ROUND1x(Re, Ra, Rb, Rc, Rd)
	ROUND1x(Rd, Re, Ra, Rb, Rc)
	ROUND1x(Rc, Rd, Re, Ra, Rb)
	ROUND1x(Rb, Rc, Rd, Re, Ra)

	MOVW	$0x6ED9EBA1, Rconst
	MOVW	$4, Rctr
loop2:	ROUND2(Ra, Rb, Rc, Rd, Re)
	ROUND2(Re, Ra, Rb, Rc, Rd)
	ROUND2(Rd, Re, Ra, Rb, Rc)
	ROUND2(Rc, Rd, Re, Ra, Rb)
	ROUND2(Rb, Rc, Rd, Re, Ra)
	SUB.S	$1, Rctr
	BNE	loop2

	MOVW	$0x8F1BBCDC, Rconst
	MOVW	$4, Rctr
loop3:	ROUND3(Ra, Rb, Rc, Rd, Re)

	ROUND1(Rd, Ra, Rb, Rc,  1, 12, Rc1)
	ROUND1(Rc, Rd, Ra, Rb,  2, 17, Rc2)
	ROUND1(Rb, Rc, Rd, Ra,  3, 22, Rc3)

	MOVM.IA.W (Rtable), [Rc0,Rc1,Rc2,Rc3]
	ROUND1(Ra, Rb, Rc, Rd,  4,	7, Rc0)
	ROUND1(Rd, Ra, Rb, Rc,  5, 12, Rc1)
	ROUND1(Rc, Rd, Ra, Rb,  6, 17, Rc2)
	ROUND1(Rb, Rc, Rd, Ra,  7, 22, Rc3)

	MOVM.IA.W (Rtable), [Rc0,Rc1,Rc2,Rc3]
	ROUND1(Ra, Rb, Rc, Rd,  8,	7, Rc0)
	ROUND1(Rd, Ra, Rb, Rc,  9, 12, Rc1)

func (c *sigctxt) siglr() uintptr { return uintptr(c.ra()) }
func (c *sigctxt) fault() uintptr { return uintptr(c.sigaddr()) }

// preparePanic sets up the stack to look like a call to sigpanic.
func (c *sigctxt) preparePanic(sig uint32, gp *g) {
	// We arrange RA, and pc to pretend the panicking
	// function calls sigpanic directly.
	// Always save RA to stack so that panics in leaf

  // CHECK: tfrt_fallback_async.const_dense_tensor
  %a = corert.const_dense_tensor dense<[true, false]> : tensor<2xi1>
  %ra = tfrt_fallback_async.corert_tensorhandle_to_fallback_tensor %a {_tfrt_cost = 1 : i64, device = "/CPU:0"} : (!corert.tensorhandle) -> (!tfrt_fallback.tf_tensor)
  tfrt.return %ra : !tfrt_fallback.tf_tensor
}

// CHECK-LABEL: func @test_const_tensor_canonicalization_single_string_operand

		[6]*argField{ap_Reg_16_20, ap_NegOffset_31_31_6_10_shift3, ap_Reg_11_15}},
	{HASHCHKP, 0xfc0007fe00000000, 0x7c00056400000000, 0x0, // Hash Check Privileged X-form (hashchkp RB,offset(RA))
		[6]*argField{ap_Reg_16_20, ap_NegOffset_31_31_6_10_shift3, ap_Reg_11_15}},
	{HASHST, 0xfc0007fe00000000, 0x7c0005a400000000, 0x0, // Hash Store X-form (hashst RB,offset(RA))

	MOVBU.NE	(Ra), Ra

	SUB.S	$7, Rs
	RSB 	$0, Rq, RM // M = -q
	MOVW.PL	Ra<<Rs, Rq

	// 1st Newton iteration
	MUL.PL	RM, Rq, Ra // a = -q*d
	BMI 	udiv_by_large_d
	MULAWT	Ra, Rq, Rq, Rq // q approx q-(q*q*d>>32)
	TEQ 	RM->1, RM // check for d=0 or d=1

	// 2nd Newton iteration
	MUL.NE	RM, Rq, Ra
	MOVW.NE	$0, Rs
	MULAL.NE Rq, Ra, (Rq,Rs)
	BEQ 	udiv_by_0_or_1

			if err != nil {
				t.Errorf("Failed to read sample %s", tc.certChain)
			}
			client := initFakeKubeClient(t, certChainPem)
			ra, err := createFakeK8sRA(client, "")
			if err != nil {
				t.Errorf("Failed to create Fake K8s RA")
			}
			signer := "kubernetes.io/kube-apiserver-client"
			ra.certSignerDomain = "kubernetes.io"
			if tc.rootCertForMeshConfig != "" {
				rootCertPem, err := os.ReadFile(tc.rootCertForMeshConfig)

}

// brw RA,RS
func type_brw(c *ctxt9, p *obj.Prog, t *Optab, out *[5]uint32) {
	o0 := GenOpcodes[p.As-AXXSETACCZ]
	o0 |= uint32(p.To.Reg&0x1f) << 16   // RA
	o0 |= uint32(p.From.Reg&0x1f) << 21 // RS
	out[0] = o0
}

// hashchkp RB,offset(RA)
func type_hashchkp(c *ctxt9, p *obj.Prog, t *Optab, out *[5]uint32) {

		if err := syscall.Bind(fd.pfd.Sysfd, la); err != nil {
			return nil, os.NewSyscallError("bind", err)
		}
	}

	var isloopback bool
	switch ra := ra.(type) {
	case *syscall.SockaddrInet4:
		isloopback = ra.Addr[0] == 127
	case *syscall.SockaddrInet6:
		isloopback = ra.Addr == [16]byte(IPv6loopback)
	default:
		panic("unexpected type in connect")
	}
	if isloopback {

	fsd	f23, 160(sp)
	fsd	f24, 168(sp)
	fsd	f25, 176(sp)
	fsd	f26, 184(sp)
	fsd	f27, 192(sp)

	// a0 = *fn, a1 = *setg_gcc, a2 = *g
	mv	s1, a0
	mv	s0, a1
	mv	a0, a2
	jalr	ra, s0	// call setg_gcc (clobbers x30 aka g)
	jalr	ra, s1	// call fn

	ld	x1, 0(sp)
	ld	x8, 8(sp)
	ld	x9, 16(sp)
	ld	x18, 24(sp)
	ld	x19, 32(sp)
	ld	x20, 40(sp)
	ld	x21, 48(sp)
	ld	x22, 56(sp)
	ld	x23, 64(sp)
	ld	x24, 72(sp)