public fun cacheHit (Lokhttp3/Call;Lokhttp3/Response;)V
	public fun cacheMiss (Lokhttp3/Call;)V
	public fun callEnd (Lokhttp3/Call;)V
	public fun callFailed (Lokhttp3/Call;Ljava/io/IOException;)V
	public fun callStart (Lokhttp3/Call;)V
	public fun canceled (Lokhttp3/Call;)V
	public fun connectEnd (Lokhttp3/Call;Ljava/net/InetSocketAddress;Ljava/net/Proxy;Lokhttp3/Protocol;)V

				Body:    []byte(body),
			},
			RespInfo: madmin.TraceResponseInfo{
				Time:       end,
				Headers:    nil,
				StatusCode: status,
				Body:       []byte(bytesOrLength(resp)),
			},
			CallStats: madmin.TraceCallStats{
				InputBytes:      len(req),
				OutputBytes:     len(resp),
				TimeToFirstByte: end.Sub(start),
			},
		},
	}
	// If the context contains a TraceParamsKey, add it to the trace path.

    call.execute().use { response ->
      assertThat(response.body.string()).isEqualTo("abc")
    }

    val expectedEvents = mutableListOf<String>()
    // Start out with standard events...
    expectedEvents += "CallStart"
    expectedEvents += "ProxySelectStart"
    expectedEvents += "ProxySelectEnd"
    expectedEvents += "DnsStart"
    expectedEvents += "DnsEnd"
    expectedEvents += "ConnectStart"
    if (https) {

      requestBody.writeUtf8("request A\n")
      requestBody.close()
    }
    body.awaitSuccess()
    assertThat(listener.recordedEventTypes()).containsExactly(
      "CallStart", "ProxySelectStart", "ProxySelectEnd", "DnsStart", "DnsEnd", "ConnectStart",
      "SecureConnectStart", "SecureConnectEnd", "ConnectEnd", "ConnectionAcquired",

				RespInfo: madmin.TraceResponseInfo{
					Time:       reqEndTime,
					Headers:    respRecorder.Header().Clone(),
					StatusCode: respRecorder.StatusCode,
					Body:       respRecorder.Body(),
				},
				CallStats: madmin.TraceCallStats{
					Latency:         reqEndTime.Sub(respRecorder.StartTime),
					InputBytes:      inputBytes,
					OutputBytes:     respRecorder.Size(),
					TimeToFirstByte: respRecorder.TimeToFirstByte,

    client.newCall(request).execute().use { response ->
      assertEquals(200, response.code)
    }

    assertEquals(
      listOf(
        "CallStart", "ProxySelectStart", "ProxySelectEnd", "DnsStart", "DnsEnd",
        "ConnectStart", "SecureConnectStart", "SecureConnectEnd", "ConnectEnd",

      new GradientTape<Gradient, BackwardFunction, TapeTensor>(false));
  AccumulatorCallState& call_state = call_state_.top();
  call_state.backward_tape = tape.get();
  auto pop_backward_tape =
      gtl::MakeCleanup([&call_state] { call_state.backward_tape = nullptr; });
  std::vector<Gradient*> forwardprop_aids;
  std::vector<int64_t> sources;
  std::unordered_set<int64_t> sources_set;

	f(func() {
		runtime.deferprocat(func() { print("A") }, #defers)
	})

For this rewriting phase, we insert the explicit initialization of
#defers and then attach the #defers variable to the CallStmt
representing the defer. That variable will be propagated to the
backend and will cause the backend to compile the defer using
deferprocat instead of an ordinary deferproc.

			//           check once we enable that again.
			p.print(n.Op, n.Op) // ++ or --
		} else {
			p.print(blank, n.Op, _Assign, blank)
			p.print(n.Rhs)
		}

	case *CallStmt:
		p.print(n.Tok, blank, n.Call)

	case *ReturnStmt:
		p.print(_Return)
		if n.Results != nil {
			p.print(blank, n.Results)
		}

	case *BranchStmt:
		p.print(n.Tok)
		if n.Label != nil {

	CAP_FEXECVE                    = 0x200000000000080
	CAP_FLOCK                      = 0x200000000010000
	CAP_FPATHCONF                  = 0x200000000020000
	CAP_FSCK                       = 0x200000000040000
	CAP_FSTAT                      = 0x200000000080000
	CAP_FSTATAT                    = 0x200000000080400
	CAP_FSTATFS                    = 0x200000000100000
	CAP_FSYNC                      = 0x200000000000100