// causes a memory fault. Don't turn that into a panic.
		flags = _SigThrow
	}
	if !c.sigFromUser() && flags&_SigPanic != 0 {
		// The signal is going to cause a panic.
		// Arrange the stack so that it looks like the point
		// where the signal occurred made a call to the
		// function sigpanic. Then set the PC to sigpanic.

		// Have to pass arguments out of band since

		// unlock above, and then a t.stop or t.modify changes the timer
		// and returns. At that point, the send needs not to happen after all.
		// The way we arrange for it not to happen is that t.stop and t.modify
		// both increment t.seq while holding both t.mu and t.sendLock.
		// We copied the seq value above while holding t.mu.

			if !watcher.nonblockingAdd(event) {
				c.blockedWatchers = append(c.blockedWatchers, watcher)
			}
		}

		if len(c.blockedWatchers) > 0 {
			// dispatchEvent is called very often, so arrange
			// to reuse timers instead of constantly allocating.
			startTime := time.Now()
			timeout := c.dispatchTimeoutBudget.takeAvailable()
			c.timer.Reset(timeout)

executing the pseudo-instruction <code>GO_RESULTS_INITIALIZED</code>.
This instruction records that the results are now initialized
and should be scanned during stack movement and garbage collection.
It is typically easier to arrange that assembly functions do not
return pointers or do not contain call instructions;
no assembly functions in the standard library use
<code>GO_RESULTS_INITIALIZED</code>.
</p>

<p>

	MOVL	AX, 0(SP)
	MOVL	BX, 4(SP)
	JMP	runtime·rt0_go(SB)

// _rt0_386_lib is common startup code for most 386 systems when
// using -buildmode=c-archive or -buildmode=c-shared. The linker will
// arrange to invoke this function as a global constructor (for
// c-archive) or when the shared library is loaded (for c-shared).
// We expect argc and argv to be passed on the stack following the
// usual C ABI.

	if len(tmp) < numLMS {
		// TestSAIS/forcealloc reaches this code.
		n := maxID
		if n < numLMS/2 {
			n = numLMS / 2
		}
		tmp = make([]int64, n)
	}

	// sais_64 requires that the caller arrange to clear dst,
	// because in general the caller may know dst is
	// freshly-allocated and already cleared. But this one is not.
	clear(dst)
	sais_64(text, maxID, dst, tmp)
}

TEXT main(SB),NOSPLIT,$-8
	JMP	runtime·rt0_go(SB)

// _rt0_amd64_lib is common startup code for most amd64 systems when
// using -buildmode=c-archive or -buildmode=c-shared. The linker will
// arrange to invoke this function as a global constructor (for
// c-archive) or when the shared library is loaded (for c-shared).
// We expect argc and argv to be passed in the usual C ABI registers
// DI and SI.

		})
	}

	// Lock the main goroutine onto this, the main OS thread,
	// during initialization. Most programs won't care, but a few
	// do require certain calls to be made by the main thread.
	// Those can arrange for main.main to run in the main thread
	// by calling runtime.LockOSThread during initialization
	// to preserve the lock.
	lockOSThread()

	if mp != &m0 {
		throw("runtime.main not on m0")
	}

	p := c.parent
	p.mu.Lock()
	defer p.mu.Unlock()

	c.mu.Lock()
	defer c.mu.Unlock()

	if len(c.output) > 0 {
		// Add the current c.output to the print,
		// and then arrange for the print to replace c.output.
		// (This displays the logged output after the --- FAIL line.)
		format += "%s"
		args = append(args[:len(args):len(args)], c.output)
		c.output = c.output[:0]
	}

pkg strconv, type NumError struct
pkg strconv, type NumError struct, Err error
pkg strconv, type NumError struct, Func string
pkg strconv, type NumError struct, Num string
pkg strconv, var ErrRange error
pkg strconv, var ErrSyntax error
pkg strings, func Contains(string, string) bool
pkg strings, func ContainsAny(string, string) bool
pkg strings, func ContainsRune(string, int32) bool