return
		}
	}

	// Derived facts below here are only about numbers.
	if d != signed && d != unsigned {
		return
	}

	// Additional facts we know given the relationship between len and cap.
	//
	// TODO: Since prove now derives transitive relations, it
	// should be sufficient to learn that len(w) <= cap(w) at the
	// beginning of prove where we look for all len/cap ops.

	// As we scan the array left-to-right, each sa[i] = j > 0 is a correctly
	// sorted suffix array entry (for text[j:]) for which we know that j-1 is type L.
	// Because j-1 is type L, inserting it into sa now will sort it correctly.
	// But we want to distinguish a j-1 with j-2 of type L from type S.
	// We can process the former but want to leave the latter for the caller.

				goto Error
			}
			n := check.indexedElts(e.Elts, utyp.elem, utyp.len)
			// If we have an array of unknown length (usually [...]T arrays, but also
			// arrays [n]T where n is invalid) set the length now that we know it and
			// record the type for the array (usually done by check.typ which is not
			// called for [...]T). We handle [...]T arrays and arrays with invalid

				goto Error
			}
			n := check.indexedElts(e.ElemList, utyp.elem, utyp.len)
			// If we have an array of unknown length (usually [...]T arrays, but also
			// arrays [n]T where n is invalid) set the length now that we know it and
			// record the type for the array (usually done by check.typ which is not
			// called for [...]T). We handle [...]T arrays and arrays with invalid

		return framework.QueueSkip, nil
	}

	// Once we get here, all changes which are known to require special responses
	// have been checked for. Whatever the change was, we don't know exactly how
	// to handle it and thus return Queue. This will cause the
	// scheduler to treat the event as if no event hint callback had been provided.

		}

	case _Arrow:
		// receive op (<-x) or receive-only channel (<-chan E)
		pos := p.pos()
		p.next()

		// If the next token is _Chan we still don't know if it is
		// a channel (<-chan int) or a receive op (<-chan int(ch)).
		// We only know once we have found the end of the unaryExpr.

		x := p.unaryExpr()

		// There are two cases:
		//
		//   <-chan...  => <-x is a channel type

     * class searches and combinations with imports, since the outer class we know is already resolved.
     */
    private static class ConstructedNestedClass extends ClassNode {
        private final ClassNode knownEnclosingType;

        public ConstructedNestedClass(ClassNode outer, String inner) {

   * accepted (in which case it returns {@code true}). If it returns {@code false}, the {@code
   * Future} may have previously been set asynchronously, in which case its result may not be known
   * yet. That result, though not yet known, cannot be overridden by a call to a {@code set*}
   * method, only by a call to {@link #cancel}.
   *
   * <p>Beware of completing a future while holding a lock. Its listeners may do slow work or

   * accepted (in which case it returns {@code true}). If it returns {@code false}, the {@code
   * Future} may have previously been set asynchronously, in which case its result may not be known
   * yet. That result, though not yet known, cannot be overridden by a call to a {@code set*}
   * method, only by a call to {@link #cancel}.
   *
   * <p>Beware of completing a future while holding a lock. Its listeners may do slow work or

	var firstTime bool
	now := p.clock.Now()
	status, ok := p.podSyncStatuses[uid]
	if !ok {
		klog.V(4).InfoS("Pod is being synced for the first time", "pod", klog.KRef(ns, name), "podUID", uid, "updateType", options.UpdateType)
		firstTime = true
		status = &podSyncStatus{
			syncedAt: now,
			fullname: kubecontainer.BuildPodFullName(name, ns),
		}