}

					initialObjects = testCtx.listAll(t)
					initialObjects = testCtx.updateAPIServer(t, initialObjects, tc.prepare.prebind)
					status := testCtx.p.PreBind(testCtx.ctx, testCtx.state, tc.pod, selectedNode.Node().Name)
					t.Run("prebind", func(t *testing.T) {
						testCtx.verify(t, tc.want.prebind, initialObjects, nil, status)
					})

					if tc.want.unreserveAfterBindFailure != nil {

	//   the claim is assumed to be allocated.
	// - PreBind for pod B is called first, tries to update reservedFor and
	//   fails because the claim is not really allocated yet.
	//
	// We could avoid the ordering problem by allowing either pod A or pod B
	// to set the allocation. But that is more complicated and leads to another
	// problem:
	// - Pod A and B get scheduled as above.

	if !state.ShouldRecordPluginMetrics() {
		return pl.PreBind(ctx, state, pod, nodeName)
	}
	startTime := time.Now()
	status := pl.PreBind(ctx, state, pod, nodeName)
	f.metricsRecorder.ObservePluginDurationAsync(metrics.PreBind, pl.Name(), status.Code().String(), metrics.SinceInSeconds(startTime))
	return status
}

// RunBindPlugins runs the set of configured bind plugins until one returns a non `Skip` status.

    while (taskFaker.isIdle()) {
      set("a", "a", "a")
      set("b", "b", "b")
    }

    // Cause the rebuild action to fail.
    filesystem.setFaultyRename(cacheDir / DiskLruCache.JOURNAL_FILE_BACKUP, true)
    taskFaker.runNextTask()

    // The rebuild is retried on cache hits and on cache edits.
    val snapshot = cache["b"]!!
    snapshot.close()
    assertThat(cache.edit("d")).isNull()

	setNoOpt()

	var t tester

	var noRebuild bool
	flag.BoolVar(&t.listMode, "list", false, "list available tests")
	flag.BoolVar(&t.rebuild, "rebuild", false, "rebuild everything first")
	flag.BoolVar(&noRebuild, "no-rebuild", false, "overrides -rebuild (historical dreg)")
	flag.BoolVar(&t.keepGoing, "k", false, "keep going even when error occurred")

                if (logger.isDebugEnabled()) {
                    logger.debug("Logged in as Bind DN. {}", context);
                }
                isBind = true;
            } catch (final Exception e) {
                logger.warn("LDAP configuration is wrong.", e);
            }
        }
        return isBind;
    }

    public OptionalEntity<FessUser> login(final String username, final String password) {

				// didn't do so already. This can happen if the pconn
				// write loop exits without reading the write request.
				req.closeBody()
			}
			return nil, err
		}
		testHookRoundTripRetried()

		// Rewind the body if we're able to.
		req, err = rewindBody(req)
		if err != nil {
			return nil, err
		}
	}
}

func awaitLegacyCancel(ctx context.Context, cancel context.CancelCauseFunc, req *Request) {

  // CHECK-SAME: tensor<*xi32>
  func.return %1 : tensor<*xi32>
}

// If multiple types are used across reads and writes, check that the read uses
// the most refined type. The first ReadVariable should refine the type from
// *xi32 to ?xi32 and the assign should refine it further to 4xi32.
// CHECK-LABEL: func @type_refinement_use_refined_type
func.func @type_refinement_use_refined_type() -> tensor<4xi32> {

)

const (
	// gcGoalUtilization is the goal CPU utilization for
	// marking as a fraction of GOMAXPROCS.
	//
	// Increasing the goal utilization will shorten GC cycles as the GC
	// has more resources behind it, lessening costs from the write barrier,
	// but comes at the cost of increasing mutator latency.
	gcGoalUtilization = gcBackgroundUtilization

	// gcBackgroundUtilization is the fixed CPU utilization for background

			if prev, ok := previous[key]; ok && !changed.Contains(key) {
				// Reuse the previous EnvoyFilterWrapper if it exists and hasn't changed when optimized config rebuild is enabled
				efw = prev
			}
		}
		// Rebuild the envoy filter in all other cases.
		if efw == nil {
			efw = convertToEnvoyFilterWrapper(&envoyFilterConfig)
		}