t.Fatalf("unexpected requested pod termination: %#v", s)
				}
				// expect we get a pod sync record for kill that should have the same grace period as before (2), but no
				// running pod because the SyncKnownPods method killed it
				if actual, expected := records[uid], []syncPodRecord{
					{name: "pod1", updateType: kubetypes.SyncPodCreate},
					{name: "pod1", updateType: kubetypes.SyncPodKill, gracePeriod: &two},

	}

	// The UpdateThreshold method should have been called once, since this is the first run.
	_, err := manager.synchronize(diskInfoProvider, activePodsFunc)

	if err != nil {
		t.Fatalf("Manager should not have an error %v", err)
	}

	// The UpdateThreshold method should not have been called again, since not enough time has passed

    val request =
      Request.Builder()
        .url(url)
        .apply {
          if (withOverride) {
            cacheUrlOverride(url)
          }
        }
        .method(requestMethod, requestBodyOrNull(requestMethod))
        .build()
    val response1 = client.newCall(request).execute()
    response1.body.close()
    assertThat(response1.header("X-Response-ID")).isEqualTo("1")

ue(function(t,e){for(var i=0;i<n.length;i+=1)ue.resolve(n[i]).then(t,e)})};var ce=ue.prototype;function le(s,a){return new se(function(t,e){var i=G({data:null,method:"GET",headers:{},xhr:new XMLHttpRequest,beforeSend:et,responseType:""},a);i.beforeSend(i);var n=i.xhr;for(var r in i)if(r in n)try{n[r]=i[r]}catch(t){}for(var o in n.open(i.method.toUpperCase(),s),i.headers)n.setRequestHeader(o,i.headers[o]);Ut(n,"load",function(){0===n.status||200<=n.status&&n.status<300||304===n.status?t(n):e(G(Erro...

			AllowMethods:  []string{"GET", "POST"},
			AllowHeaders:  []string{"header1", "header2"},
			ExposeHeaders: []string{"header3"},
			MaxAge:        &durationpb.Duration{Seconds: 2},
		}, valid: true},
		{name: "bad method", in: &networking.CorsPolicy{
			AllowMethods:  []string{"GET", "PUTT"},
			AllowHeaders:  []string{"header1", "header2"},
			ExposeHeaders: []string{"header3"},
			MaxAge:        &durationpb.Duration{Seconds: 2},

      const std::optional<BufferOffset<tflite::QuantizationParameters>>&
          quant_parameters);

  // TODO(b/137395003): Legalize tf.IfOp to TFLite dialect, and change the
  // following method to handle TFL::IfOp.
  BufferOffset<tflite::Operator> BuildIfOperator(
      mlir::TF::IfOp op, const std::vector<int32_t>& operands,
      const std::vector<int32_t>& results);

}

// Returns true when the given operand arguments have the same shape or
// broadcastable shape within the given rank. If any given shapes are
// non-static and maximum rank is within the given rank, this method returns
// true.
bool VerifyOperandsHaveSameShapesOrBroadcastableShape(
    Operation* op, ArrayRef<unsigned> indices, int max_bcast_rank) {
  if (indices.empty()) return true;

	db := newTestDB(t, "people")
	defer closeDB(t, db)
	prepares0 := numPrepares(t, db)

	ctx, cancel := context.WithCancel(context.Background())
	defer cancel()

	// This will trigger the *fakeConn.Prepare method which will take time
	// performing the query. The ctxDriverPrepare func will check the context
	// after this and close the rows and return an error.
	c, err := db.Conn(ctx)
	if err != nil {
		t.Fatal(err)
	}

   * then we call it in a separate thread (using pseudoTimedGet). The result is that we wait as long
   * as necessary when the method is expected to return (at the cost of hanging forever if there is
   * a bug in the class under test) but that we time out fairly promptly when the method is expected
   * to hang (possibly too quickly, but too-quick failures should be very unlikely, given that we

   * then we call it in a separate thread (using pseudoTimedGet). The result is that we wait as long
   * as necessary when the method is expected to return (at the cost of hanging forever if there is
   * a bug in the class under test) but that we time out fairly promptly when the method is expected
   * to hang (possibly too quickly, but too-quick failures should be very unlikely, given that we