},
			nil,
			&runtimeapi.NamespaceOption{
				Pid: runtimeapi.NamespaceMode_CONTAINER,
			},
		},
		{
			"PID Namespace POD",
			&v1.Pod{
				Spec: v1.PodSpec{
					Containers: []v1.Container{
						{Name: "test"},
					},
					ShareProcessNamespace: &[]bool{true}[0],
				},
			},
			nil,
			&runtimeapi.NamespaceOption{
				Pid: runtimeapi.NamespaceMode_POD,
			},
		},
		{

        ProcessMetaDataProvider metaDataProvider = new ProcessMetaDataProvider() {
            @Override
            public String getProcessIdentifier() {
                // TODO Inject actual PID
                return "PID";
            }

            @Override
            public String getProcessDisplayName() {
                return "build-cache-example-client";
            }
        };

	SYSCALL	$SYS_getpid
	MOVW	R3, R14
	SYSCALL	$SYS_gettid
	MOVW	R3, R4	// arg 2 tid
	MOVW	R14, R3	// arg 1 pid
	MOVW	sig+0(FP), R5	// arg 3
	SYSCALL	$SYS_tgkill
	RET

TEXT runtime·raiseproc(SB),NOSPLIT|NOFRAME,$0
	SYSCALL	$SYS_getpid
	MOVW	R3, R3	// arg 1 pid
	MOVW	sig+0(FP), R4	// arg 2
	SYSCALL	$SYS_kill
	RET

TEXT ·getpid(SB),NOSPLIT|NOFRAME,$0-8
	SYSCALL $SYS_getpid

        UUID buildId = idGenerator.generateId();
        List<DaemonInitialConnectException> accumulatedExceptions = new ArrayList<>();

        LOGGER.debug("Executing build {} in daemon client {pid={}}", buildId, processEnvironment.maybeGetPid());

        // Attempt to connect to an existing idle and compatible daemon
        int saneNumberOfAttempts = 100; //is it sane enough?

		if err != nil {
			return nil, err
		}
		mid := ThreadID(m)

		// Read the sample's P.
		p, err := binary.ReadUvarint(r)
		if err != nil {
			return nil, err
		}
		pid := ProcID(p)

		// Read the sample's G.
		g, err := binary.ReadUvarint(r)
		if err != nil {
			return nil, err
		}
		goid := GoID(g)
		if g == 0 {
			goid = NoGoroutine
		}

		Resources:       m.generateLinuxContainerResources(pod, container, enforceMemoryQoS),
		SecurityContext: sc,
	}

	if nsTarget != nil && lc.SecurityContext.NamespaceOptions.Pid == runtimeapi.NamespaceMode_CONTAINER {
		lc.SecurityContext.NamespaceOptions.Pid = runtimeapi.NamespaceMode_TARGET
		lc.SecurityContext.NamespaceOptions.TargetId = nsTarget.ID
	}

	return lc, nil
}

  # wait till they are provisioned successfully.
  declare -a DEPLOY_KIND_JOBS
  for i in "${!CLUSTER_NAMES[@]}"; do
    deploy_kind "${i}" & DEPLOY_KIND_JOBS+=("${!}")
  done

  for pid in "${DEPLOY_KIND_JOBS[@]}"; do
    wait "${pid}" || exit 1
  done

  # Install MetalLB for LoadBalancer support. Must be done synchronously since METALLB_IPS is shared.
  # and keep track of the list of Kubeconfig files that will be exported later

		<packaging.fess.user>fess</packaging.fess.user>
		<packaging.fess.group>fess</packaging.fess.group>
		<packaging.fess.pid.dir>/var/run/fess</packaging.fess.pid.dir>
		<packaging.fess.systemd.dir>/usr/lib/systemd/system</packaging.fess.systemd.dir>
		<packaging.fess.systemd.sysctl.dir>/usr/lib/sysctl.d</packaging.fess.systemd.sysctl.dir>

class JavaProcessStackTracesMonitorSpec extends Specification {

    @Requires(UnitTestPreconditions.NotWindows)
    def 'can extract process info from unix ps()'() {
        given:
        def output = '''
          PID TTY      STAT   TIME COMMAND
 1401 ?        Ss     0:05 /lib/systemd/systemd --user
 1409 ?        S      0:00 (sd-pam)

	fs.Var(cliflag.NewMapStringString(&c.SystemReserved), "system-reserved", "A set of ResourceName=ResourceQuantity (e.g. cpu=200m,memory=500Mi,ephemeral-storage=1Gi,pid=1000) pairs that describe resources reserved for non-kubernetes components. Currently only cpu, memory, pid and local ephemeral storage for root file system are supported. See https://kubernetes.io/docs/concepts/configuration/manage-resources-containers/ for more detail. [default=none]")