public List<TravelQuote> getRankedTravelQuotes(
TravelInfo travelInfo,
Set<TravelCompany> companies,
Comparator<TravelQuote> ranking,
long time,
TimeUnit unit)
throws InterruptedException {
List<QuoteTask> tasks = new ArrayList<QuoteTask>();
for (TravelCompany company : companies) tasks.add(new QuoteTask(company, travelInfo));
List<Future<TravelQuote>> futures = exec.invokeAll(tasks, time, unit);
List<TravelQuote> quotes = new ArrayList<TravelQuote>(tasks.size());
Iterator<QuoteTask> taskIter = tasks.iterator();
for (Future<TravelQuote> f : futures) {
QuoteTask task = taskIter.next();
try {
quotes.add(f.get());
} catch (ExecutionException e) {
quotes.add(task.getFailureQuote(e.getCause()));
} catch (CancellationException e) {
quotes.add(task.getTimeoutQuote(e));
}
}
Collections.sort(quotes, ranking);
return quotes;
}
public static void main(String[] args) {
Date start = new Date();
if (args.length < 3) {
System.out.println("Wrong number of arguments:\n" + USAGE);
return;
}
// get # threads
int tc = Integer.parseInt(args[0]);
String outfile = args[1];
// make a threadsafe queue of all files to process
ConcurrentLinkedQueue<String> files = new ConcurrentLinkedQueue<String>();
for (int i = 2; i < args.length; i++) {
files.add(args[i]);
}
// hastable for results
Hashtable<String, Integer> results = new Hashtable<String, Integer>(HASH_SIZE, LF);
// spin up the threads
Thread[] workers = new Thread[tc];
for (int i = 0; i < tc; i++) {
workers[i] = new Worker(files, results);
workers[i].start();
}
// wait for them to finish
try {
for (int i = 0; i < tc; i++) {
workers[i].join();
}
} catch (Exception e) {
System.out.println("Caught Exception: " + e.getMessage());
}
// terminal output
Date end = new Date();
System.out.println(end.getTime() - start.getTime() + " total milliseconds");
System.out.println(results.size() + " unique words");
// sort results for easy comparison/verification
List<Map.Entry<String, Integer>> sorted_results =
new ArrayList<Map.Entry<String, Integer>>(results.entrySet());
Collections.sort(sorted_results, new KeyComp());
// file output
try {
PrintStream out = new PrintStream(outfile);
for (int i = 0; i < sorted_results.size(); i++) {
out.println(sorted_results.get(i).getKey() + "\t" + sorted_results.get(i).getValue());
}
} catch (Exception e) {
System.out.println("Caught Exception: " + e.getMessage());
}
}
/**
* Returns all supported capture sizes.
*
* @return an array of capture sizes, in bytes, never <code>null</code>.
*/
public Integer[] getCaptureSizes() {
final String rawValue = this.properties.get(DEVICE_CAPTURESIZES);
final String[] values = rawValue.split(",\\s*");
final List<Integer> result = new ArrayList<Integer>();
for (String value : values) {
result.add(Integer.valueOf(value.trim()));
}
Collections.sort(
result, NumberUtils.<Integer>createNumberComparator(false /* aSortAscending */));
return result.toArray(new Integer[result.size()]);
}
public List<LoopEx> outterFirst() {
ArrayList<LoopEx> loops = new ArrayList<>(loops());
Collections.sort(
loops,
new Comparator<LoopEx>() {
@Override
public int compare(LoopEx o1, LoopEx o2) {
return o1.lirLoop().depth - o2.lirLoop().depth;
}
});
return loops;
}
public Void call() {
final List<RolapStar> starList = CacheControlImpl.getStarList(region);
Collections.sort(
starList,
new Comparator<RolapStar>() {
public int compare(RolapStar o1, RolapStar o2) {
return o1.getFactTable().getAlias().compareTo(o2.getFactTable().getAlias());
}
});
for (RolapStar star : starList) {
indexRegistry.getIndex(star).printCacheState(pw);
}
return null;
}
/**
* @param fld Folder with files to match.
* @param ptrn Pattern to match against file name.
* @return Collection of matched files.
*/
public static List<VisorLogFile> matchedFiles(File fld, final String ptrn) {
List<VisorLogFile> files =
fileTree(
fld,
MAX_FOLDER_DEPTH,
new FileFilter() {
@Override
public boolean accept(File f) {
return !f.isHidden()
&& (f.isDirectory() || f.isFile() && f.getName().matches(ptrn));
}
});
Collections.sort(files, LAST_MODIFIED);
return files;
}
/** Load all the deployment units out of the store. Called on start-up. */
public void loadAll() {
final ArrayList<ProcessConfImpl> loaded = new ArrayList<ProcessConfImpl>();
exec(
new Callable<Object>() {
public Object call(ConfStoreConnection conn) {
Collection<DeploymentUnitDAO> dus = conn.getDeploymentUnits();
for (DeploymentUnitDAO du : dus)
try {
loaded.addAll(load(du));
} catch (Exception ex) {
__log.error("Error loading DU from store: " + du.getName(), ex);
}
return null;
}
});
// Dispatch DISABLED, RETIRED and ACTIVE events in that order
Collections.sort(
loaded,
new Comparator<ProcessConf>() {
public int compare(ProcessConf o1, ProcessConf o2) {
return stateValue(o1.getState()) - stateValue(o2.getState());
}
int stateValue(ProcessState state) {
if (ProcessState.DISABLED.equals(state)) return 0;
if (ProcessState.RETIRED.equals(state)) return 1;
if (ProcessState.ACTIVE.equals(state)) return 2;
throw new IllegalStateException("Unexpected process state: " + state);
}
});
for (ProcessConfImpl p : loaded) {
try {
fireStateChange(p.getProcessId(), p.getState(), p.getDeploymentUnit().getName());
} catch (Exception except) {
__log.error(
"Error while activating process: pid="
+ p.getProcessId()
+ " package="
+ p.getDeploymentUnit().getName(),
except);
}
}
}
private void getServersFile() throws Exception {
InputStream is = this.getClass().getResourceAsStream("/servers");
if (is == null) throw new IOException("Cannot find servers file");
BufferedReader br = new BufferedReader(new InputStreamReader(is));
configuredServers.clear();
String line;
while ((line = br.readLine()) != null) {
configuredServers.add(line);
}
Collections.sort(configuredServers);
if (configuredServers.size() < 1) throw new IOException("No entries found in servers file");
int lnum = 1;
for (int i = 0; i < configuredServers.size(); i++) {
LOG.debug("servers file line " + lnum + " [" + configuredServers.get(i) + "]");
lnum++;
}
}
public int reduce(Optimizer optimizer, int expMinCluster, int expMaxCluster)
throws ExecutionException, InterruptedException {
// 1.start with min, max provided, what is oom
int mag = computeMagnitude(expMaxCluster - expMinCluster + 1);
// 2. setting search range. if oom is 0, set initial range to 1;
int hop = mag == 0 ? 1 : (int) Math.pow(10.0, mag);
// 3. find the meaning range, i.e., real min cluster and real max cluster numbers where a real
// numbered optimisation score
// can be computed
int[] range = computeClusterNumberRange(expMinCluster, expMaxCluster, hop, optimizer);
if (range[0] == -1 && range[1] != -1) {
System.err.println(
"[!]No meaningful lower range. Only 1 possible cluster number:" + range[1]);
return range[1];
} else if (range[1] == -1 && range[0] != -1) {
System.err.println(
"[!]No meaningful upper range. Only 1 possible cluster number:" + range[0]);
return range[0];
} else if (range[0] == -1 && range[1] == -1) {
System.err.println("[!]No meaningful cluster number, cannot cluster");
return -1;
}
System.out.println(
"[]Input range:"
+ expMinCluster
+ "-"
+ expMaxCluster
+ ", Real range:"
+ range[0]
+ "-"
+ range[1]);
expMinCluster = range[0] < range[1] ? range[0] : range[1];
expMaxCluster = range[1] > range[0] ? range[1] : range[0];
// 4. reset hop based on new range
mag = computeMagnitude(expMaxCluster - expMinCluster + 1);
hop = mag == 0 ? 1 : (int) Math.pow(10.0, mag);
double currentMaxOptimizationScore = 0;
int current_iteration =
0; // todo: for location, why min > max; select range based on best interval, is it correct?
while (current_iteration < maxIteration) {
current_iteration++;
currentMaxOptimizationScore = 0;
// 5. compute optimization scores based on the search space defined by expMinCluster,
// expMaxCluster, and range
Map<Integer, Double> triedSplitsAndScores =
computeOptimizationScores(expMinCluster, expMaxCluster, hop, optimizer);
if (triedSplitsAndScores
!= null) { // already using minimum hop, but no meaningful optimisation score can be
// computed
// within the range (TODO can this really happen?)
// what is the real hop, max score?
List<Integer> intervals = new ArrayList<>(triedSplitsAndScores.keySet());
Collections.sort(intervals);
int realHop = -1, lowerInterval = -1;
for (int i : intervals) {
if (lowerInterval != -1 && realHop == -1) realHop = Math.abs(i - lowerInterval);
lowerInterval = i;
Double score = triedSplitsAndScores.get(i);
if (!Double.isInfinite(score)
&& !Double.isNaN(score)
&& score != Double.MAX_VALUE
&& score > currentMaxOptimizationScore) currentMaxOptimizationScore = score;
}
double global_max = 0.0;
for (Double d : scores.values()) {
if (!Double.isInfinite(d) && !Double.isNaN(d) && d > global_max) global_max = d;
}
if (stop(realHop, currentMaxOptimizationScore, global_max)) break;
if (currentMaxOptimizationScore
> global_max) // found a new max score, reset iterations to try
current_iteration = 0;
int newHop = reduceHop(realHop);
hop = newHop;
} else break;
}
int bestSplit = -1;
double maxScore = 0;
for (Map.Entry<Integer, Double> entry : scores.entrySet()) {
Double score = entry.getValue();
if (!score.isNaN() && !score.isInfinite() && score > maxScore) {
maxScore = score;
bestSplit = entry.getKey();
}
}
System.out.println("[]Final Best=" + bestSplit + ", footprint:" + scores);
return bestSplit;
}
private List<String> getChildren(String znode, Watcher watcher) throws Exception {
List<String> children = null;
children = zkc.getChildren(znode, watcher);
if (!children.isEmpty()) Collections.sort(children);
return children;
}
/**
* @param updateSeq Update sequence.
* @return Checks if any of the local partitions need to be evicted.
*/
private boolean checkEvictions(long updateSeq) {
assert lock.isWriteLockedByCurrentThread();
boolean changed = false;
UUID locId = cctx.nodeId();
for (GridDhtLocalPartition part : locParts.values()) {
GridDhtPartitionState state = part.state();
if (state.active()) {
int p = part.id();
List<ClusterNode> affNodes = cctx.affinity().nodes(p, topVer);
if (!affNodes.contains(cctx.localNode())) {
Collection<UUID> nodeIds = F.nodeIds(nodes(p, topVer, OWNING));
// If all affinity nodes are owners, then evict partition from local node.
if (nodeIds.containsAll(F.nodeIds(affNodes))) {
part.rent(false);
updateLocal(part.id(), locId, part.state(), updateSeq);
changed = true;
if (log.isDebugEnabled())
log.debug("Evicted local partition (all affinity nodes are owners): " + part);
} else {
int ownerCnt = nodeIds.size();
int affCnt = affNodes.size();
if (ownerCnt > affCnt) {
List<ClusterNode> sorted = new ArrayList<>(cctx.discovery().nodes(nodeIds));
// Sort by node orders in ascending order.
Collections.sort(sorted, CU.nodeComparator(true));
int diff = sorted.size() - affCnt;
for (int i = 0; i < diff; i++) {
ClusterNode n = sorted.get(i);
if (locId.equals(n.id())) {
part.rent(false);
updateLocal(part.id(), locId, part.state(), updateSeq);
changed = true;
if (log.isDebugEnabled())
log.debug(
"Evicted local partition (this node is oldest non-affinity node): " + part);
break;
}
}
}
}
}
}
}
return changed;
}