ASH2ADDUW
	ASH3ADD
	ASH3ADDUW
	ASLLIUW

	// 1.2: Basic Bit Manipulation (Zbb)
	AANDN
	AORN
	AXNOR
	ACLZ
	ACLZW
	ACTZ
	ACTZW
	ACPOP
	ACPOPW
	AMAX
	AMAXU
	AMIN
	AMINU
	ASEXTB
	ASEXTH
	AZEXTH

	// 1.3: Bitwise Rotation (Zbb)
	AROL
	AROLW
	AROR
	ARORI
	ARORIW
	ARORW
	AORCB
	AREV8

	// 1.5: Single-bit Instructions (Zbs)

  y = _tfr_quant_raw_data(x)
  s, z = _tfr_quant_qparam(x)
  s = _tfr_quant_scale_factor(1.0, [s, s])
  s = _tfr_quant_scale_factor(1.0, [s])
  y = math_ops.Sub(y, z)
  qmin, qmax = _tfr_quant_act_range('RELU', 1.0, 0)
  (qmin, qmax)  # pylint: disable=pointless-statement
  d = _tfr_quant_rescale(y, s, 0)
  e = math_ops.Cast(x=d, DstT=dtypes.int16)
  f = math_ops.Cast(x=e, DstT=dtypes.int8)
  return f

		}

		// builtin: OLEN, OCAP, etc.
		switch l.BuiltinOp {
		default:
			base.Fatalf("unknown builtin %v", l)

		case ir.OAPPEND, ir.ODELETE, ir.OMAKE, ir.OMAX, ir.OMIN, ir.OPRINT, ir.OPRINTLN, ir.ORECOVER:
			n.SetOp(l.BuiltinOp)
			n.Fun = nil
			n.SetTypecheck(0) // re-typechecking new op is OK, not a loop
			return typecheck(n, top)

		ir.OCALLFUNC,
		ir.OCALLINTER,
		ir.OCALLMETH,
		ir.OCAP,
		ir.OCLEAR,
		ir.OCLOSE,
		ir.OCOMPLEX,
		ir.OCOPY,
		ir.ODELETE,
		ir.OIMAG,
		ir.OLEN,
		ir.OMAKE,
		ir.OMAX,
		ir.OMIN,
		ir.ONEW,
		ir.OPANIC,
		ir.OPRINT,
		ir.OPRINTLN,
		ir.OREAL,
		ir.ORECOVER,
		ir.ORECOVERFP,
		ir.ORECV,
		ir.OUNSAFEADD,
		ir.OUNSAFESLICE,
		ir.OUNSAFESLICEDATA,

          self._bias = array_ops.constant(
              np.random.uniform(size=bias_shape), dtype=dtypes.float32
          )

        self._kernel = np.random.uniform(size=y_shape).astype('f4')
        self._min = (-0.8, -0.8, -0.9)
        self._max = (0.9, 0.9, 1.0)

      @def_function.function(
          input_signature=[
              tensor_spec.TensorSpec(

		return &inst{0x3, 0x2, 0x0, 0, 0x0}
	case ALWU:
		return &inst{0x3, 0x6, 0x0, 0, 0x0}
	case AMAX:
		return &inst{0x33, 0x6, 0x0, 160, 0x5}
	case AMAXU:
		return &inst{0x33, 0x7, 0x0, 160, 0x5}
	case AMIN:
		return &inst{0x33, 0x4, 0x0, 160, 0x5}
	case AMINU:
		return &inst{0x33, 0x5, 0x0, 160, 0x5}
	case AMRET:
		return &inst{0x73, 0x0, 0x2, 770, 0x18}
	case AMUL:
		return &inst{0x33, 0x0, 0x0, 32, 0x1}

		args[0], args[1] = args[1], args[0]
		fallthrough

	case FCMP, FCMPE:
		if _, ok := inst.Args[1].(Imm); ok {
			args[1] = "$(0.0)"
		}
		fallthrough

	case FADD, FSUB, FMUL, FNMUL, FDIV, FMAX, FMIN, FMAXNM, FMINNM, FCSEL, FMADD, FMSUB, FNMADD, FNMSUB:
		if strings.HasSuffix(op, "MADD") || strings.HasSuffix(op, "MSUB") {
			args[2], args[3] = args[3], args[2]
		}
		if r, ok := inst.Args[0].(Reg); ok {

		},
	}

	if callType == Mtls {
		opts.TLS.Key = tlsCtx.PrivateKey
		opts.TLS.Cert = tlsCtx.Cert
	}

	// Certs occasionally take quite a while to become active in Envoy, so retry for a long time (2min)
	ing.CallOrFail(ctx, opts)
}

// RotateSecrets deletes kubernetes secrets by name in credNames and creates same secrets using key/cert
// from ingressCred.

API'lara gereken bir diğer büyük özellik ise veri doğrulamadır, yani verinin çeşitli parametrelere bağlı olarak doğru ve tutarlı olduğundan emin olmaktır. Örneğin bir alanın `int` olmasına karar verdiniz, daha sonra rastgele bir metin değeri almasını istemezsiniz. Bu özellikle sisteme dışarıdan gelen veri için kullanışlı bir özellik oluyor.

			return
		}
		if nargs < min || min+1 < nargs {
			check.errorf(call, WrongArgCount, invalidOp+"%v expects %d or %d arguments; found %d", call, min, min+1, nargs)
			return
		}

		types := []Type{T}
		var sizes []int64 // constant integer arguments, if any
		for _, arg := range argList[1:] {