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

package reflect

import (
	"internal/abi"
	"internal/goarch"
	"sync"
	"unsafe"
)

// MakeRO returns a copy of v with the read-only flag set.
func MakeRO(v Value) Value {
	v.flag |= flagStickyRO
	return v
}

// IsRO reports whether v's read-only flag is set.
func IsRO(v Value) bool {
	return v.flag&flagStickyRO != 0
}

		return nil
	}
	log.Infof("Running make for %v: %v", arch, strings.Join(shortArgs, " "))
	env := StandardEnv(args)
	env = append(env, archToGoFlags(arch)...)
	makeArgs := []string{"--no-print-directory"}
	makeArgs = append(makeArgs, c...)
	cmd := exec.Command("make", makeArgs...)
	log.Infof("env: %v", archToGoFlags(arch))
	cmd.Env = env
	cmd.Stderr = os.Stderr
	cmd.Stdout = os.Stdout
	cmd.Dir = testenv.IstioSrc

}

func TestIssue55030(t *testing.T) {
	// makeSig makes the signature func(typ...)
	makeSig := func(typ Type) {
		par := NewVar(nopos, nil, "", typ)
		params := NewTuple(par)
		NewSignatureType(nil, nil, nil, params, nil, true)
	}

	// makeSig must not panic for the following (example) types:
	// []int
	makeSig(NewSlice(Typ[Int]))

	// string
	makeSig(Typ[String])

	// P where P's core type is string

	"k8s.io/apimachinery/pkg/runtime/schema"
	metadatafake "k8s.io/client-go/metadata/fake"

	"istio.io/istio/pkg/config/schema/gvr"
	"istio.io/istio/pkg/kube"
	"istio.io/istio/pkg/test"
)

func MakeCRD(t test.Failer, c kube.Client, g schema.GroupVersionResource) {
	t.Helper()
	MakeCRDWithAnnotations(t, c, g, nil)
}

declaration nodes) in the future.

If you want to connect a new low-level compiler, you would create a new dialect
and the lowerings between the TensorFlow Graph dialect and your dialect.
This smooths the path for hardware and compiler makers. You can even target
dialects at different levels in the same model; the higher-level optimizers
will respect the unfamiliar parts of the IR and wait for a lower level to handle

}

func TestIssue55030(t *testing.T) {
	// makeSig makes the signature func(typ...)
	makeSig := func(typ Type) {
		par := NewVar(nopos, nil, "", typ)
		params := NewTuple(par)
		NewSignatureType(nil, nil, nil, params, nil, true)
	}

	// makeSig must not panic for the following (example) types:
	// []int
	makeSig(NewSlice(Typ[Int]))

	// string
	makeSig(Typ[String])

	// P where P's core type is string

We expect MLIR to be of interest to many groups, including:

*   Compiler researchers and implementers looking to optimize performance and
    memory consumption of machine learning models
*   Hardware makers looking for a way to connect their hardware to TensorFlow,
    such as TPUs, portable neural hardware in phones, and other custom ASICs
*   People writing language bindings that want to take advantage of optimizing

			assert.NoError(t, queue.WaitForClose(c.queue, time.Second*5))
		})
	}
	c.stop = stop
	if cleanupStop {
		t.Cleanup(func() {
			close(stop)
		})
	}
	for _, crd := range opts.CRDs {
		clienttest.MakeCRD(t, c.client, crd)
	}
	opts.Client.RunAndWait(c.stop)
	var fx *xdsfake.Updater
	if x, ok := xdsUpdater.(*xdsfake.Updater); ok {
		fx = x
	}

	if !opts.SkipRun {
		go c.Run(c.stop)

	conf := Config{Importer: imports}
	makePkg := func(src string) {
		f := mustParse(src)
		name := f.PkgName.Value
		pkg, err := conf.Check(name, []*syntax.File{f}, nil)
		if err != nil {
			t.Fatal(err)
		}
		imports[name] = pkg
	}
	makePkg(`package lib; type T[P any] struct{}`)
	makePkg(`package a; import "lib"; var A lib.T[int]`)
	makePkg(`package b; import "lib"; var B lib.T[int]`)

			return fmt.Errorf("error setting config field %s: %v", f.name, err)
		}
	}
	return nil
}

// makeURL returns a URL based on initialURL that contains the config contents
// as parameters.  The second result is true iff a parameter value was changed.
func (cfg *config) makeURL(initialURL url.URL) (url.URL, bool) {
	q := initialURL.Query()
	changed := false
	for _, f := range configFields {