@Test
public void testForEachProcedure() {
// Test that the container do not resize if less that the initial size
// 1) Choose a map to build
/*! #if ($TemplateOptions.isKType("GENERIC", "int", "long", "float", "double")) !*/
final int NB_ELEMENTS = 2000;
/*!
#elseif ($TemplateOptions.isKType("short", "char"))
int NB_ELEMENTS = 1000;
#else
int NB_ELEMENTS = 126;
#end !*/
final KTypeSet<KType> newSet = createNewSetInstance();
newSet.add(this.keyE);
// add a increasing number of key
for (int i = 0; i < NB_ELEMENTS; i++) {
final int KVpair = i;
newSet.add(cast(KVpair));
}
// List the keys in the reverse-order of the internal buffer, since forEach() is iterating in
// reverse also:
final KTypeArrayList<KType> keyList = new KTypeArrayList<KType>();
keyList.add(this.keyE);
for (int i = getKeys(newSet).length - 1; i >= 0; i--) {
if (is_allocated(i, Intrinsics.<KType[]>cast(getKeys(newSet)))) {
keyList.add(Intrinsics.<KType>cast(getKeys(newSet)[i]));
}
}
// Test forEach predicate and stop at each key in turn.
final KTypeArrayList<KType> keyListTest = new KTypeArrayList<KType>();
keyListTest.clear();
// A) Run forEach(KType)
newSet.forEach(
new KTypeProcedure<KType>() {
@Override
public void apply(final KType key) {
keyListTest.add(key);
}
});
// check that keyList/keyListTest and valueList/valueListTest are identical.
Assert.assertEquals(keyList, keyListTest);
}
/*! #if ($TemplateOptions.KTypeGeneric) !*/
@SuppressWarnings("unchecked")
@Test
public void testHashCodeWithNulls() {
final KTypeSet<KType> l1 = getFrom(this.k1, null, this.k3);
final KTypeSet<KType> l2 = getFrom(this.k1, null);
l2.add(this.k3);
Assert.assertEquals(l1.hashCode(), l2.hashCode());
Assert.assertEquals(l1, l2);
}
private KTypeSet<KType> createSetWithOrderedData(final int size) {
final KTypeSet<KType> newSet = createNewSetInstance();
for (int i = 0; i < size; i++) {
newSet.add(cast(i));
}
return newSet;
}
@Test
public void testInitialCapacityAndGrowth() {
for (int i = 0; i < 256; i++) {
final KTypeSet<KType> set = createNewSetInstance(i, HashContainers.MAX_LOAD_FACTOR);
for (int j = 0; j < i; j++) {
set.add(cast(j));
}
Assert.assertEquals(i, set.size());
}
}
/*! #if ($TemplateOptions.KTypeGeneric) !*/
@SuppressWarnings("unchecked")
/*! #end !*/
@Test
public void testClone() {
addFromArray(this.set, this.key1, this.key2, this.key3, this.keyE);
final KTypeSet<KType> cloned = getClone(this.set);
cloned.removeAll(this.key1);
TestUtils.assertSortedListEquals(
this.set.toArray(), this.keyE, this.key1, this.key2, this.key3);
TestUtils.assertSortedListEquals(cloned.toArray(), this.keyE, this.key2, this.key3);
}
@Test
public void testPooledIteratorFullIteratorLoop() {
// A) for-each loop interrupted
// must accommodate even the smallest primitive type
// so that the iteration do not break before it should...
final int TEST_SIZE = 126;
final long TEST_ROUNDS = 5000;
final KTypeSet<KType> testContainer = createSetWithOrderedData(TEST_SIZE);
final long checksum =
testContainer.forEach(
new KTypeProcedure<KType>() {
long count;
@Override
public void apply(final KType value) {
this.count += castType(value);
}
})
.count;
long testValue = 0;
final int startingPoolSize = getEntryPoolSize(testContainer);
for (int round = 0; round < TEST_ROUNDS; round++) {
// Classical iterator loop, with manually allocated Iterator
final int initialPoolSize = getEntryPoolSize(testContainer);
final AbstractIterator<KTypeCursor<KType>> loopIterator =
(AbstractIterator<KTypeCursor<KType>>) testContainer.iterator();
Assert.assertEquals(initialPoolSize - 1, getEntryPoolSize(testContainer));
testValue = 0;
while (loopIterator.hasNext()) {
testValue += castType(loopIterator.next().value);
} // end IteratorLoop
// iterator is returned automatically to its pool, by normal iteration termination
Assert.assertEquals(initialPoolSize, getEntryPoolSize(testContainer));
// checksum
Assert.assertEquals(checksum, testValue);
} // end for rounds
// pool initial size is untouched anyway
Assert.assertEquals(startingPoolSize, getEntryPoolSize(testContainer));
}
@Test
public void testPooledIteratorBrokenIteratorLoop() {
// A) for-each loop interrupted
// must accommodate even the smallest primitive type
// so that the iteration do not break before it should...
final int TEST_SIZE = 126;
final long TEST_ROUNDS = 5000;
final KTypeSet<KType> testContainer = createSetWithOrderedData(TEST_SIZE);
final int startingPoolSize = getEntryPoolSize(testContainer);
int count = 0;
for (int round = 0; round < TEST_ROUNDS; round++) {
// Classical iterator loop, with manually allocated Iterator
final long initialPoolSize = getEntryPoolSize(testContainer);
final AbstractIterator<KTypeCursor<KType>> loopIterator =
(AbstractIterator<KTypeCursor<KType>>) testContainer.iterator();
Assert.assertEquals(initialPoolSize - 1, getEntryPoolSize(testContainer));
count = 0;
int guard = 0;
while (loopIterator.hasNext()) {
guard += castType(loopIterator.next().value);
// brutally interrupt in the middle
if (count > TEST_SIZE / 2) {
break;
}
count++;
} // end IteratorLoop
// iterator is NOT returned to its pool, due to the break.
Assert.assertEquals(initialPoolSize - 1, getEntryPoolSize(testContainer));
// manual return to the pool
loopIterator.release();
// now the pool is restored
Assert.assertEquals(initialPoolSize, getEntryPoolSize(testContainer));
} // end for rounds
// pool initial size is untouched anyway
Assert.assertEquals(startingPoolSize, getEntryPoolSize(testContainer));
}
@Test
public void testPooledIteratorForEach() {
// A) Unbroken for-each loop
// must accommodate even the smallest primitive type
// so that the iteration do not break before it should...
final int TEST_SIZE = 126;
final long TEST_ROUNDS = 5000;
final KTypeSet<KType> testContainer = createSetWithOrderedData(TEST_SIZE);
final long checksum =
testContainer.forEach(
new KTypeProcedure<KType>() {
long count;
@Override
public void apply(final KType value) {
this.count += castType(value);
}
})
.count;
long testValue = 0;
final long initialPoolSize = getEntryPoolSize(testContainer);
for (int round = 0; round < TEST_ROUNDS; round++) {
// for-each in test :
testValue = 0;
for (final KTypeCursor<KType> cursor : testContainer) {
// we consume 1 iterator for this loop
Assert.assertEquals(initialPoolSize - 1, getEntryPoolSize(testContainer));
testValue += castType(cursor.value);
}
// check checksum the iteration
Assert.assertEquals(checksum, testValue);
// iterator is returned to its pool
Assert.assertEquals(initialPoolSize, getEntryPoolSize(testContainer));
} // end for rounds
}
@Repeat(iterations = 10)
@Test
public void testPreallocatedSize() {
final Random randomVK = RandomizedTest.getRandom();
// Test that the container do not resize if less that the initial size
// 1) Choose a random number of elements
/*! #if ($TemplateOptions.isKType("GENERIC", "INT", "LONG", "FLOAT", "DOUBLE")) !*/
final int PREALLOCATED_SIZE = randomVK.nextInt(10000);
/*!
#elseif ($TemplateOptions.isKType("SHORT", "CHAR"))
int PREALLOCATED_SIZE = randomVK.nextInt(1500);
#else
int PREALLOCATED_SIZE = randomVK.nextInt(126);
#end !*/
final KTypeSet<KType> newSet =
createNewSetInstance(PREALLOCATED_SIZE, HashContainers.DEFAULT_LOAD_FACTOR);
// computed real capacity
final int realCapacity = newSet.capacity();
// 3) Add PREALLOCATED_SIZE different values. At the end, size() must be == realCapacity,
// and internal buffer/allocated must not have changed of size
final int contructorBufferSize = getKeys(newSet).length;
Assert.assertEquals(contructorBufferSize, getKeys(newSet).length);
for (int i = 0; i < 1.5 * realCapacity; i++) {
newSet.add(cast(i));
// internal size has not changed until realCapacity
if (newSet.size() <= realCapacity) {
Assert.assertEquals(contructorBufferSize, getKeys(newSet).length);
}
if (contructorBufferSize < getKeys(newSet).length) {
// The container as just reallocated, its actual size must be not too far from the previous
// capacity:
Assert.assertTrue(
"Container as reallocated at size = "
+ newSet.size()
+ " with previous capacity = "
+ realCapacity,
(newSet.size() - realCapacity) <= 3);
break;
}
}
}
@Test
public void testForEachProcedureWithException() {
// Test that the container do not resize if less that the initial size
// 1) Choose a map to build
/*! #if ($TemplateOptions.isKType("GENERIC", "int", "long", "float", "double")) !*/
final int NB_ELEMENTS = 2000;
/*!
#elseif ($TemplateOptions.isKType("short", "char"))
int NB_ELEMENTS = 1000;
#else
int NB_ELEMENTS = 126;
#end !*/
final KTypeSet<KType> newSet = createNewSetInstance();
newSet.add(this.keyE);
// add a increasing number of key
for (int i = 0; i < NB_ELEMENTS; i++) {
final int KVpair = i;
newSet.add(cast(KVpair));
}
// List the keys in the reverse-order of the internal buffer, since forEach() is iterating in
// reverse also:
final KTypeArrayList<KType> keyList = new KTypeArrayList<KType>();
keyList.add(this.keyE);
// Test forEach predicate and stop at each key in turn.
final KTypeArrayList<KType> keyListTest = new KTypeArrayList<KType>();
for (int k = getKeys(newSet).length - 1; k >= 0; k--) {
if (is_allocated(k, Intrinsics.<KType[]>cast(getKeys(newSet)))) {
keyList.add(Intrinsics.<KType>cast(getKeys(newSet)[k]));
}
}
final int size = keyList.size();
for (int i = 0; i < size; i++) {
final int currentPairIndexSizeToIterate = i + 1;
keyListTest.clear();
keyList.clear();
keyList.add(this.keyE);
for (int k = getKeys(newSet).length - 1; k >= 0; k--) {
if (is_allocated(k, Intrinsics.<KType[]>cast(getKeys(newSet)))) {
keyList.add(Intrinsics.<KType>cast(getKeys(newSet)[k]));
}
}
// A) Run forEach(KType)
try {
newSet.forEach(
new KTypeProcedure<KType>() {
@Override
public void apply(final KType key) {
keyListTest.add(key);
// when the stopping key/value pair is encountered, add to list and stop iteration
if (key == keyList.get(currentPairIndexSizeToIterate - 1)) {
// interrupt iteration by an exception
throw new RuntimeException("Interrupted treatment by test");
}
}
});
} catch (final RuntimeException e) {
if (!e.getMessage().equals("Interrupted treatment by test")) {
throw e;
}
} finally {
// despite the exception, the procedure terminates cleanly
// check that keyList/keyListTest and valueList/valueListTest are identical for the first
// currentPairIndexToIterate + 1 elements
Assert.assertEquals("i = " + i, currentPairIndexSizeToIterate, keyListTest.size());
for (int j = 0; j < currentPairIndexSizeToIterate; j++) {
TestUtils.assertEquals2("j = " + j, keyList.get(j), keyListTest.get(j));
}
} // end finally
} // end for each index
}
@Test
public void testPooledIteratorExceptionIteratorLoop() {
// must accommodate even the smallest primitive type
// so that the iteration do not break before it should...
final int TEST_SIZE = 126;
final long TEST_ROUNDS = 5000;
final KTypeSet<KType> testContainer = createSetWithOrderedData(TEST_SIZE);
final long checksum =
testContainer.forEach(
new KTypeProcedure<KType>() {
long count;
@Override
public void apply(final KType value) {
this.count += castType(value);
}
})
.count;
final int startingPoolSize = getEntryPoolSize(testContainer);
int count = 0;
AbstractIterator<KTypeCursor<KType>> loopIterator = null;
for (int round = 0; round < TEST_ROUNDS; round++) {
try {
loopIterator = (AbstractIterator<KTypeCursor<KType>>) testContainer.iterator();
Assert.assertEquals(startingPoolSize - 1, getEntryPoolSize(testContainer));
int guard = 0;
count = 0;
while (loopIterator.hasNext()) {
guard += castType(loopIterator.next().value);
// brutally interrupt in the middle some of the loops, but not all
if (round > TEST_ROUNDS / 2 && count > TEST_SIZE / 2) {
throw new Exception("Oups some problem in the loop occured");
}
count++;
} // end while
// iterator is returned to its pool in case of normal loop termination
Assert.assertEquals(startingPoolSize, getEntryPoolSize(testContainer));
Assert.assertEquals(checksum, guard);
} catch (final Exception e) {
// iterator is NOT returned to its pool because of the exception
Assert.assertEquals(startingPoolSize - 1, getEntryPoolSize(testContainer));
// manual return to the pool then
loopIterator.release();
// now the pool is restored
Assert.assertEquals(startingPoolSize, getEntryPoolSize(testContainer));
}
} // end for rounds
// pool initial size is untouched anyway
Assert.assertEquals(startingPoolSize, getEntryPoolSize(testContainer));
}
@Test
/*! #if ($TemplateOptions.KTypeGeneric) !*/
@SuppressWarnings("unchecked")
/*! #end !*/
public void testEquals() {
final KTypeSet<KType> l0 = getFrom();
Assert.assertEquals(l0, createNewSetInstance());
KTypeSet<KType> l1 = getFrom(this.k1, this.k2, this.k3, this.k4, this.k5);
KTypeSet<KType> l2 = getFrom(this.k2, this.k1);
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
Assert.assertFalse(l1.equals(null));
Assert.assertFalse(l2.equals(null));
l2.add(this.k5);
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
l2.add(this.k4);
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
l2.add(this.k3);
Assert.assertEquals(l1, l2);
Assert.assertEquals(l2, l1);
// Check consistency with hashCode:
Assert.assertEquals(l1.hashCode(), l2.hashCode());
l1.add(this.keyE);
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
l2.add(this.keyE);
Assert.assertEquals(l1, l2);
Assert.assertEquals(l2, l1);
// Check consistency with hashCode:
Assert.assertEquals(l1.hashCode(), l2.hashCode());
l2.remove(this.keyE);
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
l2.add(this.keyE);
Assert.assertEquals(l1, l2);
Assert.assertEquals(l2, l1);
// Check consistency with hashCode:
Assert.assertEquals(l1.hashCode(), l2.hashCode());
l2.remove(this.k7); // not present, sets are still OK
Assert.assertEquals(l1, l2);
Assert.assertEquals(l2, l1);
// Check consistency with hashCode:
Assert.assertEquals(l1.hashCode(), l2.hashCode());
l2.remove(this.k2);
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
l1.remove(this.k2);
Assert.assertEquals(l1, l2);
Assert.assertEquals(l2, l1);
// Check consistency with hashCode:
Assert.assertEquals(l1.hashCode(), l2.hashCode());
l1.add(this.k7);
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
l2.clear();
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
l1.clear();
Assert.assertEquals(l1, l2);
Assert.assertEquals(l2, l1);
// Check consistency with hashCode:
Assert.assertEquals(l1.hashCode(), l2.hashCode());
// Same size, different contents
l1 = getFrom(this.k1, this.k2, this.k3, this.k4, this.k5);
l2 = getFrom(this.k2, this.k1, this.key5, this.key6, this.key7);
Assert.assertNotEquals(l1, l2);
Assert.assertNotEquals(l2, l1);
}
@Test
/*! #if ($TemplateOptions.KTypeGeneric) !*/
@SuppressWarnings("unchecked")
/*! #end !*/
public void testHashCodeEquals() {
final KTypeSet<KType> l0 = getFrom();
Assert.assertEquals(0, l0.hashCode());
Assert.assertEquals(l0, createNewSetInstance());
final KTypeSet<KType> l1 = getFrom(this.k1, this.k2, this.k3);
final KTypeSet<KType> l2 = getFrom(this.k1, this.k2);
l2.add(this.k3);
Assert.assertEquals(l1.hashCode(), l2.hashCode());
Assert.assertEquals(l1, l2);
l1.add(this.keyE);
l2.add(this.keyE);
Assert.assertEquals(l1.hashCode(), l2.hashCode());
Assert.assertEquals(l1, l2);
}
@Repeat(iterations = 25)
@Seed("88DC7A1093FD66C5")
@Test
public void testNoOverallocation() {
final Random randomVK = RandomizedTest.getRandom();
// Test that the container do not resize if less that the initial size
// 1) Choose a random number of elements
/*! #if ($TemplateOptions.isKType("GENERIC", "INT", "LONG", "FLOAT", "DOUBLE")) !*/
final int PREALLOCATED_SIZE = randomVK.nextInt(10000);
/*!
#elseif ($TemplateOptions.isKType("SHORT", "CHAR"))
int PREALLOCATED_SIZE = randomVK.nextInt(126);
#else
int PREALLOCATED_SIZE = randomVK.nextInt(10000);
#end !*/
// 2) Preallocate to PREALLOCATED_SIZE, use default factor because copy-constructor use this.
final KTypeSet<KType> refContainer =
createNewSetInstance(PREALLOCATED_SIZE, HashContainers.DEFAULT_LOAD_FACTOR);
final int refCapacity = refContainer.capacity();
// 3) Fill with random values, random number of elements below preallocation
final int nbElements = RandomizedTest.randomInt(PREALLOCATED_SIZE);
for (int i = 0; i < nbElements; i++) {
refContainer.add(cast(i));
}
// Capacity must have not changed, i.e no reallocation must have occured.
Assert.assertEquals(refCapacity, refContainer.capacity());
final int nbRefElements = refContainer.size();
Assert.assertEquals(refCapacity, refContainer.capacity());
// 4) Duplicate by copy-construction and/or clone
KTypeSet<KType> clonedContainer = getClone(refContainer);
KTypeSet<KType> copiedContainer = getCopyConstructor(refContainer);
final int copiedCapacity = copiedContainer.capacity();
final int clonedCapacity = copiedContainer.capacity();
Assert.assertEquals(nbRefElements, clonedContainer.size());
Assert.assertEquals(nbRefElements, copiedContainer.size());
// Due to different pre-sizings, clones and copy constructed may or may not have the same
// capacity as the refContainer.
Assert.assertTrue(clonedContainer.equals(refContainer));
Assert.assertTrue(copiedContainer.equals(refContainer));
// Maybe we were lucky, iterate duplication over itself several times
for (int j = 0; j < 10; j++) {
clonedContainer = getClone(clonedContainer);
copiedContainer = getFrom(copiedContainer);
// when copied over itself, of course every characteristic must be constant, else something is
// wrong.
Assert.assertEquals("j = " + j, nbRefElements, clonedContainer.size());
Assert.assertEquals("j = " + j, nbRefElements, copiedContainer.size());
Assert.assertEquals("j = " + j, clonedCapacity, clonedContainer.capacity());
Assert.assertEquals("j = " + j, copiedCapacity, copiedContainer.capacity());
Assert.assertTrue("j = " + j, clonedContainer.equals(refContainer));
Assert.assertTrue("j = " + j, copiedContainer.equals(refContainer));
}
}