}
			pod := testCase.podAllocate
			container := &pod.Spec.Containers[0]
			err := mgr.Allocate(pod, container)
			if !reflect.DeepEqual(err, testCase.expectedAllocateError) {
				t.Errorf("Memory Manager Allocate() error (%v), expected error: %v, but got: %v",
					testCase.description, testCase.expectedAllocateError, err)
			}

      }
      remainingNanos = endNanos - System.nanoTime();
    }

    String futureToString = toString();
    final String unitString = unit.toString().toLowerCase(Locale.ROOT);
    String message = "Waited " + timeout + " " + unit.toString().toLowerCase(Locale.ROOT);
    // Only report scheduling delay if larger than our spin threshold - otherwise it's just noise
    if (remainingNanos + SPIN_THRESHOLD_NANOS < 0) {

      }
      remainingNanos = endNanos - System.nanoTime();
    }

    String futureToString = toString();
    final String unitString = unit.toString().toLowerCase(Locale.ROOT);
    String message = "Waited " + timeout + " " + unit.toString().toLowerCase(Locale.ROOT);
    // Only report scheduling delay if larger than our spin threshold - otherwise it's just noise
    if (remainingNanos + SPIN_THRESHOLD_NANOS < 0) {

	6:   "device not configured",
	7:   "argument list too long",
	8:   "exec format error",
	9:   "bad file descriptor",
	10:  "no child processes",
	11:  "resource deadlock avoided",
	12:  "cannot allocate memory",
	13:  "permission denied",
	14:  "bad address",
	15:  "block device required",
	16:  "resource busy",
	17:  "file exists",
	18:  "cross-device link",
	19:  "operation not supported by device",

//
// Allocation occurs normally until we reach (3) and we realize we have
// a use of v and it isn't in any register. At that point, we allocate
// a spill (a StoreReg) for v. We can't determine the correct place for
// the spill at this point, so we allocate the spill as blockless initially.
// The restore is then generated to load v back into a register so it can

        }

        if ( targetHost != null ) {
            targetHost = targetHost.toLowerCase(Locale.ROOT);
        }

        if ( targetDomain != null ) {
            targetDomain = targetDomain.toUpperCase(Locale.ROOT);
        }

        ListIterator<SmbSessionImpl> iter = this.sessions.listIterator();
        while ( iter.hasNext() ) {

// all local work to the global queues where it can be discovered by
// other workers.
//
// This should be called when all local mark work has been drained and
// there are no remaining workers. Specifically, when
//
//	work.nwait == work.nproc && !gcMarkWorkAvailable(p)
//
// The calling context must be preemptible.
//
// Flushing local work is important because idle Ps may have local

// high-order bits of each hash to distinguish the entries
// within a single bucket.
//
// If more than 8 keys hash to a bucket, we chain on
// extra buckets.
//
// When the hashtable grows, we allocate a new array
// of buckets twice as big. Buckets are incrementally
// copied from the old bucket array to the new bucket array.
//
// Map iterators walk through the array of buckets and

	6:  "device not configured",
	7:  "argument list too long",
	8:  "exec format error",
	9:  "bad file descriptor",
	10: "no child processes",
	11: "resource deadlock avoided",
	12: "cannot allocate memory",
	13: "permission denied",
	14: "bad address",
	15: "block device required",
	16: "device busy",
	17: "file exists",
	18: "cross-device link",
	19: "operation not supported by device",

	6:  "device not configured",
	7:  "argument list too long",
	8:  "exec format error",
	9:  "bad file descriptor",
	10: "no child processes",
	11: "resource deadlock avoided",
	12: "cannot allocate memory",
	13: "permission denied",
	14: "bad address",
	15: "block device required",
	16: "device busy",
	17: "file exists",
	18: "cross-device link",
	19: "operation not supported by device",