{pod: pod, container: &init1, attempt: 3, createdAt: 3, state: runtimeapi.ContainerState_CONTAINER_EXITED},
		{pod: pod, container: &init1, attempt: 2, createdAt: 2, state: runtimeapi.ContainerState_CONTAINER_EXITED},
		{pod: pod, container: &init2, attempt: 1, createdAt: 1, state: runtimeapi.ContainerState_CONTAINER_EXITED},
		{pod: pod, container: &init1, attempt: 1, createdAt: 1, state: runtimeapi.ContainerState_CONTAINER_UNKNOWN},

	//
	// The rules with thread-lock interactions are simple. When a coro goroutine is switched to,
	// the same thread must be used, and the locked state must match with the thread-lock state of
	// the goroutine which called newcoro. Thread-lock state consists of the thread and the number
	// of internal (cgo callback, etc.) and external (LockOSThread) thread locks.
	locked := gp.lockedm != 0
	if c.mp != nil || locked {

        gradle.services.getFactory(serviceType)

    private
    class DefaultVintageGradleBuild(override val state: BuildState) : VintageGradleBuild {
        override val isRootBuild: Boolean
            get() = state is RootBuildState

        override val gradle: GradleInternal
            get() = state.mutableModel

        override val hasScheduledWork: Boolean
            get() = gradle.taskGraph.size() > 0

}
func (s *state) constNil(t *types.Type) *ssa.Value { return s.f.ConstNil(t) }
func (s *state) constEmptyString(t *types.Type) *ssa.Value {
	return s.f.ConstEmptyString(t)
}
func (s *state) constBool(c bool) *ssa.Value {
	return s.f.ConstBool(types.Types[types.TBOOL], c)
}
func (s *state) constInt8(t *types.Type, c int8) *ssa.Value {
	return s.f.ConstInt8(t, c)
}

        writeSmallInt(value.factoryId)
        write(value.state)
    }

    override suspend fun ReadContext.decode(): IsolatedManagedValue {
        val targetType = readClass()
        val factoryId = readSmallInt()
        val state = readNonNull<Isolatable<Any>>()
        return IsolatedManagedValue(targetType, managedFactory.lookup(factoryId), state)
    }
}

        ++inputTrackingDisabledCounterForThread
    }

    /**
     * Restores the input tracking state to the state it was in before the last call to
     * [disableForCurrentThread].
     */
    fun restoreForCurrentThread() {
        Preconditions.checkState(inputTrackingDisabledCounterForThread > 0, "Restore input tracking state without prior disable is detected")
        --inputTrackingDisabledCounterForThread
    }
}

     * This is because the builders are executed after the tasks (if any) in a build action,
     * and these builders may access project state as well as the task state.
     * Doing load-after-store would have discarded the project state and isolated the task state,
     * providing the builders with an incomplete view of the build.
     */

    }

    public boolean isSelected() {
        return state == ComponentSelectionState.Selected;
    }

    public boolean isCandidateForConflictResolution() {
        return state.isCandidateForConflictResolution();
    }

    void evict() {
        state = ComponentSelectionState.Evicted;
    }

    void select() {
        state = ComponentSelectionState.Selected;
    }

		}
		switch {
		case cs.State == kubecontainer.ContainerStateRunning:
			status.State.Running = &v1.ContainerStateRunning{StartedAt: metav1.NewTime(cs.StartedAt)}
		case cs.State == kubecontainer.ContainerStateCreated:
			// containers that are created but not running are "waiting to be running"
			status.State.Waiting = &v1.ContainerStateWaiting{}
		case cs.State == kubecontainer.ContainerStateExited:

    }
    ::stream_executor::AllocatorStats stats;
    stats.num_allocs = c_stats.num_allocs;
    stats.bytes_in_use = c_stats.bytes_in_use;
    stats.peak_bytes_in_use = c_stats.peak_bytes_in_use;
    stats.largest_alloc_size = c_stats.largest_alloc_size;
    if (c_stats.has_bytes_limit) {
      stats.bytes_limit = c_stats.bytes_limit;
    }
    stats.bytes_reserved = c_stats.bytes_reserved;