// license that can be found in the LICENSE file.

package p

type FooType[t any] interface {
	Foo(BarType[t])
}
type BarType[t any] interface {
	Int(IntType[t]) FooType[int]
}

type IntType[t any] int

func (n IntType[t]) Foo(BarType[t]) {}

        dataTopLevelFunction(function, preIndex)

    private
    fun memberFunction(
        inType: KClass<*>,
        function: KFunction<*>,
        preIndex: DataSchemaBuilder.PreIndex,
        configureLambdas: ConfigureLambdaHandler
    ): SchemaMemberFunction {
        val thisTypeRef = inType.toDataTypeRef()

        val returnType = function.returnType

        checkInScope(returnType, preIndex)

}

// describe returns a string describing the type typ contained within the type
// set of inType. If non-empty, inName is used as the name of inType (this is
// necessary so that we can use alias type names that may not be reachable from
// inType itself).
func describe(typ, inType types.Type, inName string) string {
	name := inName
	if typ != inType {
		name = typeName(typ)
	}
	if name == "" {
		return ""
	}

	},
	"asApproximateFloat": {
		cel.MemberOverload("quantity_get_float", []*cel.Type{apiservercel.QuantityType}, cel.DoubleType, cel.UnaryBinding(quantityGetApproximateFloat)),
	},
	"asInteger": {
		cel.MemberOverload("quantity_get_int", []*cel.Type{apiservercel.QuantityType}, cel.IntType, cel.UnaryBinding(quantityGetValue)),
	},

	"cmd/internal/src"
)

var (
	okfor [ir.OEND][]bool
)

var (
	okforeq    [types.NTYPE]bool
	okforadd   [types.NTYPE]bool
	okforand   [types.NTYPE]bool
	okfornone  [types.NTYPE]bool
	okforbool  [types.NTYPE]bool
	okforcap   [types.NTYPE]bool
	okforlen   [types.NTYPE]bool
	okforarith [types.NTYPE]bool
)

var builtinFuncs = [...]struct {
	name string
	op   ir.Op
}{
	{"append", ir.OAPPEND},

	}),
	"indexOf": {
		cel.MemberOverload("list_a_index_of_int", []*cel.Type{cel.ListType(paramA), paramA}, cel.IntType,
			cel.BinaryBinding(indexOf)),
	},
	"lastIndexOf": {
		cel.MemberOverload("list_a_last_index_of_int", []*cel.Type{cel.ListType(paramA), paramA}, cel.IntType,
			cel.BinaryBinding(lastIndexOf)),
	},
}

func (*lists) CompileOptions() []cel.EnvOption {
	options := []cel.EnvOption{}

		// Get the return type of the wrapper function
		// compiled by gcc.
		gccResult := ""
		if fntype.Results == nil || len(fntype.Results.List) == 0 {
			gccResult = "void"
		} else if len(fntype.Results.List) == 1 && len(fntype.Results.List[0].Names) <= 1 {
			gccResult = p.cgoType(fntype.Results.List[0].Type).C.String()
		} else {
			fmt.Fprintf(fgcch, "\n/* Return type for %s */\n", exp.ExpName)

        return false;
    }

    public boolean inOverview() {
        return false;
    }

    public boolean inPackage() {
        return false;
    }

    public boolean inType() {
        return true;
    }

    public boolean isInlineTag() {
        return false;
    }

    public String getName() {
        return "customtaglet";
    }

	case cel.BytesType:
		return apiservercel.BytesType
	case cel.DoubleType:
		return apiservercel.DoubleType
	case cel.DurationType:
		return apiservercel.DurationType
	case cel.IntType:
		return apiservercel.IntType
	case cel.NullType:
		return apiservercel.NullType
	case cel.StringType:
		return apiservercel.StringType
	case cel.TimestampType:
		return apiservercel.TimestampType
	case cel.UintType:

	// determined at runtime rather than compile time.
	DynType = NewSimpleTypeWithMinSize("dyn", cel.DynType, nil, 1)

	// IntType is equivalent to the CEL 'int' type which is a 64-bit signed int.
	IntType = NewSimpleTypeWithMinSize("int", cel.IntType, types.IntZero, MinNumberSize)

	// NullType is equivalent to the CEL 'null_type'.
	NullType = NewSimpleTypeWithMinSize("null_type", cel.NullType, types.NullValue, 4)