panic("not-inlined complex call failed")
	}
	_ = imag(t.cplx())

	_ = real(t.cplx2())
	if v := imag(t.cplx2()); v != 1 {
		panic("potentially inlined complex call failed")
	}

	var i I
	i = t
	if v := real(i.cplx()); v != 1 {
		panic("potentially inlined complex call failed")
	}
	_ = imag(i.cplx())

// Windows UTF-16 strings can contain unpaired surrogates, which can't be
// decoded into a valid UTF-8 string. This file defines a set of functions
// that can be used to encode and decode potentially ill-formed UTF-16 strings
// by using the [the WTF-8 encoding](https://simonsapin.github.io/wtf-8/).
//
// WTF-8 is a strict superset of UTF-8, i.e. any string that is

  // Given a Region associated with the callee and operands from the
  // corresponding callOp, propagate the potentially written decision to the
  // callOp's operands, if the corresponding region's arguments are potentially
  // written resources.
  void PropagatePotentiallyWrittenUpFromCallee(
      Region& region, Operation::operand_range propagate_to);

  // Marks 'resource' as written.

 * limitations under the License.
 */

package org.gradle.internal.operations;

/**
 * An individual active, single use, queue of build operations.
 * <p>
 * The queue is active in that operations are potentially executed as soon as they are added.
 * The queue is single use in that no further work can be added once {@link #waitForCompletion()} has completed.
 * <p>

// RUN:        -split-input-file -tf-resource-analyzer-test %s \
// RUN:   | FileCheck %s

// TODO(b/269548549): Add tests to cover more patterns.

// Test that VarHandleOp is not marked as "potentially written" if it is not
// assigned inside the function called by "tf.BatchFunction".

module {
// CHECK-LABEL: @serving_default
  func.func @serving_default() -> (tensor<*xi32>) {

 */

package org.jetbrains.kotlin.analysis.api.symbols.markers

import org.jetbrains.kotlin.analysis.api.symbols.KaSymbol

/**
 * A marker interface for symbols which could potentially be members of some class.
 *
 * @see org.jetbrains.kotlin.analysis.api.components.KaTypeProviderMixIn.getDispatchReceiverType
 */
public interface KaPossibleMemberSymbol : KaSymbol

func _() {
	type _ []T[P]
	var _ []T[P]
	_ = []T[P]{}
}

// type constraint literals with elided interfaces
func _[P ~int, Q int | string]() {}
func _[P struct{f int}, Q *P]() {}

// various potentially ambiguous type parameter lists (issue #49482)
type _[P *T,] struct{}
type _[P T | T] struct{}
type _[P T | T | T | T] struct{}
type _[P *T, _ any] struct{}
type _[P (*T),] struct{}
type _[P (*T), _ any] struct{}

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

//go:build cmd_go_bootstrap

// This code is compiled only into the bootstrap 'go' binary.
// These stubs avoid importing packages with large dependency
// trees that potentially require C linking,
// like the use of "net/http" in vcs.go.

package web

import (
	"errors"
	urlpkg "net/url"
)

func get(security SecurityMode, url *urlpkg.URL) (*Response, error) {

func _() {
	type _ []T[P]
	var _ []T[P]
	_ = []T[P]{}
}

// type constraint literals with elided interfaces
func _[P ~int, Q int | string]()	{}
func _[P struct{ f int }, Q *P]()	{}

// various potentially ambiguous type parameter lists (issue #49482)
type _[P *T,] struct{}
type _[P T | T] struct{}
type _[P T | T | T | T] struct{}
type _[P *T, _ any] struct{}
type _[P *T,] struct{}
type _[P *T, _ any] struct{}

            assert artifact.id == new ComponentFileArtifactIdentifier(id, f1.name)
        }
        1 * artifactVisitor.endVisitCollection(FileCollectionInternal.OTHER) // each file is treated as a separate collection, could potentially be treated as a single collection

        then:
        1 * visitor.visitArtifacts(_) >> { ResolvedArtifactSet.Artifacts artifacts -> artifacts.visit(artifactVisitor) }