// disable sidecar injection, etc.
	// This aims to simulate a VM, but instead of managing the complex test setup of spinning up a VM,
	// connecting, etc we run it inside a pod. The pod has pretty much all Kubernetes features disabled (DNS and SA token mount)
	// such that we can adequately simulate a VM and DIY the bootstrapping.
	DeployAsVM bool

     |
     | An encouraged best practice for profile identification is to use a consistent naming convention
     | for profiles, such as 'env-dev', 'env-test', 'env-production', 'user-jdcasey', 'user-brett', etc.
     | This will make it more intuitive to understand what the set of introduced profiles is attempting
     | to accomplish, particularly when you only have a list of profile id's for debug.
     |

/**
 * Returns true if there is an element in this array that is also in [other]. This method terminates
 * if any intersection is found. The sizes of both arguments are assumed to be so small, and the
 * likelihood of an intersection so great, that it is not worth the CPU cost of sorting or the
 * memory cost of hashing.
 */
internal fun Array<String>.hasIntersection(
  other: Array<String>?,
  comparator: Comparator<in String>,
): Boolean {

        "/items/plumbus?token=jessica", headers={"X-Token": "fake-super-secret-token"}
    )
    assert response.status_code == 200, response.text
    assert response.json() == {"item_id": "plumbus", "name": "The great Plumbus"}


def test_put_forbidden(client: TestClient):
    response = client.put(
        "/items/bar?token=jessica", headers={"X-Token": "fake-super-secret-token"}
    )

    def "nested #type#parameterType is validated with warning"() {
        buildFile << """
            abstract class CustomTask extends DefaultTask {
                @Nested
                $type$parameterType getMy$type() {
                    return $producer
                }

                @TaskAction
                void execute() { }
            }

            tasks.register("customTask", CustomTask) { }

    assertEquals(0, logHandler.getStoredLogRecords().size());
  }

  public void testPartiallyConstructedManager_transitionAfterAddListenerBeforeStateIsReady() {
    // The implementation of this test is pretty sensitive to the implementation :( but we want to
    // ensure that if weird things happen during construction then we get exceptions.
    final NoOpService service1 = new NoOpService();

func runtime_debug_WriteHeapDump(fd uintptr) {
	stw := stopTheWorld(stwWriteHeapDump)

	// Keep m on this G's stack instead of the system stack.
	// Both readmemstats_m and writeheapdump_m have pretty large
	// peak stack depths and we risk blowing the system stack.
	// This is safe because the world is stopped, so we don't
	// need to worry about anyone shrinking and therefore moving
	// our stack.
	var m MemStats

    assertEquals(0, logHandler.getStoredLogRecords().size());
  }

  public void testPartiallyConstructedManager_transitionAfterAddListenerBeforeStateIsReady() {
    // The implementation of this test is pretty sensitive to the implementation :( but we want to
    // ensure that if weird things happen during construction then we get exceptions.
    final NoOpService service1 = new NoOpService();

// It may be provided as argument to any of the [Fprint] functions.
type CommentedNode struct {
	Node     any // *ast.File, or ast.Expr, ast.Decl, ast.Spec, or ast.Stmt
	Comments []*ast.CommentGroup
}

// Fprint "pretty-prints" an AST node to output for a given configuration cfg.
// Position information is interpreted relative to the file set fset.
// The node type must be *[ast.File], *[CommentedNode], [][ast.Decl], [][ast.Stmt],

  float self_cost;
  if (!GetCostOnOp(func, &self_cost)) {
    func.emitError("we cannot find cost for this func");
    signalPassFailure();
  }
  return self_cost;
}

// Here we choose to do a greedy dynamic programming based algorithm for
// simplicity.
//
// See the following graph:
//
//    input_subgraph_1      ....      input_subgraph_n
//              \                          /