pkg syscall (freebsd-386-cgo), type SysProcAttr struct, Pdeathsig Signal
pkg syscall (freebsd-amd64), type SysProcAttr struct, Pdeathsig Signal
pkg syscall (freebsd-amd64-cgo), type SysProcAttr struct, Pdeathsig Signal
pkg syscall (freebsd-arm), type SysProcAttr struct, Pdeathsig Signal
pkg syscall (freebsd-arm-cgo), type SysProcAttr struct, Pdeathsig Signal

pkg syscall (darwin-arm64), const SIGIOT = 6
pkg syscall (darwin-arm64), const SIGIOT Signal
pkg syscall (darwin-arm64), const SIGPROF = 27
pkg syscall (darwin-arm64), const SIGPROF Signal
pkg syscall (darwin-arm64), const SIGSTOP = 17
pkg syscall (darwin-arm64), const SIGSTOP Signal
pkg syscall (darwin-arm64), const SIGSYS = 12
pkg syscall (darwin-arm64), const SIGSYS Signal
pkg syscall (darwin-arm64), const SIGTSTP = 18

pkg syscall (freebsd-arm64), const SIGIOT = 6
pkg syscall (freebsd-arm64), const SIGIOT Signal
pkg syscall (freebsd-arm64), const SIGLIBRT = 33
pkg syscall (freebsd-arm64), const SIGLIBRT Signal
pkg syscall (freebsd-arm64), const SIGLWP = 32
pkg syscall (freebsd-arm64), const SIGLWP Signal
pkg syscall (freebsd-arm64), const SIGPROF = 27
pkg syscall (freebsd-arm64), const SIGPROF Signal

pkg syscall (freebsd-riscv64), const SIGCHLD Signal #53466
pkg syscall (freebsd-riscv64), const SIGCONT = 19 #53466
pkg syscall (freebsd-riscv64), const SIGCONT Signal #53466
pkg syscall (freebsd-riscv64), const SIGEMT = 7 #53466
pkg syscall (freebsd-riscv64), const SIGEMT Signal #53466
pkg syscall (freebsd-riscv64), const SIGINFO = 29 #53466
pkg syscall (freebsd-riscv64), const SIGINFO Signal #53466

		if b[0]&0x40 != 0 {
			inv = 0xff
		}

		var x uint64
		for i, c := range b {
			c ^= inv // Inverts c only if inv is 0xff, otherwise does nothing
			if i == 0 {
				c &= 0x7f // Ignore signal bit in first byte
			}
			if (x >> 56) > 0 {
				p.err = ErrHeader // Integer overflow
				return 0
			}
			x = x<<8 | uint64(c)
		}
		if (x >> 63) > 0 {
			p.err = ErrHeader // Integer overflow

		a->r = sin(a->p0);
	}

What happens at link time depends on whether the final binary is linked
using the internal or external mode. If other packages are compiled in
"external only" mode, then the final link will be an external one.
Otherwise the link will be an internal one.

The linking directives are used according to the kind of final link
used.

		t.Errorf("%s: string(buf.Bytes()) == %q, s == %q", testname, string(bytes), s)
	}
}

// Fill buf through n writes of string fus.
// The initial contents of buf corresponds to the string s;
// the result is the final contents of buf returned as a string.
func fillString(t *testing.T, testname string, buf *Buffer, s string, n int, fus string) string {
	check(t, testname+" (fill 1)", buf, s)
	for ; n > 0; n-- {
		m, err := buf.WriteString(fus)

using the following two rules:
</p>

<ol>
<li>
When the input is broken into tokens, a semicolon is automatically inserted
into the token stream immediately after a line's final token if that token is
<ul>
	<li>an
	    <a href="#Identifiers">identifier</a>
	</li>

	<li>an
	    <a href="#Integer_literals">integer</a>,
	    <a href="#Floating-point_literals">floating-point</a>,

		b[0x2d]++
	})
}

func returnCorruptNotStreamedZip() (r io.ReaderAt, size int64) {
	return messWith("crc32-not-streamed.zip", func(b []byte) {
		// Corrupt foo.txt's final crc32 byte, in both
		// the file header and TOC. (0x7e -> 0x7f)
		b[0x11]++
		b[0x9d]++

		// TODO(bradfitz): add a new test that only corrupts
		// one of these values, and verify that that's also an

//
// The value is useful to stop processing early or when it is necessary to
// deliver a final empty token (which is different from a nil token).
// One could achieve the same behavior with a custom error value but
// providing one here is tidier.
// See the emptyFinalToken example for a use of this value.
var ErrFinalToken = errors.New("final token")

// Scan advances the [Scanner] to the next token, which will then be