}

	DB.Table("users").Select("id, name, age").Where("id = ?", user2.ID).Scan(&res)
	if res.ID != user2.ID || res.Name != user2.Name || res.Age != int(user2.Age) {
		t.Fatalf("Scan into struct should work, got %#v, should %#v", res, user2)
	}

	DB.Model(&User{Model: gorm.Model{ID: user3.ID}}).Select("id, name, age").Scan(&res)

		if base >= md.types && base < md.etypes {
			res := md.types + uintptr(off)
			if res > md.etypes {
				println("runtime: nameOff", hex(off), "out of range", hex(md.types), "-", hex(md.etypes))
				throw("runtime: name offset out of range")
			}
			return name{Bytes: (*byte)(unsafe.Pointer(res))}
		}
	}

	// No module found. see if it is a run time name.
	reflectOffsLock()
	res, found := reflectOffs.m[int32(off)]

	}

	// 3. Service
	if svc := a.lookupService(key); svc != nil {
		res := []model.AddressInfo{serviceToAddressInfo(svc.Service)}
		for _, w := range a.workloads.ByServiceKey.Lookup(svc.ResourceName()) {
			res = append(res, workloadToAddressInfo(w.Workload))
		}
		return res
	}
	return nil
}

func (a *index) lookupService(key string) *model.ServiceInfo {

			if n > 0 {
				res = append(res, dbuf[:n]...)
			}
		}

		testEqual(t, "Decoding of %q = %q, want %q", string(input), string(res), tc.res)
		testEqual(t, "Decoding of %q err = %v, expected %v", string(input), err, tc.err)
	}
}

// TestDecoderError verifies decode errors are propagated when there are no read
// errors.
func TestDecoderError(t *testing.T) {

// If cond is not 0, sets val = -val mod p.
//
//go:noescape
func p256NegCond(val *p256Element, cond int)

// If cond is 0, sets res = b, otherwise sets res = a.
//
//go:noescape
func p256MovCond(res, a, b *P256Point, cond int)

//go:noescape
func p256BigToLittle(res *p256Element, in *[32]byte)

//go:noescape
func p256LittleToBig(res *[32]byte, in *p256Element)

//go:noescape

	defer close(results)

	go func() {
		for res := range results {
			if res.entryDone {
				tracker.setObject(res.name)
				if time.Since(tracker.getLastUpdate()) > time.Minute {
					healingLogIf(ctx, tracker.update(ctx))
				}
				continue
			}

			tracker.updateProgress(res.success, res.skipped, res.bytes)
		}
	}()

	var retErr error

		}
		m = append(m, cfg)
	}

	var res any
	// Finally, compute the actual filters based on the protoc
	switch protocol {
	case networking.ListenerProtocolHTTP:
		res = buildHTTPTelemetryFilter(class, m)
	default:
		res = buildTCPTelemetryFilter(class, m)
	}

	// Update cache
	t.computedMetricsFilters[key] = res
	return res
}

    llvm::SmallVector<Value, 4> new_results;
    for (auto res : llvm::enumerate(compose_func_type.getResults())) {
      if (mlir::dyn_cast<TFRTensorType>(res.value())) {
        new_results.push_back(new_op.getResult(res.index()));
      } else if (auto list_type =
                     mlir::dyn_cast<TFRTensorListType>(res.value())) {
        for (int i = res.index(), j = 0; i < op->getNumResults(); i++, j++) {

	}
	res, err := c.s.generate(resources)
	if err != nil {
		return err
	}
	return xds.Send(c, res)
}

func (c *Context) Push(ev any) error {
	secretName := ev.(string)
	if !c.w.requested(secretName) {
		return nil
	}
	res, err := c.s.generate([]string{secretName})
	if err != nil {
		return err
	}
	return xds.Send(c, res)
}

			w.CanonicalName, w.CanonicalRevision = kubelabels.CanonicalService(se.Labels, w.WorkloadName)

			setTunnelProtocol(se.Labels, se.Annotations, w)
			res = append(res, model.WorkloadInfo{Workload: w, Labels: se.Labels, Source: kind.WorkloadEntry, CreationTime: se.CreationTimestamp.Time})
		}
		return res
	}
}

func setTunnelProtocol(labels, annotations map[string]string, w *workloadapi.Workload) {