p.To.Type = obj.TYPE_MEM
			p.To.Reg = dstReg
			p.To.Offset = offset + 48

			// increment the src reg for next iteration
			p = s.Prog(ppc64.AADD)
			p.Reg = srcReg
			p.From.Type = obj.TYPE_CONST
			p.From.Offset = bytesPerLoop
			p.To.Type = obj.TYPE_REG
			p.To.Reg = srcReg

			// increment the dst reg for next iteration
			p = s.Prog(ppc64.AADD)
			p.Reg = dstReg

		next := prev | 0x1
		if c.value.CompareAndSwap(prev, next) {
			return cycle, alreadyFlushed
		}
	}
}

// increment increases the cycle count by one, wrapping the value at
// mProfCycleWrap. It clears the flushed flag.
func (c *mProfCycleHolder) increment() {
	// We explicitly wrap mProfCycle rather than depending on
	// uint wraparound because the memRecord.future ring does not

	"--node-monitor-grace-period=30s",
	"--node-monitor-period=10s",
	"--node-startup-grace-period=30s",
	"--profiling=false",
	"--pv-recycler-increment-timeout-nfs=45",
	"--pv-recycler-minimum-timeout-hostpath=45",
	"--pv-recycler-minimum-timeout-nfs=200",
	"--pv-recycler-timeout-increment-hostpath=45",
	"--pvclaimbinder-sync-period=30s",
	"--resource-quota-sync-period=10m",
	"--route-reconciliation-period=30s",

	}

	// Bump GC cycle count and wake goroutines waiting on sweep.
	lock(&work.sweepWaiters.lock)
	memstats.numgc++
	injectglist(&work.sweepWaiters.list)
	unlock(&work.sweepWaiters.lock)

	// Increment the scavenge generation now.
	//
	// This moment represents peak heap in use because we're
	// about to start sweeping.
	mheap_.pages.scav.index.nextGen()

	// Release the CPU limiter.

		if err != nil {
			t.Fatalf("Failed to get PDB: %v", err)
		}
		updatedPDB := obj.(*policy.PodDisruptionBudget)
		// Each eviction,
		// - decrements DisruptionsAllowed
		// - adds the pod to DisruptedPods
		// - deletes the pod
		updatedPDB.Status.DisruptionsAllowed -= int32(len(podNames))
		updatedPDB.Status.DisruptedPods = make(map[string]metav1.Time)

	}

	for i := uintptr(0); i < n; i += goarch.PtrSize {
		if ptrmask != nil {
			word := i / goarch.PtrSize
			bits := *addb(ptrmask, word/8)
			if bits == 0 {
				// Skip 8 words (the loop increment will do the 8th)
				//
				// This must be the first time we've
				// seen this word of ptrmask, so i
				// must be 8-word-aligned, but check
				// our reasoning just in case.

	// Now we retain restart count of container as a container label. Each time a container
	// restarts, pod will read the restart count from the registered dead container, increment
	// it to get the new restart count, and then add a label with the new restart count on
	// the newly started container.
	// However, there are some limitations of this method:

}

void AddCtrlEdge(const Scope& scope, Operation a, Output b) {
  AddCtrlEdge(scope, a, b.op());
}

// Tests that we pick a good clustering for graphs that have an integer
// increment operation control dependent on gradient update operations.
TEST(XlaCompilationTest, IterationIncrementAndGroupDeps) {
  Scope scope = Scope::NewRootScope().ExitOnError();

  Output iter =

	VSEL X1L, X2L, SEL1, X1L // Select if idx matched
	VSEL X1H, X2H, SEL1, X1H
	VSEL Y1L, Y2L, SEL1, Y1L
	VSEL Y1H, Y2H, SEL1, Y1H

	VADDUBM SEL2, ONE, SEL2    // Increment SEL2 bytes by 1
	ADD     $64, P1ptr         // Next chunk
	BDNZ	loop_select

	STXVD2X X1H, (P3ptr+R0)
	STXVD2X X1L, (P3ptr+R16)
	STXVD2X Y1H, (P3ptr+R17)
	STXVD2X Y1L, (P3ptr+R18)
	RET

	// We trigger same-size map growth if there are
	// as many overflow buckets as buckets.
	// We need to be able to count to 1<<h.B.
	if h.B < 16 {
		h.noverflow++
		return
	}
	// Increment with probability 1/(1<<(h.B-15)).
	// When we reach 1<<15 - 1, we will have approximately
	// as many overflow buckets as buckets.
	mask := uint32(1)<<(h.B-15) - 1
	// Example: if h.B == 18, then mask == 7,