CMP	R1, $0
	BEQ	nocgo
	MOVD	$_rt0_s390x_lib_go(SB), R2
	MOVD	$0, R3
	BL	R1
	BR	restore

nocgo:
	MOVD	$0x800000, R1              // stacksize
	MOVD	R1, 0(R15)
	MOVD	$_rt0_s390x_lib_go(SB), R1
	MOVD	R1, 8(R15)                 // fn
	MOVD	$runtime·newosproc(SB), R1
	BL	R1

restore:
	// Restore F8-F15 from our stack frame.
	FMOVD	16(R15), F8
	FMOVD	24(R15), F9
	FMOVD	32(R15), F10

//
TEXT ·CallLeFuncWithErr(SB), NOSPLIT, $0
	MOVW PSALAA, R8
	MOVD LCA64(R8), R8
	MOVD CAA(R8), R9
	MOVD g, GOCB(R9)

	// Restore LE stack.
	MOVD SAVSTACK_ASYNC(R8), R9 // R9-> LE stack frame saving address
	MOVD 0(R9), R4              // R4-> restore previously saved stack frame pointer

	MOVD parms_base+8(FP), R7 // R7 -> argument array
	MOVD parms_len+16(FP), R8 // R8 number of arguments

        when:
        succeeds "restore"

        then:
        executedAndNotSkipped(':restore')
        original.text == backup.text
        original.text == "Original"

        when:
        // The whole setup is as follows:
        // - Both the restore and the backup task have an entry in the task history
        // - The output of the restore path is the input of the backup task.

	JMP	finish

nosaveg:
	JAL	(R20)

finish:
	MOVV	0(R3), R7	// sec
	MOVV	8(R3), R5	// nsec

	MOVV	R23, R3	// restore SP
	// Restore vdsoPC, vdsoSP
	// We don't worry about being signaled between the two stores.
	// If we are not in a signal handler, we'll restore vdsoSP to 0,
	// and no one will care about vdsoPC. If we are in a signal handler,
	// we cannot receive another signal.
	MOVV	16(R3), R25

	// failures (resulting in a fall back to a full restore) that the proxy has seen.
	IPTablesPartialRestoreFailuresTotal = metrics.NewCounter(
		&metrics.CounterOpts{
			Subsystem:      kubeProxySubsystem,
			Name:           "sync_proxy_rules_iptables_partial_restore_failures_total",
			Help:           "Cumulative proxy iptables partial restore failures",
			StabilityLevel: metrics.ALPHA,

		return false
	}
	return !isRestoredObjectOnDisk(oi.UserDefined)
}

// restoreObjStatus represents a restore-object's status. It can be either
// ongoing or completed.
type restoreObjStatus struct {
	ongoing bool
	expiry  time.Time
}

// ongoingRestoreObj constructs restoreObjStatus for an ongoing restore-object.
func ongoingRestoreObj() restoreObjStatus {
	return restoreObjStatus{
		ongoing: true,
	}
}

		checkpointContent string
		expectedError     string
		expectedState     ClaimInfoStateList
	}{
		{
			"Create non-existing checkpoint",
			"",
			"",
			[]ClaimInfoState{},
		},
		{
			"Restore checkpoint - single claim",

	AmzTagCount      = "x-amz-tagging-count"
	AmzTagDirective  = "X-Amz-Tagging-Directive"

	// S3 transition restore
	AmzRestore            = "x-amz-restore"
	AmzRestoreExpiryDays  = "X-Amz-Restore-Expiry-Days"
	AmzRestoreRequestDate = "X-Amz-Restore-Request-Date"
	AmzRestoreOutputPath  = "x-amz-restore-output-path"

	// S3 extensions
	AmzCopySourceIfModifiedSince   = "x-amz-copy-source-if-modified-since"

      return &maybe_serialized_tensor;
    }
  }
  return nullptr;
}

// This function reads the Checkpoint embedded in the SavedModel, and calls the
// appropriate Restore ops on each of the variables.
// Note(bmzhao): Conceptually, objects that contain checkpointable state
// implement the "_gather_saveables_for_checkpoint" method

	JAL	runtime·cgocallbackg(SB)

	// Restore g->sched (== m->curg->sched) from saved values.
	MOVV	0(R29), R4
	MOVV	R4, (g_sched+gobuf_pc)(g)
	MOVV	$(24+8)(R29), R2	// must match frame size
	MOVV	R2, (g_sched+gobuf_sp)(g)

	// Switch back to m->g0's stack and restore m->g0->sched.sp.
	// (Unlike m->curg, the g0 goroutine never uses sched.pc,
	// so we do not have to restore it.)
	MOVV	g_m(g), R3
	MOVV	m_g0(R3), g