// Declare variable to hold address.
	sym := &types.Sym{Name: "&" + n.Sym().Name, Pkg: types.LocalPkg}
	addr := s.curfn.NewLocal(pos, sym, types.NewPtr(n.Type()))
	addr.SetUsed(true)
	types.CalcSize(addr.Type())

	if n.Class == ir.PPARAMOUT {
		addr.SetIsOutputParamHeapAddr(true)
	}

	n.Heapaddr = addr
	s.assign(addr, ptr, false, 0)
}

// newObject returns an SSA value denoting new(typ).

		Name: "netipv6zone.0",
		In: `package main

import "net"

func f() net.Addr {
	a := &net.IPAddr{ip1}
	sub(&net.UDPAddr{ip2, 12345})
	c := &net.TCPAddr{IP: ip3, Port: 54321}
	d := &net.TCPAddr{ip4, 0}
	p := 1234
	e := &net.TCPAddr{ip4, p}
	return &net.TCPAddr{ip5}, nil
}
`,
		Out: `package main

import "net"

func f() net.Addr {
	a := &net.IPAddr{IP: ip1}
	sub(&net.UDPAddr{IP: ip2, Port: 12345})

func (p *Prog) AddRestSourceReg(reg int16) {
	p.AddRestSource(Addr{Type: TYPE_REG, Reg: reg})
}

// AddRestSourceConst calls p.AddRestSource with a const Addr containing off.
func (p *Prog) AddRestSourceConst(off int64) {
	p.AddRestSource(Addr{Type: TYPE_CONST, Offset: off})
}

// AddRestDest assigns []Args{{a, Destination}} to p.RestArgs when the second destination

				case reflect.Struct:
					reflectResults = reflect.Append(reflectResults, result.Addr())
				case reflect.Slice, reflect.Array:
					for i := 0; i < result.Len(); i++ {
						if elem := result.Index(i); elem.Kind() == reflect.Ptr {
							reflectResults = reflect.Append(reflectResults, elem)
						} else {
							reflectResults = reflect.Append(reflectResults, elem.Addr())
						}
					}
				}
			}
		}

func raceread(uintptr)
func racewrite(uintptr)
func racereadrange(addr, size uintptr)
func racewriterange(addr, size uintptr)

// memory sanitizer
func msanread(addr, size uintptr)
func msanwrite(addr, size uintptr)
func msanmove(dst, src, size uintptr)

// address sanitizer
func asanread(addr, size uintptr)
func asanwrite(addr, size uintptr)

func checkptrAlignment(unsafe.Pointer, *byte, uintptr)

			cSect := compressedSects[i]
			copy(sect.Name[:], cSect.Name)
			sect.Size = cSect.Size
			if cSect.Offset != 0 {
				sect.Offset = cSect.Offset + uint32(deltaOffset)
			}
			if cSect.Addr != 0 {
				sect.Addr = cSect.Addr
			}
		} else {
			if sect.Offset != 0 {
				sect.Offset += uint32(deltaOffset)
			}
			if sect.Reloff != 0 {
				sect.Reloff += uint32(deltaOffset)
			}
		}

	// and the element is & of a composite literal of type T,
	// the inner &T may be omitted.
	if ptr, ok := astType.(*ast.StarExpr); ok {
		if addr, ok := x.(*ast.UnaryExpr); ok && addr.Op == token.AND {
			if inner, ok := addr.X.(*ast.CompositeLit); ok {
				if match(nil, reflect.ValueOf(ptr.X), reflect.ValueOf(inner.Type)) {
					inner.Type = nil // drop T
					*px = inner      // drop &
				}
			}

	"LACON",
	"SBRA",
	"LBRA",
	"HAUTO",
	"FAUTO",
	"HFAUTO",
	"SAUTO",
	"LAUTO",
	"HOREG",
	"FOREG",
	"HFOREG",
	"SOREG",
	"ROREG",
	"SROREG",
	"LOREG",
	"PC",
	"SP",
	"HREG",
	"ADDR",
	"C_TLS_LE",
	"C_TLS_IE",
	"TEXTSIZE",
	"GOK",
	"NCLASS",
	"SCOND = (1<<4)-1",
	"SBIT = 1<<4",
	"PBIT = 1<<5",
	"WBIT = 1<<6",
	"FBIT = 1<<7",
	"UBIT = 1<<7",
	"SCOND_XOR = 14",

			case reflect.Slice, reflect.Array:
				for i := 0; i < rv.Len(); i++ {
					appendToFieldValues(reflect.Indirect(rv.Index(i)).Addr())
				}
			case reflect.Struct:
				if !rv.CanAddr() {
					association.Error = ErrInvalidValue
					return
				}
				appendToFieldValues(rv.Addr())
			}

			if association.Error == nil {

		loaded = true
		for i := 0; i < v.Len(); i++ {
			if !loadOrStoreVisitMap(visitMap, v.Index(i)) {
				loaded = false
			}
		}
	case reflect.Struct, reflect.Interface:
		if v.CanAddr() {
			p := v.Addr()
			if _, ok := (*visitMap)[p]; ok {
				return true
			}
			(*visitMap)[p] = true
		}
	}

	return