}
        """

        file("lib/build.gradle.dcl") << """
            library {
                name = "my-lib"
            }
        """
        file("app/build.gradle.dcl") << """
            application {
                name = "my-app"
            }
        """
        file("util/build.gradle.dcl") << """
            utility {
                name = "my-util"
            }

                }
            }
        """

        file("settings.gradle.dcl") << """
            pluginManagement {
                includeBuild("build-logic")
            }

            plugins {
                id("com.example.restricted.ecosystem")
            }
        """

        file("build.gradle.dcl") << """
            restricted {
                access {

        file("build.gradle.dcl") << defineDeclarativeDSLBuildScript()
        file("settings.gradle") << defineSettings()

        expect: "the build fails"
        fails("dependencies", "--configuration", "api")
        failure.assertHasCause("Failed to interpret the declarative DSL file '${testDirectory.file("build.gradle.dcl").path}'")
    }

	Cost int32 // heuristic cost of inlining this function

	// Copy of Func.Dcl for use during inlining. This copy is needed
	// because the function's Dcl may change from later compiler
	// transformations. This field is also populated when a function
	// from another package is imported and inlined.
	Dcl     []*Name
	HaveDcl bool // whether we've loaded Dcl

	// Function properties, encoded as a string (these are used for

// up the pre-inlining DCL list for the function and create a map that
// supports lookup of pre-inline dcl index, based on variable
// position/name. NB: the recipe for computing variable pos/file/line
// needs to be kept in sync with the similar code in gc.createSimpleVars
// and related functions.
func makePreinlineDclMap(fnsym *obj.LSym) map[varPos]int {
	dcl := preInliningDcls(fnsym)
	m := make(map[varPos]int)

 */
package org.gradle.test.fixtures.dsl

import groovy.transform.CompileStatic

@CompileStatic
enum GradleDsl {

    GROOVY(".gradle"),
    KOTLIN(".gradle.kts"),
    DECLARATIVE(".gradle.dcl");

    private final String fileExtension;

    GradleDsl(String fileExtension) {
        this.fileExtension = fileExtension;
    }

    String fileNameFor(String fileNameWithoutExtension) {

            Arrays.asList(
                scriptingLanguage(".gradle", null),
                scriptingLanguage(".gradle.kts", "org.gradle.kotlin.dsl.provider.KotlinScriptPluginFactory"),
                scriptingLanguage(".gradle.dcl", "org.gradle.internal.declarativedsl.provider.DeclarativeDslScriptPluginFactory")
            )
        );

    public static List<ScriptingLanguage> all() {
        return ALL;
    }

	// Create new function type with parameters prepended, and
	// then update type and declarations.
	typ = types.NewSignature(nil, append(params, typ.Params()...), typ.Results())
	f.SetType(typ)
	clofn.Dcl = append(decls, clofn.Dcl...)

	// Rewrite call.
	n.Fun = f
	n.Args.Prepend(closureArgs(clo)...)

	// Update the call expression's type. We need to do this
	// because typecheck gave it the result type of the OCLOSURE

	list := block.List
	var dcl *ir.Decl
	if len(list) == 3 && list[0].Op() == ir.ODCL {
		dcl = list[0].(*ir.Decl)
		list = list[1:]
	}
	if len(list) != 2 ||
		list[0].Op() != ir.OAS2 ||
		list[1].Op() != ir.OGOTO ||
		list[1].(*ir.BranchStmt).Label != label {
		return false
	}
	as2body := list[0].(*ir.AssignListStmt)
	if dcl == nil {
		ainit := as2body.Init()

		// Bypass reflection and just print what we want.
		n := n.(*Func)
		fmt.Fprintf(w, "%+v", n.Op())
		dumpNodeHeader(w, n)
		fn := n
		if len(fn.Dcl) > 0 {
			indent(w, depth)
			fmt.Fprintf(w, "%+v-Dcl", n.Op())
			for _, dcl := range n.Dcl {
				dumpNode(w, dcl, depth+1)
			}
		}
		if len(fn.ClosureVars) > 0 {
			indent(w, depth)
			fmt.Fprintf(w, "%+v-ClosureVars", n.Op())