Index = "i"

	// Key indicates that the content of this path element is a key value map
	Key = "k"

	// Separator separates the type of a path element from the contents
	Separator = ":"
)

// NewPathElement parses a serialized path element
func NewPathElement(s string) (fieldpath.PathElement, error) {
	split := strings.SplitN(s, Separator, 2)
	if len(split) < 2 {
		return fieldpath.PathElement{}, fmt.Errorf("missing colon: %v", s)
	}

        !d.force
        d.artifacts.size() == 0
    }

    def "parses short hand-notation #notation for strict dependencies"() {
        def parser = new DependencyStringNotationConverter(TestUtil.instantiatorFactory().decorateLenient(), DefaultClientModule, SimpleMapInterner.notThreadSafe());

        when:
        def d = parse(parser, "org.foo:bar:$notation")

        then:
        d instanceof ExternalModuleDependency

        def process = ['readelf', '-s', binaryFile.absolutePath].execute()
        def lines = process.inputStream.readLines()
        return readSymbols(lines)
    }

    /**
     * This parses the command-line output of readelf -s and extracts all FILE symbols.
     *
     * @return list of symbols representing the source files included in the binary
     */
    @VisibleForTesting

  }
}

// Parses a text proto into a `QuantizationSpecs` proto. Returns
// `InvalidArgumentError` if `text_proto` is invalid.
absl::StatusOr<QuantizationSpecs> ParseTextProto(
    const absl::string_view text_proto) {
  QuantizationSpecs quantization_specs;
  TextFormat::Parser parser;
  ArrayInputStream input_stream(text_proto.data(), text_proto.size());
  if (parser.Parse(&input_stream, &quantization_specs)) {

        parser.option('long-option-a')
        parser.option('long-option-b')

        expect:
        def result = parser.parse(['--long-option-a'])
        result.hasOption('long-option-a')
        !result.hasOption('long-option-b')
    }

    def canUseSingleDashForLongOptions() {
        parser.option('long')
        parser.option('other').hasArgument()

        expect:

func lang(x string) string {
	v := parse(x)
	if v.minor == "" || v.major == "1" && v.minor == "0" {
		return v.major
	}
	return v.major + "." + v.minor
}

// isValid reports whether the version x is valid.
func isValid(x string) bool {
	return parse(x) != gover{}
}

// parse parses the Go version string x into a version.
// It returns the zero version if x is malformed.

		return "", fmt.Errorf("unable to find groups using %s and %s annotations", securityv1.SupplementalGroupsAnnotation, securityv1.UIDRangeAnnotation)
	}
	return groups, nil
}

// parseSupplementalGroupAnnotation parses the group annotation into blocks.
func parseSupplementalGroupAnnotation(groups string) ([]Block, error) {
	blocks := []Block{}
	segments := strings.Split(groups, ",")
	for _, segment := range segments {

Status GenerateHeader(const CodegenOpts& opts, const tf2xla::Config& config,
                      const CompileResult& compile_result,
                      const MetadataResult& metadata_result, string* header);

// ParseCppClass parses `cpp_class` into its `class_name` and `namespaces`
// components.  The syntax is [[<optional_namespace>::],...]<class_name>.  This
// mirrors the C++ syntax for referring to a class, where multiple namespaces

			// need to parse a full expression. Notably, name <- x
			// is not a concern because name <- x is a statement and
			// not an expression.
			var x Expr = p.name()
			if p.tok != _Lbrack {
				// To parse the expression starting with name, expand
				// the call sequence we would get by passing in name
				// to parser.expr, and pass in name to parser.pexpr.
				p.xnest++

	if !d.IsValid() {
		return Errorf("invalid destination")
	}

	if !wildcard.Match(d.Bucket, bucketName) {
		return Errorf("bucket name does not match")
	}
	return nil
}

// parseDestination - parses string to Destination.
func parseDestination(s string) (Destination, error) {
	if !strings.HasPrefix(s, DestinationARNPrefix) && !strings.HasPrefix(s, DestinationARNMinIOPrefix) {