p.TestEmbedPatterns, p.TestEmbedPatternPos = cleanDecls(testEmbedPos)
	p.XTestEmbedPatterns, p.XTestEmbedPatternPos = cleanDecls(xTestEmbedPos)

	p.Imports, p.ImportPos = cleanDecls(importPos)
	p.TestImports, p.TestImportPos = cleanDecls(testImportPos)
	p.XTestImports, p.XTestImportPos = cleanDecls(xTestImportPos)

	// add the .S/.sx files only if we are using cgo

            DefaultModelProblemCollector problems,
            Collection<String> importIds) {
        DependencyManagement depMgmt = model.getDependencyManagement();

        if (depMgmt == null) {
            return;
        }

        String importing = model.getGroupId() + ':' + model.getArtifactId() + ':' + model.getVersion();

        importIds.add(importing);

	// If we didn't scan all of the imports from the main module, or didn't use
	// imports.AnyTags, then we didn't necessarily load every package that
	// contributes “direct” imports — so we can't safely mark existing direct
	// dependencies in ld.requirements as indirect-only. Propagate them as direct.
	loadedDirect := ld.allPatternIsRoot && maps.Equal(ld.Tags, imports.AnyTags())
	if loadedDirect {

            Collection<String> importIds) {
        DependencyManagement depMgmt = model.getDependencyManagement();

        if (depMgmt == null) {
            return model;
        }

        String importing = model.getGroupId() + ':' + model.getArtifactId() + ':' + model.getVersion();

        importIds.add(importing);

        List<DependencyManagement> importMgmts = null;

		if pkg == nil {
			t.Errorf("for %s importer, type-checking failed to return a package", compiler)
			continue
		}

		imports := pkg.Imports()
		if len(imports) != 1 {
			t.Errorf("for %s importer, got %d imports, want 1", compiler, len(imports))
			continue
		}
		imp := imports[0]
		if imp.Name() != "foo" {
			t.Errorf(`for %s importer, got %q, want "foo"`, compiler, imp.Name())
			continue
		}

		if pkg == nil {
			t.Errorf("for %s importer, type-checking failed to return a package", compiler)
			continue
		}

		imports := pkg.Imports()
		if len(imports) != 1 {
			t.Errorf("for %s importer, got %d imports, want 1", compiler, len(imports))
			continue
		}
		imp := imports[0]
		if imp.Name() != "foo" {
			t.Errorf(`for %s importer, got %q, want "foo"`, compiler, imp.Name())
			continue
		}

 * on performance, by taking advantage of knowledge of Gradle default imports, including a mapping from simple name to fully qualified class name. It also avoids unnecessary lookups of classnodes.
 *
 * @since 2.12
 */
public class GradleResolveVisitor extends ResolveVisitor {

		p.next()
	} else {
		p.expect(token.STRING) // use expect() error handling
	}
	p.expectSemi() // call before accessing p.linecomment

	// collect imports
	spec := &ast.ImportSpec{doc, ident, path, p.lineComment}
	p.imports = append(p.imports, spec)

	return spec
}

func parseConstSpec(p *parser, doc *ast.CommentGroup, iota int) ast.Spec {
	if p.trace {
		defer un(trace(p, "ConstSpec"))

	opts := modload.PackageOpts{
		Tags:                     imports.AnyTags(),
		VendorModulesInGOROOTSrc: true,
		LoadTests:                *getT,
		AssumeRootsImported:      true, // After 'go get foo', imports of foo should build.
		SilencePackageErrors:     true, // May be fixed by subsequent upgrades or downgrades.

// internal linking, this may turn weak imports into strong imports,
// which could cause dynamic linking to fail if a symbol really isn't
// defined. However, the standard library depends on everything it
// imports, and this is the primary use of dynamic symbol tables with
// internal linking.
func elfImportedSymbols(f *elf.File) []elf.ImportedSymbol {
	syms, _ := f.DynamicSymbols()
	var imports []elf.ImportedSymbol
	for _, s := range syms {