}

	var itemOut genericapitesting.Simple
	body, err := extractBody(response, &itemOut)
	if err != nil {
		t.Errorf("unexpected error: %v %#v", err, response)
	}

	// Avoid comparing managed fields in expected result
	itemOut.ManagedFields = nil
	itemOut.GetObjectKind().SetGroupVersionKind(schema.GroupVersionKind{})
	simple.Name = populateName

  const Value input = op.getInput();
  const Value shape = op.getShape();

  auto error_handler = [&](const llvm::Twine& message) -> LogicalResult {
    // A dummy error handler.
    // Errors when computing the output shape will be raised in
    // ReshapeOp::verify call.
    return failure();
  };
  TensorType output_type;
  if (GetReshapeOutputType(input, shape, error_handler, output_type)

These examples show when a Go implementation can use that instruction:
</p>

<pre>
// FMA allowed for computing r, because x*y is not explicitly rounded:
r  = x*y + z
r  = z;   r += x*y
t  = x*y; r = t + z
*p = x*y; r = *p + z
r  = x*y + float64(z)

// FMA disallowed for computing r, because it would omit rounding of x*y:
r  = float64(x*y) + z
r  = z; r += float64(x*y)
t  = float64(x*y); r = t + z

   * (Specifically, {@code directExecutor} functions should avoid heavyweight operations inside
   * {@code AsyncClosingFunction.apply}. Any heavyweight operations should occur in other threads
   * responsible for completing the returned {@code ClosingFuture}.)
   *
   * <p>After calling this method, you may not call {@link #finishToFuture()}, {@link
   * #finishToValueAndCloser(ValueAndCloserConsumer, Executor)}, or any other derivation method on

   * (Specifically, {@code directExecutor} functions should avoid heavyweight operations inside
   * {@code AsyncClosingFunction.apply}. Any heavyweight operations should occur in other threads
   * responsible for completing the returned {@code ClosingFuture}.)
   *
   * <p>After calling this method, you may not call {@link #finishToFuture()}, {@link
   * #finishToValueAndCloser(ValueAndCloserConsumer, Executor)}, or any other derivation method on

  final Segment<K, V>[] segments;

  /** The concurrency level. */
  final int concurrencyLevel;

  /** Strategy for comparing keys. */
  final Equivalence<Object> keyEquivalence;

  /** Strategy for comparing values. */
  final Equivalence<Object> valueEquivalence;

  /** Strategy for referencing keys. */
  final Strength keyStrength;

  final Segment<K, V>[] segments;

  /** The concurrency level. */
  final int concurrencyLevel;

  /** Strategy for comparing keys. */
  final Equivalence<Object> keyEquivalence;

  /** Strategy for comparing values. */
  final Equivalence<Object> valueEquivalence;

  /** Strategy for referencing keys. */
  final Strength keyStrength;

    local CCM_FEATURE_GATES_FILTER
    CCM_FEATURE_GATES_FILTER=$(echo "${CCM_FEATURE_GATES}" | sed "s/^/(/" | sed "s/,/=[^,]*|/g" | sed "s/$/=[^,]*)/")
    echo "Computing safe feature gates for cloud provider controller-manager from ${FEATURE_GATES} and filter ${CCM_FEATURE_GATES_FILTER}"
    local safe_feature_gates

	}
	VisitPodSecretNames(emptyPod, func(name string) bool {
		t.Fatalf("expected no empty names collected, got %q", name)
		return false
	}, AllContainers)
}

// collectResourcePaths traverses the object, computing all the struct paths that lead to fields with resourcename in the name.
func collectResourcePaths(t *testing.T, resourcename string, path *field.Path, name string, tp reflect.Type) sets.Set[string] {

	if err != nil {
		t.Fatalf("unmarshal key: %v", err)
	}
	key := &jose.JSONWebKey{Key: priv, Use: "sig", Algorithm: string(alg)}
	thumbprint, err := key.Thumbprint(crypto.SHA256)
	if err != nil {
		t.Fatalf("computing thumbprint: %v", err)
	}
	key.KeyID = hex.EncodeToString(thumbprint)
	return key
}

// staticKeySet implements oidc.KeySet.
type staticKeySet struct {
	keys []*jose.JSONWebKey
}