MOVQ	$8, R12
	BYTE	$0xcc
	JMP	restore

restore:
	// Calls and failures resume here.
	//
	// Set R12 to 16 and invoke INT3. The debugger should restore
	// all registers except RIP and RSP and resume execution.
	MOVQ	$16, R12
	BYTE	$0xcc
	// We must not modify flags after this point.

	// Restore pointer-containing registers, which may have been

	su := ldr.MakeSymbolUpdater(s)
	su.SetRelocSym(ri, stub.Sym())

	// A type 1 call must restore the toc pointer after the call.
	if stubType == 1 {
		su.MakeWritable()
		p := su.Data()

		// Check for a toc pointer restore slot (a nop), and rewrite to restore the toc pointer.
		var nop uint32
		if len(p) >= int(r.Off()+8) {
			nop = ctxt.Arch.ByteOrder.Uint32(p[r.Off()+4:])
		}

			}
		}
		natRules.Write("COMMIT")
		natLines := append(natChains.Bytes(), natRules.Bytes()...)
		// Write it.
		err = ipt.Restore(utiliptables.TableNAT, natLines, utiliptables.NoFlushTables, utiliptables.RestoreCounters)
		if err != nil {
			logger.Error(err, "Failed to execute iptables-restore", "table", utiliptables.TableNAT)
			metrics.IPTablesRestoreFailuresTotal.Inc()
			encounteredError = true
		}
	}

	ft.limitStack = append(ft.limitStack, checkpointBound)
	ft.orderS.Checkpoint()
	ft.orderU.Checkpoint()
}

// restore restores known relation to the state just
// before the previous checkpoint.
// Called when backing up on a branch.
func (ft *factsTable) restore() {
	if ft.unsatDepth > 0 {
		ft.unsatDepth--
	} else {
		ft.unsat = false
	}
	for {
		old := ft.stack[len(ft.stack)-1]

	tg.sleep()
	restore := addVar(sys, 0)
	restore()
	tg.wantNotStale("p1", "", "./testgo list claims p1 is stale, incorrectly, after updating mtime of runtime/internal/sys/sys.go")

	// But changing content of any file should have an effect.
	// Previously zversion.go was the only one that mattered;
	// now they all matter, so keep using sys.go.
	restore = addVar(sys, 1)
	defer restore()

	return err
}

// RestoreTransitionedObject - restore transitioned object content locally on this cluster.
// This is similar to PostObjectRestore from AWS GLACIER
// storage class. When PostObjectRestore API is called, a temporary copy of the object
// is restored locally to the bucket on source cluster until the restore expiry date.
// The copy that was transitioned continues to reside in the transitioned tier.

// the spill at this point, so we allocate the spill as blockless initially.
// The restore is then generated to load v back into a register so it can
// be used. Subsequent uses of v will use the restored value c instead.
//
// What remains is the question of where to schedule the spill.
// During allocation, we keep track of the dominator of all restores of v.
// The spill of v must dominate that block. The spill must also be issued at

            Activation activation = profile.getActivation();

            if (activation == null) {
                continue;
            }

            // restore activation
            profile.setActivation(activations.get(profile.getId()));
        }
    }

    private Model interpolateModel(Model model, ModelBuildingRequest request, ModelProblemCollector problems) {

	"istio.io/istio/pkg/test/util/retry"
)

func createConfigs(configs []*config.Config, store model.ConfigStore, t testing.TB) {
	t.Helper()
	for _, cfg := range configs {
		_, err := store.Create(*cfg)
		if err != nil && strings.Contains(err.Error(), "item already exists") {
			_, err := store.Update(*cfg)
			if err != nil {
				t.Fatalf("error occurred updating ServiceEntry config: %v", err)
			}

}

// restoreSpecsFromContainerLabels restores all information needed for killing a container. In some
// case we may not have pod and container spec when killing a container, e.g. pod is deleted during
// kubelet restart.
// To solve this problem, we've already written necessary information into container labels. Here we
// just need to retrieve them from container labels and restore the specs.