listener.takeEvent(CallStart::class.java, 0L)
    listener.takeEvent(ConnectionAcquired::class.java, applicationInterceptorDelay)
    listener.takeEvent(RequestHeadersStart::class.java, networkInterceptorDelay)
    listener.takeEvent(RequestHeadersEnd::class.java, 0L)
    listener.takeEvent(RequestBodyStart::class.java, 0L)
    listener.takeEvent(RequestBodyEnd::class.java, requestBodyDelay)

      eachQueue@ for (queue in readyQueues) {
        val candidate = queue.futureTasks[0]
        val candidateDelay = maxOf(0L, candidate.nextExecuteNanoTime - now)

        when {
          // Compute the delay of the soonest-executable task.
          candidateDelay > 0L -> {
            minDelayNanos = minOf(candidateDelay, minDelayNanos)
            continue@eachQueue
          }

        val hasData = sendBuffer.size > 0L
        val hasTrailers = trailers != null
        when {
          hasTrailers -> {
            while (sendBuffer.size > 0L) {
              emitFrame(false)
            }
            connection.writeHeaders(id, outFinished, trailers!!.toHeaderList())
          }

          hasData -> {
            while (sendBuffer.size > 0L) {
              emitFrame(true)

  var socketPolicy: SocketPolicy = SocketPolicy.KEEP_OPEN

  @set:JvmName("http2ErrorCode")
  var http2ErrorCode: Int = -1

  private var bodyDelayAmount = 0L
  private var bodyDelayUnit = TimeUnit.MILLISECONDS

  private var headersDelayAmount = 0L
  private var headersDelayUnit = TimeUnit.MILLISECONDS

  private var promises = mutableListOf<PushPromise>()
  var settings: Settings = Settings()
    private set

  data class Point(
    val x: Long?,
    val y: Long?,
  ) {
    companion object {
      val ADAPTER =
        Adapters.sequence(
          "Point",
          Adapters.INTEGER_AS_LONG.withTag(tag = 0L).optional(),
          Adapters.INTEGER_AS_LONG.withTag(tag = 1L).optional(),
          decompose = { listOf(it.x, it.y) },
          construct = { Point(it[0] as Long?, it[1] as Long?) },
        )
    }
  }

    byteCount: Long,
  ) {
    var byteCount = byteCount
    while (byteCount > 0L) {
      val length = minOf(maxFrameSize.toLong(), byteCount)
      byteCount -= length
      frameHeader(
        streamId = streamId,
        length = length.toInt(),
        type = TYPE_CONTINUATION,
        flags = if (byteCount == 0L) FLAG_END_HEADERS else 0,
      )
      sink.write(hpackBuffer, length)
    }
  }

        val servedMillis = servedDate?.time ?: sentRequestMillis
        val delta = servedMillis - lastModified!!.time
        return if (delta > 0L) delta / 10 else 0L
      }

      return 0L
    }

    /**
     * Returns the current age of the response, in milliseconds. The calculation is specified by RFC
     * 7234, 4.2.3 Calculating Age.
     */

            throw ProtocolException("length encoded with more than 8 bytes is not supported")
          }

          var lengthBits = source.readByte().toLong() and 0xff
          if (lengthBits == 0L || lengthBytes == 1 && lengthBits and 0b1000_0000 == 0L) {
            throw ProtocolException("invalid encoding for length")
          }

          for (i in 1 until lengthBytes) {
            lengthBits = lengthBits shl 8

    point were invalid certificates accepted.
 *  New: `OkHttpClient.Builder.minWebSocketMessageToCompress()` configures a threshold for
    compressing outbound web socket messages. Configure this with 0L to always compress outbound
    messages and `Long.MAX_VALUE` to never compress outbound messages. The default is 1024L which
    compresses messages of size 1 KiB and larger. (Inbound messages are compressed or not based on

  private val noContextTakeover: Boolean,
) : Closeable {
  private var closed = false

  // Stateful data about the current frame.
  private var opcode = 0
  private var frameLength = 0L
  private var isFinalFrame = false
  private var isControlFrame = false
  private var readingCompressedMessage = false

  private val controlFrameBuffer = Buffer()
  private val messageFrameBuffer = Buffer()