/** toString returns current value. */
public void testToString() {
AtomicLong ai = new AtomicLong();
for (long i = -12; i < 6; ++i) {
ai.set(i);
assertEquals(ai.toString(), Long.toString(i));
}
}
/**
* Base class for JSR166 Junit TCK tests. Defines some constants, utility methods and classes, as
* well as a simple framework for helping to make sure that assertions failing in generated threads
* cause the associated test that generated them to itself fail (which JUnit does not otherwise
* arrange). The rules for creating such tests are:
*
* <ol>
* <li>All assertions in code running in generated threads must use the forms {@link #threadFail},
* {@link #threadAssertTrue}, {@link #threadAssertEquals}, or {@link #threadAssertNull}, (not
* {@code fail}, {@code assertTrue}, etc.) It is OK (but not particularly recommended) for
* other code to use these forms too. Only the most typically used JUnit assertion methods are
* defined this way, but enough to live with.
* <li>If you override {@link #setUp} or {@link #tearDown}, make sure to invoke {@code
* super.setUp} and {@code super.tearDown} within them. These methods are used to clear and
* check for thread assertion failures.
* <li>All delays and timeouts must use one of the constants {@code SHORT_DELAY_MS}, {@code
* SMALL_DELAY_MS}, {@code MEDIUM_DELAY_MS}, {@code LONG_DELAY_MS}. The idea here is that a
* SHORT is always discriminable from zero time, and always allows enough time for the small
* amounts of computation (creating a thread, calling a few methods, etc) needed to reach a
* timeout point. Similarly, a SMALL is always discriminable as larger than SHORT and smaller
* than MEDIUM. And so on. These constants are set to conservative values, but even so, if
* there is ever any doubt, they can all be increased in one spot to rerun tests on slower
* platforms.
* <li>All threads generated must be joined inside each test case method (or {@code fail} to do
* so) before returning from the method. The {@code joinPool} method can be used to do this
* when using Executors.
* </ol>
*
* <p><b>Other notes</b>
*
* <ul>
* <li>Usually, there is one testcase method per JSR166 method covering "normal" operation, and
* then as many exception-testing methods as there are exceptions the method can throw.
* Sometimes there are multiple tests per JSR166 method when the different "normal" behaviors
* differ significantly. And sometimes testcases cover multiple methods when they cannot be
* tested in isolation.
* <li>The documentation style for testcases is to provide as javadoc a simple sentence or two
* describing the property that the testcase method purports to test. The javadocs do not say
* anything about how the property is tested. To find out, read the code.
* <li>These tests are "conformance tests", and do not attempt to test throughput, latency,
* scalability or other performance factors (see the separate "jtreg" tests for a set intended
* to check these for the most central aspects of functionality.) So, most tests use the
* smallest sensible numbers of threads, collection sizes, etc needed to check basic
* conformance.
* <li>The test classes currently do not declare inclusion in any particular package to simplify
* things for people integrating them in TCK test suites.
* <li>As a convenience, the {@code main} of this class (JSR166TestCase) runs all JSR166 unit
* tests.
* </ul>
*/
public class JSR166TestCase extends TestCase {
private static final boolean useSecurityManager = Boolean.getBoolean("jsr166.useSecurityManager");
protected static final boolean expensiveTests = Boolean.getBoolean("jsr166.expensiveTests");
/**
* If true, report on stdout all "slow" tests, that is, ones that take more than profileThreshold
* milliseconds to execute.
*/
private static final boolean profileTests = Boolean.getBoolean("jsr166.profileTests");
/**
* The number of milliseconds that tests are permitted for execution without being reported, when
* profileTests is set.
*/
private static final long profileThreshold = Long.getLong("jsr166.profileThreshold", 100);
protected void runTest() throws Throwable {
if (profileTests) runTestProfiled();
else super.runTest();
}
protected void runTestProfiled() throws Throwable {
// Warmup run, notably to trigger all needed classloading.
super.runTest();
long t0 = System.nanoTime();
try {
super.runTest();
} finally {
long elapsedMillis = millisElapsedSince(t0);
if (elapsedMillis >= profileThreshold)
System.out.printf("%n%s: %d%n", toString(), elapsedMillis);
}
}
/** Runs all JSR166 unit tests using junit.textui.TestRunner */
public static void main(String[] args) {
if (useSecurityManager) {
System.err.println("Setting a permissive security manager");
Policy.setPolicy(permissivePolicy());
System.setSecurityManager(new SecurityManager());
}
int iters = (args.length == 0) ? 1 : Integer.parseInt(args[0]);
Test s = suite();
for (int i = 0; i < iters; ++i) {
junit.textui.TestRunner.run(s);
System.gc();
System.runFinalization();
}
System.exit(0);
}
public static TestSuite newTestSuite(Object... suiteOrClasses) {
TestSuite suite = new TestSuite();
for (Object suiteOrClass : suiteOrClasses) {
if (suiteOrClass instanceof TestSuite) suite.addTest((TestSuite) suiteOrClass);
else if (suiteOrClass instanceof Class) suite.addTest(new TestSuite((Class<?>) suiteOrClass));
else throw new ClassCastException("not a test suite or class");
}
return suite;
}
/** Collects all JSR166 unit tests as one suite. */
public static Test suite() {
return newTestSuite(
AtomicDoubleTest.suite(),
AtomicDoubleArrayTest.suite(),
CompletableFutureTest.suite(),
ConcurrentHashMapV8Test.suite(),
CountedCompleterTest.suite(),
DoubleAdderTest.suite(),
ForkJoinPoolTest.suite(),
ForkJoinTaskTest.suite(),
LongAdderTest.suite(),
RecursiveTaskTest.suite(),
RecursiveActionTest.suite(),
StampedLockTest.suite(),
ThreadLocalRandomTest.suite());
}
// Delays for timing-dependent tests, in milliseconds.
public static long SHORT_DELAY_MS;
public static long SMALL_DELAY_MS;
public static long MEDIUM_DELAY_MS;
public static long LONG_DELAY_MS;
/**
* Returns the shortest timed delay. This could be reimplemented to use for example a Property.
*/
protected long getShortDelay() {
return 50;
}
/** Sets delays as multiples of SHORT_DELAY. */
protected void setDelays() {
SHORT_DELAY_MS = getShortDelay();
SMALL_DELAY_MS = SHORT_DELAY_MS * 5;
MEDIUM_DELAY_MS = SHORT_DELAY_MS * 10;
LONG_DELAY_MS = SHORT_DELAY_MS * 200;
}
/**
* Returns a timeout in milliseconds to be used in tests that verify that operations block or time
* out.
*/
long timeoutMillis() {
return SHORT_DELAY_MS / 4;
}
/** Returns a new Date instance representing a time delayMillis milliseconds in the future. */
Date delayedDate(long delayMillis) {
return new Date(System.currentTimeMillis() + delayMillis);
}
/** The first exception encountered if any threadAssertXXX method fails. */
private final AtomicReference<Throwable> threadFailure = new AtomicReference<Throwable>(null);
/**
* Records an exception so that it can be rethrown later in the test harness thread, triggering a
* test case failure. Only the first failure is recorded; subsequent calls to this method from
* within the same test have no effect.
*/
public void threadRecordFailure(Throwable t) {
threadFailure.compareAndSet(null, t);
}
public void setUp() {
setDelays();
}
/**
* Extra checks that get done for all test cases.
*
* <p>Triggers test case failure if any thread assertions have failed, by rethrowing, in the test
* harness thread, any exception recorded earlier by threadRecordFailure.
*
* <p>Triggers test case failure if interrupt status is set in the main thread.
*/
public void tearDown() throws Exception {
Throwable t = threadFailure.getAndSet(null);
if (t != null) {
if (t instanceof Error) throw (Error) t;
else if (t instanceof RuntimeException) throw (RuntimeException) t;
else if (t instanceof Exception) throw (Exception) t;
else {
AssertionFailedError afe = new AssertionFailedError(t.toString());
afe.initCause(t);
throw afe;
}
}
if (Thread.interrupted()) throw new AssertionFailedError("interrupt status set in main thread");
}
/**
* Just like fail(reason), but additionally recording (using threadRecordFailure) any
* AssertionFailedError thrown, so that the current testcase will fail.
*/
public void threadFail(String reason) {
try {
fail(reason);
} catch (AssertionFailedError t) {
threadRecordFailure(t);
fail(reason);
}
}
/**
* Just like assertTrue(b), but additionally recording (using threadRecordFailure) any
* AssertionFailedError thrown, so that the current testcase will fail.
*/
public void threadAssertTrue(boolean b) {
try {
assertTrue(b);
} catch (AssertionFailedError t) {
threadRecordFailure(t);
throw t;
}
}
/**
* Just like assertFalse(b), but additionally recording (using threadRecordFailure) any
* AssertionFailedError thrown, so that the current testcase will fail.
*/
public void threadAssertFalse(boolean b) {
try {
assertFalse(b);
} catch (AssertionFailedError t) {
threadRecordFailure(t);
throw t;
}
}
/**
* Just like assertNull(x), but additionally recording (using threadRecordFailure) any
* AssertionFailedError thrown, so that the current testcase will fail.
*/
public void threadAssertNull(Object x) {
try {
assertNull(x);
} catch (AssertionFailedError t) {
threadRecordFailure(t);
throw t;
}
}
/**
* Just like assertEquals(x, y), but additionally recording (using threadRecordFailure) any
* AssertionFailedError thrown, so that the current testcase will fail.
*/
public void threadAssertEquals(long x, long y) {
try {
assertEquals(x, y);
} catch (AssertionFailedError t) {
threadRecordFailure(t);
throw t;
}
}
/**
* Just like assertEquals(x, y), but additionally recording (using threadRecordFailure) any
* AssertionFailedError thrown, so that the current testcase will fail.
*/
public void threadAssertEquals(Object x, Object y) {
try {
assertEquals(x, y);
} catch (AssertionFailedError t) {
threadRecordFailure(t);
throw t;
} catch (Throwable t) {
threadUnexpectedException(t);
}
}
/**
* Just like assertSame(x, y), but additionally recording (using threadRecordFailure) any
* AssertionFailedError thrown, so that the current testcase will fail.
*/
public void threadAssertSame(Object x, Object y) {
try {
assertSame(x, y);
} catch (AssertionFailedError t) {
threadRecordFailure(t);
throw t;
}
}
/** Calls threadFail with message "should throw exception". */
public void threadShouldThrow() {
threadFail("should throw exception");
}
/** Calls threadFail with message "should throw" + exceptionName. */
public void threadShouldThrow(String exceptionName) {
threadFail("should throw " + exceptionName);
}
/**
* Records the given exception using {@link #threadRecordFailure}, then rethrows the exception,
* wrapping it in an AssertionFailedError if necessary.
*/
public void threadUnexpectedException(Throwable t) {
threadRecordFailure(t);
t.printStackTrace();
if (t instanceof RuntimeException) throw (RuntimeException) t;
else if (t instanceof Error) throw (Error) t;
else {
AssertionFailedError afe = new AssertionFailedError("unexpected exception: " + t);
afe.initCause(t);
throw afe;
}
}
/**
* Delays, via Thread.sleep, for the given millisecond delay, but if the sleep is shorter than
* specified, may re-sleep or yield until time elapses.
*/
static void delay(long millis) throws InterruptedException {
long startTime = System.nanoTime();
long ns = millis * 1000 * 1000;
for (; ; ) {
if (millis > 0L) Thread.sleep(millis);
else // too short to sleep
Thread.yield();
long d = ns - (System.nanoTime() - startTime);
if (d > 0L) millis = d / (1000 * 1000);
else break;
}
}
/** Waits out termination of a thread pool or fails doing so. */
void joinPool(ExecutorService exec) {
try {
exec.shutdown();
assertTrue(
"ExecutorService did not terminate in a timely manner",
exec.awaitTermination(2 * LONG_DELAY_MS, MILLISECONDS));
} catch (SecurityException ok) {
// Allowed in case test doesn't have privs
} catch (InterruptedException ie) {
fail("Unexpected InterruptedException");
}
}
/**
* Checks that thread does not terminate within the default millisecond delay of {@code
* timeoutMillis()}.
*/
void assertThreadStaysAlive(Thread thread) {
assertThreadStaysAlive(thread, timeoutMillis());
}
/** Checks that thread does not terminate within the given millisecond delay. */
void assertThreadStaysAlive(Thread thread, long millis) {
try {
// No need to optimize the failing case via Thread.join.
delay(millis);
assertTrue(thread.isAlive());
} catch (InterruptedException ie) {
fail("Unexpected InterruptedException");
}
}
/**
* Checks that the threads do not terminate within the default millisecond delay of {@code
* timeoutMillis()}.
*/
void assertThreadsStayAlive(Thread... threads) {
assertThreadsStayAlive(timeoutMillis(), threads);
}
/** Checks that the threads do not terminate within the given millisecond delay. */
void assertThreadsStayAlive(long millis, Thread... threads) {
try {
// No need to optimize the failing case via Thread.join.
delay(millis);
for (Thread thread : threads) assertTrue(thread.isAlive());
} catch (InterruptedException ie) {
fail("Unexpected InterruptedException");
}
}
/** Checks that future.get times out, with the default timeout of {@code timeoutMillis()}. */
void assertFutureTimesOut(Future future) {
assertFutureTimesOut(future, timeoutMillis());
}
/** Checks that future.get times out, with the given millisecond timeout. */
void assertFutureTimesOut(Future future, long timeoutMillis) {
long startTime = System.nanoTime();
try {
future.get(timeoutMillis, MILLISECONDS);
shouldThrow();
} catch (TimeoutException success) {
} catch (Exception e) {
threadUnexpectedException(e);
} finally {
future.cancel(true);
}
assertTrue(millisElapsedSince(startTime) >= timeoutMillis);
}
/** Fails with message "should throw exception". */
public void shouldThrow() {
fail("Should throw exception");
}
/** Fails with message "should throw " + exceptionName. */
public void shouldThrow(String exceptionName) {
fail("Should throw " + exceptionName);
}
/** The number of elements to place in collections, arrays, etc. */
public static final int SIZE = 20;
// Some convenient Integer constants
public static final Integer zero = new Integer(0);
public static final Integer one = new Integer(1);
public static final Integer two = new Integer(2);
public static final Integer three = new Integer(3);
public static final Integer four = new Integer(4);
public static final Integer five = new Integer(5);
public static final Integer six = new Integer(6);
public static final Integer seven = new Integer(7);
public static final Integer eight = new Integer(8);
public static final Integer nine = new Integer(9);
public static final Integer m1 = new Integer(-1);
public static final Integer m2 = new Integer(-2);
public static final Integer m3 = new Integer(-3);
public static final Integer m4 = new Integer(-4);
public static final Integer m5 = new Integer(-5);
public static final Integer m6 = new Integer(-6);
public static final Integer m10 = new Integer(-10);
/**
* Runs Runnable r with a security policy that permits precisely the specified permissions. If
* there is no current security manager, the runnable is run twice, both with and without a
* security manager. We require that any security manager permit getPolicy/setPolicy.
*/
public void runWithPermissions(Runnable r, Permission... permissions) {
SecurityManager sm = System.getSecurityManager();
if (sm == null) {
r.run();
Policy savedPolicy = Policy.getPolicy();
try {
Policy.setPolicy(permissivePolicy());
System.setSecurityManager(new SecurityManager());
runWithPermissions(r, permissions);
} finally {
System.setSecurityManager(null);
Policy.setPolicy(savedPolicy);
}
} else {
Policy savedPolicy = Policy.getPolicy();
AdjustablePolicy policy = new AdjustablePolicy(permissions);
Policy.setPolicy(policy);
try {
r.run();
} finally {
policy.addPermission(new SecurityPermission("setPolicy"));
Policy.setPolicy(savedPolicy);
}
}
}
/** Runs a runnable without any permissions. */
public void runWithoutPermissions(Runnable r) {
runWithPermissions(r);
}
/** A security policy where new permissions can be dynamically added or all cleared. */
public static class AdjustablePolicy extends java.security.Policy {
Permissions perms = new Permissions();
AdjustablePolicy(Permission... permissions) {
for (Permission permission : permissions) perms.add(permission);
}
void addPermission(Permission perm) {
perms.add(perm);
}
void clearPermissions() {
perms = new Permissions();
}
public PermissionCollection getPermissions(CodeSource cs) {
return perms;
}
public PermissionCollection getPermissions(ProtectionDomain pd) {
return perms;
}
public boolean implies(ProtectionDomain pd, Permission p) {
return perms.implies(p);
}
public void refresh() {}
}
/** Returns a policy containing all the permissions we ever need. */
public static Policy permissivePolicy() {
return new AdjustablePolicy
// Permissions j.u.c. needs directly
(
new RuntimePermission("modifyThread"),
new RuntimePermission("getClassLoader"),
new RuntimePermission("setContextClassLoader"),
// Permissions needed to change permissions!
new SecurityPermission("getPolicy"),
new SecurityPermission("setPolicy"),
new RuntimePermission("setSecurityManager"),
// Permissions needed by the junit test harness
new RuntimePermission("accessDeclaredMembers"),
new PropertyPermission("*", "read"),
new java.io.FilePermission("<<ALL FILES>>", "read"));
}
/** Sleeps until the given time has elapsed. Throws AssertionFailedError if interrupted. */
void sleep(long millis) {
try {
delay(millis);
} catch (InterruptedException ie) {
AssertionFailedError afe = new AssertionFailedError("Unexpected InterruptedException");
afe.initCause(ie);
throw afe;
}
}
/**
* Spin-waits up to the specified number of milliseconds for the given thread to enter a wait
* state: BLOCKED, WAITING, or TIMED_WAITING.
*/
void waitForThreadToEnterWaitState(Thread thread, long timeoutMillis) {
long startTime = System.nanoTime();
for (; ; ) {
Thread.State s = thread.getState();
if (s == Thread.State.BLOCKED || s == Thread.State.WAITING || s == Thread.State.TIMED_WAITING)
return;
else if (s == Thread.State.TERMINATED) fail("Unexpected thread termination");
else if (millisElapsedSince(startTime) > timeoutMillis) {
threadAssertTrue(thread.isAlive());
return;
}
Thread.yield();
}
}
/**
* Waits up to LONG_DELAY_MS for the given thread to enter a wait state: BLOCKED, WAITING, or
* TIMED_WAITING.
*/
void waitForThreadToEnterWaitState(Thread thread) {
waitForThreadToEnterWaitState(thread, LONG_DELAY_MS);
}
/**
* Returns the number of milliseconds since time given by startNanoTime, which must have been
* previously returned from a call to {@link System.nanoTime()}.
*/
static long millisElapsedSince(long startNanoTime) {
return NANOSECONDS.toMillis(System.nanoTime() - startNanoTime);
}
/** Returns a new started daemon Thread running the given runnable. */
Thread newStartedThread(Runnable runnable) {
Thread t = new Thread(runnable);
t.setDaemon(true);
t.start();
return t;
}
/**
* Waits for the specified time (in milliseconds) for the thread to terminate (using {@link
* Thread#join(long)}), else interrupts the thread (in the hope that it may terminate later) and
* fails.
*/
void awaitTermination(Thread t, long timeoutMillis) {
try {
t.join(timeoutMillis);
} catch (InterruptedException ie) {
threadUnexpectedException(ie);
} finally {
if (t.getState() != Thread.State.TERMINATED) {
t.interrupt();
fail("Test timed out");
}
}
}
/**
* Waits for LONG_DELAY_MS milliseconds for the thread to terminate (using {@link
* Thread#join(long)}), else interrupts the thread (in the hope that it may terminate later) and
* fails.
*/
void awaitTermination(Thread t) {
awaitTermination(t, LONG_DELAY_MS);
}
// Some convenient Runnable classes
public abstract class CheckedRunnable implements Runnable {
protected abstract void realRun() throws Throwable;
public final void run() {
try {
realRun();
} catch (Throwable t) {
threadUnexpectedException(t);
}
}
}
public abstract class RunnableShouldThrow implements Runnable {
protected abstract void realRun() throws Throwable;
final Class<?> exceptionClass;
<T extends Throwable> RunnableShouldThrow(Class<T> exceptionClass) {
this.exceptionClass = exceptionClass;
}
public final void run() {
try {
realRun();
threadShouldThrow(exceptionClass.getSimpleName());
} catch (Throwable t) {
if (!exceptionClass.isInstance(t)) threadUnexpectedException(t);
}
}
}
public abstract class ThreadShouldThrow extends Thread {
protected abstract void realRun() throws Throwable;
final Class<?> exceptionClass;
<T extends Throwable> ThreadShouldThrow(Class<T> exceptionClass) {
this.exceptionClass = exceptionClass;
}
public final void run() {
try {
realRun();
threadShouldThrow(exceptionClass.getSimpleName());
} catch (Throwable t) {
if (!exceptionClass.isInstance(t)) threadUnexpectedException(t);
}
}
}
public abstract class CheckedInterruptedRunnable implements Runnable {
protected abstract void realRun() throws Throwable;
public final void run() {
try {
realRun();
threadShouldThrow("InterruptedException");
} catch (InterruptedException success) {
threadAssertFalse(Thread.interrupted());
} catch (Throwable t) {
threadUnexpectedException(t);
}
}
}
public abstract class CheckedCallable<T> implements Callable<T> {
protected abstract T realCall() throws Throwable;
public final T call() {
try {
return realCall();
} catch (Throwable t) {
threadUnexpectedException(t);
return null;
}
}
}
public abstract class CheckedInterruptedCallable<T> implements Callable<T> {
protected abstract T realCall() throws Throwable;
public final T call() {
try {
T result = realCall();
threadShouldThrow("InterruptedException");
return result;
} catch (InterruptedException success) {
threadAssertFalse(Thread.interrupted());
} catch (Throwable t) {
threadUnexpectedException(t);
}
return null;
}
}
public static class NoOpRunnable implements Runnable {
public void run() {}
}
public static class NoOpCallable implements Callable {
public Object call() {
return Boolean.TRUE;
}
}
public static final String TEST_STRING = "a test string";
public static class StringTask implements Callable<String> {
public String call() {
return TEST_STRING;
}
}
public Callable<String> latchAwaitingStringTask(final CountDownLatch latch) {
return new CheckedCallable<String>() {
protected String realCall() {
try {
latch.await();
} catch (InterruptedException quittingTime) {
}
return TEST_STRING;
}
};
}
public Runnable awaiter(final CountDownLatch latch) {
return new CheckedRunnable() {
public void realRun() throws InterruptedException {
await(latch);
}
};
}
public void await(CountDownLatch latch) {
try {
assertTrue(latch.await(LONG_DELAY_MS, MILLISECONDS));
} catch (Throwable t) {
threadUnexpectedException(t);
}
}
public void await(Semaphore semaphore) {
try {
assertTrue(semaphore.tryAcquire(LONG_DELAY_MS, MILLISECONDS));
} catch (Throwable t) {
threadUnexpectedException(t);
}
}
// /**
// * Spin-waits up to LONG_DELAY_MS until flag becomes true.
// */
// public void await(AtomicBoolean flag) {
// await(flag, LONG_DELAY_MS);
// }
// /**
// * Spin-waits up to the specified timeout until flag becomes true.
// */
// public void await(AtomicBoolean flag, long timeoutMillis) {
// long startTime = System.nanoTime();
// while (!flag.get()) {
// if (millisElapsedSince(startTime) > timeoutMillis)
// throw new AssertionFailedError("timed out");
// Thread.yield();
// }
// }
public static class NPETask implements Callable<String> {
public String call() {
throw new NullPointerException();
}
}
public static class CallableOne implements Callable<Integer> {
public Integer call() {
return one;
}
}
public class ShortRunnable extends CheckedRunnable {
protected void realRun() throws Throwable {
delay(SHORT_DELAY_MS);
}
}
public class ShortInterruptedRunnable extends CheckedInterruptedRunnable {
protected void realRun() throws InterruptedException {
delay(SHORT_DELAY_MS);
}
}
public class SmallRunnable extends CheckedRunnable {
protected void realRun() throws Throwable {
delay(SMALL_DELAY_MS);
}
}
public class SmallPossiblyInterruptedRunnable extends CheckedRunnable {
protected void realRun() {
try {
delay(SMALL_DELAY_MS);
} catch (InterruptedException ok) {
}
}
}
public class SmallCallable extends CheckedCallable {
protected Object realCall() throws InterruptedException {
delay(SMALL_DELAY_MS);
return Boolean.TRUE;
}
}
public class MediumRunnable extends CheckedRunnable {
protected void realRun() throws Throwable {
delay(MEDIUM_DELAY_MS);
}
}
public class MediumInterruptedRunnable extends CheckedInterruptedRunnable {
protected void realRun() throws InterruptedException {
delay(MEDIUM_DELAY_MS);
}
}
public Runnable possiblyInterruptedRunnable(final long timeoutMillis) {
return new CheckedRunnable() {
protected void realRun() {
try {
delay(timeoutMillis);
} catch (InterruptedException ok) {
}
}
};
}
public class MediumPossiblyInterruptedRunnable extends CheckedRunnable {
protected void realRun() {
try {
delay(MEDIUM_DELAY_MS);
} catch (InterruptedException ok) {
}
}
}
public class LongPossiblyInterruptedRunnable extends CheckedRunnable {
protected void realRun() {
try {
delay(LONG_DELAY_MS);
} catch (InterruptedException ok) {
}
}
}
/** For use as ThreadFactory in constructors */
public static class SimpleThreadFactory implements ThreadFactory {
public Thread newThread(Runnable r) {
return new Thread(r);
}
}
public interface TrackedRunnable extends Runnable {
boolean isDone();
}
public static TrackedRunnable trackedRunnable(final long timeoutMillis) {
return new TrackedRunnable() {
private volatile boolean done = false;
public boolean isDone() {
return done;
}
public void run() {
try {
delay(timeoutMillis);
done = true;
} catch (InterruptedException ok) {
}
}
};
}
public static class TrackedShortRunnable implements Runnable {
public volatile boolean done = false;
public void run() {
try {
delay(SHORT_DELAY_MS);
done = true;
} catch (InterruptedException ok) {
}
}
}
public static class TrackedSmallRunnable implements Runnable {
public volatile boolean done = false;
public void run() {
try {
delay(SMALL_DELAY_MS);
done = true;
} catch (InterruptedException ok) {
}
}
}
public static class TrackedMediumRunnable implements Runnable {
public volatile boolean done = false;
public void run() {
try {
delay(MEDIUM_DELAY_MS);
done = true;
} catch (InterruptedException ok) {
}
}
}
public static class TrackedLongRunnable implements Runnable {
public volatile boolean done = false;
public void run() {
try {
delay(LONG_DELAY_MS);
done = true;
} catch (InterruptedException ok) {
}
}
}
public static class TrackedNoOpRunnable implements Runnable {
public volatile boolean done = false;
public void run() {
done = true;
}
}
public static class TrackedCallable implements Callable {
public volatile boolean done = false;
public Object call() {
try {
delay(SMALL_DELAY_MS);
done = true;
} catch (InterruptedException ok) {
}
return Boolean.TRUE;
}
}
/** Analog of CheckedRunnable for RecursiveAction */
public abstract class CheckedRecursiveAction extends RecursiveAction {
protected abstract void realCompute() throws Throwable;
public final void compute() {
try {
realCompute();
} catch (Throwable t) {
threadUnexpectedException(t);
}
}
}
/** Analog of CheckedCallable for RecursiveTask */
public abstract class CheckedRecursiveTask<T> extends RecursiveTask<T> {
protected abstract T realCompute() throws Throwable;
public final T compute() {
try {
return realCompute();
} catch (Throwable t) {
threadUnexpectedException(t);
return null;
}
}
}
/** For use as RejectedExecutionHandler in constructors */
public static class NoOpREHandler implements RejectedExecutionHandler {
public void rejectedExecution(Runnable r, ThreadPoolExecutor executor) {}
}
/**
* A CyclicBarrier that uses timed await and fails with AssertionFailedErrors instead of throwing
* checked exceptions.
*/
public class CheckedBarrier extends CyclicBarrier {
public CheckedBarrier(int parties) {
super(parties);
}
public int await() {
try {
return super.await(2 * LONG_DELAY_MS, MILLISECONDS);
} catch (TimeoutException e) {
throw new AssertionFailedError("timed out");
} catch (Exception e) {
AssertionFailedError afe = new AssertionFailedError("Unexpected exception: " + e);
afe.initCause(e);
throw afe;
}
}
}
void checkEmpty(BlockingQueue q) {
try {
assertTrue(q.isEmpty());
assertEquals(0, q.size());
assertNull(q.peek());
assertNull(q.poll());
assertNull(q.poll(0, MILLISECONDS));
assertEquals("[]", q.toString());
assertTrue(Arrays.equals(q.toArray(), new Object[0]));
assertFalse(q.iterator().hasNext());
try {
q.element();
shouldThrow();
} catch (NoSuchElementException success) {
}
try {
q.iterator().next();
shouldThrow();
} catch (NoSuchElementException success) {
}
try {
q.remove();
shouldThrow();
} catch (NoSuchElementException success) {
}
} catch (InterruptedException ie) {
threadUnexpectedException(ie);
}
}
@SuppressWarnings("unchecked")
<T> T serialClone(T o) {
try {
ByteArrayOutputStream bos = new ByteArrayOutputStream();
ObjectOutputStream oos = new ObjectOutputStream(bos);
oos.writeObject(o);
oos.flush();
oos.close();
ObjectInputStream ois = new ObjectInputStream(new ByteArrayInputStream(bos.toByteArray()));
T clone = (T) ois.readObject();
assertSame(o.getClass(), clone.getClass());
return clone;
} catch (Throwable t) {
threadUnexpectedException(t);
return null;
}
}
}
/**
* Test suite for distributing JUnit3 tests. Simply add tests to this suite just like you would for
* regular JUnit3 suites, and these tests will be executed in parallel on the grid. Note that if
* there are no other grid nodes, this suite will still ensure parallel test execution within single
* JVM.
*
* <p>Below is an example of distributed JUnit3 test suite:
*
* <pre name="code" class="java">
* public class GridJunit3ExampleTestSuite {
* // Standard JUnit3 static suite method.
* public static TestSuite suite() {
* TestSuite suite = new GridJunit3TestSuite("Example Grid Test Suite");
*
* // Add tests.
* suite.addTestSuite(TestA.class);
* suite.addTestSuite(TestB.class);
* suite.addTestSuite(TestC.class);
*
* return suite;
* }
* }
* </pre>
*
* If you have four tests A, B, C, and D, and if you need to run A and B sequentially, then you
* should create a nested test suite with test A and B as follows:
*
* <pre name="code" class="java">
* public class GridJunit3ExampleTestSuite {
* // Standard JUnit3 static suite method.
* public static TestSuite suite() {
* TestSuite suite = new GridJunit3TestSuite("Example Grid Test Suite");
*
* // Nested test suite to run tests A and B sequentially.
* TestSuite nested = new TestSuite("Example Nested Sequential Suite");
*
* nested.addTestSuite(TestA.class);
* nested.addTestSuite(TestB.class);
*
* // Add tests A and B.
* suite.addTest(nested);
*
* // Add other tests.
* suite.addTestSuite(TestC.class);
*
* return suite;
* }
* }
* </pre>
*
* <p>Note that you can also grid-enable existing JUnit3 tests using {@link
* GridifyTest @GridifyTest} annotation which you can attach to your {@code suite()} methods of
* existing test suite. Refer to {@link GridifyTest @GridifyTest} documentation for more
* information.
*
* <p>Also note that some tests can only be executed locally mostly due to some environment issues.
* However they still can benefit from parallel execution with other tests. GridGain supports it via
* {@link GridJunit3LocalTestSuite} suites that can be added to {@code GridJunit3TestSuite}. Refer
* to {@link GridJunit3LocalTestSuite} documentation for more information.
*
* <h1 class="header">Logging</h1>
*
* When running distributed JUnit, all the logging that is done to {@link System#out} or {@link
* System#err} is preserved. GridGain will accumulate all logging that is done on remote nodes, send
* them back to originating node and associate all log statements with their corresponding tests.
* This way, for example, if you are running tests from and IDEA or Eclipse (or any other IDE) you
* would still see the logs as if it was a local run. However, since remote nodes keep all log
* statements done within a single individual test case in memory, you must make sure that enough
* memory is allocated on every node and that individual test cases do not spit out gigabytes of log
* statements. Also note, that logs will be sent back to originating node upon completion of every
* test, so don't be alarmed if you don't see any log statements for a while and then all of them
* appear at once.
*
* <p>GridGain achieves such log transparency via reassigning {@link System#out} or {@link
* System#err} to internal {@link PrintStream} implementation. However, when using {@code Log4J} (or
* any other logging framework) within your tests you must make sure that it is configured with
* {@link ConsoleAppender} and that {@link ConsoleAppender#setFollow(boolean)} attribute is set to
* {@code true}. Logging to files is not supported yet and is planned for next point release.
*
* <p>
*
* <h1 class="header">Test Suite Nesting</h1>
*
* {@code GridJunit3TestSuite} instances can be nested within each other as deep as needed. However
* all nested distributed test suites will be treated just like regular JUnit test suites, and not
* as distributed test suites. This approach becomes convenient when you have several distributed
* test suites that you would like to be able to execute separately in distributed fashion, but at
* the same time you would like to be able to execute them as a part of larger distributed suites.
*
* <p>
*
* <h1 class="header">Configuration</h1>
*
* To run distributed JUnit tests you need to start other instances of GridGain. You can do so by
* running {@code GRIDGAIN_HOME/bin/ggjunit.{sh|bat}} script, which will start default
* configuration. If configuration other than default is required, then use regular {@code
* GRIDGAIN_HOME/bin/ggstart.{sh|bat}} script and pass your own Spring XML configuration file as a
* parameter to the script.
*
* <p>You can use the following configuration parameters to configure distributed test suite
* locally. Note that many parameters can be overridden by setting corresponding VM parameters
* defined in {@link GridTestVmParameters} at VM startup.
*
* <table class="doctable">
* <tr>
* <th>GridConfiguration Method</th>
* <th>Default Value</th>
* <th>Description</th>
* </tr>
* <tr>
* <td>{@link #setDisabled(boolean) setDisabled(boolean)}</td>
* <td>{@code false}</td>
* <td>
* If {@code true} then GridGain will be turned off and suite will run locally.
* This value can be overridden by setting {@link GridTestVmParameters#GRIDGAIN_DISABLED} VM
* parameter to {@code true}. This parameter comes handy when you would like to
* turn off GridGain without changing the actual code.
* </td>
* </tr>
* <tr>
* <td>{@link #setConfigurationPath(String) setConfigurationPath(String)}</td>
* <td>{@link #DFLT_JUNIT_CONFIG DFLT_JUNIT_CONFIG}</td>
* <td>
* Optional path to GridGain Spring XML configuration file for running JUnit tests. This
* property can be overridden by setting {@link GridTestVmParameters#GRIDGAIN_CONFIG} VM
* parameter. Note that the value can be either absolute value or relative to
* ${GRIDGAIN_HOME} installation folder.
* </td>
* </tr>
* <tr>
* <td>{@link #setRouterClassName(String) setRouterClassName(String)}</td>
* <td>{@link #DFLT_JUNIT_ROUTER DFLT_JUNIT_ROUTER}</td>
* <td>
* Optional name of test router class that implements {@link GridTestRouter} interface.
* If not provided, then tests will be routed in round-robin fashion using default
* {@link GridTestRouterAdapter}. The value of this parameter can be overridden by setting
* {@link GridTestVmParameters#GRIDGAIN_TEST_ROUTER} VM parameter to the name of your
* own customer router class.
* </td>
* </tr>
* <tr>
* <td>{@link #setRouterClass(Class) setRouterClass(Class)}</td>
* <td>{@code null}</td>
* <td>
* Same as {@link #setRouterClassName(String) setRouterClassName(String)}, but sets the
* actual class instead of the name.
* </td>
* </tr>
* <tr>
* <td>{@link #setTimeout(long) setTimeout(long)}</td>
* <td>{@code 0} which means that tests will never timeout.</td>
* <td>
* Maximum timeout value in milliseconds after which test suite will return without
* waiting for the remaining tests to complete. This value can be overridden by setting
* {@link GridTestVmParameters#GRIDGAIN_TEST_TIMEOUT} VM parameter to the timeout value
* for the tests.
* </td>
* </tr>
* </table>
*
* @author 2005-2011 Copyright (C) GridGain Systems, Inc.
* @version 3.1.1c.19062011
*/
public class GridJunit3TestSuite extends TestSuite {
/**
* Default GridGain configuration file for JUnits (value is {@code
* config/junit/junit-spring.xml}).
*/
public static final String DFLT_JUNIT_CONFIG = "config/junit/junit-spring.xml";
/**
* Default JUnit test router (value is {@link GridTestRouterAdapter
* GridTestRouterAdapter.class.getName()}).
*/
public static final String DFLT_JUNIT_ROUTER = GridTestRouterAdapter.class.getName();
/** */
private final Collection<String> locTests = new HashSet<String>();
/** JUnit3 JavaAssist proxy. */
private final GridJunit3ProxyFactory factory = new GridJunit3ProxyFactory();
/** Flag indicating whether grid was started in this suite. */
private boolean selfStarted;
/** Junit3 Spring configuration path. */
private String cfgPath =
System.getProperty(GRIDGAIN_CONFIG.name()) == null
? DFLT_JUNIT_CONFIG
: System.getProperty(GRIDGAIN_CONFIG.name());
/**
* Check if GridGain is disabled by checking {@link GridTestVmParameters#GRIDGAIN_DISABLED} system
* property.
*/
private boolean isDisabled = Boolean.getBoolean(GRIDGAIN_DISABLED.name());
/** JUnit test router class name. */
private String routerClsName =
System.getProperty(GRIDGAIN_TEST_ROUTER.name()) == null
? DFLT_JUNIT_ROUTER
: System.getProperty(GRIDGAIN_TEST_ROUTER.name());
/** JUnit test router class. */
private Class<? extends GridTestRouter> routerCls;
/**
* Local suite in case if grid is disabled or if this is a nested suite within other distributed
* suite.
*/
private TestSuite copy;
/** JUnit grid name. */
private String gridName;
/** Test timeout. */
private long timeout =
Long.getLong(GRIDGAIN_TEST_TIMEOUT.name()) == null
? 0
: Long.getLong(GRIDGAIN_TEST_TIMEOUT.name());
/** */
private ClassLoader clsLdr;
/** Empty test suite. */
public GridJunit3TestSuite() {
if (copy == null) {
copy = new TestSuite();
}
}
/** @param name Test suite name. */
public GridJunit3TestSuite(String name) {
super(name);
if (copy == null) {
copy = new TestSuite(name);
}
}
/**
* Test suite for one class.
*
* @param cls Class for test suite.
*/
public GridJunit3TestSuite(Class<? extends TestCase> cls) {
super(cls);
if (copy == null) {
copy = new TestSuite(cls);
}
}
/**
* Test suite for a given test class with specified test name.
*
* @param cls Test class.
* @param name Test name.
*/
public GridJunit3TestSuite(Class<? extends TestCase> cls, String name) {
super(cls, name);
if (copy == null) {
copy = new TestSuite(cls, name);
}
}
/**
* Copies non-distributed test suite into distributed one.
*
* @param suite Test suite to copy.
*/
public GridJunit3TestSuite(TestSuite suite) {
super(suite.getName());
if (copy == null) {
copy = new TestSuite(suite.getName());
}
for (int i = 0; i < suite.testCount(); i++) {
addTest(suite.testAt(i));
}
}
/**
* Empty test suite with given class loader.
*
* @param clsLdr Tests class loader.
*/
public GridJunit3TestSuite(ClassLoader clsLdr) {
this();
assert clsLdr != null;
this.clsLdr = clsLdr;
}
/**
* @param name Test suite name.
* @param clsLdr Tests class loader.
*/
public GridJunit3TestSuite(String name, ClassLoader clsLdr) {
this(name);
assert clsLdr != null;
this.clsLdr = clsLdr;
}
/**
* Test suite for one class.
*
* @param cls Class for test suite.
* @param clsLdr Tests class loader.
*/
public GridJunit3TestSuite(Class<? extends TestCase> cls, ClassLoader clsLdr) {
this(cls);
assert clsLdr != null;
this.clsLdr = clsLdr;
}
/**
* Test suite for a given test class with specified test name.
*
* @param cls Test class.
* @param name Test name.
* @param clsLdr Tests class loader.
*/
public GridJunit3TestSuite(Class<? extends TestCase> cls, String name, ClassLoader clsLdr) {
this(cls, name);
assert clsLdr != null;
this.clsLdr = clsLdr;
}
/**
* Copies non-distributed test suite into distributed one.
*
* @param suite Test suite to copy.
* @param clsLdr Tests class loader.
*/
public GridJunit3TestSuite(TestSuite suite, ClassLoader clsLdr) {
this(suite);
assert clsLdr != null;
this.clsLdr = clsLdr;
}
/**
* Sets path to GridGain configuration file. By default {@code
* {GRIDGAIN_HOME}/config/junit/junit-spring.xml} is used.
*
* @param cfgPath Path to GridGain configuration file.
*/
public void setConfigurationPath(String cfgPath) {
this.cfgPath = cfgPath;
}
/**
* Gets path to GridGain configuration file. By default {@code
* {GRIDGAIN_HOME}/config/junit/junit-spring.xml} is used.
*
* @return Path to GridGain configuration file.
*/
public String getConfigurationPath() {
return cfgPath;
}
/**
* Disables GridGain. If set to {@code true} then this suite will execute locally as if GridGain
* was not in a picture at all.
*
* @param disabled If set to {@code true} then this suite will execute locally as if GridGain was
* not in a picture at all.
*/
public void setDisabled(boolean disabled) {
isDisabled = disabled;
}
/**
* Gets flag indicating whether GridGain should be enabled or not. If set to {@code true} then
* this suite will execute locally as if GridGain was not in a picture at all.
*
* @return Flag indicating whether GridGain should be enabled or not. If set to {@code true} then
* this suite will execute locally as if GridGain was not in a picture at all.
*/
public boolean isDisabled() {
return isDisabled;
}
/**
* Sets name of class for routing JUnit tests. By default {@link #DFLT_JUNIT_ROUTER} class name is
* used.
*
* @param routerClsName Junit test router class name.
*/
public void setRouterClassName(String routerClsName) {
this.routerClsName = routerClsName;
}
/**
* Gets JUnit test router class name.
*
* @return JUnit test router class name.
*/
public String getRouterClassName() {
return routerClsName;
}
/**
* Sets router class. By default {@link GridTestRouterAdapter} is used.
*
* @param routerCls Router class to use for test routing.
*/
public void setRouterClass(Class<? extends GridTestRouter> routerCls) {
this.routerCls = routerCls;
}
/**
* Gets router class used for test routing.
*
* @return Router class used for test routing.
*/
public Class<? extends GridTestRouter> getRouterClass() {
return routerCls;
}
/**
* Gets identical suite for local (non-distributed) execution.
*
* @return Local suite.
*/
public TestSuite getLocalCopy() {
return copy;
}
/** {@inheritDoc} */
@Override
public void setName(String name) {
if (copy != null) {
copy.setName(name);
}
super.setName(name);
}
/**
* Gets timeout for running distributed test suite.
*
* @return Timeout for tests.
*/
public long getTimeout() {
return timeout;
}
/**
* Sets timeout for running distributed test suite. By default, test execution does not expire.
*
* @param timeout Timeout for tests.
*/
public void setTimeout(long timeout) {
this.timeout = timeout;
}
/** {@inheritDoc} */
@Override
public Test testAt(int index) {
return isDisabled ? copy.testAt(index) : super.testAt(index);
}
/** {@inheritDoc} */
@Override
public int testCount() {
return isDisabled ? copy.testCount() : super.testCount();
}
/** {@inheritDoc} */
@Override
public Enumeration<Test> tests() {
return isDisabled ? copy.tests() : super.tests();
}
/**
* The added suite will be always executed locally, but in parallel with other locally or remotely
* running tests. This comes handy for tests that cannot be distributed for some environmental
* reasons, but still would benefit from parallel execution.
*
* <p>Note, that local suites will be executed on local node even if grid topology only allows
* remote nodes.
*
* @param localSuite Test to execute locally in parallel with other local or distributed tests.
*/
@SuppressWarnings({"TypeMayBeWeakened"})
public void addTest(GridJunit3LocalTestSuite localSuite) {
if (!locTests.contains(localSuite.getName())) {
locTests.add(localSuite.getName());
}
addTest((Test) localSuite);
}
/**
* Adds a test to be executed on the grid. In case of test suite, all tests inside of test suite
* will be executed sequentially on some remote node.
*
* @param test Test to add.
*/
@Override
public void addTest(Test test) {
if (copy == null) {
copy = new TestSuite(getName());
}
// Add test to the list of local ones.
if (test instanceof GridJunit3LocalTestSuite) {
String testName = ((TestSuite) test).getName();
if (!locTests.contains(testName)) {
locTests.add(testName);
}
}
if (test instanceof GridJunit3TestSuite) {
copy.addTest(((GridJunit3TestSuite) test).copy);
super.addTest(new GridJunit3TestSuiteProxy(((GridJunit3TestSuite) test).copy, factory));
} else if (test instanceof GridJunit3TestSuiteProxy) {
copy.addTest(((GridJunit3TestSuiteProxy) test).getOriginal());
super.addTest(test);
} else if (test instanceof GridJunit3TestCaseProxy) {
copy.addTest(((GridJunit3TestCaseProxy) test).getGridGainJunit3OriginalTestCase());
super.addTest(test);
} else if (test instanceof TestSuite) {
copy.addTest(test);
super.addTest(new GridJunit3TestSuiteProxy((TestSuite) test, factory));
} else {
assert test instanceof TestCase
: "Test must be either instance of TestSuite or TestCase: " + test;
copy.addTest(test);
super.addTest(factory.createProxy((TestCase) test));
}
}
/**
* Creates JUnit test router. Note that router must have a no-arg constructor.
*
* @return JUnit router instance.
*/
@SuppressWarnings({"unchecked"})
private GridTestRouter createRouter() {
try {
if (routerCls == null) {
routerCls = (Class<? extends GridTestRouter>) Class.forName(routerClsName);
} else {
routerClsName = routerCls.getName();
}
return routerCls.newInstance();
} catch (ClassNotFoundException e) {
throw new GridRuntimeException("Failed to initialize JUnit router: " + routerClsName, e);
} catch (IllegalAccessException e) {
throw new GridRuntimeException("Failed to initialize JUnit router: " + routerClsName, e);
} catch (InstantiationException e) {
throw new GridRuntimeException("Failed to initialize JUnit router: " + routerClsName, e);
}
}
/**
* Runs all tests belonging to this test suite on the grid.
*
* @param result Test result collector.
*/
@Override
public void run(TestResult result) {
if (isDisabled) {
copy.run(result);
} else {
GridTestRouter router = createRouter();
Grid grid = startGrid();
try {
List<GridTaskFuture<?>> futs = new ArrayList<GridTaskFuture<?>>(testCount());
List<GridJunit3SerializableTest> tests =
new ArrayList<GridJunit3SerializableTest>(testCount());
for (int i = 0; i < testCount(); i++) {
Test junit = testAt(i);
GridJunit3SerializableTest test;
if (junit instanceof TestSuite) {
test = new GridJunit3SerializableTestSuite((TestSuite) junit);
} else {
assert junit instanceof TestCase
: "Test must be either TestSuite or TestCase: " + junit;
test = new GridJunit3SerializableTestCase((TestCase) junit);
}
tests.add(test);
if (clsLdr == null) {
clsLdr = U.detectClassLoader(junit.getClass());
}
futs.add(
grid.execute(
new GridJunit3Task(junit.getClass(), clsLdr),
new GridJunit3Argument(router, test, locTests.contains(test.getName())),
timeout));
}
for (int i = 0; i < testCount(); i++) {
GridTaskFuture<?> fut = futs.get(i);
GridJunit3SerializableTest origTest = tests.get(i);
try {
GridJunit3SerializableTest resTest = (GridJunit3SerializableTest) fut.get();
origTest.setResult(resTest);
origTest.getTest().run(result);
} catch (GridException e) {
handleFail(result, origTest, e);
}
}
} finally {
stopGrid();
}
}
}
/**
* Handles test fail.
*
* @param result Test result.
* @param origTest Original JUnit test.
* @param e Exception thrown from grid.
*/
private void handleFail(TestResult result, GridJunit3SerializableTest origTest, Throwable e) {
// Simulate that all tests were run.
origTest.getTest().run(result);
// For the tests suite we assume that all tests failed because
// entire test suite execution failed and there is no way to get
// broken tests.
if (origTest.getTest() instanceof GridJunit3TestSuiteProxy) {
TestSuite suite = (((TestSuite) origTest.getTest()));
for (int j = 0; j < suite.testCount(); j++) {
result.addError(suite.testAt(j), e);
}
} else if (origTest.getTest() instanceof GridJunit3TestCaseProxy) {
result.addError(origTest.getTest(), e);
}
}
/**
* Starts Grid instance. Note that if grid is already started, then it will be looked up and
* returned from this method.
*
* @return Started grid.
*/
private Grid startGrid() {
Properties props = System.getProperties();
gridName = props.getProperty(GRIDGAIN_NAME.name());
if (!props.containsKey(GRIDGAIN_NAME.name()) || G.state(gridName) != GridFactoryState.STARTED) {
selfStarted = true;
// Set class loader for the spring.
ClassLoader curCl = Thread.currentThread().getContextClassLoader();
// Add no-op logger to remove no-appender warning.
Appender app = new NullAppender();
Logger.getRootLogger().addAppender(app);
try {
Thread.currentThread().setContextClassLoader(getClass().getClassLoader());
Grid grid = G.start(cfgPath);
gridName = grid.name();
System.setProperty(GRIDGAIN_NAME.name(), grid.name());
return grid;
} catch (GridException e) {
throw new GridRuntimeException("Failed to start grid: " + cfgPath, e);
} finally {
Logger.getRootLogger().removeAppender(app);
Thread.currentThread().setContextClassLoader(curCl);
}
}
return G.grid(gridName);
}
/** Stops grid only if it was started by this test suite. */
private void stopGrid() {
// Only stop grid if it was started here.
if (selfStarted) {
G.stop(gridName, true);
}
}
}