const c = 0
	type d int
	a, b, c /* ERROR "cannot assign" */ , d /* ERROR "cannot assign" */  := 1, "zwei", 3.0, 4
	var _ int = a // a is of type int
	var _ string = b // b is of type string
}

func incdecs() {
	const c = 3.14
	c /* ERROR "cannot assign" */ ++
	s := "foo"
	s /* ERROR "invalid operation" */ --
	3.14 /* ERROR "cannot assign" */ ++
	var (
		x int
		y float32
		z complex128
	)

						priority = 4
					}
					break
				}
			}
		}
		// priority is calculated using the already assigned priority using failoverPriority.
		// Since there are at most 5 priorities can be assigned using locality failover(0-4),
		// we multiply the priority by 5 for maintaining the priorities already assigned.
		// Afterwards the final priorities can be calculted from 0 (highest) to N (lowest) without skipping.

     * returned.
     */
    @Override
    void stop();

    /**
     * Stops any pending or asynchronous processing immediately
     *
     * Any test class assigned to this processor, but not yet run will not have results in the output.  The processor should
     * not use the result processor provided to {@link #startProcessing(TestResultProcessor)} after this method has
     * returned.

	}
	return 0, nil
}

func waitForPodCIDR(ctx context.Context, client clientset.Interface, nodeName string) (*v1.Node, error) {
	// since allocators can assign the podCIDR after the node registers, we do a watch here to wait
	// for podCIDR to be assigned, instead of assuming that the Get() on startup will have it.
	ctx, cancelFunc := context.WithTimeout(ctx, timeoutForNodePodCIDR)
	defer cancelFunc()

import org.gradle.internal.declarativedsl.analysis.getDataType
import org.gradle.internal.declarativedsl.language.DataTypeInternal
import org.gradle.internal.declarativedsl.objectGraph.AssignmentResolver.AssignmentResolutionResult.Assigned
import org.gradle.internal.declarativedsl.objectGraph.AssignmentResolver.AssignmentResolutionResult.Unassigned
import org.gradle.internal.declarativedsl.objectGraph.AssignmentResolver.ExpressionResolutionProgress.Ok

		return nil, err
	}

	if kubeletMappingID%userNsLength != 0 {
		return nil, fmt.Errorf("kubelet user assigned ID %v is not a multiple of %v", kubeletMappingID, userNsLength)
	}
	if kubeletMappingID < userNsLength {
		// We don't allow to map 0, as security is circumvented.
		return nil, fmt.Errorf("kubelet user assigned ID %v must be greater or equal to %v", kubeletMappingID, userNsLength)
	}
	if kubeletMappingLen%userNsLength != 0 {

          LaunchToDeviceAttributePass> {
 public:
  explicit LaunchToDeviceAttributePass(bool legacy_graph_export) {
    legacy_graph_export_ = legacy_graph_export;
  }

  void runOnOperation() override;
};

// Assign all ops in region with specified device from launch.
LogicalResult AssignDevicesInRegion(const Dialect* tf_dialect,
                                    tf_device::LaunchOp launch,
                                    Region& region) {

                     org.junit.Assert.assertEquals(1, 1);
                }
            }
        """
    }

    def "build fails if debugger is not ready"() {
        setup:
        // port is assigned but not connected
        def port = jdwpClient.port

        when:
        withConnection { connection ->
            connection.newTestLauncher()
                .withJvmTestClasses("example.MyTest")

// fields will be same with `deprecated_builtin_code'.
//
// - Supporting builtin operator codes beyonds 127
//
// New builtin operators, whose operator code is larger than 127, can not be
// assigned to the `deprecated_builtin_code` field. In such cases, the
// value of the `builtin_code` field should be used for the builtin operator
// code. In the case, the maximum value of the two fields will be the value of

     * mean one can assign `null` to a variable of this type because it may be unknown if this type can accept `null`. For example, a public value
     * of type `T:Any?` can potentially be null. But one can not assign `null` to such a variable because the instantiated type may not be
     * nullable.
     */