Server: result.server,
						}
						break loop
					}
					if cname.Length == 0 && c.CNAME.Length > 0 {
						cname = c.CNAME
					}

				default:
					if err := result.p.SkipAnswer(); err != nil {
						lastErr = &DNSError{
							Err:    errCannotUnmarshalDNSMessage.Error(),
							Name:   name,
							Server: result.server,
						}
						break loop
					}
					continue
				}
			}
		}

	"k8s.io/kubernetes/pkg/volume/util/hostutil"
	"k8s.io/kubernetes/pkg/volume/util/nestedpendingoperations"
	"k8s.io/kubernetes/pkg/volume/util/operationexecutor"
	"k8s.io/mount-utils"
)

// Reconciler runs a periodic loop to reconcile the desired state of the world
// with the actual state of the world by triggering attach, detach, mount, and
// unmount operations.
// Note: This is distinct from the Reconciler implemented by the attach/detach

				// where preemptM is actually
				// synchronous and the spin loop here
				// can lead to live-lock.
				now := nanotime()
				if now >= nextPreemptM {
					nextPreemptM = now + yieldDelay/2
					preemptM(asyncM)
				}
			}
		}

		// TODO: Don't busy wait. This loop should really only
		// be a simple read/decide/CAS loop that only fails if
		// there's an active race. Once the CAS succeeds, we

      devices, side_effect_analysis, solver, composite_tpuexecute_side_effects);

  // Check for presence of unknown side-effecting ops within the while loop
  // body. These ops act as barriers and the optimization would not yield much
  // inter iteration parallelism for this while loop body. So return with
  // warning.
  if (chain_resource_to_ops_map.count(kUnknownResourceAndDevice) > 0) {
    std::set<std::string> blocking_ops;

	MOVWZ	R21,R7		// crc for next round
	BDNZ 	loop
	ANDCC	$7,R6,R8	// any leftover bytes
	BEQ	done		// none --> done
	MOVD	R8,CTR		// byte count
	PCALIGN $16             // align short loop
short:
	MOVBZ 	0(R5),R8	// get v
	XOR 	R8,R7,R8	// byte(crc)^v -> R8
	RLDIC	$2,R8,$54,R8	// rldicl r8,r8,2,22
	SRD 	$8,R7,R14	// crc>>8
	MOVWZ	(R4)(R8),R10
	ADD	$1,R5
	XOR 	R10,R14,R7	// loop crc in R7
	BDNZ 	short
done:

# flood reviews with unnecessary requests to demonstrate Istio rate limiting


def floodReviews(product_id, headers):
    loop = asyncio.new_event_loop()
    loop.run_until_complete(floodReviewsAsynchronously(product_id, headers))
    loop.close()


@app.route('/productpage')
def front():
    product_id = 0  # TODO: replace default value
    headers = getForwardHeaders(request)

func isOperationRunSerially(ch <-chan interface{}, quit chan<- interface{}) bool {
	defer close(quit)
	numOperationsStarted := 0
loop:
	for {
		select {
		case <-ch:
			numOperationsStarted++
			if numOperationsStarted > 1 {
				return false
			}
		case <-time.After(5 * time.Second):
			break loop
		}
	}
	return true
}

				return c.writeString("i") && c.writeBytes(c.src[start:c.pSrc]) // ignore U+0307
			}
			done = true
			break Loop
		case cccZero:
			c.unreadRune()
			done = true
			break Loop
		default:
			// We'll write this rune after we know which starter to use.
		}
	}
	if i == maxIgnorable {
		done = true
	}
	return c.writeString("ı") && c.writeBytes(c.src[start:c.pSrc+c.sz]) && done
}

)

const (
	// reconcilerLoopSleepPeriod is the amount of time the reconciler loop waits
	// between successive executions
	reconcilerLoopSleepPeriod = 100 * time.Millisecond

	// desiredStateOfWorldPopulatorLoopSleepPeriod is the amount of time the
	// DesiredStateOfWorldPopulator loop waits between successive executions
	desiredStateOfWorldPopulatorLoopSleepPeriod = 100 * time.Millisecond

		},

		// R31 is temp register
		// Loop code:
		//	MOVD len/32,R31		set up loop ctr
		//	MOVD R31,CTR
		//	MOVD $16,R31		index register
		// loop:
		//	LXVD2X (R0)(R4),VS32
		//	LXVD2X (R31)(R4),VS33
		//	ADD  R4,$32          increment src
		//	STXVD2X VS32,(R0)(R3)
		//	STXVD2X VS33,(R31)(R3)
		//	ADD  R3,$32          increment dst
		//	BC 16,0,loop         branch ctr