return newOption("cluster", value)
}

func NodeID(value string) Instance {
	return newOption("nodeID", value)
}

func NodeType(value string) Instance {
	ntype := strings.Split(value, "~")[0]
	return newOption("nodeType", ntype)
}

func XdsType(value string) Instance {
	return newOption("xds_type", value)
}

func Region(value string) Instance {
	return newOptionOrSkipIfZero("region", value)
}

	Nscnum  uint16  // Section number of symbol
	Ntype   uint16  // Basic and derived type specification
	Nsclass uint8   // Storage class of symbol
	Nnumaux uint8   // Number of auxiliary entries
}

type SymEnt64 struct {
	Nvalue  uint64 // Symbol value
	Noffset uint32 // Offset of the name in string table or .debug section
	Nscnum  uint16 // Section number of symbol
	Ntype   uint16 // Basic and derived type specification

                    maxErrors: maxErrors, maxWarnings: maxWarnings, failureProperty: FAILURE_PROPERTY_NAME) {

                source.addToAntBuilder(ant, 'fileset', FileCollection.AntType.FileSet)

                if (showViolations) {
                    formatter(type: 'plain', useFile: false)
                }

                if (isXmlRequired || isHtmlRequired) {

	SliceSize = RoundUp(SliceCapOffset+int64(PtrSize), int64(PtrSize))

	// string is same as slice wo the cap
	StringSize = RoundUp(SliceLenOffset+int64(PtrSize), int64(PtrSize))

	for et := Kind(0); et < NTYPE; et++ {
		SimType[et] = et
	}

	Types[TANY] = newType(TANY) // note: an old placeholder type, NOT the new builtin 'any' alias for interface{}
	Types[TINTER] = NewInterface(nil)
	CheckSize(Types[TINTER])

// FixVariadicCall rewrites calls to variadic functions to use an
// explicit ... argument if one is not already present.
func FixVariadicCall(call *ir.CallExpr) {
	fntype := call.Fun.Type()
	if !fntype.IsVariadic() || call.IsDDD {
		return
	}

	vi := fntype.NumParams() - 1
	vt := fntype.Param(vi).Type

	args := call.Args
	extra := args[vi:]
	slice := MakeDotArgs(call.Pos(), vt, extra)
	for i := range extra {

    String dummyValidationProblem(String onType = 'InvalidTask', String onProperty = 'dummy', String desc = 'test problem', String testReason = 'this is a test.') {
        display(SimpleMessage, 'dummy') {
            type(onType).property(onProperty)
            description(desc)
            reason(testReason)
        }.render()
    }

		if f.Type.NotInHeap() {
			t.SetNotInHeap(true)
			break
		}
	}

	return t
}

var (
	IsInt     [NTYPE]bool
	IsFloat   [NTYPE]bool
	IsComplex [NTYPE]bool
	IsSimple  [NTYPE]bool
)

var IsOrdered [NTYPE]bool

// IsReflexive reports whether t has a reflexive equality operator.
// That is, if x==x for all x of type t.
func IsReflexive(t *Type) bool {

	yamlTree := make(map[string]any)
	err = yaml.Unmarshal(values, &yamlTree)
	if err != nil {
		return nil, fmt.Errorf("error when unmarshalling into untype tree %v", err)
	}

	outputTree := make(map[string]any)
	err = t.TranslateTree(yamlTree, outputTree, nil)
	if err != nil {
		return nil, err
	}
	outputVal, err := yaml.Marshal(outputTree)

		return t

	case _Func:
		// fntype
		p.next()
		_, t := p.funcType("function type")
		return t

	case _Lbrack:
		// '[' oexpr ']' ntype
		// '[' _DotDotDot ']' ntype
		p.next()
		if p.got(_Rbrack) {
			return p.sliceType(pos)
		}
		return p.arrayType(pos, nil)

	case _Chan:
		// _Chan non_recvchantype
		// _Chan _Comm ntype
		p.next()
		t := new(ChanType)

	Nscnum  int16  // Section number of symbol
	Ntype   uint16 // Basic and derived type specification
	Nsclass uint8  // Storage class of symbol
	Nnumaux int8   // Number of auxiliary entries
}

const SYMESZ = 18

const (
	// Nscnum
	N_DEBUG = -2
	N_ABS   = -1
	N_UNDEF = 0

	//Ntype
	SYM_V_INTERNAL  = 0x1000
	SYM_V_HIDDEN    = 0x2000
	SYM_V_PROTECTED = 0x3000