ip, _ := netip.AddrFromSlice(b) // Address only comes from objects we create, so it must be valid
	return ip
}

func (a index) getWaypointAddress(w *Waypoint) *workloadapi.GatewayAddress {
	// probably overly cautious... I don't think the ambient index impl counts something with zero addresses as waypoint
	if w != nil && len(w.Addresses) >= 1 {
		return &workloadapi.GatewayAddress{
			Destination: &workloadapi.GatewayAddress_Address{

		buf.WriteString(" (")
	}

	// <untyped kind>
	hasType := false
	switch x.mode {
	case invalid, novalue, builtin, typexpr:
		// no type
	default:
		// should have a type, but be cautious (don't crash during printing)
		if x.typ != nil {
			if isUntyped(x.typ) {
				buf.WriteString(x.typ.(*Basic).name)
				buf.WriteByte(' ')
				break
			}
			hasType = true
		}
	}

		buf.WriteString(" (")
	}

	// <untyped kind>
	hasType := false
	switch x.mode {
	case invalid, novalue, builtin, typexpr:
		// no type
	default:
		// should have a type, but be cautious (don't crash during printing)
		if x.typ != nil {
			if isUntyped(x.typ) {
				buf.WriteString(x.typ.(*Basic).name)
				buf.WriteByte(' ')
				break
			}
			hasType = true
		}
	}

    We must ensure that there is a single underlying resource that not
    distributed across replicas. There is a single underlying resource when the
    resource device type is CPU, so we cautiously only apply in this case.

    To be cautious we never hoist a read that comes after a write to the same
    resource.
  }];

  let constructor = "tensorflow::tf2xla::internal::CreateHoistBroadcastReadPass()";
}

		v := reflect.Indirect(reflect.ValueOf(parent)).FieldByName(name)
		if a.iter.index >= v.Len() {
			break
		}

		// element x may be nil in a bad AST - be cautious
		var x ast.Node
		if e := v.Index(a.iter.index); e.IsValid() {
			x = e.Interface().(ast.Node)
		}

		a.iter.step = 1
		a.apply(parent, name, &a.iter, x)
		a.iter.index += a.iter.step
	}

If you are extending Gradle, e.g. by writing a plugin for another ecosystem, declaring custom attributes could be an option if you want to support variant-aware dependency management features in your plugin.
However, you should be cautious if you also attempt to publish libraries.
Semantics of new attributes are usually defined through a plugin, which can carry <<#sec:abm_compatibility_rules,compatibility>> and <<sec:abm_disambiguation_rules,disambiguation>> rules.

func (check *Checker) typesSummary(list []Type, variadic bool) string {
	var res []string
	for i, t := range list {
		var s string
		switch {
		case t == nil:
			fallthrough // should not happen but be cautious
		case !isValid(t):
			s = "unknown type"
		case isUntyped(t):
			if isNumeric(t) {
				// Do not imply a specific type requirement:
				// "have number, want float64" is better than

func (check *Checker) typesSummary(list []Type, variadic bool) string {
	var res []string
	for i, t := range list {
		var s string
		switch {
		case t == nil:
			fallthrough // should not happen but be cautious
		case !isValid(t):
			s = "unknown type"
		case isUntyped(t):
			if isNumeric(t) {
				// Do not imply a specific type requirement:
				// "have number, want float64" is better than

				imp = NewPackage(path, name)
			}
			// continue to use the package as best as we can
			imp.fake = true // avoid follow-up lookup failures
		}
	}

	// package should be complete or marked fake, but be cautious
	if imp.complete || imp.fake {
		check.impMap[key] = imp
		// Once we've formatted an error message, keep the pkgPathMap
		// up-to-date on subsequent imports. It is used for package

				imp = NewPackage(path, name)
			}
			// continue to use the package as best as we can
			imp.fake = true // avoid follow-up lookup failures
		}
	}

	// package should be complete or marked fake, but be cautious
	if imp.complete || imp.fake {
		check.impMap[key] = imp
		// Once we've formatted an error message, keep the pkgPathMap
		// up-to-date on subsequent imports. It is used for package