val signature = createSignature(symbol, resultingDescriptor) ?: return null
        if (targetDescriptor.isSynthesizedPropertyFromJavaAccessors()) {
            // FE1.0 represents synthesized properties as an extension property of the Java class. Hence we use the extension receiver as
            // the dispatch receiver and always pass null for extension receiver (because in Java there is no way to specify an extension

			vp := varPos{
				DeclName: v.Name,
				DeclFile: v.DeclFile,
				DeclLine: v.DeclLine,
				DeclCol:  v.DeclCol,
			}
			synthesized := strings.HasPrefix(v.Name, "~") || v.Name == "_"
			if idx, found := m[vp]; found {
				v.ChildIndex = int32(idx)
				v.IsInAbstract = !synthesized
			} else {
				// Variable can't be found in the pre-inline dcl list.
				// In the top-level case (ii=0) this can happen

                    launchablesParams.add((InternalLaunchable) original);
                } else if (original instanceof TaskListingLaunchable) {
                    // A launchable synthesized by the consumer - unpack it into a set of task names
                    taskPaths.addAll(((TaskListingLaunchable) original).getTaskNames());
                } else if (launchable instanceof Task) {

         * We only add getters for `public static final String` constants. This is because in
         * the converted classes only contain these kinds of constants.
         *
         * This is a mapping of the synthesized accessor name to the name of the backing field,
         * i.e. "getFOO" -> "FOO"
         */
        private Map<String, String> missingStaticStringConstantGetters = new HashMap<String, String>();

    llvm::ArrayRef<TF::ConstOp> target_const_ops) {
  llvm::MapVector<TF::ConstOp, std::string> const_op_name_map{};

  // Keeps track of the number of occurrences of each synthesized name. The
  // `shared_name` of the newly created `VarHandleOp` will be generated by
  // suffixing the `"_{count}"` to the name.
  absl::flat_hash_map<std::string, int> name_counts{};

				comments = append(comments, d.Doc)
			}
		}
	}

	// Synthesize import declaration.
	importDecl := &ast.GenDecl{
		Tok:    token.IMPORT,
		Lparen: 1, // Need non-zero Lparen and Rparen so that printer
		Rparen: 1, // treats this as a factored import.
	}
	importDecl.Specs = append(namedImports, blankImports...)

	// Synthesize main function.
	funcDecl := &ast.FuncDecl{
		Name: ast.NewIdent("main"),

include::sample[dir="snippets/testing/test-suite-configure-source-dir/groovy",files="build.gradle[tags=configure-source-dir]"]
====

<1> Declare and configure a suite named `integrationTest`.  The `SourceSet` and synthesized `Test` tasks will be based on this name.
<2> Configure the `sources` of the test suite.
<3> Configure the `java` SourceDirectorySet of the test suite.

        is CallableMemberDescriptor -> when (kind) {
            CallableMemberDescriptor.Kind.DELEGATION -> return KaSymbolOrigin.DELEGATED
            CallableMemberDescriptor.Kind.SYNTHESIZED -> return KaSymbolOrigin.SOURCE_MEMBER_GENERATED
            else -> {
                if (isDynamic()) {
                    return KaSymbolOrigin.JS_DYNAMIC
                }
            }
        }
    }

// record into the buffer. If the reader is called to read data and finds
// that the output buffer is empty but that there is a pending overflow
// entry, the reader will return a synthesized record for the pending
// overflow entry.
//
// Only the writer can create or add to a pending overflow entry, but
// either the reader or the writer can clear the pending overflow entry.

		// of the Go toolchain may have arbitrary development changes on top of the
		// commit reported by runtime.Version, or could be completely artificial due
		// to lacking a `git` binary (like "devel gomote.XXXXX", as synthesized by
		// "gomote push" as of 2022-06-15). (Release builds shouldn't have
		// modifications, but we don't want to use a behavior for releases that we
		// haven't tested during development.)