}

	// no taint -> infinitely tolerated taint
	nodeIndexer.Update(singleTaintedNode)
	controller.handleNodeUpdate(ctx, nodeUpdateItem{"node1"})
	// verify pod is not queued for deletion
	if controller.taintEvictionQueue.GetWorkerUnsafe(podNamespacedName.String()) != nil {
		t.Fatalf("pod queued for deletion with permanently tolerated taint")
	}

	// infinitely tolerated taint -> temporarily tolerated taint

		poolIDL, setIDL)
	erasureSetReadToleranceMD = NewGaugeMD(erasureSetReadTolerance,
		"No of drive failures that can be tolerated without disrupting read operations",
		poolIDL, setIDL)
	erasureSetWriteToleranceMD = NewGaugeMD(erasureSetWriteTolerance,
		"No of drive failures that can be tolerated without disrupting write operations",
		poolIDL, setIDL)
	erasureSetReadHealthMD = NewGaugeMD(erasureSetReadHealth,

			expectedList: []framework.NodeScore{
				{Name: "nodeA", Score: framework.MaxNodeScore},
				{Name: "nodeB", Score: 0},
			},
		},
		// the count of taints that are tolerated by pod, does not matter.
		{
			name: "the nodes that all of their taints are tolerated by the pod, get the same score, no matter how many tolerable taints a node has",
			pod: podWithTolerations("pod1", []v1.Toleration{
				{
					Key:      "cpu-type",

func GetMatchingTolerations(taints []v1.Taint, tolerations []v1.Toleration) (bool, []v1.Toleration) {
	if len(taints) == 0 {
		return true, []v1.Toleration{}
	}
	if len(tolerations) == 0 && len(taints) > 0 {
		return false, []v1.Toleration{}
	}
	result := []v1.Toleration{}
	for i := range taints {
		tolerated := false
		for j := range tolerations {

	// tolerations are appended (excluding duplicates) to pods running with this
	// RuntimeClass during admission, effectively unioning the set of nodes
	// tolerated by the pod and the RuntimeClass.
	// +optional
	// +listType=atomic
	Tolerations []corev1.Toleration `json:"tolerations,omitempty" protobuf:"bytes,2,rep,name=tolerations"`
}

| `minio_cluster_erasure_set_read_tolerance`       | `gauge` | No of drive failures that can be tolerated without disrupting read operations     | `pool_id,set_id` |
| `minio_cluster_erasure_set_write_tolerance`      | `gauge` | No of drive failures that can be tolerated without disrupting write operations    | `pool_id,set_id` |

		tc.cancelWorkWithEvent(logger, podNamespacedName)
	}
	allTolerated, usedTolerations := v1helper.GetMatchingTolerations(taints, tolerations)
	if !allTolerated {
		logger.V(2).Info("Not all taints are tolerated after update for pod on node", "pod", podNamespacedName.String(), "node", klog.KRef("", nodeName))
		// We're canceling scheduled work (if any), as we're going to delete the Pod right away.

	"k8s.io/kubernetes/pkg/scheduler/framework/plugins/helper"
	"k8s.io/kubernetes/pkg/scheduler/framework/plugins/names"
	"k8s.io/kubernetes/pkg/scheduler/util"
)

// TaintToleration is a plugin that checks if a pod tolerates a node's taints.
type TaintToleration struct {
	handle                    framework.Handle
	enableSchedulingQueueHint bool
}

var _ framework.FilterPlugin = &TaintToleration{}

	return traceWriter{traceLocker: traceLocker{gen: gen}, traceBuf: buf}
}

// end writes the buffer back into the m.
func (w traceWriter) end() {
	if w.mp == nil {
		// Tolerate a nil mp. It makes code that creates traceWriters directly
		// less error-prone.
		return
	}
	w.mp.trace.buf[w.gen%2] = w.traceBuf
}

// ensure makes sure that at least maxSize bytes are available to write.
//

The `go` command uses it automatically, avoiding "argument list too long"
errors with a very large `CGO_LDFLAGS`.

### Trace {#trace}

<!-- go.dev/issue/65316 -->
The `trace` tool now better tolerates partially broken traces by attempting to
recover what trace data it can. This functionality is particularly helpful when
viewing a trace that was collected during a program crash, since the trace data