// FE1.0 represents synthesized properties as an extension property of the Java class. Hence we use the extension receiver as
            // the dispatch receiver and always pass null for extension receiver (because in Java there is no way to specify an extension
            // receiver)
            return KaPartiallyAppliedSymbol(
                signature,
                extensionReceiver?.toKtReceiverValue(context, this),

// modify their types by setting missing receivers.
//
// To avoid race conditions, the interface's type set should be computed before
// concurrent use of the interface, by explicitly calling Complete.
func NewInterfaceType(methods []*Func, embeddeds []Type) *Interface {
	if len(methods) == 0 && len(embeddeds) == 0 {
		return &emptyInterface
	}

	// set method receivers if necessary
	typ := (*Checker)(nil).newInterface()

prepared before that call will be sent or received after the call.
Earlier versions of Go used channels with a one-element buffer,
making it difficult to use `Reset` and `Stop` correctly.
A visible effect of this change is that `len` and `cap` of timer channels
now returns 0 instead of 1, which may affect programs that
poll the length to decide whether a receive on the timer channel
will succeed.

            .flatMap { origin -> generateSequence(origin) { (it as? ObjectOrigin.HasReceiver)?.receiver } }
    }

    val customAccessorsUsedByReceiver: Map<ObjectOrigin, List<ObjectOrigin.CustomConfigureAccessor>> = run {
        allReceiversResolved.mapNotNull { (it as? ObjectOrigin.CustomConfigureAccessor)?.let { custom -> custom.receiver to custom } }

			iface.complete = t.complete
			// If we've changed the interface type, we may need to replace its
			// receiver if the receiver type is the original interface. Receivers of
			// *Named type are replaced during named type expansion.
			//
			// Notably, it's possible to reach here and not create a new *Interface,
			// even though the receiver type may be parameterized. For example:
			//
			//  type T[P any] interface{ m() }
			//

 * ```
 * fun test(m: MutableList<String>) {
 *   m += "a" // A simple `KaFunctionCall` to `MutableList.plusAssign`, not a `KaVariableAccessCall`. However, the dispatch receiver of this
 *            // call, `m`, is a simple read access represented as a `KaVariableAccessCall`
 * }
 * ```
 */
public class KaCompoundVariableAccessCall(

 * while finished notifications are emitted in reverse registration order.
 *
 * Listeners will not receive progress notifications for events before they have received
 * the corresponding start notification or after they have received the corresponding finished notification.
 * Such notifications are just discarded for the listener.
 *
 * @since 3.5
 */
@ServiceScope(Scope.Global.class)

    override fun property(receiver: DynamicObject, propertyName: String): Any? =
        withDynamicCall(receiver) {
            receiver.getProperty(propertyName)
        }

    override fun findProperty(receiver: DynamicObject, propertyName: String): Any? =
        withDynamicCall(receiver) {
            val dynamicInvokeResult: DynamicInvokeResult = receiver.tryGetProperty(propertyName)

// the request with the given id.
func (p *Pipeline) StartRequest(id uint) {
	p.request.Start(id)
}

// EndRequest notifies p that the request with the given id has been sent
// (or, if this is a server, received).
func (p *Pipeline) EndRequest(id uint) {
	p.request.End(id)
}

// StartResponse blocks until it is time to receive (or, if this is a server, send)

        } finally {
            lock.unlock();
        }
    }

    @Override
    public T receive() {
        //in case one wants to synchronize this method,
        //bear in mind that it is blocking so it cannot share the same lock as others
        T result = delegate.receive();
        LOGGER.debug("thread {}: received {}", Thread.currentThread().getId(), result == null ? "null" : result.getClass());
        return result;
    }