// function repeatedly, each time with a Write operation set to
	// fail at a new spot. The goal here is to make sure that:
	// A) an error is reported, and B) nothing crashes.
	tot := fw.writeCount
	for i := 0; i < tot; i++ {
		fw.reset(i)
		err := testf(fw)
		if err == nil {
			log.Fatalf("no error from write %d tag %s", i, tag)
		}
	}
}

func postClear() int {

	}

	var libcall libcall
	libcall.fn = uintptr(unsafe.Pointer(fn))
	libcall.n = 0
	libcall.args = uintptr(unsafe.Pointer(fn)) // it's unused but must be non-nil, otherwise crashes
	asmcgocall(unsafe.Pointer(&asmsysvicall6x), unsafe.Pointer(&libcall))
	if mp != nil {
		mp.libcallsp = 0
	}
	return libcall.r1
}

//go:nosplit
func sysvicall1(fn *libcFunc, a1 uintptr) uintptr {

)

// PostStartHookFunc is a function that is called after the server has started.
// It must properly handle cases like:
//  1. asynchronous start in multiple API server processes
//  2. conflicts between the different processes all trying to perform the same action
//  3. partially complete work (API server crashes while running your hook)
//  4. API server access **BEFORE** your hook has completed
//

const (
	sigIdle = iota
	sigReceiving
	sigSending
)

// sigsend delivers a signal from sighandler to the internal signal delivery queue.
// It reports whether the signal was sent. If not, the caller typically crashes the program.
// It runs from the signal handler, so it's limited in what it can do.
func sigsend(s uint32) bool {
	bit := uint32(1) << uint(s&31)
	if s >= uint32(32*len(sig.wanted)) {
		return false
	}

// Flush local buffers to the filesystem. If the process terminates after a
// successful flush, the contents may still be persisted, since the underlying
// filesystem may eventually flush the contents.  If the OS or machine crashes
// after a successful flush, the contents may or may not be persisted, depending
// on the implementation.
TF_CAPI_EXPORT extern void TF_FlushWritableFile(TF_WritableFileHandle* handle,

  }

  static {
    LittleEndianBytes theGetter = JavaLittleEndianBytes.INSTANCE;
    try {
      /*
       * UnsafeByteArray uses Unsafe.getLong() in an unsupported way, which is known to cause
       * crashes on Android when running in 32-bit mode. For maximum safety, we shouldn't use
       * Unsafe.getLong() at all, but the performance benefit on x86_64 is too great to ignore, so

		log.Fatalf("failed to read from input pipe: %v", err)
	}

	// If the only line is the sentinel, it wasn't a crash.
	if bytes.Count(data, []byte("\n")) < 2 {
		childExitHook()
		os.Exit(0) // parent exited without crash report
	}

	log.Printf("parent reported crash:\n%s", data)

	// Parse the stack out of the crash report
	// and record a telemetry count for it.
	name, err := telemetryCounterName(data)
	if err != nil {

  }

  static {
    LittleEndianBytes theGetter = JavaLittleEndianBytes.INSTANCE;
    try {
      /*
       * UnsafeByteArray uses Unsafe.getLong() in an unsupported way, which is known to cause
       * crashes on Android when running in 32-bit mode. For maximum safety, we shouldn't use
       * Unsafe.getLong() at all, but the performance benefit on x86_64 is too great to ignore, so

	// given a key, return the record, and whether or not it existed
	get(key string) (value *cacheRecord, exists bool)
	// caches the record for the key
	set(key string, value *cacheRecord, ttl time.Duration)
	// removes the record for the key
	remove(key string)
}

// New returns a token authenticator that caches the results of the specified authenticator. A ttl of 0 bypasses the cache.

		close(m.stopped)
		close(m.incoming)
	})
	m.distributing.Wait()
}

// loop receives from m.incoming and distributes to all watchers.
func (m *Broadcaster) loop() {
	// Deliberately not catching crashes here. Yes, bring down the process if there's a
	// bug in watch.Broadcaster.
	for event := range m.incoming {
		if event.Type == internalRunFunctionMarker {
			event.Object.(functionFakeRuntimeObject)()
			continue