auto num_selected = UnsortedSegmentSum(
      scope, Cast(scope, is_selected, grad.type()), op.input(1), op.input(2));
  // Compute the gradient for each segment.The gradient for the ith segment is
  // divided evenly among the selected elements in that segment.
  auto weighted_grads = Div(scope, grad, num_selected);
  auto gathered_grads = GatherDropNegatives(scope, weighted_grads,

			// that we emit an in-progress event if this is
			// the first event for the goroutine in the trace
			// or trace generation. Also, do this between
			// acquire/release because this is part of the
			// goroutine's trace state, and it must be atomic
			// with respect to the tracer.
			gp.inMarkAssist = false
			traceRelease(trace)
		} else {
			// This state is tracked even if tracing isn't enabled.

						// We let the low bit of tophash drive the evacuation decision.
						// We recompute a new random tophash for the next level so
						// these keys will get evenly distributed across all buckets
						// after multiple grows.
						useY = top & 1
						top = tophash(hash)
					} else {
						if hash&newbit != 0 {
							useY = 1
						}
					}
				}

	// free spans at ~32 MB/ms. Using 512 pages bounds this at
	// roughly 100µs.
	//
	// Must be a multiple of the pageInUse bitmap element size and
	// must also evenly divide pagesPerArena.
	pagesPerReclaimerChunk = 512

	// physPageAlignedStacks indicates whether stack allocations must be
	// physical page aligned. This is a requirement for MAP_STACK on
	// OpenBSD.

	}
	err = DB.Table("events").AutoMigrate(&Event2{})
	if err != nil {
		t.Errorf("AutoMigrate err:%v", err)
	}

	DB.Table("events").Save(&Event2{})
	DB.Table("events").Save(&Event2{})
	DB.Table("events").Save(&Event2{})

	events := make([]*Event, 0)
	DB.Table("events").Find(&events)

	AssertEqual(t, 3, len(events))
	for _, v := range events {
		AssertEqual(t, v.ID, v.UID)
	}
}

import org.gradle.tooling.events.problems.Location;
import org.gradle.tooling.events.problems.ProblemContext;
import org.gradle.tooling.events.problems.ProblemDefinition;
import org.gradle.tooling.events.problems.ProblemEvent;
import org.gradle.tooling.events.problems.ProblemGroup;
import org.gradle.tooling.events.problems.ProblemId;
import org.gradle.tooling.events.problems.Severity;
import org.gradle.tooling.events.problems.Solution;

<database>"`

MinIO supports persistent event store. The persistent store will backup events if MySQL connection goes offline and then replays the stored events when the broken connection comes back up. The event store can be configured by setting a directory path in `queue_dir` field, and the maximum number of events, which can be stored in a `queue_dir`, in `queue_limit` field. For example, `queue_dir` can be set to `/home/events` and `queue_limit` can be set to `1000`. By default,...

				ctrl.eventRecorder.Event(volume, v1.EventTypeWarning, events.VolumeMismatch, volumeMsg)
				claimMsg := fmt.Sprintf("Cannot bind PersistentVolume %q to requested PersistentVolumeClaim due to incompatible volumeMode.", volume.Name)
				ctrl.eventRecorder.Event(claim, v1.EventTypeWarning, events.VolumeMismatch, claimMsg)
				// Skipping syncClaim
				return nil
			}

	return
}

func (m *kubeGenericRuntimeManager) GeneratePodStatus(event *runtimeapi.ContainerEventResponse) (*kubecontainer.PodStatus, error) {
	podIPs := m.determinePodSandboxIPs(event.PodSandboxStatus.Metadata.Namespace, event.PodSandboxStatus.Metadata.Name, event.PodSandboxStatus)

	kubeContainerStatuses := []*kubecontainer.Status{}
	for _, status := range event.ContainersStatuses {

			},
			{
				"parallelizationMethod":{
					"name":"TestDistribution"
				},
				"subprojects":[
					"language-native",
					"tooling-native",
					"core-api",
					"wrapper-main",
					"build-events",
					"reporting",
					"resources-s3",
					"diagnostics",
					"plugins-application",
					"language-jvm"
				]
			},
			{
				"parallelizationMethod":{
					"name":"TestDistribution"