}

			cdc := csiAttacher.csiClient.(*fakeCsiDriverClient)
			staged := cdc.nodeClient.GetNodeStagedVolumes()
			if len(staged) != numStaged {
				t.Errorf("got wrong number of staged volumes, expecting %v got: %v", numStaged, len(staged))
			}
			if tc.stageUnstageSet {
				vol, ok := staged[tc.volName]
				if !ok {
					t.Errorf("could not find staged volume: %s", tc.volName)
				}

	"cmd/compile/internal/objw"
	"cmd/compile/internal/ssa"
	"cmd/compile/internal/ssagen"
	"cmd/compile/internal/types"
	"cmd/internal/obj"
	"cmd/internal/obj/ppc64"
	"internal/buildcfg"
	"math"
	"strings"
)

// ssaMarkMoves marks any MOVXconst ops that need to avoid clobbering flags.
func ssaMarkMoves(s *ssagen.State, b *ssa.Block) {
	//	flive := b.FlagsLiveAtEnd
	//	if b.Control != nil && b.Control.Type.IsFlags() {

# (1)
FROM python:3.9 as requirements-stage

# (2)
WORKDIR /tmp

# (3)
RUN pip install poetry

# (4)
COPY ./pyproject.toml ./poetry.lock* /tmp/

# (5)
RUN poetry export -f requirements.txt --output requirements.txt --without-hashes

# (6)
FROM python:3.9

# (7)
WORKDIR /code

# (8)
COPY --from=requirements-stage /tmp/requirements.txt /code/requirements.txt

	// This is a queue, not a deque.
	// It is split into two stages - head[headPos:] and tail.
	// popFront is trivial (headPos++) on the first stage, and
	// pushBack is trivial (append) on the second stage.
	// If the first stage is empty, popFront can swap the
	// first and second stages to remedy the situation.
	//
	// This two-stage split is analogous to the use of two lists

  def MoveBinaryOpBeforeReshape#BinaryOp : Pat<
    (BinaryOp (TFL_ReshapeOp:$lhs $input1, (Arith_ConstantOp:$shape1 $s1)),
              (TFL_ReshapeOp:$rhs $input2, (Arith_ConstantOp:$shape2 $s2)),
              $act_fn),
    (TFL_ReshapeOp (BinaryOp $input1, $input2, $act_fn), $shape1),
    [(IsTailOfShape $rhs, $lhs),
      (IsTailOfShape $lhs, $rhs),
      (IsTailOfShape $input1, $input2),

	}
}

// This will cleanup stale load balancers which are pending delete
// in last iteration. This function will act like a self healing of stale
// loadbalancer entries.
func (proxier *Proxier) cleanupStaleLoadbalancers() {
	i := 0
	countStaleLB := len(proxier.mapStaleLoadbalancers)
	if countStaleLB == 0 {
		return
	}
	klog.V(3).InfoS("Cleanup of stale loadbalancers triggered", "LB Count", countStaleLB)

    if (!TFIntListIs1XY1(op, "strides", &height, &width)) return failure();

    ConvertTFConvOpMatchState state;
    state.stride_height = height;
    state.stride_width = width;

    if (TFIntListIs1XY1(op, "dilations", &height, &width)) {
      state.dilation_height_factor = height;
      state.dilation_width_factor = width;
    } else {
      // If the 'dilations' attribute is missing, we use the default value (1)

	var state ConnectionState
	state.HandshakeComplete = c.isHandshakeComplete.Load()
	state.Version = c.vers
	state.NegotiatedProtocol = c.clientProtocol
	state.DidResume = c.didResume
	state.testingOnlyDidHRR = c.didHRR
	// c.curveID is not set on TLS 1.0–1.2 resumptions. Fix that before exposing it.
	state.testingOnlyCurveID = c.curveID
	state.NegotiatedProtocolIsMutual = true

// until the capture completes and the state moves to "Satisfied".
//
// Some goroutines (the finalizer goroutine, which at various times can be
// either a "system" or a "user" goroutine, and the goroutine that is
// coordinating the profile, any goroutines created during the profile) move
// directly to the "Satisfied" state.
type goroutineProfileState uint32

const (

- Users can traverse all the pods that are in the scheduler and waiting in the permit stage through method `IterateOverWaitingPods`. In other words,  all waitingPods in scheduler can be obtained from any profiles. Before this commit, each profile could only obtain waitingPods within that profile. ([#124926](https://github.com/kubernetes/...