handle, status := p.handleTransientAcquire()
	switch status {
	case statusDone:
		return ErrProcessDone
	case statusReleased:
		return syscall.EINVAL
	}
	defer p.handleTransientRelease()

	if sig == Kill {
		var terminationHandle syscall.Handle
		e := syscall.DuplicateHandle(^syscall.Handle(0), syscall.Handle(handle), ^syscall.Handle(0), &terminationHandle, syscall.PROCESS_TERMINATE, false, 0)
		if e != nil {

	}
	return h, nil
}

// _P_PIDFD is used as idtype argument to waitid syscall.
const _P_PIDFD = 3

func (p *Process) pidfdWait() (*ProcessState, error) {
	// When pidfd is used, there is no wait/kill race (described in CL 23967)
	// because the PID recycle issue doesn't exist (IOW, pidfd, unlike PID,
	// is guaranteed to refer to one particular process). Thus, there is no

		return
	}
	for i := 0; i < numPods; i++ {
		uid := types.UID(strconv.Itoa(i))
		// each pod should be processed two or three times (kill,terminate or create,kill,terminate) because
		// we buffer pending updates and the pod worker may compress the create and kill
		syncPodRecords := processed[uid]
		var match bool
		grace := int64(30)
		for _, possible := range [][]syncPodRecord{

}

func removeDups(syntax *FileSyntax, exclude *[]*Exclude, replace *[]*Replace) {
	kill := make(map[*Line]bool)

	// Remove duplicate excludes.
	if exclude != nil {
		haveExclude := make(map[module.Version]bool)
		for _, x := range *exclude {
			if haveExclude[x.Mod] {
				kill[x.Syntax] = true
				continue
			}
			haveExclude[x.Mod] = true
		}
		var excl []*Exclude

            }
        }
    }

    private static final Consumer<WorkerDaemonClient> STOP_CLIENT = WorkerDaemonClient::stop;
    private static final Consumer<WorkerDaemonClient> KILL_CLIENT = WorkerDaemonClient::kill;

  fi
  echo "${short_hash:0:10}"
}

# Pedantically kill, wait-on and remove a container. The -f -v options
# to rm don't actually seem to get the job done, so force kill the
# container, wait to ensure it's stopped, then try the remove. This is
# a workaround for bug https://github.com/docker/docker/issues/3968.
function kube::build::destroy_container() {
  "${DOCKER[@]}" kill "$1" >/dev/null 2>&1 || true

is called for either signal, a signal handler will be installed for
that signal and it will no longer be ignored. If, later, [Reset] or
[Ignore] is called for that signal, or [Stop] is called on all channels
passed to Notify for that signal, the signal will once again be
ignored. Reset will restore the system default behavior for the
signal, while Ignore will cause the system to ignore the signal
entirely.

            .withWorkerDaemonsExpirationDisabled()
            .withTasks(task)

        client = new DaemonClientFixture(executer.start())
    }

    private void cancelBuild() {
        client.kill()
        assert !client.gradleHandle.standardOutput.contains("BUILD FAIL")
        assert !client.gradleHandle.standardOutput.contains("BUILD SUCCESS")
    }

    private void succeeds() {

          # This is not strictly needed, but it makes our CI properly report crashes (including core dumps)
          cat <<'EOF'>/tmp/start.sh
          #!/bin/bash
          /usr/local/bin/istio-start.sh
          kill "$1"
          EOF
          chmod +x /tmp/start.sh
          
          export ISTIO_AGENT_FLAGS="--concurrency 2 --proxyLogLevel warning,misc:error,rbac:debug,jwt:debug"
          sudo -E /tmp/start.sh $pid &

				s, _ := br.ReadString('\n')
				if s != "" {
					qpres <- errors.New(s)
					if cmd.Process != nil {
						// It can get stuck on invalid input, like:
						// echo -n "0000= " | qprint -d
						cmd.Process.Kill()
					}
				}
			}()
			go func() {
				want, err := cmd.Output()
				if err == nil {
					qpres <- want
				}
			}()
			select {
			case got := <-qpres: