChecking)
                        {
                            Variable newV = new GlobalVariable(Token.NoToken, new TypedIdent(Token.NoToken,
                                                                                             v.Name, new MapType(Token.NoToken, new List <TypeVariable>(),
                                                                                                                 new List <Microsoft.Boogie.Type> {
                                Microsoft.Boogie.Type.GetBvType(1)
                            },
                                                                                                                 v.TypedIdent.Type)));
                            newV.Attributes = v.Attributes;
                            NewTopLevelDeclarations.Add(newV);
                        }
                        else
                        {
                            NewTopLevelDeclarations.Add(v);
                        }
                        continue;
                    }

                    NewTopLevelDeclarations.Add(new VariableDualiser(1, null, null).VisitVariable((Variable)v.Clone()));
                    if (!QKeyValue.FindBoolAttribute(v.Attributes, "race_checking"))
                    {
                        NewTopLevelDeclarations.Add(new VariableDualiser(2, null, null).VisitVariable((Variable)v.Clone()));
                    }

                    continue;
                }

                NewTopLevelDeclarations.Add(d);
            }

            verifier.Program.TopLevelDeclarations = NewTopLevelDeclarations;
        }
Exemple #6
0
 public override Declaration VisitDeclaration(Declaration node)
 {
     return(base.VisitDeclaration((Declaration)node.Clone()));
 }
Exemple #7
0
 public override Declaration VisitDeclaration(Declaration node)
 {
     //Contract.Requires(node != null);
     Contract.Ensures(Contract.Result <Declaration>() != null);
     return(base.VisitDeclaration((Declaration)node.Clone()));
 }
Exemple #8
0
        private IEnumerable <Declaration> InferOverloads(Declaration decl)
        {
            // without args we don't need to consider possible overloads
            if (decl.Arguments.Count == 0)
            {
                yield return(decl);

                yield break;
            }
            if (decl.Name == "arange")
            {
                foreach (var d in ExpandArange(decl))
                {
                    yield return(d);
                }
                yield break;
            }
            // array_like
            if (decl.Arguments.Any(a => a.Type == "array_like"))
            {
                foreach (var type in "NDarray T[]".Split())
                {
                    var clone_decl = decl.Clone();
                    clone_decl.Arguments.ForEach(a =>
                    {
                        if (a.Type == "array_like")
                        {
                            a.Type = type;
                        }
                    });
                    if (type == "T[]")
                    {
                        clone_decl.Generics = new string[] { "T" };
                        if (clone_decl.Returns[0].Type == "NDarray") // TODO: this feels like a hack. make it more robust if necessary
                        {
                            clone_decl.Returns[0].Type = "NDarray<T>";
                        }
                    }
                    yield return(clone_decl);
                }
                yield break;
            }
            // number
            if (decl.Arguments.Any(a => a.Type == "number"))
            {
                foreach (var type in "byte short int long float double".Split())
                {
                    var clone_decl = decl.Clone();
                    clone_decl.Arguments.ForEach(a =>
                    {
                        if (a.Type == "number")
                        {
                            a.Type = type;
                        }
                    });
                    yield return(clone_decl);
                }
                yield break;
            }
            if (decl.Name == "bmat")
            {
                decl.Arguments[0].Type = "string";
                yield return(decl);

                var clone_decl = decl.Clone();
                clone_decl.Arguments[0].Type = "T[]";
                clone_decl.Generics          = new [] { "T" };
                clone_decl.Returns[0].Type   = "matrix<T>";
                yield return(clone_decl);

                yield break;
            }
            yield return(decl);
        }