return false
			}
			return true
		}) {
			return
		}
		x.mode = novalue
		if check.recordTypes() {
			check.recordBuiltinType(call.Fun, makeSig(nil, x.typ))
		}

	case _Complex:
		// complex(x, y floatT) complexT
		y := args[1]

		// convert or check untyped arguments
		d := 0
		if isUntyped(x.typ) {
			d |= 1
		}
		if isUntyped(y.typ) {
			d |= 2
		}
		switch d {

	if x, ok := err.(*NumError); ok {
		x.Func = fnParseComplex
		x.Num = stringslite.Clone(s)
		if x.Err == ErrRange {
			return nil, x
		}
	}
	return err, nil
}

// ParseComplex converts the string s to a complex number
// with the precision specified by bitSize: 64 for complex64, or 128 for complex128.
// When bitSize=64, the result still has type complex128, but it will be
// convertible to complex64 without changing its value.
//

// run

// Copyright 2010 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

// Test composition, decomposition, and reflection on complex numbers.

package main

import "unsafe"
import "reflect"

const (
	R = 5
	I = 6i

	C1 = R + I // ADD(5,6)
)

func main() {
	c0 := C1
	c0 = (c0 + c0 + c0) / (c0 + c0 + 3i)

// license that can be found in the LICENSE file.

// Test compound types made of complex numbers.

package main

var a [12]complex128
var s []complex128
var c chan complex128
var f struct {
	c complex128
}
var m map[complex128]complex128

func main() {
	// array of complex128
	for i := 0; i < len(a); i++ {
		a[i] = complex(float64(i), float64(-i))
	}
	if a[5] != 5-5i {
		panic(a[5])
	}

				return false
			}
			return true
		}) {
			return
		}
		x.mode = novalue
		if check.recordTypes() {
			check.recordBuiltinType(call.Fun, makeSig(nil, x.typ))
		}

	case _Complex:
		// complex(x, y floatT) complexT
		y := args[1]

		// convert or check untyped arguments
		d := 0
		if isUntyped(x.typ) {
			d |= 1
		}
		if isUntyped(y.typ) {
			d |= 2
		}
		switch d {

    if (complex_element_ty.isF32()) {
      return DenseElementsAttr::get(
          scalar_ty, static_cast<std::complex<float>>(raw_value));
    } else if (complex_element_ty.isF64()) {
      return DenseElementsAttr::get(
          scalar_ty, static_cast<std::complex<double>>(raw_value));
    }
  }
  llvm_unreachable("unsupported type");
}

func.func @mirror_pad(%arg0: tensor<2x3xcomplex<f64>>) -> tensor<4x7xcomplex<f64>> {
  %0 = mhlo.constant dense<[[1, 1], [2, 2]]> : tensor<2x2xi32>
  // NO_FALLBACK: tf.MirrorPad
  // SUPPORTED_FALLBACK_DEVICE-NOT: tf.MirrorPad
  // UNSPECIFIED_FALLBACK_DEVICE: tf.MirrorPad
  // UNSUPPORTED_FALLBACK_DEVICE: tf.MirrorPad
  %1 = "tf.MirrorPad"(%arg0, %0) {mode = "SYMMETRIC"} : (tensor<2x3xcomplex<f64>>, tensor<2x2xi32>) -> tensor<4x7xcomplex<f64>>

	println(uint16(7))          // printuint
	println(uint8(7))           // printuint
	println(uint(7))            // printuint
	println(uintptr(7))         // printuint
	println(8.0)                // printfloat
	println(complex(9.0, 10.0)) // printcomplex
	println(true)               // printbool
	println(false)              // printbool
	println("hello")            // printstring
	println("one", "two")       // printsp

	// test goprintf

	{"complex", `_ = complex(1, 0)`, `invalid type`}, // constant
	{"complex", `var re float32; _ = complex(re, 1.0)`, `func(float32, float32) complex64`},
	{"complex", `var im float64; _ = complex(1, im)`, `func(float64, float64) complex128`},
	{"complex", `type F32 float32; var re, im F32; _ = complex(re, im)`, `func(p.F32, p.F32) complex64`},

}

func.func @mul_complex32(%arg0: tensor<14xcomplex<f32>>, %arg1: tensor<14xcomplex<f32>>) -> tensor<14xcomplex<f32>> {
  %0 = "tf.Mul"(%arg0, %arg1) : (tensor<14xcomplex<f32>>, tensor<14xcomplex<f32>>) -> tensor<14xcomplex<f32>>
  func.return %0: tensor<14xcomplex<f32>>

// CHECK-LABEL: mul_complex32
// CHECK:  tfl.mul %arg0, %arg1 {fused_activation_function = "NONE"} : tensor<14xcomplex<f32>>
// CHECK:  return
}