}
}

// Addr returns a pointer value representing the address of v.
// It panics if [Value.CanAddr] returns false.
// Addr is typically used to obtain a pointer to a struct field
// or slice element in order to call a method that requires a
// pointer receiver.
func (v Value) Addr() Value {
	if v.flag&flagAddr == 0 {
		panic("reflect.Value.Addr of unaddressable value")
	}

			mb, me, valid = decodeMask32(uint32(p.RestArgs[0].Addr.Offset))
			if !valid {
				c.ctxt.Diag("cannot generate mask #%x\n%v", uint64(p.RestArgs[0].Addr.Offset), p)
			}
		} else { // Otherwise, mask is already passed as mb and me in RestArgs.
			mb, me = uint32(p.RestArgs[0].Addr.Offset), uint32(p.RestArgs[1].Addr.Offset)
		}
		if p.From.Type == obj.TYPE_CONST {

	c.elitrl = nil
	c.pool.size = 0
	c.pool.start = 0
}

/*
 * MOVD foo(SB), R is actually
 *   MOVD addr, REGTMP
 *   MOVD REGTMP, R
 * where addr is the address of the DWORD containing the address of foo.
 *
 * TODO: hash
 */
func (c *ctxt7) addpool(p *obj.Prog, a *obj.Addr) {
	cls := c.aclass(a)
	lit := c.instoffset
	t := c.newprog()
	t.As = AWORD
	sz := 4

	}

	v := ValueOf(&p)
	v = v.Elem()
	v = v.Addr()
	v = v.Elem()
	v = v.Field(0)
	v.SetInt(2)
	if p.X != 2 {
		t.Errorf("Addr.Elem.Set failed to set value")
	}

	// Again but take address of the ValueOf value.
	// Exercises generation of PtrTypes not present in the binary.
	q := &p
	v = ValueOf(&q).Elem()
	v = v.Addr()
	v = v.Elem()
	v = v.Elem()
	v = v.Addr()

		return nil
	}

	// Initialize classes for all arguments.
	p.From.Class = int8(c.aclass(&p.From) + 1)
	p.To.Class = int8(c.aclass(&p.To) + 1)
	for i := range p.RestArgs {
		p.RestArgs[i].Addr.Class = int8(c.aclass(&p.RestArgs[i].Addr) + 1)
	}

	// Mirrors the argument list in Optab.
	args := [...]int8{
		p.From.Class - 1,
		C_NONE, // p.Reg
		C_NONE, // p.RestArgs[0]
		C_NONE, // p.RestArgs[1]

	}
	addrs, err := net.InterfaceAddrs()
	if err != nil {
		assert.Error(t, err, fmt.Sprintf(
			"Unable to obtain a list of the node's unicast interface addresses."))
	}
	for _, addr := range addrs {
		var ip net.IP
		switch v := addr.(type) {
		case *net.IPNet:
			ip = v.IP
		case *net.IPAddr:
			ip = v.IP
		}
		if ip.IsLoopback() || ip.IsLinkLocalUnicast() {
			continue
		}

// Prefetch instructions (aux is option: 0 - PLDL1KEEP; 1 - PLDL1STRM)
(PrefetchCache addr mem)         => (PRFM [0] addr mem)
(PrefetchCacheStreamed addr mem) => (PRFM [1] addr mem)

// Arch-specific inlining for small or disjoint runtime.memmove

			}}
		}),
	)

	itf := net.Interface{Index: 0, MTU: 0, Name: "eth0", HardwareAddr: nil, Flags: 0}
	addrs := []net.Addr{&net.IPNet{IP: netutils.ParseIPSloppy("100.101.102.103"), Mask: net.CIDRMask(24, 32)}}
	itf1 := net.Interface{Index: 1, MTU: 0, Name: "eth1", HardwareAddr: nil, Flags: 0}
	addrs1 := []net.Addr{&net.IPNet{IP: netutils.ParseIPSloppy("2001:db8::"), Mask: net.CIDRMask(64, 128)}}

// ELF32 Section header.
type Section32 struct {
	Name      uint32 /* Section name (index into the section header string table). */
	Type      uint32 /* Section type. */
	Flags     uint32 /* Section flags. */
	Addr      uint32 /* Address in memory image. */
	Off       uint32 /* Offset in file. */
	Size      uint32 /* Size in bytes. */
	Link      uint32 /* Index of a related section. */
	Info      uint32 /* Depends on section type. */

				count += len(ss.Addresses)
				for i := range ss.Addresses {
					if len(list) == max {
						more = true
						// the next loop is redundant
						break
					}
					addr := &ss.Addresses[i]
					hostPort := net.JoinHostPort(addr.IP, strconv.Itoa(int(port.Port)))
					list = append(list, hostPort)
				}
			}
		}
	}

	ret := strings.Join(list, ",")
	if more {