CINC	NV, R2, R3                                       // ERROR "invalid condition"
	CINVW	AL, R2, R3                                       // ERROR "invalid condition"
	CINV	NV, R2, R3                                       // ERROR "invalid condition"
	CNEG	AL, R2, R3                                       // ERROR "invalid condition"

	}

	b, err := hex.DecodeString(val)
	if err != nil {
		if err == hex.ErrLength {
			Exitf("-B argument must have even number of digits: %s", ov)
		}
		if inv, ok := err.(hex.InvalidByteError); ok {
			Exitf("-B argument contains invalid hex digit %c: %s", byte(inv), ov)
		}
		Exitf("-B argument contains invalid hex: %s", ov)
	}

	buildinfo = b
}

// Build info note
const (
	ELF_NOTE_BUILDINFO_NAMESZ = 4

#  endif
#else
#define P8_LXVB16X(RA,RB,VT) \
	LXVD2X  (RA+RB), VT

#define P8_STXVB16X(VS,RA,RB) \
	STXVD2X VS, (RA+RB)

#endif

#define MASK_PTR   R8

#define MASKV   V0
#define INV     V1

// The following macros are used for
// the stitched implementation within
// counterCryptASM.

// Load the initial GCM counter value
// in V30 and set up the counter increment
// in V31

		}
		var n int64
		var err error
		for {
			var dn int
			dn, err = c.Write([]byte("TIMEOUT TRANSMITTER"))
			n += int64(dn)
			if err != nil {
				break
			}
		}
		t1 := time.Now()
		// Inv: err != nil
		if !err.(Error).Timeout() {
			t.Fatalf("Write did not return (any, timeout): (%d, %v)", n, err)
		}
		if perr := parseWriteError(err); perr != nil {
			t.Error(perr)
		}

    // CHECK: %[[ONE:.*]] = mhlo.constant dense<1.000000e+00> : tensor<f32>
    // CHECK: %[[RESULT:.*]] = mhlo.divide %[[ONE]], %arg0 : tensor<f32>
    // CHECK: return %[[RESULT]]

    %0 = "tf.Inv"(%arg0) : (tensor<f32>) -> tensor<f32>
    func.return %0 : tensor<f32>
  }

  // CHECK-LABEL: func @const_inputs
  // CHECK-SAME: (%[[ARG0:.*]]: tensor<2x2xf64>, %[[ARG1:.*]]: tensor<f64>,

{"Name":"CINV","Bits":"0|1|0|1|1|0|1|0|1|0|0|Rm:5|cond:4|0|0|Rn:5|Rd:5","Arch":"32-bit variant","Syntax":"CINV <Wd>, <Wn>, <cond>","Code":"","Alias":"This instruction is an alias of the CSINV instruction."},

			if err != nil {
				break
			}
		}
		if test.err == "" {
			if err != io.EOF {
				t.Errorf("parse %s: have %q error, expected none", test.src, err)
			}
			continue
		}
		// Inv: err != nil
		if err == io.EOF {
			t.Errorf("parse %s: unexpected EOF", test.src)
			continue
		}
		if !strings.Contains(err.Error(), test.err) {

  func.return %0 : tensor<*xcomplex<f64>>
}

// Inv is the same as Reciprocal
// CHECK-LABEL: @Inv_i32
func.func @Inv_i32(%arg0: tensor<*xi32>) -> tensor<*xi32> {
  // CHECK: %[[ONE:.*]] = "tf.Const"() <{value = dense<1> : tensor<i32>}> : () -> tensor<i32>
  // CHECK: "tf.Div"(%[[ONE]], %arg0) : (tensor<i32>, tensor<*xi32>) -> tensor<*xi32>
  %0 = "tf.Inv"(%arg0) : (tensor<*xi32>) -> tensor<*xi32>
  func.return %0 : tensor<*xi32>

  // Use the built-in operator.
  grad_outputs->push_back(
      internal::ReciprocalGrad(scope, op.output(0), grad_inputs[0]));
  return scope.status();
}
REGISTER_GRADIENT_OP("Inv", InvGrad);
REGISTER_GRADIENT_OP("Reciprocal", InvGrad);

Status SquareGrad(const Scope& scope, const Operation& op,
                  const std::vector<Output>& grad_inputs,

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