public void OnlyOneParse()
{
var underlyingTree = SyntaxFactory.ParseSyntaxTree(
@"
using System;
class C
{
public B X(B b) { return b; }
C(){}
}
"
);
var foreignType = SyntaxFactory.ParseSyntaxTree(
@"
public class B
{
public int member(string s) { return s.Length; }
B(){}
}
"
);
var countedTree = new CountedSyntaxTree(foreignType);
var compilation = CreateCompilation(
new SyntaxTree[] { underlyingTree, countedTree },
skipUsesIsNullable: true,
options: TestOptions.ReleaseDll
);
var type = compilation.Assembly.GlobalNamespace.GetTypeMembers().First();
Assert.Equal(1, countedTree.AccessCount); // parse once to build the decl table
// We shouldn't need to go back to syntax to get info about the member names.
var memberNames = type.MemberNames;
Assert.Equal(1, countedTree.AccessCount);
// Getting the interfaces will cause us to do some more binding of the current type.
var interfaces = type.Interfaces();
Assert.Equal(1, countedTree.AccessCount);
// Now bind the members.
var method = (MethodSymbol)type.GetMembers().First();
Assert.Equal(1, countedTree.AccessCount);
// Once we have the method, we shouldn't need to go back to syntax again.
var returnType = method.ReturnTypeWithAnnotations;
Assert.Equal(1, countedTree.AccessCount);
var parameterType = method.Parameters.Single();
Assert.Equal(1, countedTree.AccessCount);
}
public Reference(
CountedSyntaxTree countedSyntaxTree,
SyntaxReference syntaxReference
)
{
_countedSyntaxTree = countedSyntaxTree;
_underlyingSyntaxReference = syntaxReference;
}
public void OnlyOneParse_WithReservedTypeName()
{
var underlyingTree = SyntaxFactory.ParseSyntaxTree(@"
using System;
class c
{
public b X(b b1) { return b1; }
c(){}
}
");
var foreignType = SyntaxFactory.ParseSyntaxTree(@"
public class b
{
public int member(string s) { return s.Length; }
b(){}
}
");
var countedTree = new CountedSyntaxTree(foreignType);
var compilation = CreateCompilation(new SyntaxTree[] { underlyingTree, countedTree }, skipUsesIsNullable: true, options: TestOptions.ReleaseDll);
var type = compilation.Assembly.GlobalNamespace.GetTypeMembers().First();
Assert.Equal(1, countedTree.AccessCount);
var memberNames = type.MemberNames;
Assert.Equal(1, countedTree.AccessCount);
var interfaces = type.Interfaces();
Assert.Equal(1, countedTree.AccessCount);
var method = (MethodSymbol)type.GetMembers().First();
Assert.Equal(1, countedTree.AccessCount);
var returnType = method.ReturnTypeWithAnnotations;
Assert.Equal(1, countedTree.AccessCount);
var parameterType = method.Parameters.Single();
Assert.Equal(1, countedTree.AccessCount);
}
public Reference(CountedSyntaxTree countedSyntaxTree, SyntaxReference syntaxReference)
{
this.countedSyntaxTree = countedSyntaxTree;
this.underlyingSyntaxReference = syntaxReference;
}
public void OnlyOneParse()
{
var underlyingTree = SyntaxFactory.ParseSyntaxTree(@"
using System;
class C
{
public B X(B b) { return b; }
C(){}
}
");
var foriegnType = SyntaxFactory.ParseSyntaxTree(@"
public class B
{
public int member(string s) { return s.Length; }
B(){}
}
");
var countedTree = new CountedSyntaxTree(foriegnType);
var compilation = CreateCompilationWithMscorlib(new SyntaxTree[] { underlyingTree, countedTree });
var type = compilation.Assembly.GlobalNamespace.GetTypeMembers().First();
Assert.Equal(1, countedTree.AccessCount); // parse once to build the decl table
// We shouldn't need to go back to syntax to get info about the member names.
var memberNames = type.MemberNames;
Assert.Equal(1, countedTree.AccessCount);
// Getting the interfaces will cause us to do some more binding of the current type.
var interfaces = type.Interfaces;
Assert.Equal(1, countedTree.AccessCount);
// Now bind the members.
var method = (MethodSymbol)type.GetMembers().First();
Assert.Equal(1, countedTree.AccessCount);
// Once we have the method, we shouldn't need to go back to syntax again.
var returnType = method.ReturnType;
Assert.Equal(1, countedTree.AccessCount);
var parameterType = method.Parameters.Single();
Assert.Equal(1, countedTree.AccessCount);
}
public Reference(CountedSyntaxTree countedSyntaxTree, SyntaxReference syntaxReference)
{
this.countedSyntaxTree = countedSyntaxTree;
this.underlyingSyntaxReference = syntaxReference;
}
public Reference(CountedSyntaxTree countedSyntaxTree, SyntaxReference syntaxReference)
{
_countedSyntaxTree = countedSyntaxTree;
_underlyingSyntaxReference = syntaxReference;
}
