// )
	if expr != "" {
		buf.WriteByte(')')
	}

	return buf.String()
}

func (x *operand) String() string {
	return operandString(x, nil)
}

// setConst sets x to the untyped constant for literal lit.
func (x *operand) setConst(k token.Token, lit string) {
	var kind BasicKind
	switch k {
	case token.INT:
		kind = UntypedInt
	case token.FLOAT:
		kind = UntypedFloat
	case token.IMAG:

	// )
	if expr != "" {
		buf.WriteByte(')')
	}

	return buf.String()
}

func (x *operand) String() string {
	return operandString(x, nil)
}

// setConst sets x to the untyped constant for literal lit.
func (x *operand) setConst(k syntax.LitKind, lit string) {
	var kind BasicKind
	switch k {
	case syntax.IntLit:
		kind = UntypedInt
	case syntax.FloatLit:
		kind = UntypedFloat

	fninfo := ls.Func()
	fninfo.GCArgs, fninfo.GCLocals = lv.emit()

	p := pp.Prog(obj.AFUNCDATA)
	p.From.SetConst(rtabi.FUNCDATA_ArgsPointerMaps)
	p.To.Type = obj.TYPE_MEM
	p.To.Name = obj.NAME_EXTERN
	p.To.Sym = fninfo.GCArgs

	p = pp.Prog(obj.AFUNCDATA)
	p.From.SetConst(rtabi.FUNCDATA_LocalsPointerMaps)
	p.To.Type = obj.TYPE_MEM
	p.To.Name = obj.NAME_EXTERN
	p.To.Sym = fninfo.GCLocals

			if val&mask == val || (val>>(shift+16) == -1 && (val>>shift)<<shift == val) {
				// Rewrite this value into MOVD $const>>shift, Rto; SLD $shift, Rto
				q := obj.Appendp(p, c.newprog)
				q.As = ASLD
				q.From.SetConst(int64(shift))
				q.To = p.To
				p.From.Offset >>= shift
				p = q
			} else if isPPC64DoublewordRotateMask(val) {
				// This constant is a mask value, generate MOVD $-1, Rto; RLDIC Rto, ^me, mb, Rto

				goto Error
			}
		}
		x.setConst(e.Kind, e.Value)
		if x.mode == invalid {
			// The parser already establishes syntactic correctness.
			// If we reach here it's because of number under-/overflow.
			// TODO(gri) setConst (and in turn the go/constant package)
			// should return an error describing the issue.

				goto Error
			}
		}
		x.setConst(e.Kind, e.Value)
		if x.mode == invalid {
			// The parser already establishes syntactic correctness.
			// If we reach here it's because of number under-/overflow.
			// TODO(gri) setConst (and in turn the go/constant package)
			// should return an error describing the issue.

			p := s.pp.Prog(obj.APCALIGNMAX)
			p.From.SetConst(hotAlign)
			p.To.SetConst(hotRequire)
		}

		s.bstart[b.ID] = s.pp.Next

		if idx, ok := argLiveBlockMap[b.ID]; ok && idx != argLiveIdx {
			argLiveIdx = idx
			p := s.pp.Prog(obj.APCDATA)
			p.From.SetConst(rtabi.PCDATA_ArgLiveIndex)
			p.To.SetConst(int64(idx))
		}

		// Emit values in block

	}
	return nil
}
func (a *Addr) SetTarget(t *Prog) {
	if a.Type != TYPE_BRANCH {
		panic("setting branch target when type is not TYPE_BRANCH")
	}
	a.Val = t
}

func (a *Addr) SetConst(v int64) {
	a.Sym = nil
	a.Type = TYPE_CONST
	a.Offset = v
}

// Prog describes a single machine instruction.
//
// The general instruction form is:
//
//	(1) As.Scond From [, ...RestArgs], To

			p.AddRestSourceReg(ppc64.REG_R0)
		}
		// AuxInt values 4,5,6 implemented with reverse operand order from 0,1,2
		if v.AuxInt > 3 {
			p.Reg, p.GetFrom3().Reg = p.GetFrom3().Reg, p.Reg
		}
		p.From.SetConst(v.AuxInt & 3)

	case ssa.OpPPC64SETBC, ssa.OpPPC64SETBCR:
		p := s.Prog(v.Op.Asm())
		p.To.Type = obj.TYPE_REG
		p.To.Reg = v.Reg()
		p.From.Type = obj.TYPE_REG

(SGTconst [c] (MOVBUreg _)) && 0xff < c => (MOVVconst [1])
(SGTconst [c] (MOVBUreg _)) && c < 0 => (MOVVconst [0])
(SGTUconst [c] (MOVBUreg _)) && 0xff < uint64(c) => (MOVVconst [1])
(SGTconst [c] (MOVHreg _)) && 0x7fff < c => (MOVVconst [1])
(SGTconst [c] (MOVHreg _)) && c <= -0x8000 => (MOVVconst [0])
(SGTconst [c] (MOVHUreg _)) && 0xffff < c => (MOVVconst [1])
(SGTconst [c] (MOVHUreg _)) && c < 0 => (MOVVconst [0])