t.Logf("pN SampleType[%d]; %q != %q", i, have, want)
						ok = false
					}
				}

				// cpuHog1 called below is the primary source of CPU
				// load, but there may be some background work by the
				// runtime. Since the OS rusage measurement will
				// include all work done by the process, also compare
				// against all samples in our profile.
				var value time.Duration

    } catch (SecurityException e) {
      generateCancellationCauses = false;
    }
    GENERATE_CANCELLATION_CAUSES = generateCancellationCauses;
  }

  /**
   * Tag interface marking trusted subclasses. This enables some optimizations. The implementation
   * of this interface must also be an AbstractFuture and must not override or expose for overriding
   * any of the public methods of ListenableFuture.
   */

    } catch (SecurityException e) {
      generateCancellationCauses = false;
    }
    GENERATE_CANCELLATION_CAUSES = generateCancellationCauses;
  }

  /**
   * Tag interface marking trusted subclasses. This enables some optimizations. The implementation
   * of this interface must also be an AbstractFuture and must not override or expose for overriding
   * any of the public methods of ListenableFuture.
   */

func TestL7Telemetry(t *testing.T) {
	framework.NewTest(t).
		Run(func(tc framework.TestContext) {
			// ensure that some traffic from each captured workload is
			// sent to each waypoint proxy. This will likely have happened in
			// the other tests (without the teardown), but we want to make
			// sure that some traffic is seen. This test will not validate
			// exact traffic counts, but rather focus on validating that

	if err != nil {
		t.Fatalf("Couldn't create cacher: %v", err)
	}
	defer cacher.Stop()

	ctx, cancel := context.WithCancel(context.Background())
	// Cancel the watch after some time to check if it will properly
	// terminate instead of hanging forever.
	go func() {
		defer cancel()
		cacher.clock.Sleep(1 * time.Second)
	}()

	// Watch hangs waiting on watchcache being initialized.

/// ----------------------------------------------------------------------------
///
/// The following data structures represent the function tables for operations
/// that plugins provide (some are mandatory, some are optional, with or without
/// a default implementation).
///
/// Each plugin implements the operations that are supported and TensorFlow will

//   (2) x = Op ...
//   (3) ... = Op v ...
//
// post-regalloc:
//   (1) v = Op ...    : AX // computes v, store result in AX
//       s = StoreReg v     // spill v to a stack slot
//   (2) x = Op ...    : AX // some other op uses AX
//       c = LoadReg s : CX // restore v from stack slot
//   (3) ... = Op c ...     // use the restored value
//
// Allocation occurs normally until we reach (3) and we realize we have

		{"[::1]:80", "::1", "80"},
		{"[::1]", "::1", ""},
		{"[::1]:", "::1", ""},
		{"localhost", "localhost", ""},
		{"localhost:443", "localhost", "443"},
		{"some.super.long.domain.example.org:8080", "some.super.long.domain.example.org", "8080"},
		{"[2001:0db8:85a3:0000:0000:8a2e:0370:7334]:17000", "2001:0db8:85a3:0000:0000:8a2e:0370:7334", "17000"},

    // lifting for that resource.
    if (unsupported_use) continue;

    info.is_written_all = written_regions.count() == op_->getNumRegions();

    // If the resource is written in some but not all regions, we would need
    // a read for the value before these regions. Note that this is applicable
    // only to multi-region ops:
    // If/Case: If not all regions write to the resource, post hoisting the read

		} else if bind.bindToPort {
			bind.binds = actualLocalHosts
		}

		if egressListener.IstioListener != nil &&
			egressListener.IstioListener.Port != nil {
			// We have a non catch all listener on some user specified port
			// The user specified port may or may not match a service port.
			// If it does not match any service port and the service has only
			// one port, then we pick a default service port. If service has