break
			}
		}
	}

	// Split the run we found if it's larger than max but hold on to
	// our original length, since we may need it later.
	size := min(run, uint(max))
	start := end - size

	// Each huge page is guaranteed to fit in a single palloc chunk.
	//
	// TODO(mknyszek): Support larger huge page sizes.
	// TODO(mknyszek): Consider taking pages-per-huge-page as a parameter

	nodeConditionMessageFmt = "The node had condition: %v. "
	// containerMessageFmt provides additional information for containers exceeding requests
	containerMessageFmt = "Container %s was using %s, request is %s, has larger consumption of %v. "
	// containerEphemeralStorageMessageFmt provides additional information for containers which have exceeded their ES limit

            cpu_global_jit_);
  }

  // Returns true if the devices in `cluster_a` and `cluster_b` are compatible
  // and therefore not a hindrance for combining the two clusters into a larger
  // cluster.
  absl::StatusOr<bool> AreDevicesCompatible(const Cluster& cluster_a,
                                            const Cluster& cluster_b);

  void DumpPostClusteringGraphs();

	--nav-color: #f8f8f7;
	--table-color: #f7f8f7;
	--box-shadow-color: rgba(0, 0, 0, .15);
	--top-header-color: #fff;
	--footer-white-color: #fff;
	--footer-text-color: #fff;
	--quoteblock-color: #7a2518;
	--menu-burger-color: #fff;

	.dark-mode {
		--admonition-background: #2a2929;
		--black-color: #fff;
		--white-color: #121212;
		--text-color: #aaa;
		--title-color: #fff;
		--header-color: rgba(255, 255, 255, 0.85);

	_StackCacheSize = 32 * 1024

	// Number of orders that get caching. Order 0 is FixedStack
	// and each successive order is twice as large.
	// We want to cache 2KB, 4KB, 8KB, and 16KB stacks. Larger stacks
	// will be allocated directly.
	// Since FixedStack is different on different systems, we
	// must vary NumStackOrders to keep the same maximum cached size.
	//   OS               | FixedStack | NumStackOrders

// The elapsed time returned from the first SetDetachRequestTime call should be smaller than maxWaitTime
// The elapsed time returned from the second SetDetachRequestTime call should be larger than maxWaitTime
func Test_SetDetachRequestTime_Positive(t *testing.T) {
	// Arrange
	volumePluginMgr, _ := volumetesting.GetTestVolumePluginMgr(t)
	asw := NewActualStateOfWorld(volumePluginMgr)

//     record should fit in one TCP segment.
//   - For throughput-sensitive applications, such as large file transfers,
//     larger TLS records better amortize framing and encryption overheads.
//
// A simple heuristic that works well in practice is to use small records for
// the first 1MB of data, then use larger records for subsequent data, and
// reset back to smaller records after the connection becomes idle. See "High

			// the 8 bytes, and trailing zeros doesn't change the hash value, e.g.
			// hash("A") == hash("A\0\0\0").
			// So when two symbols have the same hash, we need to use the one with
			// larger size.
			if siz > s.size {
				// New symbol has larger size, use the new one. Rewrite the index mapping.
				l.objSyms[s.sym] = objSym{r.objidx, li}
				addToHashMap(symAndSize{s.sym, siz})
			}
			return s.sym
		}

	// When recurse_64 is called from sais_8_64, oldTmp is length 512
	// (from text_64), and saTmp will typically be much larger, so we'll use saTmp.
	// When deeper recursions come back to recurse_64, now oldTmp is
	// the saTmp from the top-most recursion, it is typically larger than
	// the current saTmp (because the current sa gets smaller and smaller
	// as the recursion gets deeper), and we keep reusing that top-most

// the two assist ratio values being exact reciprocals of one another, since
// the two values are used to convert values from different sources.
//
// The worst case result of this raciness is that we may miss a larger shift
// in the ratio (say, if we decide to pace more aggressively against the
// hard heap goal) but even this "hard goal" is best-effort (see #40460).
// The dedicated GC should ensure we don't exceed the hard goal by too much