// If EH == 0, omit printing EH.
		eh := inst.Args[3].(Imm)
		if eh == 0 {
			argList = inst.Args[:3]
		}
		buf.WriteString(inst.Op.String())

	case "paddi":
		// There are several extended mnemonics.  Notably, "pla" is
		// the only valid mnemonic for paddi (R=1), In this case, RA must
		// always be 0.  Otherwise it is invalid.
		r := inst.Args[3].(Imm)
		ra := inst.Args[1].(Reg)
		str := opName
		if ra == R0 {

			break
		}
		if p.From.Offset&0xFFFF == 0 {
			// The constant can be added using ADDIS
			p.As = AADDIS
			p.From.Offset >>= 16
		} else if buildcfg.GOPPC64 >= 10 {
			// Let the assembler generate paddi for large constants.
			break
		} else if (p.From.Offset < -0x8000 && int64(int32(p.From.Offset)) == p.From.Offset) || (p.From.Offset > 0xFFFF && p.From.Offset < 0x7FFF8000) {

	// 2.4: Integer Computational Instructions

	ADDI	$2047, X5				// 9382f27f
	ADDI	$-2048, X5				// 93820280
	ADDI	$2048, X5				// 9382024093820240
	ADDI	$-2049, X5				// 938202c09382f2bf
	ADDI	$4094, X5				// 9382f27f9382f27f
	ADDI	$-4096, X5				// 9382028093820280
	ADDI	$4095, X5				// b71f00009b8fffffb382f201
	ADDI	$-4097, X5				// b7ffffff9b8fffffb382f201
	ADDI	$2047, X5, X6				// 1383f27f
	ADDI	$-2048, X5, X6				// 13830280

(Rsh16x64 <t> x y) && !shiftIsBounded(v) => (SRA  <t> (SignExt16to64 x) (OR <y.Type> y (ADDI <y.Type> [-1] (SLTIU <y.Type> [64] y))))
(Rsh32x8  <t> x y) && !shiftIsBounded(v) => (SRAW <t> x                 (OR <y.Type> y (ADDI <y.Type> [-1] (SLTIU <y.Type> [32] (ZeroExt8to64  y)))))

	}
	rb.ss = ss
	// Copy bytes for insertion as we may need to overwrite rb.out.
	var buf [maxBufferSize * utf8.UTFMax]byte
	cp := buf[:copy(buf[:], rb.out[p:])]
	rb.out = rb.out[:p]
	for padd--; padd >= 0; padd-- {
		info = add[padd]
		rb.insertUnsafe(inputBytes(cp), 0, info)
		cp = cp[info.size:]
	}

	// 1:   auipc  t2, %pcrel_hi(.got.plt)
	//      sub    t1, t1, t3               # shifted .got.plt offset + hdr size + 12
	//      l[w|d] t3, %pcrel_lo(1b)(t2)    # _dl_runtime_resolve
	//      addi   t1, t1, -(hdr size + 12) # shifted .got.plt offset
	//      addi   t0, t2, %pcrel_lo(1b)    # &.got.plt
	//      srli   t1, t1, log2(16/PTRSIZE) # .got.plt offset
	//      l[w|d] t0, PTRSIZE(t0)          # link map
	//      jr     t3

	rounds12to59	(m2,14,m1,m3,nop,vmov)		// 56-59

	// do rounds 60-63
	VMOVDQA		m3, msg
	PADDD		(15*32)(sha256Constants), msg
	SHA256RNDS2	msg, state0, state1
	PSHUFD		$0x0e, msg, msg
	SHA256RNDS2	msg, state1, state0

	// add current hash values with previously saved
	PADDD		abefSave, state0
	PADDD		cdghSave, state1

	// advance data pointer; loop until buffer empty
	ADDQ		$64, dataPtr

	Tick    int32
	Tickadj int32
	Stathz  int32
	Profhz  int32
}

type CtlInfo struct {
	Id   uint32
	Name [96]byte
}

const SizeofKinfoProc = 0x288

type Eproc struct {
	Paddr   uintptr
	Sess    uintptr
	Pcred   Pcred
	Ucred   Ucred
	Vm      Vmspace
	Ppid    int32
	Pgid    int32
	Jobc    int16
	Tdev    int32
	Tpgid   int32
	Tsess   uintptr
	Wmesg   [8]byte

				Off:    uint64(bo.Uint32(phdata[off+unsafe.Offsetof(ph.Off):])),
				Vaddr:  uint64(bo.Uint32(phdata[off+unsafe.Offsetof(ph.Vaddr):])),
				Paddr:  uint64(bo.Uint32(phdata[off+unsafe.Offsetof(ph.Paddr):])),
				Filesz: uint64(bo.Uint32(phdata[off+unsafe.Offsetof(ph.Filesz):])),
				Memsz:  uint64(bo.Uint32(phdata[off+unsafe.Offsetof(ph.Memsz):])),

	Tick    int32
	Tickadj int32
	Stathz  int32
	Profhz  int32
}

type CtlInfo struct {
	Id   uint32
	Name [96]byte
}

const SizeofKinfoProc = 0x288

type Eproc struct {
	Paddr   uintptr
	Sess    uintptr
	Pcred   Pcred
	Ucred   Ucred
	Vm      Vmspace
	Ppid    int32
	Pgid    int32
	Jobc    int16
	Tdev    int32
	Tpgid   int32
	Tsess   uintptr
	Wmesg   [8]byte