}
		if !scenario.shouldSucceed && err == nil {
			t.Errorf("Test %q failed: Assume() returned success but expected error", name)
		}

		// Check that GetPV returns correct PV
		expectedPV := scenario.newPV
		if !scenario.shouldSucceed {
			expectedPV = scenario.oldPV
		}
		if err := verifyPV(cache, scenario.oldPV.Name, expectedPV); err != nil {

Whenever a new request arrives, **FastAPI** will take care of:

* Calling your dependency ("dependable") function with the correct parameters.
* Get the result from your function.
* Assign that result to the parameter in your *path operation function*.

```mermaid
graph TB

common_parameters(["common_parameters"])

  // function attribute prefixed with `"indy_lstm_"`.
  // IndyLSTMs have diagonal recurrent weight matrices and can benefit from
  // more efficent operations in TFLite with the correct conversion (i.e. when
  // the diagonal recurrent weight matrices are provided as vectors).
  if (attr.getValue().starts_with("indy_lstm_")) {
    // Check if the keras lstm can be fused, if not, we just don't do anything.

        wrapper.setDistributionPath("somepath")
        wrapper.setDistributionSha256Sum("somehash")
    }

    Wrapper getTask() {
        return wrapper
    }

    def "wrapper has correct defaults"() {
        given:
        wrapper = createTask(Wrapper.class)

        expect:
        new File(getProject().getProjectDir(), TARGET_WRAPPER_FINAL + "/gradle-wrapper.jar") == wrapper.getJarFile()

        }
        // We reschedule ourselves with a lock held for two reasons. 1. we want to make sure that
        // cancel calls cancel on the correct future. 2. we want to make sure that the assignment
        // to currentFuture doesn't race with itself so that currentFuture is assigned in the
        // correct order.
        Throwable scheduleFailure = null;
        Cancellable toReturn;
        lock.lock();
        try {

			return rangeRegistries{}, nil, nil, nil, err
		}
		// TODO(aojea) Revisit the initialization of the allocators
		// since right now it depends on the service-cidr flags and
		// sets the default IPFamily that may not be coherent with the
		// existing default ServiceCIDR
		primaryClusterIPAllocator, err = ipallocator.NewMetaAllocator(
			networkingv1alphaClient,
			c.Informers.Networking().V1alpha1().ServiceCIDRs(),

const (
	No    Confidence = iota // full confidence that there was no match
	Low                     // most likely value picked out of a set of alternatives
	High                    // value is generally assumed to be the correct match
	Exact                   // exact match or explicitly specified value
)

var confName = []string{"No", "Low", "High", "Exact"}

func (c Confidence) String() string {
	return confName[c]
}

	// Ensure that contents of the rootCert are correct.
	checkSecret(t, sc, security.RootCertReqResourceName, security.SecretItem{
		ResourceName: security.RootCertReqResourceName,
		RootCert:     expectedCerts,
	})

	// Add Duplicates
	sc.UpdateConfigTrustBundle(expectedCerts)
	// Ensure that contents of the rootCert are correct without the duplicate caClientRootCert

// testGoldenIEEE verifies that the given function returns
// correct IEEE checksums.
func testGoldenIEEE(t *testing.T, crcFunc func(b []byte) uint32) {
	for _, g := range golden {
		if crc := crcFunc([]byte(g.in)); crc != g.ieee {
			t.Errorf("IEEE(%s) = 0x%x want 0x%x", g.in, crc, g.ieee)
		}
	}
}

// testGoldenCastagnoli verifies that the given function returns
// correct IEEE checksums.

      return configuration;
    }
  }

  // Tests for Scheduler:

  // These constants are arbitrary and just used to make sure that the correct method is called
  // with the correct parameters.
  private static final int INITIAL_DELAY = 10;
  private static final int DELAY = 20;
  private static final TimeUnit UNIT = MILLISECONDS;