assertThrows(
                CyclicDependencyException.class,
                () -> collect(a),
                "Should have failed on cyclic dependency not involving project");
    }

    @Test
    @Disabled("works, but we don't fail on cycles presently")
    void testCircularDependencyIncludingCurrentProject()
            throws ArtifactResolutionException, InvalidVersionSpecificationException {

                    }
                }
            }
        }
    }

    @NotYetImplemented
    @Issue('GRADLE-3280')
    def "can resolve recursive copy of configuration with cyclic project dependencies"() {
        given:
        createDirs("a", "b", "c")
        settingsFile << "include 'a', 'b', 'c'"
        buildScript '''
            subprojects {
                apply plugin: 'base'

// First, it's much faster (up to 50% speedup for real Go programs).
// Second, it eliminates race-related special cases from cgocall and scheduler.
// Third, in long-term it will allow to remove cyclic runtime/race dependency on cmd/go.

// A brief recap of the s390x C calling convention.
// Arguments are passed in R2...R6, the rest is on stack.
// Callee-saved registers are: R6...R13, R15.

			a = t.String()
		}
	} else {
		for i, arg := range args {
			args[i] = indirectToJSONMarshaler(arg)
		}
		a = fmt.Sprint(args...)
	}
	// TODO: detect cycles before calling Marshal which loops infinitely on
	// cyclic data. This may be an unacceptable DoS risk.
	b, err := json.Marshal(a)
	if err != nil {
		// While the standard JSON marshaler does not include user controlled

	// finalizers for the pod and thus get delayed.
	//
	// Worse, it is possible that there is a cyclic dependency
	// (pod finalizer waits for PVC to get removed, PVC protection
	// controller waits for pod to get removed).  By considering
	// the PVC unused in this case, we allow the PVC to get
	// removed and break such a cycle.
	//
	// Therefore it is better to proceed with PVC removal,

// First, it's much faster (up to 50% speedup for real Go programs).
// Second, it eliminates race-related special cases from cgocall and scheduler.
// Third, in long-term it will allow to remove cyclic runtime/race dependency on cmd/go.

// A brief recap of the amd64 calling convention.
// Arguments are passed in DI, SI, DX, CX, R8, R9, the rest is on stack.
// Callee-saved registers are: BX, BP, R12-R15.

	// Disable the GC temporarily to prevent encodeState's in Pool being cleaned away during the test.
	percent := debug.SetGCPercent(-1)
	defer debug.SetGCPercent(percent)

	// Trigger an error in Marshal with cyclic data.
	type Dummy struct {
		Name string
		Next *Dummy
	}
	dummy := Dummy{Name: "Dummy"}
	dummy.Next = &dummy

	var buf bytes.Buffer
	enc := NewEncoder(&buf)

            "operate on resources that live on composite devices."),
       Flag("tf_mlir_enable_strict_clusters", &enable_mlir_strict_clusters,
            "Do not allow clusters that have cyclic control dependencies."),
       Flag("tf_mlir_enable_multiple_local_cpu_devices",
            &enable_mlir_multiple_local_cpu_devices,
            "Enable multiple local CPU devices. CPU ops which are outside "

// Channel, complex, and function values cannot be encoded in JSON.
// Attempting to encode such a value causes Marshal to return
// an [UnsupportedTypeError].
//
// JSON cannot represent cyclic data structures and Marshal does not
// handle them. Passing cyclic structures to Marshal will result in
// an error.
func Marshal(v any) ([]byte, error) {
	e := newEncodeState()
	defer encodeStatePool.Put(e)

	// (in which case we must actually determine it) or the object is a
	// TypeName and we also want a type (in which case we might detect
	// a cycle which needs to be reported). Otherwise we can skip the
	// call and avoid a possible cycle error in favor of the more
	// informative "not a type/value" error that this function's caller
	// will issue (see go.dev/issue/25790).
	typ := obj.Type()