return x, y, z
}

func indexLoad(b0 []float32, b1 float32, idx int) float32 {
	// arm64:`FMOVS\s\(R[0-9]+\)\(R[0-9]+<<2\),\sF[0-9]+`
	return b0[idx] * b1
}

func indexStore(b0 []float64, b1 float64, idx int) {
	// arm64:`FMOVD\sF[0-9]+,\s\(R[0-9]+\)\(R[0-9]+<<3\)`
	b0[idx] = b1
}

// ----------- //
//    Fused    //
// ----------- //

func FusedAdd32(x, y, z float32) float32 {
	// s390x:"FMADDS\t"

// than Float values, and each unique Float value requires
// its own unique *Float pointer. To "copy" a Float value,
// an existing (or newly allocated) Float must be set to
// a new value using the [Float.Set] method; shallow copies
// of Floats are not supported and may lead to errors.
type Float struct {
	prec uint32
	mode RoundingMode
	acc  Accuracy
	form form
	neg  bool
	mant nat
	exp  int32
}

   * @param b the second {@code float} to compare
   * @return the result of invoking {@link Float#compare(float, float)}
   */
  public static int compare(float a, float b) {
    return Float.compare(a, b);
  }

  /**
   * Returns {@code true} if {@code value} represents a real number. This is equivalent to, but not
   * necessarily implemented as, {@code !(Float.isInfinite(value) || Float.isNaN(value))}.
   *

   * @param b the second {@code float} to compare
   * @return the result of invoking {@link Float#compare(float, float)}
   */
  public static int compare(float a, float b) {
    return Float.compare(a, b);
  }

  /**
   * Returns {@code true} if {@code value} represents a real number. This is equivalent to, but not
   * necessarily implemented as, {@code !(Float.isInfinite(value) || Float.isNaN(value))}.
   *

}

// Float32Val is like [Float64Val] but for float32 instead of float64.
func Float32Val(x Value) (float32, bool) {
	switch x := x.(type) {
	case int64Val:
		f := float32(x)
		return f, int64Val(f) == x
	case intVal:
		f, acc := newFloat().SetInt(x.val).Float32()
		return f, acc == big.Exact
	case ratVal:
		return x.val.Float32()
	case floatVal:
		f, acc := x.val.Float32()
		return f, acc == big.Exact

              data);
          values.push_back(Eigen::numext::bit_cast<Eigen::bfloat16>(bit_repr));
        }

        return mlir::ElementsAttr(DenseElementsAttr::get(
            shaped_type, ArrayRef<Eigen::bfloat16>(values)));
      }
    }
    case 32: {
      assert(bytes_len % 4 == 0);
      int elem_count = bytes_len / 4;
      std::vector<float> values;
      values.reserve(elem_count);

      // For f16 quantization, quantize all constant ops as float16.
      QuantizeOpAsFloat16(rewriter, op, quant_op);
    }
    // TODO: b/264218457 - Return a value that accurately captures result
    // status.
    return true;
  }

  // Inserts ConvertOp which is used for converting float32 ConstantOp into
  // float16 quantization. If there is an existing ConvertOp connected to the

			//   * math.Float32bits(float32(math.NaN()))+1
			in: `go test fuzz v1
float32(-0)
float64(-0)
float32(+Inf)
float32(-Inf)
float32(NaN)
float64(+Inf)
float64(-Inf)
float64(NaN)
math.Float64frombits(0x7ff8000000000002)
math.Float32frombits(0x7fc00001)`,
		},
		{
			desc: "int variations",
			// Although we arbitrarily choose default integer bases (0 or 16), we may

		return cmp.Compare(aVal.Uint(), bVal.Uint())
	case reflect.String:
		return cmp.Compare(aVal.String(), bVal.String())
	case reflect.Float32, reflect.Float64:
		return cmp.Compare(aVal.Float(), bVal.Float())
	case reflect.Complex64, reflect.Complex128:
		a, b := aVal.Complex(), bVal.Complex()
		if c := cmp.Compare(real(a), real(b)); c != 0 {
			return c
		}

    assertThat(Floats.constrainToRange((float) 1, (float) 1, (float) 5)).isEqualTo((float) 1);
    assertThat(Floats.constrainToRange((float) 1, (float) 3, (float) 5)).isEqualTo((float) 3);
    assertThat(Floats.constrainToRange((float) 0, (float) -5, (float) -1)).isEqualTo((float) -1);
    assertThat(Floats.constrainToRange((float) 5, (float) 2, (float) 2)).isEqualTo((float) 2);
    try {
      Floats.constrainToRange((float) 1, (float) 3, (float) 2);