KubeSchedulerVersions         map[string][]string
	EtcdVersions                  map[string][]string
	KubeletVersions               map[string][]string
}

// GetAvailableUpgrades fetches all versions from the specified VersionGetter and computes which
// kinds of upgrades can be performed

			// Equal priority uses name to break ties
			return iName < jName
		}

		// i sorts before j if it has a higher priority
		return iPriority > jPriority
	})

	return groups
}

// Fetches from cache if it exists. If cache is empty, create it.
func (rdm *resourceDiscoveryManager) fetchFromCache() *cachedGroupList {
	rdm.lock.RLock()
	defer rdm.lock.RUnlock()

	cacheLoad := rdm.cache.Load()

			})
		}
	}

	return res, nil
}

// Enabled returns if configURL is enabled.
func Enabled(kvs config.KVS) bool {
	return kvs.Get(ConfigURL) != ""
}

// GetSettings - fetches OIDC settings for site-replication related validation.
// NOTE that region must be populated by caller as this package does not know.
func (r *Config) GetSettings() madmin.OpenIDSettings {
	res := madmin.OpenIDSettings{}

	// identity.
	WorkloadKeyCertResourceName = "default"

	// GCE is Credential fetcher type of Google plugin
	GCE = "GoogleComputeEngine"

	// JWT is a Credential fetcher type that reads from a JWT token file
	JWT = "JWT"

	// Mock is Credential fetcher type of mock plugin
	Mock = "Mock" // testing only

	// GoogleCAProvider uses the Google CA for workload certificate signing

}

// GetInternalReplicationState is a wrapper method to fetch internal replication state from the map m
func GetInternalReplicationState(m map[string][]byte) ReplicationState {
	m1 := make(map[string]string, len(m))
	for k, v := range m {
		m1[k] = string(v)
	}
	return getInternalReplicationState(m1)
}

// getInternalReplicationState fetches internal replication state from the map m

  // max_bytes the cache is a pass-through.
  tf_gcs_filesystem::RamFileBlockCache cache1(1, 0, 0, fetcher);
  tf_gcs_filesystem::RamFileBlockCache cache2(0, 1, 0, fetcher);
  tf_gcs_filesystem::RamFileBlockCache cache3(0, 0, 0, fetcher);
  tf_gcs_filesystem::RamFileBlockCache cache4(1000, 1000, 0, fetcher);
  std::vector<char> out;
  TF_EXPECT_OK(ReadCache(&cache1, want_filename, want_offset, want_n, &out));

		}
	} else if len(batch[iBatch]) != 0 && batch[iBatch][hashLength] == 1 {
		isShortcut = true
	}
	return batch, iBatch, batch[2*iBatch+1], batch[2*iBatch+2], isShortcut, nil
}

// loadBatch fetches a batch of nodes in cache or db
func (s *smt) loadBatch(root []byte) ([][]byte, error) {
	var node hash
	copy(node[:], root)

// leaving behind non-GC'ed state.
//
// Detailed motivation behind this approach, from ashankar@:
//
// Each call to Session::Run() that identifies a new subgraph (based on feeds
// and fetches) creates some datastructures that live as long as the session
// (the partitioned graph, associated executors etc.).
//
// A pathological case of this would be if say the initialization op

                                              TFE_TensorHandle** inputs,
                                              int num_inputs,
                                              TF_Status* status);

// Fetches the current number of inputs attached to `op`.
//
// Does not use the operation's definition to determine how many inputs should
// be attached. It is intended for use with TFE_OpGetFlatInput to inspect an

			return true, errors.New(strings.Join(errs, "; "))
		}
		return len(vm.actualStateOfWorld.GetMountedVolumesForPod(podName)) == 0, nil
	}
}

// getUnmountedVolumes fetches the current list of mounted volumes from
// the actual state of the world, and uses it to process the list of
// expectedVolumes. It returns a list of unmounted volumes.