// result: (Store {t.FieldType(2)} (OffPtr <t.FieldType(2).PtrTo()> [t.FieldOff(2)] dst) f2 (Store {t.FieldType(1)} (OffPtr <t.FieldType(1).PtrTo()> [t.FieldOff(1)] dst) f1 (Store {t.FieldType(0)} (OffPtr <t.FieldType(0).PtrTo()> [0] dst) f0 mem)))
	for {
		dst := v_0
		if v_1.Op != OpStructMake3 {
			break
		}
		t := v_1.Type
		f2 := v_1.Args[2]
		f0 := v_1.Args[0]
		f1 := v_1.Args[1]
		mem := v_2
		v.reset(OpStore)

				isPtr := fieldType.Kind() == reflect.Ptr
				if !isPtr {
					fieldType = reflect.PtrTo(fieldType)
				}
				elems := reflect.MakeSlice(reflect.SliceOf(fieldType), 0, 10)
				distinctElems := reflect.MakeSlice(reflect.SliceOf(fieldType), 0, 10)
				joins := reflect.MakeSlice(reflect.SliceOf(reflect.PtrTo(rel.JoinTable.ModelType)), 0, 10)
				objs := []reflect.Value{}

		//    res = res.type
		// }

		// Grab its parts.
		itab := ir.NewUnaryExpr(base.Pos, ir.OITAB, c)
		itab.SetType(types.Types[types.TUINTPTR].PtrTo())
		itab.SetTypecheck(1)
		data := ir.NewUnaryExpr(n.Pos(), ir.OIDATA, c)
		data.SetType(types.Types[types.TUINT8].PtrTo()) // Type is generic pointer - we're just passing it through.
		data.SetTypecheck(1)

				values[idx] = reflect.New(reflect.PtrTo(field.FieldType)).Interface()
				continue
			}
			values[idx] = new(interface{})
		}
	} else if len(columnTypes) > 0 {
		for idx, columnType := range columnTypes {
			if columnType.ScanType() != nil {
				values[idx] = reflect.New(reflect.PtrTo(columnType.ScanType())).Interface()
			} else {
				values[idx] = new(interface{})
			}
		}

		addEntry := func(pos src.XPos, v *Value) {
			if curCall == nil || curCall.AuxInt == maxEntries {
				t := types.NewTuple(types.Types[types.TUINTPTR].PtrTo(), types.TypeMem)
				curCall = bThen.NewValue1(pos, OpWB, t, memThen)
				curPtr = bThen.NewValue1(pos, OpSelect0, types.Types[types.TUINTPTR].PtrTo(), curCall)
				memThen = bThen.NewValue1(pos, OpSelect1, types.TypeMem, curCall)
			}
			// Store value in write buffer
			num := curCall.AuxInt

 func (t <type 39>) NumIn () <type -11>;
 func (t <type 39>) NumOut () <type -11>;
 func (t <type 39>) Out (i <type -11>) <type 26>;
 func (t <type 39>) .reflect.runtimeType () <type 21>;
 func (ct <type 39>) .reflect.ptrTo () <type 39>;
 func (t <type 39>) Implements (u <type 26>) <type -15>;
 func (t <type 39>) AssignableTo (u <type 26>) <type -15>;
>>; .reflect.val <type 7>; ? <type 42 ".reflect.flag" <type -13>

		hpVal.SetCheckPtr(true) // disable checkptr on this conversion
		hpVal = ir.NewConvExpr(base.Pos, ir.OCONVNOP, elem.PtrTo(), hpVal)
		hp := typecheck.TempAt(base.Pos, ir.CurFunc, elem.PtrTo())
		body = append(body, ir.NewAssignStmt(base.Pos, hp, hpVal))

		// Assign variables on the LHS of the range statement. Use *hp to get the element.
		e := ir.NewStarExpr(base.Pos, hp)

		base.Fatalf("backingArrayPtrLen not cheap: %v", n)
	}
	ptr = ir.NewUnaryExpr(base.Pos, ir.OSPTR, n)
	if n.Type().IsString() {
		ptr.SetType(types.Types[types.TUINT8].PtrTo())
	} else {
		ptr.SetType(n.Type().Elem().PtrTo())
	}
	ptr.SetTypecheck(1)
	length = ir.NewUnaryExpr(base.Pos, ir.OLEN, n)
	length.SetType(types.Types[types.TINT])
	length.SetTypecheck(1)
	return ptr, length
}

(Store {t} dst (Int64Make hi lo) mem) && t.Size() == 8 && !config.BigEndian =>
	(Store {hi.Type}
		(OffPtr <hi.Type.PtrTo()> [4] dst)
		hi
		(Store {lo.Type} dst lo mem))

(Store {t} dst (Int64Make hi lo) mem) && t.Size() == 8 && config.BigEndian =>
	(Store {lo.Type}
		(OffPtr <lo.Type.PtrTo()> [4] dst)
		lo
		(Store {hi.Type} dst hi mem))

	// Get interface descriptor word.
	// For empty interfaces this will be the type.
	// For non-empty interfaces this will be the itab.
	srcItab := ir.NewUnaryExpr(base.Pos, ir.OITAB, s.srcName)
	srcData := ir.NewUnaryExpr(base.Pos, ir.OIDATA, s.srcName)
	srcData.SetType(types.Types[types.TUINT8].PtrTo())
	srcData.SetTypecheck(1)

	// For empty interfaces, do: