// CHECK-NEXT: _replication_info = "replicate"
// CHECK-SAME: device = "/device:TPU:0"
// CHECK-SAME: topology = "topology"
// CHECK:      return %[[CLUSTER]]


// Test multiple clusters interleaved.
// CHECK-LABEL: func @interleaved_clusters
// CHECK-SAME: (%[[ARG_0:[a-z0-9]*]]: tensor<i1>)
func.func @interleaved_clusters(%arg0 : tensor<i1>) -> (tensor<i1>, tensor<i1>) {

				"video/vnd.iptvforum.ttsmpeg2",
				"video/vnd.motorola.video",
				"video/vnd.motorola.videop",
				"video/vnd.mpegurl",
				"video/vnd.ms-playready.media.pyv",
				"video/vnd.nokia.interleaved-multimedia",
				"video/vnd.nokia.videovoip",
				"video/vnd.objectvideo",
				"video/vnd.sealed.mpeg1",
				"video/vnd.sealed.mpeg4",
				"video/vnd.sealed.swf",
				"video/vnd.sealedmedia.softseal.mov",

	}

	if typ != recordTypeAlert && typ != recordTypeChangeCipherSpec && len(data) > 0 {
		// This is a state-advancing message: reset the retry count.
		c.retryCount = 0
	}

	// Handshake messages MUST NOT be interleaved with other record types in TLS 1.3.
	if c.vers == VersionTLS13 && typ != recordTypeHandshake && c.hand.Len() > 0 {
		return c.in.setErrorLocked(c.sendAlert(alertUnexpectedMessage))
	}

	switch typ {
	default:

	return all, nil
}

// mergeSortedSlice merges the 2 sorted lists by serverOrder with best effort.
// It will insert each item in `left` list to `right` list. In most cases, the 2 lists will be interleaved.
// The relative order of left and right are guaranteed to be kept.
// They have higher precedence than the order in the live list.
// The place for a item in `left` is found by:

		// stdout==stderr, we would also use the same testJSONFilter for
		// cmd.Stdout and cmd.Stderr in order to keep the underlying
		// interleaving of writes, but then it would see even partial writes
		// interleaved, which would corrupt the JSON. So, we only process
		// cmd.Stdout. This has another consequence though: if stdout==stderr,
		// we have to serialize Writes in case the Writer is not concurrent

    The `RequestBody.writeTo()` method may now retain a reference to the provided sink and
    hand it off to another thread to write to it after `writeTo` returns.

    The `EventListener` may now see requests and responses interleaved in ways not previously
    permitted. For example, a listener may receive `responseHeadersStart()` followed by
    `requestBodyEnd()`, both on the same call. Such events may be triggered by different threads

		// entirely possible to get output like AABBBA. The same problem
		// happens inside the operating system kernel if we switch to
		// blocking I/O on the pipe. This interleaved output can do things
		// like print unrelated messages in the middle of a TestFoo line,
		// which confuses test2json. Setting os.Stderr = os.Stdout will make

		}
	} else {
		// On a 32-bit machine, we're much more concerned
		// about keeping the usable heap contiguous.
		// Hence:
		//
		// 1. We reserve space for all heapArenas up front so
		// they don't get interleaved with the heap. They're
		// ~258MB, so this isn't too bad. (We could reserve a
		// smaller amount of space up front if this is a
		// problem.)
		//
		// 2. We hint the heap to start right above the end of

	stdout, stderr, err := m.runtimeService.ExecSync(ctx, id.ID, cmd, timeout)
	// NOTE(tallclair): This does not correctly interleave stdout & stderr, but should be sufficient
	// for logging purposes. A combined output option will need to be added to the ExecSyncRequest
	// if more precise output ordering is ever required.

			// The initial handshake will generate a
			// handshakeComplete signal which needs to be quashed.
			if i == 1 && write {
				<-stdout.handshakeComplete
			}

			// OpenSSL will try to interleave application data and
			// a renegotiation if we send both concurrently.
			// Therefore: ask OpensSSL to start a renegotiation, run
			// a goroutine to call client.Read and thus process the