plugins {
                id("base")
            }

            task wrongZip(type: Zip) {
                archiveBaseName = "wrong"
            }
            task firstZip(type: Zip) {
                archiveBaseName = "first"
            }
            task secondZip(type: Zip) {
                archiveBaseName = "second"
            }

            configurations {

			"<script> \n</script><style> \n</style><a onclick='/**///' style='/**///'>",
		},
		{
			"typed HTML in text",
			`{{.W}}`,
			`&iexcl;<b class="foo">Hello</b>, <textarea>O'World</textarea>!`,
		},
		{
			"typed HTML in attribute",
			`<div title="{{.W}}">`,
			`<div title="&iexcl;Hello, O&#39;World!">`,
		},
		{
			"typed HTML in script",
			`<button onclick="alert({{.W}})">`,

and assigns it it's final type, that type must be an integer type, and a
constant lhs must be representable as an integer.

When an expression gets its final type, either on the way out from rawExpr,
on the way down in updateExprType, or at the end of the type checker run,
the type (and constant value, if any) is recorded via Info.Types, if present.
*/

type opPredicates map[syntax.Operator]func(Type) bool

and assigns it it's final type, that type must be an integer type, and a
constant lhs must be representable as an integer.

When an expression gets its final type, either on the way out from rawExpr,
on the way down in updateExprType, or at the end of the type checker run,
the type (and constant value, if any) is recorded via Info.Types, if present.
*/

type opPredicates map[token.Token]func(Type) bool

     * Gradle makes the necessary work to coerce those into "real" typed attributes during matching. This test
     * is here to prove that coercion works properly whenever attributes are sourced from a component metadata
     * supplier.
     */
    def "user provided attributes are properly coerced to typed attributes"() {
        given:

	NumCompiles map[types.NamespacedName]int
}

func (f *fakeCompiler) getNumCompiles(p *validating.Policy) int {
	f.lock.Lock()
	defer f.lock.Unlock()
	return f.NumCompiles[types.NamespacedName{
		Name:      p.Name,
		Namespace: p.Namespace,
	}]
}

func (f *fakeCompiler) RegisterDefinition(definition *validating.Policy, vf validateFunc) {
	if f.ValidateFuncs == nil {

				// and they must be at the end of the parameter list, otherwise
				// the types would have been filled in by the right-to-left sweep
				// above and we wouldn't have an error. Since we are in a type
				// parameter list, the missing types are constraints.
				if named == typed {
					errPos = end // position error at closing ]
					msg = "missing type constraint"
				} else {
					msg = "missing type parameter name"

import org.lastaflute.web.validation.RequiredValidator;
import org.lastaflute.web.validation.theme.typed.DoubleTypeValidator;
import org.lastaflute.web.validation.theme.typed.FloatTypeValidator;
import org.lastaflute.web.validation.theme.typed.IntegerTypeValidator;
import org.lastaflute.web.validation.theme.typed.LongTypeValidator;
import org.opensearch.search.sort.SortBuilder;
import org.opensearch.search.sort.SortBuilders;

				// If named == typed we must have parameters that have no types,
				// and they must be at the end of the parameter list, otherwise
				// the types would have been filled in by the right-to-left sweep
				// above and we wouldn't have an error. Since we are in a type
				// parameter list, the missing types are constraints.
				if named == typed {
					errPos = p.pos // position error at closing ]

	{"lt true true", "", false},             // Unordered types.
	{"lt 1+0i 1+0i", "", false},             // Unordered types.
	{"eq .Ptr 1", "", false},                // Incompatible types.
	{"eq .Ptr .NegOne", "", false},          // Incompatible types.
	{"eq .Map .V1", "", false},              // Uncomparable types.
	{"eq .NonNilMap .NonNilMap", "", false}, // Uncomparable types.
}

func TestComparison(t *testing.T) {