mlir::OpPassManager& pass_manager);

// This is the early part of the conversion in isolation. This enables a caller
// to inject more information in the middle of the conversion before resuming it
// (like freezing variables for example).
void AddPreVariableFreezingTFToTFLConversionPasses(
    const mlir::TFL::PassConfig& pass_config,
    mlir::OpPassManager* pass_manager);

	// UnsafePointRestart1(2) apply on a sequence of instructions, within
	// which if an async preemption happens, we should back off the PC
	// to the start of the sequence when resuming.
	// We need two so we can distinguish the start/end of the sequence
	// in case that two sequences are next to each other.
	UnsafePointRestart1 = -3
	UnsafePointRestart2 = -4

// then resuming with `fg`.
//
// This is a regression test for https://go.dev/issue/22838. On Darwin, PTY
// reads return EINTR when this occurs, and Go should automatically retry.
func TestTerminalSignal(t *testing.T) {
	// This test simulates stopping a Go process running in a shell with ^Z
	// and then resuming with `fg`. This sounds simple, but is actually
	// quite complicated.
	//

}

// NewCond returns a new Cond with Locker l.
func NewCond(l Locker) *Cond {
	return &Cond{L: l}
}

// Wait atomically unlocks c.L and suspends execution
// of the calling goroutine. After later resuming execution,
// Wait locks c.L before returning. Unlike in other systems,
// Wait cannot return unless awoken by [Cond.Broadcast] or [Cond.Signal].
//
// Because c.L is not locked while Wait is waiting, the caller

		// If we resume to the same bucket, forward to last known item.
		b := tracker.getBucket()
		if b == bucket {
			forwardTo = tracker.getObject()
		}
		if b != "" {
			// Reset to where last bucket ended if resuming.
			tracker.resume()
		}
		tracker.setObject("")
		tracker.setBucket(bucket)
		// Heal current bucket again in case if it is failed
		// in the beginning of erasure set healing

			if err == nil || err == io.EOF {
				return entries, err
			}
			entries.truncate(0)
		} else {
			if o.pool < len(z.serverPools) && o.set < len(z.serverPools[o.pool].sets) {
				o.debugln("Resuming", o)
				entries, err = z.serverPools[o.pool].sets[o.set].streamMetadataParts(ctx, *o)
				entries.reuse = true // We read from stream and are not sharing results.
				if err == nil {
					return entries, nil
				}

	ItemsFailed uint64

	BytesDone   uint64
	BytesFailed uint64

	// Last object scanned.
	Bucket string `json:"-"`
	Object string `json:"-"`

	// Numbers when current bucket started healing,
	// for resuming with correct numbers.
	ResumeItemsHealed uint64 `json:"-"`
	ResumeItemsFailed uint64 `json:"-"`
	ResumeBytesDone   uint64 `json:"-"`
	ResumeBytesFailed uint64 `json:"-"`

	// Filled on startup/restarts.

		return
	}

	duration := endTime.Sub(m.startTime)

	bytesSinceLastWindow := atomic.SwapUint64(&m.bytesSinceLastWindow, 0)

	if m.expMovingAvg == 0 {
		// Should address initial calculation and should be fine for resuming from 0
		m.expMovingAvg = float64(bytesSinceLastWindow) / duration.Seconds()
		return
	}

	increment := float64(bytesSinceLastWindow) / duration.Seconds()

	if err != nil {
		return nil, nil, nil, errors.New("tls: short read from Rand: " + err.Error())
	}

	// A random session ID is used to detect when the server accepted a ticket
	// and is resuming a session (see RFC 5077). In TLS 1.3, it's always set as
	// a compatibility measure (see RFC 8446, Section 4.1.2).
	//
	// The session ID is not set for QUIC connections (see RFC 9001, Section 8.4).
	if c.quic == nil {

      mlir::odml::createLegalizeCompositeToCustomOpPass());
}

// This is the early part of the conversion in isolation. This enables a caller
// to inject more information in the middle of the conversion before resuming
// it.
void AddPreVariableFreezingTFToTFLConversionPasses(
    const mlir::TFL::PassConfig& pass_config,
    mlir::OpPassManager* pass_manager) {