try {
            return Integer.parseInt(permissions, 8);
        } catch (NumberFormatException e) {
            throw new IllegalArgumentException("Can't be parsed as octal number.");
        }
    }

    /**
     * Converts the user permission to a numeric Unix permission.
     * See {@link ConfigurableFilePermissions#unix(String)} for details,
     * returned value is equivalent to one of the three octal digits.
     */
    protected int toUnixNumeric() {
        return (getRead() ? 4 : 0) + (getWrite() ? 2 : 0) + (getExecute() ? 1 : 0);
    }

    protected static boolean isRead(int unixNumeric) {

    /**
     * Sets Unix style permissions. Accept values in two styles of notation:
     * <ul>
     *     <li>NUMERIC notation: uses 3 octal (base-8) digits representing permissions for the 3 categories of users; for example "755"</li>

  %tmp0, %ctl0  = tfl.control_node controls "tfl.neg"(%arg0): (tensor<1xf32>) -> tensor<1xf32>
  func.return %tmp0: tensor<1xf32>
}
// CHECK-NEXT: %[[tmp:.*]] = "tfl.neg"(%arg0)
// CHECK-NEXT: return %[[tmp]]

// CHECK-LABEL: @long_chain
func.func @long_chain(%arg0: tensor<1xf32>)->tensor<1xf32> {
  %tmp0, %ctl0 = tfl.control_node controls "tfl.neg"(%arg0): (tensor<1xf32>) -> tensor<1xf32>

		y = float64(j)           // integer part of x/(Pi/4), as float

		if j&1 == 1 { // map zeros to origin
			j++
			y++
		}
		j &= 7                               // octant modulo 2Pi radians (360 degrees)
		z = ((x - y*PI4A) - y*PI4B) - y*PI4C // Extended precision modular arithmetic
	}
	if j > 3 { // reflect in x axis
		j -= 4
		sinSign, cosSign = !sinSign, !cosSign
	}
	if j > 1 {

		}
	case "windows":
		exe = ".exe"
	}

	sysinit()

	if gohostarch == "" {
		// Default Unix system.
		out := run("", CheckExit, "uname", "-m")
		outAll := run("", CheckExit, "uname", "-a")
		switch {
		case strings.Contains(outAll, "RELEASE_ARM64"):
			// MacOS prints
			// Darwin p1.local 21.1.0 Darwin Kernel Version 21.1.0: Wed Oct 13 17:33:01 PDT 2021; root:xnu-8019.41.5~1/RELEASE_ARM64_T6000 x86_64

// or “0x” (or their upper-case variants) to denote a binary, octal, or
// hexadecimal integer, respectively. The divisor may not be signed.
// If a floating-point number is provided, it may be in decimal form or
// use any of the same prefixes as above but for “0” to denote a non-decimal
// mantissa. A leading “0” is considered a decimal leading 0; it does not
// indicate octal representation in this case.

		// of '.'. Adjust relevant exponent accordingly.
		d := int64(fcount)
		switch b {
		case 10:
			exp5 = d
			fallthrough // 10**e == 5**e * 2**e
		case 2:
			exp2 += d
		case 8:
			exp2 += d * 3 // octal digits are 3 bits each
		case 16:
			exp2 += d * 4 // hexadecimal digits are 4 bits each
		default:
			panic("unexpected mantissa base")
		}
		// fcount consumed - not needed anymore
	}

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

package main

import (
	"fmt"
	"reflect"
)

type G[T any] interface {
	g() func()(*T)
}
type Foo[T any] struct {

}
// OCALL
func (l *Foo[T]) f1() (*T) {
	return g[T]()()
}
// OCALLFUNC
func (l *Foo[T]) f2() (*T) {
	var f = g[T]
	return f()()
}
// OCALLMETH
func (l *Foo[T]) f3() (*T) {
	return l.g()()
}
// OCALLINTER

)

func ExampleRat_SetString() {
	r := new(big.Rat)
	r.SetString("355/113")
	fmt.Println(r.FloatString(3))
	// Output: 3.142
}

func ExampleInt_SetString() {
	i := new(big.Int)
	i.SetString("644", 8) // octal
	fmt.Println(i)
	// Output: 420
}

func ExampleFloat_SetString() {
	f := new(big.Float)
	f.SetString("3.14159")
	fmt.Println(f)
	// Output: 3.14159
}

func ExampleRat_Scan() {