public EventExecutorImpl() {
/** 初始化执行器线程池 */
System.out.println("init Thread Pool for " + Runtime.getRuntime().availableProcessors());
this.executorService =
Executors.newFixedThreadPool(
Runtime.getRuntime().availableProcessors(),
new EventThreadFactory(EventUtil.EventContainerName));
// this.executorService = Executors.newCachedThreadPool();
}
/**
* An abstraction for a Scheduler functionality - which can later be replaced by a light-weight
* Thread
*/
final class Timer {
private static final ScheduledThreadPoolExecutor executor =
new ScheduledThreadPoolExecutor(Math.min(Runtime.getRuntime().availableProcessors(), 2));
private Timer() {}
/** @param runFrequency implemented only for TimeUnit granularity - Seconds */
public static void schedule(Runnable runnable, Duration runFrequency, TimerType timerType) {
switch (timerType) {
case OneTimeRun:
long seconds = runFrequency.getSeconds();
if (seconds > 0) executor.schedule(runnable, seconds, TimeUnit.SECONDS);
else executor.schedule(runnable, runFrequency.toMillis(), TimeUnit.MILLISECONDS);
break;
case RepeatRun:
executor.scheduleWithFixedDelay(
runnable, runFrequency.getSeconds(), runFrequency.getSeconds(), TimeUnit.SECONDS);
break;
default:
throw new UnsupportedOperationException("Unsupported timer pattern.");
}
}
}
private ExecutorService createCustomExecutorService(int poolSize, final String method) {
int coreSize = Runtime.getRuntime().availableProcessors();
if (poolSize < coreSize) {
coreSize = poolSize;
}
ThreadFactory tf =
new ThreadFactory() {
public Thread newThread(Runnable r) {
Thread t =
new Thread(r, "thread created at ShardSqlSessionTemplate method [" + method + "]");
t.setDaemon(true);
return t;
}
};
BlockingQueue<Runnable> queueToUse = new LinkedBlockingQueue<Runnable>();
final ThreadPoolExecutor executor =
new ThreadPoolExecutor(
coreSize,
poolSize,
60,
TimeUnit.SECONDS,
queueToUse,
tf,
new ThreadPoolExecutor.CallerRunsPolicy());
return executor;
}
private ExecutorService createExecutorForSpecificDataSource(ShardDataSourceSpec dataSourceSpec) {
final String identity = dataSourceSpec.getIdentity();
final ExecutorService executor =
createCustomExecutorService(
dataSourceSpec.getPoolSize(),
"createExecutorForSpecificDataSource-" + identity + " data source");
// 1. register executor for disposing explicitly
internalExecutorServiceRegistry.add(executor);
// 2. dispose executor implicitly
Runtime.getRuntime()
.addShutdownHook(
new Thread() {
@Override
public void run() {
if (executor == null) {
return;
}
try {
executor.shutdown();
executor.awaitTermination(5, TimeUnit.MINUTES);
} catch (InterruptedException e) {
logger.warn("interrupted when shuting down the query executor:\n{}", e);
}
}
});
return executor;
}
/**
* This is called when JPM runs in the background to start jobs
*
* @throws Exception
*/
public void daemon() throws Exception {
Runtime.getRuntime()
.addShutdownHook(
new Thread("Daemon shutdown") {
public void run() {
for (Service service : startedByDaemon) {
try {
reporter.error("Stopping " + service);
service.stop();
reporter.error("Stopped " + service);
} catch (Exception e) {
// Ignore
}
}
}
});
List<ServiceData> services = getServices();
Map<String, ServiceData> map = new HashMap<String, ServiceData>();
for (ServiceData d : services) {
map.put(d.name, d);
}
List<ServiceData> start = new ArrayList<ServiceData>();
Set<ServiceData> set = new HashSet<ServiceData>();
for (ServiceData sd : services) {
checkStartup(map, start, sd, set);
}
if (start.isEmpty()) reporter.warning("No services to start");
for (ServiceData sd : start) {
try {
Service service = getService(sd.name);
reporter.trace("Starting " + service);
String result = service.start();
if (result != null) reporter.error("Started error " + result);
else startedByDaemon.add(service);
reporter.trace("Started " + service);
} catch (Exception e) {
reporter.error("Cannot start daemon %s, due to %s", sd.name, e);
}
}
while (true) {
for (Service sd : startedByDaemon) {
try {
if (!sd.isRunning()) {
reporter.error("Starting due to failure " + sd);
String result = sd.start();
if (result != null) reporter.error("Started error " + result);
}
} catch (Exception e) {
reporter.error("Cannot start daemon %s, due to %s", sd, e);
}
}
Thread.sleep(10000);
}
}
/**
* Calls garbage collector and wait.
*
* @throws Exception if any thread has interrupted the current thread while waiting.
*/
private void gc() throws Exception {
Runtime rt = Runtime.getRuntime();
long freeMem0 = rt.freeMemory();
long freeMem = Long.MAX_VALUE;
int cnt = 0;
while (freeMem0 < freeMem && cnt < GC_CALL_CNT) {
System.gc();
U.sleep(WAIT_TIME);
cnt++;
freeMem = freeMem0;
freeMem0 = rt.freeMemory();
}
}
@Test
@Ignore
public void testCHMAcquirePerf()
throws IOException, ClassNotFoundException, IllegalAccessException, InstantiationException,
InterruptedException {
for (int runs : new int[] {10, 50, 250, 1000, 2500}) {
System.out.println("Testing " + runs + " million entries");
final long entries = runs * 1000 * 1000L;
final ConcurrentMap<String, AtomicInteger> map =
new ConcurrentHashMap<String, AtomicInteger>((int) (entries * 5 / 4), 1.0f, 1024);
int procs = Runtime.getRuntime().availableProcessors();
int threads = procs * 2;
int count = runs > 500 ? runs > 1200 ? 1 : 2 : 3;
final int independence = Math.min(procs, runs > 500 ? 8 : 4);
for (int j = 0; j < count; j++) {
long start = System.currentTimeMillis();
ExecutorService es = Executors.newFixedThreadPool(procs);
for (int i = 0; i < threads; i++) {
final int t = i;
es.submit(
new Runnable() {
@Override
public void run() {
StringBuilder sb = new StringBuilder();
int next = 50 * 1000 * 1000;
// use a factor to give up to 10 digit numbers.
int factor = Math.max(1, (int) ((10 * 1000 * 1000 * 1000L - 1) / entries));
for (long i = t % independence; i < entries; i += independence) {
sb.setLength(0);
sb.append("u:");
sb.append(i * factor);
String key = sb.toString();
AtomicInteger count = map.get(key);
if (count == null) {
map.put(key, new AtomicInteger());
count = map.get(key);
}
count.getAndIncrement();
if (t == 0 && i == next) {
System.out.println(i);
next += 50 * 1000 * 1000;
}
}
}
});
}
es.shutdown();
es.awaitTermination(10, TimeUnit.MINUTES);
printStatus();
long time = System.currentTimeMillis() - start;
System.out.printf("Throughput %.1f M ops/sec%n", threads * entries / 1000.0 / time);
}
}
}
private void checkAndLaunchUpdate() {
Log.i(LOG_FILE_NAME, "Checking for an update");
int statusCode = 8; // UNEXPECTED_ERROR
File baseUpdateDir = null;
if (Build.VERSION.SDK_INT >= 8)
baseUpdateDir = getExternalFilesDir(Environment.DIRECTORY_DOWNLOADS);
else baseUpdateDir = new File(Environment.getExternalStorageDirectory().getPath(), "download");
File updateDir = new File(new File(baseUpdateDir, "updates"), "0");
File updateFile = new File(updateDir, "update.apk");
File statusFile = new File(updateDir, "update.status");
if (!statusFile.exists() || !readUpdateStatus(statusFile).equals("pending")) return;
if (!updateFile.exists()) return;
Log.i(LOG_FILE_NAME, "Update is available!");
// Launch APK
File updateFileToRun = new File(updateDir, getPackageName() + "-update.apk");
try {
if (updateFile.renameTo(updateFileToRun)) {
String amCmd =
"/system/bin/am start -a android.intent.action.VIEW "
+ "-n com.android.packageinstaller/.PackageInstallerActivity -d file://"
+ updateFileToRun.getPath();
Log.i(LOG_FILE_NAME, amCmd);
Runtime.getRuntime().exec(amCmd);
statusCode = 0; // OK
} else {
Log.i(LOG_FILE_NAME, "Cannot rename the update file!");
statusCode = 7; // WRITE_ERROR
}
} catch (Exception e) {
Log.i(LOG_FILE_NAME, "error launching installer to update", e);
}
// Update the status file
String status = statusCode == 0 ? "succeeded\n" : "failed: " + statusCode + "\n";
OutputStream outStream;
try {
byte[] buf = status.getBytes("UTF-8");
outStream = new FileOutputStream(statusFile);
outStream.write(buf, 0, buf.length);
outStream.close();
} catch (Exception e) {
Log.i(LOG_FILE_NAME, "error writing status file", e);
}
if (statusCode == 0) System.exit(0);
}
protected void die(ShellBoltException exception) {
String processInfo =
_process.getProcessInfoString() + _process.getProcessTerminationInfoString();
_exception = new RuntimeException(processInfo, exception);
LOG.error("Halting process: ShellBolt died.", _exception);
_collector.reportError(_exception);
if (_running
|| (exception.getCause()
instanceof Error)) { // don't exit if not running, unless it is an Error
Runtime.getRuntime().halt(11);
}
}
/**
* Create a pool with the specified number of threads.
*
* @param nThreads
*/
public WorkerPool(int nThreads) {
executorService = Executors.newFixedThreadPool(nThreads);
Runtime.getRuntime()
.addShutdownHook(
new Thread() {
@Override
public void run() {
shutdownAndAwaitTermination(10);
}
});
}
@Test
@Ignore
public void testAcquirePerf()
throws IOException, ClassNotFoundException, IllegalAccessException, InstantiationException,
InterruptedException {
// int runs = Integer.getInteger("runs", 10);
for (int runs : new int[] {10, 50, 250, 1000, 2500}) {
final long entries = runs * 1000 * 1000L;
final SharedHashMap<CharSequence, LongValue> map = getSharedMap(entries * 4 / 3, 1024, 24);
int procs = Runtime.getRuntime().availableProcessors();
int threads = procs * 2;
int count = runs > 500 ? runs > 1200 ? 1 : 2 : 3;
final int independence = Math.min(procs, runs > 500 ? 8 : 4);
for (int j = 0; j < count; j++) {
long start = System.currentTimeMillis();
ExecutorService es = Executors.newFixedThreadPool(procs);
for (int i = 0; i < threads; i++) {
final int t = i;
es.submit(
new Runnable() {
@Override
public void run() {
LongValue value = nativeLongValue();
StringBuilder sb = new StringBuilder();
int next = 50 * 1000 * 1000;
// use a factor to give up to 10 digit numbers.
int factor = Math.max(1, (int) ((10 * 1000 * 1000 * 1000L - 1) / entries));
for (long i = t % independence; i < entries; i += independence) {
sb.setLength(0);
sb.append("u:");
sb.append(i * factor);
map.acquireUsing(sb, value);
long n = value.addAtomicValue(1);
assert n >= 0 && n < 1000 : "Counter corrupted " + n;
if (t == 0 && i == next) {
System.out.println(i);
next += 50 * 1000 * 1000;
}
}
}
});
}
es.shutdown();
es.awaitTermination(runs / 10 + 1, TimeUnit.MINUTES);
long time = System.currentTimeMillis() - start;
System.out.printf(
"Throughput %.1f M ops/sec%n", threads * entries / independence / 1000.0 / time);
}
printStatus();
map.close();
}
}
public static boolean init() {
synchronized (cudaEngines) {
System.err.println("---------Initializing Cuda----------------");
try {
extractAndLoadNativeLibs();
JCudaDriver.setExceptionsEnabled(true);
JCudaDriver.cuInit(0);
compileKernelsPtx();
// Obtain the number of devices
int deviceCountArray[] = {0};
JCudaDriver.cuDeviceGetCount(deviceCountArray);
availableDevicesNb = deviceCountArray[0];
if (availableDevicesNb == 0) return false;
availableDevicesNb = NB_OF_DEVICE_TO_USE; // TODO
initialization = Executors.newCachedThreadPool();
System.out.println("Found " + availableDevicesNb + " GPU devices");
for (int i = 0 /*-NB_OF_DEVICE_TO_USE*/; i < availableDevicesNb; i++) {
final int index = i;
Future<?> initJob =
initialization.submit(
new Runnable() {
public void run() {
System.err.println("Initializing device n°" + index);
cudaEngines.put(index, new CudaEngine(index));
}
});
initJob.get();
initialization.shutdown();
}
} catch (InterruptedException
| ExecutionException
| IOException
| CudaException
| UnsatisfiedLinkError e) {
e.printStackTrace();
System.err.println("---------Cannot initialize Cuda !!! ----------------");
return false;
}
Runtime.getRuntime()
.addShutdownHook(
new Thread() {
@Override
public void run() {
CudaEngine.stop();
}
});
System.out.println("---------Cuda Initialized----------------");
return true;
}
}
private static void build(Iterable<String> in) throws IOException, InterruptedException {
final List<String> args = newArrayList(in);
Collections.sort(args);
final int threads = Runtime.getRuntime().availableProcessors();
final ExecutorService ex = Executors.newFixedThreadPool(threads);
final String base = "base";
new WithVm("base").createIfNotPresent();
for (String pkg : args)
ex.submit(
() -> {
final WithVm newVm = new WithVm("fbuild-" + pkg, TimeUnit.MINUTES.toMillis(30));
final File rbuild = new File("wip-" + pkg + ".rbuild");
try {
newVm.cloneFrom(base);
newVm.start();
newVm.inTee(rbuild, "apt-get", "-oAPT::Get::Only-Source=true", "source", pkg);
newVm.inTee(rbuild, "apt-get", "build-dep", "-y", "--force-yes", pkg);
newVm.inTee(rbuild, "ifdown", "eth0");
final boolean success =
0
== newVm.inTee(
rbuild, "sh", "-c", "cd " + pkg + "-* && dpkg-buildpackage -us -uc");
newVm.stopNow();
if (success) {
rbuild.renameTo(new File("success-" + pkg + ".rbuild"));
newVm.destroy();
System.out.println("success: " + pkg);
} else {
rbuild.renameTo(new File("failure-" + pkg + ".rbuild"));
System.out.println("failure: " + pkg);
}
} catch (Exception e) {
rbuild.renameTo(new File("error-" + pkg + ".rbuild"));
System.err.println("build error: " + pkg);
e.printStackTrace();
newVm.stopNow();
}
return null;
});
ex.shutdown();
ex.awaitTermination(Long.MAX_VALUE, TimeUnit.MILLISECONDS);
}
public static void main(final String[] args) throws Exception {
final int length = (1 << 14);
final ICircularLongsBuffer buffer = new UnsafeCircularLongsBuffer(length);
final File file = new File("output.log");
log.info("File " + file);
file.delete();
// file.deleteOnExit();
final FastLoggerImpl logger =
new FastLoggerImpl(
new ThreadFactory() {
@Override
public Thread newThread(final Runnable r) {
return new Thread(r);
}
},
buffer,
WaitingStrategy.SPINNING,
new RawFileWriter(file));
logger.startDraining();
final int workers = Runtime.getRuntime().availableProcessors() - 1;
final ExecutorService workersPool = Executors.newFixedThreadPool(workers);
for (int i = 0; i < workers; i++) {
workersPool.submit(
new Runnable() {
@Override
public void run() {
try {
for (int i = 0; i < 100000000; i++) {
logger.log("Message %f -- %d ").with(25.98 + i).with(100 - i).submit();
}
} catch (Exception e) {
log.error("Error", e);
}
}
});
}
workersPool.shutdown();
workersPool.awaitTermination(1000, TimeUnit.SECONDS);
log.info("Finished");
System.exit(1);
}
/**
* Create a pool with the specified number of threads.
*
* @param nThreads
*/
public WorkerPool(int nThreads) {
LOGGER.debug("initializing worker pool with %d threads", nThreads);
executorService =
LOGGER.isDebugEnabled()
? new MetricReportingExecutorService(LOGGER, nThreads)
: Executors.newFixedThreadPool(nThreads);
Runtime.getRuntime()
.addShutdownHook(
new Thread() {
@Override
public void run() {
shutdownAndAwaitTermination(10);
}
});
}
final class CarRace implements Runnable {
private final Logger log = LogManager.getLogger(this.getClass().getName());
private final int numberOfCars = Runtime.getRuntime().availableProcessors();
private final BlockingQueue<Car> fleet;
private final int trackLength;
private final ExecutorService pool;
private final Random random;
private CyclicBarrier barrier;
public CarRace() {
fleet = new LinkedBlockingQueue<Car>(numberOfCars);
trackLength = 20000;
pool = Executors.newFixedThreadPool(numberOfCars);
random = new Random();
}
public int getTrackLength() {
return this.trackLength;
}
public CyclicBarrier getBarrier() {
return this.barrier;
}
public BlockingQueue<Car> getFleet() {
return this.fleet;
}
public void start() throws InterruptedException {
barrier = new CyclicBarrier(numberOfCars, this);
for (int i = 0; i < numberOfCars; i++) {
pool.execute(new Car("Car" + i, 100 + random.nextInt(100), this));
}
pool.awaitTermination(300, TimeUnit.MILLISECONDS);
}
public void report() {
this.log.info("fleet: " + Ordering.natural().immutableSortedCopy(fleet));
}
@Override
public void run() {
report();
}
}
public DLDFSolver(
int[] s, int[] learning_startfactors, boolean singleThreaded, boolean useBacktracking) {
log_info("Heuristic weights: %s", Arrays.deepToString(choicefactors));
log_info("Reported number of processors: %d", Runtime.getRuntime().availableProcessors());
nThreads = (singleThreaded || THREAD_COUNT == 1) ? 1 : THREAD_COUNT;
log_info("No. of threads to be used: %d\n", nThreads);
this.useBacktracking = useBacktracking;
log_info("Use backtracking?: %s", useBacktracking ? "Yes" : "No");
this.tileSequence = new int[s.length];
System.arraycopy(s, 0, this.tileSequence, 0, s.length);
if (learning_startfactors != null) {
if (learning_startfactors.length != learning_starts.length) {
throw new IllegalArgumentException("Invalid learning factor size");
}
System.arraycopy(learning_startfactors, 0, learning_starts, 0, learning_starts.length);
}
}
/**
* Checks if address can be reached using one argument InetAddress.isReachable() version or ping
* command if failed.
*
* @param addr Address to check.
* @param reachTimeout Timeout for the check.
* @return {@code True} if address is reachable.
*/
public static boolean reachableByPing(InetAddress addr, int reachTimeout) {
try {
if (addr.isReachable(reachTimeout)) return true;
String cmd = String.format("ping -%s 1 %s", U.isWindows() ? "n" : "c", addr.getHostAddress());
Process myProc = Runtime.getRuntime().exec(cmd);
myProc.waitFor();
return myProc.exitValue() == 0;
} catch (IOException ignore) {
return false;
} catch (InterruptedException ignored) {
Thread.currentThread().interrupt();
return false;
}
}
static {
int nt = Runtime.getRuntime().availableProcessors();
nt = nt <= 1 ? 1 : nt > 4 ? 4 : nt;
THREAD_COUNT = nt;
}
/**
* A FullPrunedBlockChain works in conjunction with a {@link FullPrunedBlockStore} to verify all the
* rules of the Bitcoin system, with the downside being a larg cost in system resources. Fully
* verifying means all unspent transaction outputs are stored. Once a transaction output is spent
* and that spend is buried deep enough, the data related to it is deleted to ensure disk space
* usage doesn't grow forever. For this reason a pruning node cannot serve the full block chain to
* other clients, but it nevertheless provides the same security guarantees as a regular Satoshi
* client does.
*/
public class FullPrunedBlockChain extends AbstractBlockChain {
private static final Logger log = LoggerFactory.getLogger(FullPrunedBlockChain.class);
/** Keeps a map of block hashes to StoredBlocks. */
protected final FullPrunedBlockStore blockStore;
// Whether or not to execute scriptPubKeys before accepting a transaction (i.e. check signatures).
private boolean runScripts = true;
/**
* Constructs a BlockChain connected to the given wallet and store. To obtain a {@link Wallet} you
* can construct one from scratch, or you can deserialize a saved wallet from disk using {@link
* Wallet#loadFromFile(java.io.File)}
*/
public FullPrunedBlockChain(
NetworkParameters params, Wallet wallet, FullPrunedBlockStore blockStore)
throws BlockStoreException {
this(params, new ArrayList<BlockChainListener>(), blockStore);
if (wallet != null) addWallet(wallet);
}
/**
* Constructs a BlockChain that has no wallet at all. This is helpful when you don't actually care
* about sending and receiving coins but rather, just want to explore the network data structures.
*/
public FullPrunedBlockChain(NetworkParameters params, FullPrunedBlockStore blockStore)
throws BlockStoreException {
this(params, new ArrayList<BlockChainListener>(), blockStore);
}
/** Constructs a BlockChain connected to the given list of wallets and a store. */
public FullPrunedBlockChain(
NetworkParameters params, List<BlockChainListener> listeners, FullPrunedBlockStore blockStore)
throws BlockStoreException {
super(params, listeners, blockStore);
this.blockStore = blockStore;
// Ignore upgrading for now
this.chainHead = blockStore.getVerifiedChainHead();
}
@Override
protected StoredBlock addToBlockStore(
StoredBlock storedPrev, Block header, TransactionOutputChanges txOutChanges)
throws BlockStoreException, VerificationException {
StoredBlock newBlock = storedPrev.build(header);
blockStore.put(newBlock, new StoredUndoableBlock(newBlock.getHeader().getHash(), txOutChanges));
return newBlock;
}
@Override
protected StoredBlock addToBlockStore(StoredBlock storedPrev, Block block)
throws BlockStoreException, VerificationException {
StoredBlock newBlock = storedPrev.build(block);
blockStore.put(
newBlock, new StoredUndoableBlock(newBlock.getHeader().getHash(), block.transactions));
return newBlock;
}
@Override
protected void rollbackBlockStore(int height) throws BlockStoreException {
throw new BlockStoreException("Unsupported");
}
@Override
protected boolean shouldVerifyTransactions() {
return true;
}
/**
* Whether or not to run scripts whilst accepting blocks (i.e. checking signatures, for most
* transactions). If you're accepting data from an untrusted node, such as one found via the P2P
* network, this should be set to true (which is the default). If you're downloading a chain from
* a node you control, script execution is redundant because you know the connected node won't
* relay bad data to you. In that case it's safe to set this to false and obtain a significant
* speedup.
*/
public void setRunScripts(boolean value) {
this.runScripts = value;
}
// TODO: Remove lots of duplicated code in the two connectTransactions
// TODO: execute in order of largest transaction (by input count) first
ExecutorService scriptVerificationExecutor =
Executors.newFixedThreadPool(Runtime.getRuntime().availableProcessors());
/** A job submitted to the executor which verifies signatures. */
private static class Verifier implements Callable<VerificationException> {
final Transaction tx;
final List<Script> prevOutScripts;
final boolean enforcePayToScriptHash;
public Verifier(
final Transaction tx,
final List<Script> prevOutScripts,
final boolean enforcePayToScriptHash) {
this.tx = tx;
this.prevOutScripts = prevOutScripts;
this.enforcePayToScriptHash = enforcePayToScriptHash;
}
@Nullable
@Override
public VerificationException call() throws Exception {
try {
ListIterator<Script> prevOutIt = prevOutScripts.listIterator();
for (int index = 0; index < tx.getInputs().size(); index++) {
tx.getInputs()
.get(index)
.getScriptSig()
.correctlySpends(tx, index, prevOutIt.next(), enforcePayToScriptHash);
}
} catch (VerificationException e) {
return e;
}
return null;
}
}
@Override
protected TransactionOutputChanges connectTransactions(int height, Block block)
throws VerificationException, BlockStoreException {
checkState(lock.isHeldByCurrentThread());
if (block.transactions == null)
throw new RuntimeException(
"connectTransactions called with Block that didn't have transactions!");
if (!params.passesCheckpoint(height, block.getHash()))
throw new VerificationException("Block failed checkpoint lockin at " + height);
blockStore.beginDatabaseBatchWrite();
LinkedList<StoredTransactionOutput> txOutsSpent = new LinkedList<StoredTransactionOutput>();
LinkedList<StoredTransactionOutput> txOutsCreated = new LinkedList<StoredTransactionOutput>();
long sigOps = 0;
final boolean enforcePayToScriptHash =
block.getTimeSeconds() >= NetworkParameters.BIP16_ENFORCE_TIME;
if (scriptVerificationExecutor.isShutdown())
scriptVerificationExecutor =
Executors.newFixedThreadPool(Runtime.getRuntime().availableProcessors());
List<Future<VerificationException>> listScriptVerificationResults =
new ArrayList<Future<VerificationException>>(block.transactions.size());
try {
if (!params.isCheckpoint(height)) {
// BIP30 violator blocks are ones that contain a duplicated transaction. They are all in the
// checkpoints list and we therefore only check non-checkpoints for duplicated transactions
// here. See the
// BIP30 document for more details on this:
// https://github.com/bitcoin/bips/blob/master/bip-0030.mediawiki
for (Transaction tx : block.transactions) {
Sha256Hash hash = tx.getHash();
// If we already have unspent outputs for this hash, we saw the tx already. Either the
// block is
// being added twice (bug) or the block is a BIP30 violator.
if (blockStore.hasUnspentOutputs(hash, tx.getOutputs().size()))
throw new VerificationException("Block failed BIP30 test!");
if (enforcePayToScriptHash) // We already check non-BIP16 sigops in
// Block.verifyTransactions(true)
sigOps += tx.getSigOpCount();
}
}
Coin totalFees = Coin.ZERO;
Coin coinbaseValue = null;
for (final Transaction tx : block.transactions) {
boolean isCoinBase = tx.isCoinBase();
Coin valueIn = Coin.ZERO;
Coin valueOut = Coin.ZERO;
final List<Script> prevOutScripts = new LinkedList<Script>();
if (!isCoinBase) {
// For each input of the transaction remove the corresponding output from the set of
// unspent
// outputs.
for (int index = 0; index < tx.getInputs().size(); index++) {
TransactionInput in = tx.getInputs().get(index);
StoredTransactionOutput prevOut =
blockStore.getTransactionOutput(
in.getOutpoint().getHash(), in.getOutpoint().getIndex());
if (prevOut == null)
throw new VerificationException(
"Attempted to spend a non-existent or already spent output!");
// Coinbases can't be spent until they mature, to avoid re-orgs destroying entire
// transaction
// chains. The assumption is there will ~never be re-orgs deeper than the spendable
// coinbase
// chain depth.
if (height - prevOut.getHeight() < params.getSpendableCoinbaseDepth())
throw new VerificationException(
"Tried to spend coinbase at depth " + (height - prevOut.getHeight()));
// TODO: Check we're not spending the genesis transaction here. Satoshis code won't
// allow it.
valueIn = valueIn.add(prevOut.getValue());
if (enforcePayToScriptHash) {
if (new Script(prevOut.getScriptBytes()).isPayToScriptHash())
sigOps += Script.getP2SHSigOpCount(in.getScriptBytes());
if (sigOps > Block.MAX_BLOCK_SIGOPS)
throw new VerificationException("Too many P2SH SigOps in block");
}
prevOutScripts.add(new Script(prevOut.getScriptBytes()));
// in.getScriptSig().correctlySpends(tx, index, new Script(params,
// prevOut.getScriptBytes(), 0, prevOut.getScriptBytes().length));
blockStore.removeUnspentTransactionOutput(prevOut);
txOutsSpent.add(prevOut);
}
}
Sha256Hash hash = tx.getHash();
for (TransactionOutput out : tx.getOutputs()) {
valueOut = valueOut.add(out.getValue());
// For each output, add it to the set of unspent outputs so it can be consumed in future.
StoredTransactionOutput newOut =
new StoredTransactionOutput(
hash, out.getIndex(), out.getValue(), height, isCoinBase, out.getScriptBytes());
blockStore.addUnspentTransactionOutput(newOut);
txOutsCreated.add(newOut);
}
// All values were already checked for being non-negative (as it is verified in
// Transaction.verify())
// but we check again here just for defence in depth. Transactions with zero output value
// are OK.
if (valueOut.signum() < 0 || valueOut.compareTo(NetworkParameters.MAX_MONEY) > 0)
throw new VerificationException("Transaction output value out of range");
if (isCoinBase) {
coinbaseValue = valueOut;
} else {
if (valueIn.compareTo(valueOut) < 0 || valueIn.compareTo(NetworkParameters.MAX_MONEY) > 0)
throw new VerificationException("Transaction input value out of range");
totalFees = totalFees.add(valueIn.subtract(valueOut));
}
if (!isCoinBase && runScripts) {
// Because correctlySpends modifies transactions, this must come after we are done with tx
FutureTask<VerificationException> future =
new FutureTask<VerificationException>(
new Verifier(tx, prevOutScripts, enforcePayToScriptHash));
scriptVerificationExecutor.execute(future);
listScriptVerificationResults.add(future);
}
}
if (totalFees.compareTo(NetworkParameters.MAX_MONEY) > 0
|| block.getBlockInflation(height).add(totalFees).compareTo(coinbaseValue) < 0)
throw new VerificationException("Transaction fees out of range");
for (Future<VerificationException> future : listScriptVerificationResults) {
VerificationException e;
try {
e = future.get();
} catch (InterruptedException thrownE) {
throw new RuntimeException(thrownE); // Shouldn't happen
} catch (ExecutionException thrownE) {
log.error("Script.correctlySpends threw a non-normal exception: " + thrownE.getCause());
throw new VerificationException(
"Bug in Script.correctlySpends, likely script malformed in some new and interesting way.",
thrownE);
}
if (e != null) throw e;
}
} catch (VerificationException e) {
scriptVerificationExecutor.shutdownNow();
blockStore.abortDatabaseBatchWrite();
throw e;
} catch (BlockStoreException e) {
scriptVerificationExecutor.shutdownNow();
blockStore.abortDatabaseBatchWrite();
throw e;
}
return new TransactionOutputChanges(txOutsCreated, txOutsSpent);
}
@Override
/** Used during reorgs to connect a block previously on a fork */
protected synchronized TransactionOutputChanges connectTransactions(StoredBlock newBlock)
throws VerificationException, BlockStoreException, PrunedException {
checkState(lock.isHeldByCurrentThread());
if (!params.passesCheckpoint(newBlock.getHeight(), newBlock.getHeader().getHash()))
throw new VerificationException("Block failed checkpoint lockin at " + newBlock.getHeight());
blockStore.beginDatabaseBatchWrite();
StoredUndoableBlock block = blockStore.getUndoBlock(newBlock.getHeader().getHash());
if (block == null) {
// We're trying to re-org too deep and the data needed has been deleted.
blockStore.abortDatabaseBatchWrite();
throw new PrunedException(newBlock.getHeader().getHash());
}
TransactionOutputChanges txOutChanges;
try {
List<Transaction> transactions = block.getTransactions();
if (transactions != null) {
LinkedList<StoredTransactionOutput> txOutsSpent = new LinkedList<StoredTransactionOutput>();
LinkedList<StoredTransactionOutput> txOutsCreated =
new LinkedList<StoredTransactionOutput>();
long sigOps = 0;
final boolean enforcePayToScriptHash =
newBlock.getHeader().getTimeSeconds() >= NetworkParameters.BIP16_ENFORCE_TIME;
if (!params.isCheckpoint(newBlock.getHeight())) {
for (Transaction tx : transactions) {
Sha256Hash hash = tx.getHash();
if (blockStore.hasUnspentOutputs(hash, tx.getOutputs().size()))
throw new VerificationException("Block failed BIP30 test!");
}
}
Coin totalFees = Coin.ZERO;
Coin coinbaseValue = null;
if (scriptVerificationExecutor.isShutdown())
scriptVerificationExecutor =
Executors.newFixedThreadPool(Runtime.getRuntime().availableProcessors());
List<Future<VerificationException>> listScriptVerificationResults =
new ArrayList<Future<VerificationException>>(transactions.size());
for (final Transaction tx : transactions) {
boolean isCoinBase = tx.isCoinBase();
Coin valueIn = Coin.ZERO;
Coin valueOut = Coin.ZERO;
final List<Script> prevOutScripts = new LinkedList<Script>();
if (!isCoinBase) {
for (int index = 0; index < tx.getInputs().size(); index++) {
final TransactionInput in = tx.getInputs().get(index);
final StoredTransactionOutput prevOut =
blockStore.getTransactionOutput(
in.getOutpoint().getHash(), in.getOutpoint().getIndex());
if (prevOut == null)
throw new VerificationException(
"Attempted spend of a non-existent or already spent output!");
if (newBlock.getHeight() - prevOut.getHeight() < params.getSpendableCoinbaseDepth())
throw new VerificationException(
"Tried to spend coinbase at depth "
+ (newBlock.getHeight() - prevOut.getHeight()));
valueIn = valueIn.add(prevOut.getValue());
if (enforcePayToScriptHash) {
Script script = new Script(prevOut.getScriptBytes());
if (script.isPayToScriptHash())
sigOps += Script.getP2SHSigOpCount(in.getScriptBytes());
if (sigOps > Block.MAX_BLOCK_SIGOPS)
throw new VerificationException("Too many P2SH SigOps in block");
}
prevOutScripts.add(new Script(prevOut.getScriptBytes()));
blockStore.removeUnspentTransactionOutput(prevOut);
txOutsSpent.add(prevOut);
}
}
Sha256Hash hash = tx.getHash();
for (TransactionOutput out : tx.getOutputs()) {
valueOut = valueOut.add(out.getValue());
StoredTransactionOutput newOut =
new StoredTransactionOutput(
hash,
out.getIndex(),
out.getValue(),
newBlock.getHeight(),
isCoinBase,
out.getScriptBytes());
blockStore.addUnspentTransactionOutput(newOut);
txOutsCreated.add(newOut);
}
// All values were already checked for being non-negative (as it is verified in
// Transaction.verify())
// but we check again here just for defence in depth. Transactions with zero output value
// are OK.
if (valueOut.signum() < 0 || valueOut.compareTo(NetworkParameters.MAX_MONEY) > 0)
throw new VerificationException("Transaction output value out of range");
if (isCoinBase) {
coinbaseValue = valueOut;
} else {
if (valueIn.compareTo(valueOut) < 0
|| valueIn.compareTo(NetworkParameters.MAX_MONEY) > 0)
throw new VerificationException("Transaction input value out of range");
totalFees = totalFees.add(valueIn.subtract(valueOut));
}
if (!isCoinBase) {
// Because correctlySpends modifies transactions, this must come after we are done with
// tx
FutureTask<VerificationException> future =
new FutureTask<VerificationException>(
new Verifier(tx, prevOutScripts, enforcePayToScriptHash));
scriptVerificationExecutor.execute(future);
listScriptVerificationResults.add(future);
}
}
if (totalFees.compareTo(NetworkParameters.MAX_MONEY) > 0
|| newBlock
.getHeader()
.getBlockInflation(newBlock.getHeight())
.add(totalFees)
.compareTo(coinbaseValue)
< 0) throw new VerificationException("Transaction fees out of range");
txOutChanges = new TransactionOutputChanges(txOutsCreated, txOutsSpent);
for (Future<VerificationException> future : listScriptVerificationResults) {
VerificationException e;
try {
e = future.get();
} catch (InterruptedException thrownE) {
throw new RuntimeException(thrownE); // Shouldn't happen
} catch (ExecutionException thrownE) {
log.error("Script.correctlySpends threw a non-normal exception: " + thrownE.getCause());
throw new VerificationException(
"Bug in Script.correctlySpends, likely script malformed in some new and interesting way.",
thrownE);
}
if (e != null) throw e;
}
} else {
txOutChanges = block.getTxOutChanges();
if (!params.isCheckpoint(newBlock.getHeight()))
for (StoredTransactionOutput out : txOutChanges.txOutsCreated) {
Sha256Hash hash = out.getHash();
if (blockStore.getTransactionOutput(hash, out.getIndex()) != null)
throw new VerificationException("Block failed BIP30 test!");
}
for (StoredTransactionOutput out : txOutChanges.txOutsCreated)
blockStore.addUnspentTransactionOutput(out);
for (StoredTransactionOutput out : txOutChanges.txOutsSpent)
blockStore.removeUnspentTransactionOutput(out);
}
} catch (VerificationException e) {
scriptVerificationExecutor.shutdownNow();
blockStore.abortDatabaseBatchWrite();
throw e;
} catch (BlockStoreException e) {
scriptVerificationExecutor.shutdownNow();
blockStore.abortDatabaseBatchWrite();
throw e;
}
return txOutChanges;
}
/**
* This is broken for blocks that do not pass BIP30, so all BIP30-failing blocks which are allowed
* to fail BIP30 must be checkpointed.
*/
@Override
protected void disconnectTransactions(StoredBlock oldBlock)
throws PrunedException, BlockStoreException {
checkState(lock.isHeldByCurrentThread());
blockStore.beginDatabaseBatchWrite();
try {
StoredUndoableBlock undoBlock = blockStore.getUndoBlock(oldBlock.getHeader().getHash());
if (undoBlock == null) throw new PrunedException(oldBlock.getHeader().getHash());
TransactionOutputChanges txOutChanges = undoBlock.getTxOutChanges();
for (StoredTransactionOutput out : txOutChanges.txOutsSpent)
blockStore.addUnspentTransactionOutput(out);
for (StoredTransactionOutput out : txOutChanges.txOutsCreated)
blockStore.removeUnspentTransactionOutput(out);
} catch (PrunedException e) {
blockStore.abortDatabaseBatchWrite();
throw e;
} catch (BlockStoreException e) {
blockStore.abortDatabaseBatchWrite();
throw e;
}
}
@Override
protected void doSetChainHead(StoredBlock chainHead) throws BlockStoreException {
checkState(lock.isHeldByCurrentThread());
blockStore.setVerifiedChainHead(chainHead);
blockStore.commitDatabaseBatchWrite();
}
@Override
protected void notSettingChainHead() throws BlockStoreException {
blockStore.abortDatabaseBatchWrite();
}
@Override
protected StoredBlock getStoredBlockInCurrentScope(Sha256Hash hash) throws BlockStoreException {
checkState(lock.isHeldByCurrentThread());
return blockStore.getOnceUndoableStoredBlock(hash);
}
}
@Override
/** Used during reorgs to connect a block previously on a fork */
protected synchronized TransactionOutputChanges connectTransactions(StoredBlock newBlock)
throws VerificationException, BlockStoreException, PrunedException {
checkState(lock.isHeldByCurrentThread());
if (!params.passesCheckpoint(newBlock.getHeight(), newBlock.getHeader().getHash()))
throw new VerificationException("Block failed checkpoint lockin at " + newBlock.getHeight());
blockStore.beginDatabaseBatchWrite();
StoredUndoableBlock block = blockStore.getUndoBlock(newBlock.getHeader().getHash());
if (block == null) {
// We're trying to re-org too deep and the data needed has been deleted.
blockStore.abortDatabaseBatchWrite();
throw new PrunedException(newBlock.getHeader().getHash());
}
TransactionOutputChanges txOutChanges;
try {
List<Transaction> transactions = block.getTransactions();
if (transactions != null) {
LinkedList<StoredTransactionOutput> txOutsSpent = new LinkedList<StoredTransactionOutput>();
LinkedList<StoredTransactionOutput> txOutsCreated =
new LinkedList<StoredTransactionOutput>();
long sigOps = 0;
final boolean enforcePayToScriptHash =
newBlock.getHeader().getTimeSeconds() >= NetworkParameters.BIP16_ENFORCE_TIME;
if (!params.isCheckpoint(newBlock.getHeight())) {
for (Transaction tx : transactions) {
Sha256Hash hash = tx.getHash();
if (blockStore.hasUnspentOutputs(hash, tx.getOutputs().size()))
throw new VerificationException("Block failed BIP30 test!");
}
}
Coin totalFees = Coin.ZERO;
Coin coinbaseValue = null;
if (scriptVerificationExecutor.isShutdown())
scriptVerificationExecutor =
Executors.newFixedThreadPool(Runtime.getRuntime().availableProcessors());
List<Future<VerificationException>> listScriptVerificationResults =
new ArrayList<Future<VerificationException>>(transactions.size());
for (final Transaction tx : transactions) {
boolean isCoinBase = tx.isCoinBase();
Coin valueIn = Coin.ZERO;
Coin valueOut = Coin.ZERO;
final List<Script> prevOutScripts = new LinkedList<Script>();
if (!isCoinBase) {
for (int index = 0; index < tx.getInputs().size(); index++) {
final TransactionInput in = tx.getInputs().get(index);
final StoredTransactionOutput prevOut =
blockStore.getTransactionOutput(
in.getOutpoint().getHash(), in.getOutpoint().getIndex());
if (prevOut == null)
throw new VerificationException(
"Attempted spend of a non-existent or already spent output!");
if (newBlock.getHeight() - prevOut.getHeight() < params.getSpendableCoinbaseDepth())
throw new VerificationException(
"Tried to spend coinbase at depth "
+ (newBlock.getHeight() - prevOut.getHeight()));
valueIn = valueIn.add(prevOut.getValue());
if (enforcePayToScriptHash) {
Script script = new Script(prevOut.getScriptBytes());
if (script.isPayToScriptHash())
sigOps += Script.getP2SHSigOpCount(in.getScriptBytes());
if (sigOps > Block.MAX_BLOCK_SIGOPS)
throw new VerificationException("Too many P2SH SigOps in block");
}
prevOutScripts.add(new Script(prevOut.getScriptBytes()));
blockStore.removeUnspentTransactionOutput(prevOut);
txOutsSpent.add(prevOut);
}
}
Sha256Hash hash = tx.getHash();
for (TransactionOutput out : tx.getOutputs()) {
valueOut = valueOut.add(out.getValue());
StoredTransactionOutput newOut =
new StoredTransactionOutput(
hash,
out.getIndex(),
out.getValue(),
newBlock.getHeight(),
isCoinBase,
out.getScriptBytes());
blockStore.addUnspentTransactionOutput(newOut);
txOutsCreated.add(newOut);
}
// All values were already checked for being non-negative (as it is verified in
// Transaction.verify())
// but we check again here just for defence in depth. Transactions with zero output value
// are OK.
if (valueOut.signum() < 0 || valueOut.compareTo(NetworkParameters.MAX_MONEY) > 0)
throw new VerificationException("Transaction output value out of range");
if (isCoinBase) {
coinbaseValue = valueOut;
} else {
if (valueIn.compareTo(valueOut) < 0
|| valueIn.compareTo(NetworkParameters.MAX_MONEY) > 0)
throw new VerificationException("Transaction input value out of range");
totalFees = totalFees.add(valueIn.subtract(valueOut));
}
if (!isCoinBase) {
// Because correctlySpends modifies transactions, this must come after we are done with
// tx
FutureTask<VerificationException> future =
new FutureTask<VerificationException>(
new Verifier(tx, prevOutScripts, enforcePayToScriptHash));
scriptVerificationExecutor.execute(future);
listScriptVerificationResults.add(future);
}
}
if (totalFees.compareTo(NetworkParameters.MAX_MONEY) > 0
|| newBlock
.getHeader()
.getBlockInflation(newBlock.getHeight())
.add(totalFees)
.compareTo(coinbaseValue)
< 0) throw new VerificationException("Transaction fees out of range");
txOutChanges = new TransactionOutputChanges(txOutsCreated, txOutsSpent);
for (Future<VerificationException> future : listScriptVerificationResults) {
VerificationException e;
try {
e = future.get();
} catch (InterruptedException thrownE) {
throw new RuntimeException(thrownE); // Shouldn't happen
} catch (ExecutionException thrownE) {
log.error("Script.correctlySpends threw a non-normal exception: " + thrownE.getCause());
throw new VerificationException(
"Bug in Script.correctlySpends, likely script malformed in some new and interesting way.",
thrownE);
}
if (e != null) throw e;
}
} else {
txOutChanges = block.getTxOutChanges();
if (!params.isCheckpoint(newBlock.getHeight()))
for (StoredTransactionOutput out : txOutChanges.txOutsCreated) {
Sha256Hash hash = out.getHash();
if (blockStore.getTransactionOutput(hash, out.getIndex()) != null)
throw new VerificationException("Block failed BIP30 test!");
}
for (StoredTransactionOutput out : txOutChanges.txOutsCreated)
blockStore.addUnspentTransactionOutput(out);
for (StoredTransactionOutput out : txOutChanges.txOutsSpent)
blockStore.removeUnspentTransactionOutput(out);
}
} catch (VerificationException e) {
scriptVerificationExecutor.shutdownNow();
blockStore.abortDatabaseBatchWrite();
throw e;
} catch (BlockStoreException e) {
scriptVerificationExecutor.shutdownNow();
blockStore.abortDatabaseBatchWrite();
throw e;
}
return txOutChanges;
}
@Override
protected TransactionOutputChanges connectTransactions(int height, Block block)
throws VerificationException, BlockStoreException {
checkState(lock.isHeldByCurrentThread());
if (block.transactions == null)
throw new RuntimeException(
"connectTransactions called with Block that didn't have transactions!");
if (!params.passesCheckpoint(height, block.getHash()))
throw new VerificationException("Block failed checkpoint lockin at " + height);
blockStore.beginDatabaseBatchWrite();
LinkedList<StoredTransactionOutput> txOutsSpent = new LinkedList<StoredTransactionOutput>();
LinkedList<StoredTransactionOutput> txOutsCreated = new LinkedList<StoredTransactionOutput>();
long sigOps = 0;
final boolean enforcePayToScriptHash =
block.getTimeSeconds() >= NetworkParameters.BIP16_ENFORCE_TIME;
if (scriptVerificationExecutor.isShutdown())
scriptVerificationExecutor =
Executors.newFixedThreadPool(Runtime.getRuntime().availableProcessors());
List<Future<VerificationException>> listScriptVerificationResults =
new ArrayList<Future<VerificationException>>(block.transactions.size());
try {
if (!params.isCheckpoint(height)) {
// BIP30 violator blocks are ones that contain a duplicated transaction. They are all in the
// checkpoints list and we therefore only check non-checkpoints for duplicated transactions
// here. See the
// BIP30 document for more details on this:
// https://github.com/bitcoin/bips/blob/master/bip-0030.mediawiki
for (Transaction tx : block.transactions) {
Sha256Hash hash = tx.getHash();
// If we already have unspent outputs for this hash, we saw the tx already. Either the
// block is
// being added twice (bug) or the block is a BIP30 violator.
if (blockStore.hasUnspentOutputs(hash, tx.getOutputs().size()))
throw new VerificationException("Block failed BIP30 test!");
if (enforcePayToScriptHash) // We already check non-BIP16 sigops in
// Block.verifyTransactions(true)
sigOps += tx.getSigOpCount();
}
}
Coin totalFees = Coin.ZERO;
Coin coinbaseValue = null;
for (final Transaction tx : block.transactions) {
boolean isCoinBase = tx.isCoinBase();
Coin valueIn = Coin.ZERO;
Coin valueOut = Coin.ZERO;
final List<Script> prevOutScripts = new LinkedList<Script>();
if (!isCoinBase) {
// For each input of the transaction remove the corresponding output from the set of
// unspent
// outputs.
for (int index = 0; index < tx.getInputs().size(); index++) {
TransactionInput in = tx.getInputs().get(index);
StoredTransactionOutput prevOut =
blockStore.getTransactionOutput(
in.getOutpoint().getHash(), in.getOutpoint().getIndex());
if (prevOut == null)
throw new VerificationException(
"Attempted to spend a non-existent or already spent output!");
// Coinbases can't be spent until they mature, to avoid re-orgs destroying entire
// transaction
// chains. The assumption is there will ~never be re-orgs deeper than the spendable
// coinbase
// chain depth.
if (height - prevOut.getHeight() < params.getSpendableCoinbaseDepth())
throw new VerificationException(
"Tried to spend coinbase at depth " + (height - prevOut.getHeight()));
// TODO: Check we're not spending the genesis transaction here. Satoshis code won't
// allow it.
valueIn = valueIn.add(prevOut.getValue());
if (enforcePayToScriptHash) {
if (new Script(prevOut.getScriptBytes()).isPayToScriptHash())
sigOps += Script.getP2SHSigOpCount(in.getScriptBytes());
if (sigOps > Block.MAX_BLOCK_SIGOPS)
throw new VerificationException("Too many P2SH SigOps in block");
}
prevOutScripts.add(new Script(prevOut.getScriptBytes()));
// in.getScriptSig().correctlySpends(tx, index, new Script(params,
// prevOut.getScriptBytes(), 0, prevOut.getScriptBytes().length));
blockStore.removeUnspentTransactionOutput(prevOut);
txOutsSpent.add(prevOut);
}
}
Sha256Hash hash = tx.getHash();
for (TransactionOutput out : tx.getOutputs()) {
valueOut = valueOut.add(out.getValue());
// For each output, add it to the set of unspent outputs so it can be consumed in future.
StoredTransactionOutput newOut =
new StoredTransactionOutput(
hash, out.getIndex(), out.getValue(), height, isCoinBase, out.getScriptBytes());
blockStore.addUnspentTransactionOutput(newOut);
txOutsCreated.add(newOut);
}
// All values were already checked for being non-negative (as it is verified in
// Transaction.verify())
// but we check again here just for defence in depth. Transactions with zero output value
// are OK.
if (valueOut.signum() < 0 || valueOut.compareTo(NetworkParameters.MAX_MONEY) > 0)
throw new VerificationException("Transaction output value out of range");
if (isCoinBase) {
coinbaseValue = valueOut;
} else {
if (valueIn.compareTo(valueOut) < 0 || valueIn.compareTo(NetworkParameters.MAX_MONEY) > 0)
throw new VerificationException("Transaction input value out of range");
totalFees = totalFees.add(valueIn.subtract(valueOut));
}
if (!isCoinBase && runScripts) {
// Because correctlySpends modifies transactions, this must come after we are done with tx
FutureTask<VerificationException> future =
new FutureTask<VerificationException>(
new Verifier(tx, prevOutScripts, enforcePayToScriptHash));
scriptVerificationExecutor.execute(future);
listScriptVerificationResults.add(future);
}
}
if (totalFees.compareTo(NetworkParameters.MAX_MONEY) > 0
|| block.getBlockInflation(height).add(totalFees).compareTo(coinbaseValue) < 0)
throw new VerificationException("Transaction fees out of range");
for (Future<VerificationException> future : listScriptVerificationResults) {
VerificationException e;
try {
e = future.get();
} catch (InterruptedException thrownE) {
throw new RuntimeException(thrownE); // Shouldn't happen
} catch (ExecutionException thrownE) {
log.error("Script.correctlySpends threw a non-normal exception: " + thrownE.getCause());
throw new VerificationException(
"Bug in Script.correctlySpends, likely script malformed in some new and interesting way.",
thrownE);
}
if (e != null) throw e;
}
} catch (VerificationException e) {
scriptVerificationExecutor.shutdownNow();
blockStore.abortDatabaseBatchWrite();
throw e;
} catch (BlockStoreException e) {
scriptVerificationExecutor.shutdownNow();
blockStore.abortDatabaseBatchWrite();
throw e;
}
return new TransactionOutputChanges(txOutsCreated, txOutsSpent);
}
/**
* Creates default implementation of {@link MemoryCache} - {@link LruMemoryCache}<br>
* Default cache size = 1/8 of available app memory.
*/
public static MemoryCache createMemoryCache(int memoryCacheSize) {
if (memoryCacheSize == 0) {
memoryCacheSize = (int) (Runtime.getRuntime().maxMemory() / 8);
}
return new LruMemoryCache(memoryCacheSize);
}
protected void handleCommand(String command) {
if (command.contains("__")) {
namespace = command.split("__")[0];
command = command.substring(command.indexOf("__") + 2);
}
if (echo) {
if (Thread.currentThread().getName().toLowerCase().indexOf("main") < 0)
println(" [" + Thread.currentThread().getName() + "] " + command);
else println(command);
}
if (command == null || command.startsWith("//")) return;
command = command.trim();
if (command == null || command.length() == 0) {
return;
}
String first = command;
int spaceIndex = command.indexOf(' ');
String[] argsSplit = command.split(" ");
String[] args = new String[argsSplit.length];
for (int i = 0; i < argsSplit.length; i++) {
args[i] = argsSplit[i].trim();
}
if (spaceIndex != -1) {
first = args[0];
}
if (command.startsWith("help")) {
handleHelp(command);
} else if (first.startsWith("#") && first.length() > 1) {
int repeat = Integer.parseInt(first.substring(1));
long t0 = Clock.currentTimeMillis();
for (int i = 0; i < repeat; i++) {
handleCommand(command.substring(first.length()).replaceAll("\\$i", "" + i));
}
println("ops/s = " + repeat * 1000 / (Clock.currentTimeMillis() - t0));
return;
} else if (first.startsWith("&") && first.length() > 1) {
final int fork = Integer.parseInt(first.substring(1));
ExecutorService pool = Executors.newFixedThreadPool(fork);
final String threadCommand = command.substring(first.length());
for (int i = 0; i < fork; i++) {
final int threadID = i;
pool.submit(
new Runnable() {
public void run() {
String command = threadCommand;
String[] threadArgs = command.replaceAll("\\$t", "" + threadID).trim().split(" ");
// TODO &t #4 m.putmany x k
if ("m.putmany".equals(threadArgs[0]) || "m.removemany".equals(threadArgs[0])) {
if (threadArgs.length < 4) {
command += " " + Integer.parseInt(threadArgs[1]) * threadID;
}
}
handleCommand(command);
}
});
}
pool.shutdown();
try {
pool.awaitTermination(60 * 60, TimeUnit.SECONDS); // wait 1h
} catch (Exception e) {
e.printStackTrace();
}
} else if (first.startsWith("@")) {
if (first.length() == 1) {
println("usage: @<file-name>");
return;
}
File f = new File(first.substring(1));
println("Executing script file " + f.getAbsolutePath());
if (f.exists()) {
try {
BufferedReader br = new BufferedReader(new FileReader(f));
String l = br.readLine();
while (l != null) {
handleCommand(l);
l = br.readLine();
}
br.close();
} catch (IOException e) {
e.printStackTrace();
}
} else {
println("File not found! " + f.getAbsolutePath());
}
} else if (command.indexOf(';') != -1) {
StringTokenizer st = new StringTokenizer(command, ";");
while (st.hasMoreTokens()) {
handleCommand(st.nextToken());
}
return;
} else if ("silent".equals(first)) {
silent = Boolean.parseBoolean(args[1]);
} else if ("shutdown".equals(first)) {
hazelcast.getLifecycleService().shutdown();
} else if ("echo".equals(first)) {
echo = Boolean.parseBoolean(args[1]);
println("echo: " + echo);
} else if ("ns".equals(first)) {
if (args.length > 1) {
namespace = args[1];
println("namespace: " + namespace);
// init();
}
} else if ("whoami".equals(first)) {
println(hazelcast.getCluster().getLocalMember());
} else if ("who".equals(first)) {
println(hazelcast.getCluster());
} else if ("jvm".equals(first)) {
System.gc();
println("Memory max: " + Runtime.getRuntime().maxMemory() / 1024 / 1024 + "M");
println(
"Memory free: "
+ Runtime.getRuntime().freeMemory() / 1024 / 1024
+ "M "
+ (int) (Runtime.getRuntime().freeMemory() * 100 / Runtime.getRuntime().maxMemory())
+ "%");
long total = Runtime.getRuntime().totalMemory();
long free = Runtime.getRuntime().freeMemory();
println("Used Memory:" + ((total - free) / 1024 / 1024) + "MB");
println("# procs: " + Runtime.getRuntime().availableProcessors());
println(
"OS info: "
+ ManagementFactory.getOperatingSystemMXBean().getArch()
+ " "
+ ManagementFactory.getOperatingSystemMXBean().getName()
+ " "
+ ManagementFactory.getOperatingSystemMXBean().getVersion());
println(
"JVM: "
+ ManagementFactory.getRuntimeMXBean().getVmVendor()
+ " "
+ ManagementFactory.getRuntimeMXBean().getVmName()
+ " "
+ ManagementFactory.getRuntimeMXBean().getVmVersion());
} else if (first.indexOf("ock") != -1 && first.indexOf(".") == -1) {
handleLock(args);
} else if (first.indexOf(".size") != -1) {
handleSize(args);
} else if (first.indexOf(".clear") != -1) {
handleClear(args);
} else if (first.indexOf(".destroy") != -1) {
handleDestroy(args);
} else if (first.indexOf(".iterator") != -1) {
handleIterator(args);
} else if (first.indexOf(".contains") != -1) {
handleContains(args);
} else if (first.indexOf(".stats") != -1) {
handStats(args);
} else if ("t.publish".equals(first)) {
handleTopicPublish(args);
} else if ("q.offer".equals(first)) {
handleQOffer(args);
} else if ("q.take".equals(first)) {
handleQTake(args);
} else if ("q.poll".equals(first)) {
handleQPoll(args);
} else if ("q.peek".equals(first)) {
handleQPeek(args);
} else if ("q.capacity".equals(first)) {
handleQCapacity(args);
} else if ("q.offermany".equals(first)) {
handleQOfferMany(args);
} else if ("q.pollmany".equals(first)) {
handleQPollMany(args);
} else if ("s.add".equals(first)) {
handleSetAdd(args);
} else if ("s.remove".equals(first)) {
handleSetRemove(args);
} else if ("s.addmany".equals(first)) {
handleSetAddMany(args);
} else if ("s.removemany".equals(first)) {
handleSetRemoveMany(args);
} else if (first.equals("m.replace")) {
handleMapReplace(args);
} else if (first.equalsIgnoreCase("m.putIfAbsent")) {
handleMapPutIfAbsent(args);
} else if (first.equals("m.putAsync")) {
handleMapPutAsync(args);
} else if (first.equals("m.getAsync")) {
handleMapGetAsync(args);
} else if (first.equals("m.put")) {
handleMapPut(args);
} else if (first.equals("m.get")) {
handleMapGet(args);
} else if (first.equalsIgnoreCase("m.getMapEntry")) {
handleMapGetMapEntry(args);
} else if (first.equals("m.remove")) {
handleMapRemove(args);
} else if (first.equals("m.evict")) {
handleMapEvict(args);
} else if (first.equals("m.putmany") || first.equalsIgnoreCase("m.putAll")) {
handleMapPutMany(args);
} else if (first.equals("m.getmany")) {
handleMapGetMany(args);
} else if (first.equals("m.removemany")) {
handleMapRemoveMany(args);
} else if (command.equalsIgnoreCase("m.localKeys")) {
handleMapLocalKeys();
} else if (command.equals("m.keys")) {
handleMapKeys();
} else if (command.equals("m.values")) {
handleMapValues();
} else if (command.equals("m.entries")) {
handleMapEntries();
} else if (first.equals("m.lock")) {
handleMapLock(args);
} else if (first.equalsIgnoreCase("m.tryLock")) {
handleMapTryLock(args);
} else if (first.equals("m.unlock")) {
handleMapUnlock(args);
} else if (first.indexOf(".addListener") != -1) {
handleAddListener(args);
} else if (first.equals("m.removeMapListener")) {
handleRemoveListener(args);
} else if (first.equals("m.unlock")) {
handleMapUnlock(args);
} else if (first.equals("l.add")) {
handleListAdd(args);
} else if (first.equals("l.set")) {
handleListSet(args);
} else if ("l.addmany".equals(first)) {
handleListAddMany(args);
} else if (first.equals("l.remove")) {
handleListRemove(args);
} else if (first.equals("l.contains")) {
handleListContains(args);
} else if ("a.get".equals(first)) {
handleAtomicNumberGet(args);
} else if ("a.set".equals(first)) {
handleAtomicNumberSet(args);
} else if ("a.inc".equals(first)) {
handleAtomicNumberInc(args);
} else if ("a.dec".equals(first)) {
handleAtomicNumberDec(args);
// } else if (first.equals("execute")) {
// execute(args);
} else if (first.equals("partitions")) {
handlePartitions(args);
// } else if (first.equals("txn")) {
// hazelcast.getTransaction().begin();
// } else if (first.equals("commit")) {
// hazelcast.getTransaction().commit();
// } else if (first.equals("rollback")) {
// hazelcast.getTransaction().rollback();
// } else if (first.equalsIgnoreCase("executeOnKey")) {
// executeOnKey(args);
// } else if (first.equalsIgnoreCase("executeOnMember")) {
// executeOnMember(args);
// } else if (first.equalsIgnoreCase("executeOnMembers")) {
// executeOnMembers(args);
// } else if (first.equalsIgnoreCase("longOther") ||
// first.equalsIgnoreCase("executeLongOther")) {
// executeLongTaskOnOtherMember(args);
// } else if (first.equalsIgnoreCase("long") || first.equalsIgnoreCase("executeLong"))
// {
// executeLong(args);
} else if (first.equalsIgnoreCase("instances")) {
handleInstances(args);
} else if (first.equalsIgnoreCase("quit") || first.equalsIgnoreCase("exit")) {
System.exit(0);
} else {
println("type 'help' for help");
}
}
/**
* Create a thread group to share among multiple fat pipes
*
* @param poolSize the number of threads to create. Less then zero will use all the available
* cores-1. There will be at least 1 thread used
* @param listener in case an exception is thrown while executing one of the Fat Pipes
*/
public Pool(int poolSize, String name, ExceptionListener listener) {
if (poolSize < 0) poolSize = Runtime.getRuntime().availableProcessors() - 1;
poolSize = Math.max(poolSize, 1);
producer = new ParentProducer(poolSize, listener);
parent = new PooledFatPipe<>(producer, poolSize, null, name);
}
/**
* Reads conll sentences, parses them, and writes the json-serialized results.
*
* @param inputSupplier where to read conll sentences from
* @param outputSupplier where to write the results to
* @param numThreads the number of threads to use
* @throws IOException
* @throws InterruptedException
*/
public void runParser(
final InputSupplier<? extends Readable> inputSupplier,
final OutputSupplier<? extends Writer> outputSupplier,
final int numThreads)
throws IOException, InterruptedException {
// use the producer-worker-consumer pattern to parse all sentences in multiple threads, while
// keeping
// output in order.
final BlockingQueue<Future<Optional<SemaforParseResult>>> results =
Queues.newLinkedBlockingDeque(5 * numThreads);
final ExecutorService workerThreadPool = newFixedThreadPool(numThreads);
// try to shutdown gracefully. don't worry too much if it doesn't work
Runtime.getRuntime()
.addShutdownHook(
new Thread(
new Runnable() {
@Override
public void run() {
try {
workerThreadPool.shutdown();
workerThreadPool.awaitTermination(5, TimeUnit.SECONDS);
} catch (InterruptedException ignored) {
}
}
}));
final PrintWriter output = new PrintWriter(outputSupplier.getOutput());
try {
// Start thread to fetch computed results and write to file
final Thread consumer =
new Thread(
new Runnable() {
@Override
public void run() {
while (!Thread.currentThread().isInterrupted()) {
try {
final Optional<SemaforParseResult> oResult = results.take().get();
if (!oResult.isPresent()) break; // got poison pill. we're done
output.println(oResult.get().toJson());
output.flush();
} catch (Exception e) {
e.printStackTrace();
throw new RuntimeException(e);
}
}
}
});
consumer.start();
// in main thread, put placeholders on results queue (so results stay in order), then
// tell a worker thread to fill up the placeholder
final SentenceCodec.SentenceIterator sentences =
ConllCodec.readInput(inputSupplier.getInput());
try {
int i = 0;
while (sentences.hasNext()) {
final Sentence sentence = sentences.next();
final int sentenceId = i;
results.put(
workerThreadPool.submit(
new Callable<Optional<SemaforParseResult>>() {
@Override
public Optional<SemaforParseResult> call() throws Exception {
final long start = System.currentTimeMillis();
try {
final SemaforParseResult result = parseSentence(sentence);
final long end = System.currentTimeMillis();
System.err.printf(
"parsed sentence %d in %d millis.%n", sentenceId, end - start);
return Optional.of(result);
} catch (Exception e) {
e.printStackTrace();
throw e;
}
}
}));
i++;
}
// put a poison pill on the queue to signal that we're done
results.put(
workerThreadPool.submit(
new Callable<Optional<SemaforParseResult>>() {
@Override
public Optional<SemaforParseResult> call() throws Exception {
return Optional.absent();
}
}));
workerThreadPool.shutdown();
} finally {
closeQuietly(sentences);
}
// wait for consumer to finish
consumer.join();
} finally {
closeQuietly(output);
}
System.err.println("Done.");
}
/**
* e
*
* @author <a href="http://tfox.org">Tim Fox</a>
*/
public class DefaultVertx extends VertxInternal {
private static final Logger log = LoggerFactory.getLogger(DefaultVertx.class);
private final FileSystem fileSystem = getFileSystem();
private final EventBus eventBus;
private final SharedData sharedData = new SharedData();
private ThreadPoolExecutor backgroundPool =
VertxExecutorFactory.workerPool("vert.x-worker-thread-");
private OrderedExecutorFactory orderedFact = new OrderedExecutorFactory(backgroundPool);
private int corePoolSize = Runtime.getRuntime().availableProcessors();
private NioWorkerPool corePool =
new NioWorkerPool(VertxExecutorFactory.eventPool("vert.x-core-thread-"), corePoolSize);
private ThreadPoolExecutor acceptorPool =
VertxExecutorFactory.acceptorPool("vert.x-acceptor-thread-");
private Map<ServerID, DefaultHttpServer> sharedHttpServers = new HashMap<>();
private Map<ServerID, DefaultNetServer> sharedNetServers = new HashMap<>();
private final ThreadLocal<Context> contextTL = new ThreadLocal<>();
// For now we use a hashed wheel with it's own thread for timeouts - ideally the event loop would
// have
// it's own hashed wheel
private HashedWheelTimer timer =
new HashedWheelTimer(
new VertxThreadFactory("vert.x-timer-thread"), 1, TimeUnit.MILLISECONDS, 8192);
{
timer.start();
}
private final AtomicLong timeoutCounter = new AtomicLong(0);
private final Map<Long, TimeoutHolder> timeouts = new ConcurrentHashMap<>();
public DefaultVertx() {
this.eventBus = new DefaultEventBus(this);
}
public DefaultVertx(String hostname) {
this.eventBus = new DefaultEventBus(this, hostname);
}
public DefaultVertx(int port, String hostname) {
this.eventBus = new DefaultEventBus(this, port, hostname);
}
/** @return The FileSystem implementation for the OS */
protected FileSystem getFileSystem() {
return Windows.isWindows() ? new WindowsFileSystem(this) : new DefaultFileSystem(this);
}
public Timer getTimer() {
return timer;
}
public NetServer createNetServer() {
return new DefaultNetServer(this);
}
public NetClient createNetClient() {
return new DefaultNetClient(this);
}
public FileSystem fileSystem() {
return fileSystem;
}
public SharedData sharedData() {
return sharedData;
}
public HttpServer createHttpServer() {
return new DefaultHttpServer(this);
}
public HttpClient createHttpClient() {
return new DefaultHttpClient(this);
}
public SockJSServer createSockJSServer(HttpServer httpServer) {
return new DefaultSockJSServer(this, httpServer);
}
public EventBus eventBus() {
return eventBus;
}
public Context startOnEventLoop(final Runnable runnable) {
Context context = createEventLoopContext();
context.execute(runnable);
return context;
}
public Context startInBackground(final Runnable runnable) {
Context context = createWorkerContext();
context.execute(runnable);
return context;
}
public boolean isEventLoop() {
Context context = getContext();
if (context != null) {
return context instanceof EventLoopContext;
}
return false;
}
public boolean isWorker() {
Context context = getContext();
if (context != null) {
return context instanceof WorkerContext;
}
return false;
}
public long setPeriodic(long delay, final Handler<Long> handler) {
return setTimeout(delay, true, handler);
}
public long setTimer(long delay, final Handler<Long> handler) {
return setTimeout(delay, false, handler);
}
public void runOnLoop(final Handler<Void> handler) {
Context context = getOrAssignContext();
context.execute(
new Runnable() {
public void run() {
handler.handle(null);
}
});
}
// The background pool is used for making blocking calls to legacy synchronous APIs
public ExecutorService getBackgroundPool() {
return backgroundPool;
}
public NioWorkerPool getCorePool() {
return corePool;
}
// We use a cached pool, but it will never get large since only used for acceptors.
// There will be one thread for each port listening on
public Executor getAcceptorPool() {
return acceptorPool;
}
public Context getOrAssignContext() {
Context ctx = getContext();
if (ctx == null) {
// Assign a context
ctx = createEventLoopContext();
}
return ctx;
}
public void reportException(Throwable t) {
Context ctx = getContext();
if (ctx != null) {
ctx.reportException(t);
} else {
log.error(" default vertx Unhandled exception ", t);
}
}
public Map<ServerID, DefaultHttpServer> sharedHttpServers() {
return sharedHttpServers;
}
public Map<ServerID, DefaultNetServer> sharedNetServers() {
return sharedNetServers;
}
private long setTimeout(final long delay, boolean periodic, final Handler<Long> handler) {
final Context context = getOrAssignContext();
InternalTimerHandler myHandler;
if (periodic) {
myHandler =
new InternalTimerHandler(handler) {
public void run() {
super.run();
scheduleTimeout(timerID, context, this, delay); // And reschedule
}
};
} else {
myHandler =
new InternalTimerHandler(handler) {
public void run() {
super.run();
timeouts.remove(timerID);
}
};
}
long timerID = scheduleTimeout(-1, context, myHandler, delay);
myHandler.timerID = timerID;
return timerID;
}
public boolean cancelTimer(long id) {
return cancelTimeout(id);
}
public Context createEventLoopContext() {
getBackgroundPool();
NioWorker worker = getCorePool().nextWorker();
return new EventLoopContext(this, orderedFact.getExecutor(), worker);
}
private boolean cancelTimeout(long id) {
TimeoutHolder holder = timeouts.remove(id);
if (holder != null) {
holder.timeout.cancel();
return true;
} else {
return false;
}
}
private long scheduleTimeout(long id, final Context context, final Runnable task, long delay) {
TimerTask ttask =
new TimerTask() {
public void run(Timeout timeout) throws Exception {
context.execute(task);
}
};
if (id != -1 && timeouts.get(id) == null) {
// Been cancelled
return -1;
}
Timeout timeout = timer.newTimeout(ttask, delay, TimeUnit.MILLISECONDS);
id = id != -1 ? id : timeoutCounter.getAndIncrement();
timeouts.put(id, new TimeoutHolder(timeout));
return id;
}
private Context createWorkerContext() {
getBackgroundPool();
return new WorkerContext(this, orderedFact.getExecutor());
}
public void setContext(Context context) {
contextTL.set(context);
if (context != null) {
context.setTCCL();
}
}
public Context getContext() {
return contextTL.get();
}
@Override
public void stop() {
if (sharedHttpServers != null) {
for (HttpServer server : sharedHttpServers.values()) {
server.close();
}
sharedHttpServers = null;
}
if (sharedNetServers != null) {
for (NetServer server : sharedNetServers.values()) {
server.close();
}
sharedNetServers = null;
}
if (timer != null) {
timer.stop();
timer = null;
}
if (eventBus != null) {
eventBus.close(null);
}
if (backgroundPool != null) {
backgroundPool.shutdown();
}
if (acceptorPool != null) {
acceptorPool.shutdown();
}
try {
if (backgroundPool != null) {
backgroundPool.awaitTermination(20, TimeUnit.SECONDS);
backgroundPool = null;
}
} catch (InterruptedException ex) {
// ignore
}
try {
if (acceptorPool != null) {
acceptorPool.awaitTermination(20, TimeUnit.SECONDS);
acceptorPool = null;
}
} catch (InterruptedException ex) {
// ignore
}
// log.info("Release external resources from worker pool");
if (corePool != null) {
corePool.releaseExternalResources();
corePool = null;
}
// log.info("Release external resources: done");
setContext(null);
}
private static class InternalTimerHandler implements Runnable {
final Handler<Long> handler;
long timerID;
InternalTimerHandler(Handler<Long> runnable) {
this.handler = runnable;
}
public void run() {
handler.handle(timerID);
}
}
private static class TimeoutHolder {
final Timeout timeout;
TimeoutHolder(Timeout timeout) {
this.timeout = timeout;
}
}
}
/*
* Solves for times by processing samples in the active list in parallel.
*/
private void solveParallelX(
final ActiveList al,
final float[][][] t,
final int m,
final float[][][] times,
final int[][][] marks) {
int nthread = Runtime.getRuntime().availableProcessors();
ExecutorService es = Executors.newFixedThreadPool(nthread);
CompletionService<Void> cs = new ExecutorCompletionService<Void>(es);
ActiveList[] bl = new ActiveList[nthread];
float[][] d = new float[nthread][];
for (int ithread = 0; ithread < nthread; ++ithread) {
bl[ithread] = new ActiveList();
d[ithread] = new float[6];
}
final AtomicInteger ai = new AtomicInteger();
int ntotal = 0;
// int niter = 0;
while (!al.isEmpty()) {
ai.set(0); // initialize the shared block index to zero
final int n = al.size(); // number of samples in active (A) list
ntotal += n;
final int mb = 32; // size of blocks of samples
final int nb = 1 + (n - 1) / mb; // number of blocks of samples
int ntask = min(nb, nthread); // number of tasks (threads to be used)
for (int itask = 0; itask < ntask; ++itask) { // for each task, ...
final ActiveList bltask = bl[itask]; // task-specific B list
final float[] dtask = d[itask]; // task-specific work array
cs.submit(
new Callable<Void>() { // submit new task
public Void call() {
for (int ib = ai.getAndIncrement(); ib < nb; ib = ai.getAndIncrement()) {
int i = ib * mb; // beginning of block
int j = min(i + mb, n); // beginning of next block (or end)
for (int k = i; k < j; ++k) { // for each sample in block, ...
Sample s = al.get(k); // get k'th sample from A list
solveOne(t, m, times, marks, s, bltask, dtask); // process sample
}
}
bltask.setAllAbsent(); // needed when merging B lists below
return null;
}
});
}
try {
for (int itask = 0; itask < ntask; ++itask) cs.take();
} catch (InterruptedException e) {
throw new RuntimeException(e);
}
// Merge samples from all B lists to a new A list. As samples
// are appended, their absent flags are set to false, so that
// each sample is appended no more than once to the new A list.
al.clear();
for (int itask = 0; itask < ntask; ++itask) {
al.appendIfAbsent(bl[itask]);
bl[itask].clear();
}
// ++niter;
}
es.shutdown();
// trace("solveParallel: ntotal="+ntotal);
// trace(" nratio="+(float)ntotal/(float)(_n1*_n2*_n3));
}
/** * @author: Ivan Voroshilin * @email: [email protected] * @since 1.8 CaffeineCachedDispatcher */ @ThreadSafe public class CaffeineCachedDispatcher implements Dispatcher { private static final Logger log = LoggerFactory.getLogger(CaffeineCachedDispatcher.class); private ExecutorService service; private IdGenerator idGenerator = new IdGenerator("ID_", new SystemDateSource()); private int queueSize = 1024; private int threadsCount = Runtime.getRuntime().availableProcessors(); private ConcurrentMap<Object, Object> cachedDispatchQueues; private volatile boolean started; private volatile boolean stopped; private CaffeineCachedDispatcher() {} public static Builder newBuilder() { return new CaffeineCachedDispatcher().new Builder(); } public class Builder { private Builder() {} public Builder setQueueSize(int queueSize) { CaffeineCachedDispatcher.this.queueSize = queueSize; return this; } public Builder setIdGenerator(IdGenerator idGenerator) { CaffeineCachedDispatcher.this.idGenerator = idGenerator; return this; } public Builder setThreadsCount(int threadsCount) { CaffeineCachedDispatcher.this.threadsCount = threadsCount; return this; } public Builder setExecutorService(ExecutorService service) { CaffeineCachedDispatcher.this.service = service; return this; } public CaffeineCachedDispatcher build() { return CaffeineCachedDispatcher.this; } } @Override public CompletableFuture<Void> dispatchAsync(Runnable task) { return dispatchAsync(idGenerator.nextId(), task); } @Override @SuppressWarnings("unchecked") public CompletableFuture<Void> dispatchAsync(String dispatchId, Runnable task) { try { return (CompletableFuture<Void>) cachedDispatchQueues.compute( dispatchId, (k, queue) -> { CompletableFuture<Void> voidCompletableFuture = (queue == null) ? CompletableFuture.runAsync(task) : ((CompletableFuture<Void>) queue).thenRunAsync(task); return voidCompletableFuture; }); } catch (Throwable t) { log.warn( "Exception thrown when calling dispatchAngGetFuture for dispatchId[{}]", dispatchId, t); throw t; } } private static ExecutorService newDefaultForkJoinPool(int threadsCount) { return Executors.newWorkStealingPool(threadsCount); } public void start() { if (started) { throw new RuntimeException("Already started or in progress"); } started = true; if (service == null) { service = newDefaultForkJoinPool(threadsCount); } cachedDispatchQueues = Caffeine.newBuilder().weakValues().executor(service).maximumSize(queueSize).build().asMap(); } public void stop() { if (stopped) { throw new RuntimeException("Already stopped or in progress"); } stopped = true; CompletableFuture<?>[] futures = cachedDispatchQueues .values() .stream() .filter(v -> v != null) .toArray(CompletableFuture<?>[]::new); CompletableFuture.allOf(futures).join(); service.shutdown(); } }
@SuppressWarnings({"unchecked"})
public final void execute(final Callback callback)
throws MojoExecutionException, MojoFailureException {
if (!skip) {
if (header == null) {
warn("No header file specified to check for license");
return;
}
if (!strictCheck) {
warn(
"Property 'strictCheck' is not enabled. Please consider adding <strictCheck>true</strictCheck> in your pom.xml file.");
warn("See http://mycila.github.io/license-maven-plugin for more information.");
}
finder = new ResourceFinder(basedir);
try {
finder.setCompileClassPath(project.getCompileClasspathElements());
} catch (DependencyResolutionRequiredException e) {
throw new MojoExecutionException(e.getMessage(), e);
}
finder.setPluginClassPath(getClass().getClassLoader());
final Header h = new Header(finder.findResource(this.header), encoding, headerSections);
debug("Header %s:\n%s", h.getLocation(), h);
if (this.validHeaders == null) {
this.validHeaders = new String[0];
}
final List<Header> validHeaders = new ArrayList<Header>(this.validHeaders.length);
for (String validHeader : this.validHeaders) {
validHeaders.add(new Header(finder.findResource(validHeader), encoding, headerSections));
}
final List<PropertiesProvider> propertiesProviders = new LinkedList<PropertiesProvider>();
for (PropertiesProvider provider :
ServiceLoader.load(
PropertiesProvider.class, Thread.currentThread().getContextClassLoader())) {
propertiesProviders.add(provider);
}
final DocumentPropertiesLoader propertiesLoader =
new DocumentPropertiesLoader() {
@Override
public Properties load(Document document) {
Properties props = new Properties();
for (Map.Entry<String, String> entry : mergeProperties(document).entrySet()) {
if (entry.getValue() != null) {
props.setProperty(entry.getKey(), entry.getValue());
} else {
props.remove(entry.getKey());
}
}
for (PropertiesProvider provider : propertiesProviders) {
try {
final Map<String, String> providerProperties =
provider.getAdditionalProperties(AbstractLicenseMojo.this, props, document);
if (getLog().isDebugEnabled()) {
getLog()
.debug(
"provider: "
+ provider.getClass()
+ " brought new properties\n"
+ providerProperties);
}
for (Map.Entry<String, String> entry : providerProperties.entrySet()) {
if (entry.getValue() != null) {
props.setProperty(entry.getKey(), entry.getValue());
} else {
props.remove(entry.getKey());
}
}
} catch (Exception e) {
getLog().warn("failure occured while calling " + provider.getClass(), e);
}
}
return props;
}
};
final DocumentFactory documentFactory =
new DocumentFactory(
basedir,
buildMapping(),
buildHeaderDefinitions(),
encoding,
keywords,
propertiesLoader);
int nThreads = (int) (Runtime.getRuntime().availableProcessors() * concurrencyFactor);
ExecutorService executorService = Executors.newFixedThreadPool(nThreads);
CompletionService completionService = new ExecutorCompletionService(executorService);
int count = 0;
debug("Number of execution threads: %s", nThreads);
try {
for (final String file : listSelectedFiles()) {
completionService.submit(
new Runnable() {
@Override
public void run() {
Document document = documentFactory.createDocuments(file);
debug(
"Selected file: %s [header style: %s]",
document.getFilePath(), document.getHeaderDefinition());
if (document.isNotSupported()) {
callback.onUnknownFile(document, h);
} else if (document.is(h)) {
debug("Skipping header file: %s", document.getFilePath());
} else if (document.hasHeader(h, strictCheck)) {
callback.onExistingHeader(document, h);
} else {
boolean headerFound = false;
for (Header validHeader : validHeaders) {
if (headerFound = document.hasHeader(validHeader, strictCheck)) {
callback.onExistingHeader(document, h);
break;
}
}
if (!headerFound) {
callback.onHeaderNotFound(document, h);
}
}
}
},
null);
count++;
}
while (count-- > 0) {
try {
completionService.take().get();
} catch (InterruptedException e) {
Thread.currentThread().interrupt();
} catch (ExecutionException e) {
Throwable cause = e.getCause();
if (cause instanceof Error) {
throw (Error) cause;
}
if (cause instanceof MojoExecutionException) {
throw (MojoExecutionException) cause;
}
if (cause instanceof MojoFailureException) {
throw (MojoFailureException) cause;
}
if (cause instanceof RuntimeException) {
throw (RuntimeException) cause;
}
throw new RuntimeException(cause.getMessage(), cause);
}
}
} finally {
executorService.shutdownNow();
}
}
}