}
    assertEquals(methodName, response.methodName);
    return response;
  }

  private Object invokeMethod(String methodName, Object... arguments) throws Exception {
    return getMethod(methodName, arguments).invoke(lockLikeObject, arguments);
  }

  private Method getMethod(String methodName, Object... arguments) throws Exception {
    METHODS:
    for (Method method : lockLikeObject.getClass().getMethods()) {

 * may ultimately cause the application to slow down or crash.
 *
 * Both this class and [Response] implement [Closeable]. Closing a response simply
 * closes its response body. If you invoke [Call.execute] or implement [Callback.onResponse] you
 * must close this body by calling any of the following methods:
 *
 * * `Response.close()`
 * * `Response.body().close()`
 * * `Response.body().source().close()`

        }

        return KaSimpleFunctionCall(
            partiallyAppliedSymbol,
            argumentMapping,
            toTypeArgumentsMapping(partiallyAppliedSymbol),
            call.callType == Call.CallType.INVOKE
        )
    }

    private fun ResolvedCall<*>.toPartiallyAppliedVariableSymbol(context: BindingContext): KaPartiallyAppliedVariableSymbol<KaVariableLikeSymbol>? {

	if pluginSockDir != "" {
		if _, err := os.Stat(pluginSockDir + "DEPRECATION"); err == nil {
			klog.InfoS("Deprecation file found. Skip registration")
			return nil
		}
	}
	klog.InfoS("Deprecation file not found. Invoke registration")
	ctx, cancel := context.WithTimeout(context.Background(), 10*time.Second)
	defer cancel()

	conn, err := grpc.DialContext(ctx, kubeletEndpoint,
		grpc.WithTransportCredentials(insecure.NewCredentials()),

                                      std::unique_ptr<CustomDevice> device) = 0;

  // Return FunctionLibraryDefinition. Transformations need to use it to use it
  // to invoke MLIR compiler passes.
  virtual FunctionLibraryDefinition* FuncLibDef() = 0;

  // Resets the global rendezvous used for functions.
  virtual void ResetGlobalRendezvousForFunction() = 0;

      /**
       * Atomically reschedules this task and assigns the new future to {@link
       * #cancellationDelegate}.
       */
      @CanIgnoreReturnValue
      public Cancellable reschedule() {
        // invoke the callback outside the lock, prevents some shenanigans.
        Schedule schedule;
        try {
          schedule = CustomScheduler.this.getNextSchedule();
        } catch (Throwable t) {

	// Set R20 to 8 and invoke BRK. The debugger should get the
	// reason a call can't be injected from SP+8 and resume execution.
	MOVD	$8, R20
	BREAK
	JMP	restore

good:
	// Registers are saved and it's safe to make a call.
	// Open up a call frame, moving the stack if necessary.
	//
	// Once the frame is allocated, this will set R20 to 0 and
	// invoke BRK. The debugger should write the argument

// package should invoke this internal function with appropriate parameters.
// ctx: the context specified by the caller, for infinite polling pass
// a context that never gets cancelled or expired.
// immediate: if true, the 'condition' will be invoked before waiting for the interval,
// in this case 'condition' will always be invoked at least once.

It also helps ensure that the same version of Gradle is used for builds by different developers and between local and CI machines.

From now on, you will never invoke Gradle directly; instead, you will use the Gradle _wrapper_.

== Step 3. Invoking the Gradle Wrapper
Use the wrapper by entering the following command:
[source,text]
----
$ ./gradlew build
----

- a non-serializable Java lambda was used to implement the class,
- or the class has been loaded by a classloader unknown to Gradle.

Using a Java lambda means that the bytecode uses invoke-dynamic instead of creating an actual sub-class.
The class for the invoke-dynamic instruction is generated at JVM runtime and Gradle cannot uniquely identify this class across different JVMs if the target functional interface is not serializable.