}
	}

	// Use unresolved identifiers to determine the imports used by this
	// example. The heuristic assumes package names match base import
	// paths for imports w/o renames (should be good enough most of the time).
	var namedImports []ast.Spec
	var blankImports []ast.Spec // _ imports

	// To preserve the blank lines between groups of imports, find the
	// start position of each group, and assign that position to all

				info.parseErr = scanner.Error{Pos: info.fset.Position(spec.Pos()), Msg: "invalid import path: " + path}
				info.imports = nil
				return nil
			}
			if path == "embed" {
				hasEmbed = true
			}

			doc := spec.Doc
			if doc == nil && len(d.Specs) == 1 {
				doc = d.Doc
			}
			info.imports = append(info.imports, fileImport{path, spec.Pos(), doc})
		}
	}

	// Extract directives.

// unified IR export data decoder.
func readUnifiedPackage(fset *token.FileSet, ctxt *types.Context, imports map[string]*types.Package, input pkgbits.PkgDecoder) *types.Package {
	pr := pkgReader{
		PkgDecoder: input,

		fake: fakeFileSet{
			fset:  fset,
			files: make(map[string]*fileInfo),
		},

		ctxt:    ctxt,
		imports: imports,

		posBases: make([]string, input.NumElems(pkgbits.RelocPosBase)),

      message = "Moved to extension function. Put the 'content' argument first to fix Java",
      replaceWith =
        ReplaceWith(
          expression = "content.toRequestBody(contentType)",
          imports = ["okhttp3.RequestBody.Companion.toRequestBody"],
        ),
      level = DeprecationLevel.WARNING,
    )
    fun create(
      contentType: MediaType?,
      content: String,

		}
		if len(imports) == 0 {
			err = fmt.Errorf("fetching %s: no go-import meta tag found in %s", importPrefix, resp.URL)
		}
		return setCache(fetchResult{url: url, imports: imports, err: err})
	})
	res := resi.(fetchResult)
	return res.url, res.imports, res.err
}

type fetchResult struct {
	url     *urlpkg.URL
	imports []metaImport
	err     error
}

    }
}


interface TypeRefContext {
    fun resolveRef(dataTypeRef: DataTypeRef): DataType
}


interface AnalysisContextView : TypeRefContext {
    val schema: AnalysisSchema
    val imports: Map<String, FqName>
    val currentScopes: List<AnalysisScopeView>
    val assignments: List<AssignmentRecord>
}


class SchemaTypeRefContext(val schema: AnalysisSchema) : TypeRefContext {

    runTest("analysis/analysis-api/testData/components/compilerFacility/compilation/dependencyBetweenBinaryLibraries.kt");
  }

  @Test
  @TestMetadata("imports.kt")
  public void testImports() {
    runTest("analysis/analysis-api/testData/components/compilerFacility/compilation/imports.kt");
  }

  @Test
  @TestMetadata("internalUsage.kt")
  public void testInternalUsage() {

		f, err := fsys.Open(filepath.Join(dir, info.Name()))
		if err != nil {
			base.Fatal(err)
		}
		defer f.Close()

		content, err := imports.ReadImports(f, false, nil)
		if err == nil && !imports.ShouldBuild(content, imports.AnyTags()) {
			// The file is explicitly tagged "ignore", so it can't affect the build.
			// Leave it out.
			return false
		}
		return true
	}

	var ret []types.Object
	// Search through the imports to see if any of them define name.
	// It's hard to tell in general which package is being tested, so
	// for the purposes of the analysis, allow the object to appear
	// in any of the imports. This guarantees there are no false positives
	// because the example needs to use the object so it must be defined
	// in the package or one if its imports. On the other hand, false

		if len(check.pkgPathMap[pkg.name]) > 1 {
			return strconv.Quote(pkg.path)
		}
		return pkg.name
	}
	return ""
}

// markImports recursively walks pkg and its imports, to record unique import
// paths in pkgPathMap.
func (check *Checker) markImports(pkg *Package) {
	if check.seenPkgMap[pkg] {
		return
	}
	check.seenPkgMap[pkg] = true