/*!a Test the occurancesOf() method .
*
* The test data for this test are :-
* a) When the search data is the first entry
* b) When the search data is the last entry
* c) When the search data is the mid(unique) entry
* d) When the search data has a matching value but not ref.
* e) When the search data has multiple matches - mixture of ref / values
* f) When the search data has no match at all.
*/
void testOccurancesOf()
{
const int testCount = 6 ;
const char* prefix = "Test the occurancesOf(UtlContainable* cl); where cl " ;
const char* Msgs[] = { \
"is the first entry ", \
"is the last entry and ref matches ", \
"is the mid entry and is unique ", \
"has a matching value but not reference ", \
"has multiple matches ", \
"has no match at all " \
} ;
commonList.insertAt(3, commonContainables_Clone[4]) ;
commonList.insertAt(5, commonContainables[4]) ;
UtlString notExistCollectable("This cannot and willnot exist");
UtlContainable* searchValues[] = { \
commonContainables[0], commonContainables[commonEntriesCount -1], \
commonContainables[2], commonContainables_Clone[3], \
commonContainables[4], ¬ExistCollectable \
} ;
size_t matchCount[] = { 1, 1, 1, 1, 3, 0 } ;
for (int i = 0 ; i < testCount ; i++)
{
string msg ;
TestUtilities::createMessage(2, &msg, prefix, Msgs[i]) ;
size_t actual = commonList.occurrencesOf(searchValues[i]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), matchCount[i], actual) ;
}
} //testOccurancesOf
/*!a Test case for the findNext() method
*
* The test data for this test case are :-
* a) When the match is the first element.
* b) When the match is the last element.
* c) When the match is a mid element(unique).
* d) When the match has two value matches (but a single ref match)
* e) When the match has two ref matches.
* f) When there is no match at all!
* g) When the match is after the current find.
*/
void testFindNext()
{
const int testCount = 7 ;
const char* prefixFind = "Test the find() method when the match " ;
const char* Msgs[] = { \
"is the first element ", \
"is the last element ", \
"is a mid element (unique match) ", \
"has two value matches but a single ref match ", \
"has two ref matches", \
"has a value match but no ref match", \
"has no match at all" \
} ;
// insert a clone of the 4th element to the 1st position
commonList.insertAt(1, (UtlContainable*)commonContainables_Clone[4]) ;
// The new index for a value match of commonContainables[4] must be 1.
// insert another copy of the 3rd element to the 2nd position.
commonList.insertAt(2, (UtlContainable*)commonContainables[3]) ;
// The new index for commonContainables[3] must be 2) ;
// what used to be the second element has now moved to 4.
UtlString noExist("This cannot and should not exist!!!") ;
const UtlContainable* searchValuesForFind[] = { \
commonContainables[0], commonContainables[5], commonContainables[2], \
commonContainables[4], commonContainables[3], \
commonContainables_Clone[1], &noExist \
} ;
const UtlContainable* expValuesForFind[] = { \
commonContainables[0], commonContainables[5], commonContainables[2], \
commonContainables_Clone[4], commonContainables[3], \
commonContainables[1], NULL \
} ;
UtlDListIterator iter(commonList) ;
for (int i = 0 ; i < testCount ; i++)
{
string msg ;
const UtlContainable* act = iter.findNext(searchValuesForFind[i]) ;
const UtlContainable* exp = expValuesForFind[i] ;
TestUtilities::createMessage(2, &msg, prefixFind, Msgs[i]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), exp, act) ;
iter.reset() ;
}
// Now test the case where the iterator is 'past' the index
iter.reset() ;
iter() ;
iter() ;
iter() ;
iter() ;
iter() ;
UtlContainable* act = iter.findNext(commonContainables[1]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE("test findNext() when the iterator has moved past the search index", (void*)NULL, (void*)act) ;
}//testFindNext
/*!a! Test case to verify insertAt(size_t, UtlContainable*) for an
* empty list.
* The test data for this test are
* a) Insert a UtlString to the 0th location,
* b) Insert a UtlInt to the 0th location,
* c) Insert any UtlContainable object to a 'non-zero' location
*/
void testInsertAt_EmptyList()
{
const int testCount = 3 ;
const char* prefix = "Test insert(n, Collectable*) for an empty list; "\
"where Collectable is " ;
const char* Msgs[] = { \
"a UtlString and n = 0", \
"a UtlInt and n = 0", \
"a UtlContainableXXX and n > 0" \
};
const char* suffix1 = " :- Verify return value" ;
const char* suffix2 = " :- Verify value is appended" ;
UtlInt testInt(102) ;
UtlString testString("Test String") ;
UtlString testNegative("This should not get added") ;
UtlContainable* itemToAdd[] = { &testString, &testInt, &testNegative } ;
UtlContainable* expectedValue[] = { &testString, &testInt, NULL} ;
int insertLocation[] = { 0, 0, 1} ;
for (int i = 0 ; i < testCount ; i++)
{
UtlDList testList ;
string msg ;
// insertAt now returns void. Retain this block of comment in case
// we (I think we should return a Collectable / bool) decide to return
// a collectable.
UtlContainable* result = testList.insertAt(insertLocation[i], itemToAdd[i]);
//verify that the right value is returned.
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix1) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValue[i], result) ;
testList.insertAt(insertLocation[i], itemToAdd[i]) ;
// verify that the value is inserted
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix2) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValue[i], testList.at(0)) ;
}
}//testInsertAt_EmptyList
/*!a Test case to verify insertAt(size_t, UtlContainable*) for a
* list that is not empty.
* The test data for this test are
* a) Insert any UtlContainable to the 0th location,
* b) Insert a UtlInt to a 'mid' location,
* c) Insert any UtlString object to a 'mid' location
* d) Insert any UtlContainable object to the last location
*/
void testInsertAt_NonEmptyList()
{
const int testCount = 4 ;
const char* prefix = "Test insert(n, Collectable*) for a list that is not empty; "\
"where Collectable is " ;
const char* Msgs[] = { \
"a UtlContainableXXX and n = 0", \
"a UtlString and n > 0 && n < size", \
"a UtlInt and n > 0 && n < size", \
"a UtlContainableXXX where n = size-1" \
};
const char* suffix1 = " :- Verify return value" ;
const char* suffix2 = " :- Verify value is appended" ;
const char* suffix3 = " :- Verify new list size" ;
UtlString testFirst("First Entry") ;
UtlInt testInt(102) ;
UtlString testString("Test String") ;
UtlInt testLast(99999) ;
UtlContainable* itemToAdd[] = { &testFirst, &testInt, &testString, &testLast } ;
UtlContainable* expectedValue[] = { &testFirst, &testInt, &testString, &testLast} ;
int insertLocation[] = { 0, 2, 3, commonEntriesCount+3} ;
int tmpCount = commonEntriesCount ;
int expectedEntries[] = {++tmpCount, ++tmpCount, ++tmpCount, ++tmpCount} ;
for (int i = 0 ; i < testCount ; i++)
{
UtlContainable* uActual ;
string msg ;
// comment out for now. Uncomment if implementation returns Collectable
uActual = commonList.insertAt(insertLocation[i], itemToAdd[i]);
//verify that the right value is returned.
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix1) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValue[i], uActual) ;
//`commonList.insertAt(insertLocation[i], itemToAdd[i]);
// verify that the value is inserted
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix2) ;
uActual = commonList.at(insertLocation[i]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValue[i], uActual) ;
//verify that the total number of entries has incremented by one.
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix3) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedEntries[i], \
(int)commonList.entries()) ;
}
}//testInsertAt_NonEmptyList()
void utlTestRemove(RemoveType type)
{
int testCount = 5 ;
const char* prefix = "";
if (type == TEST_REMOVE)
{
prefix = "test the remove(UtlContainable* c) method where c" ;
}
else if (type == TEST_REMOVE_REF)
{
prefix = "test the removeReference(UtlContainable* c) where c" ;
}
const char* Msgs[] = { \
"is the first entry's reference ", \
"is the last entry' reference ", \
"is the mid entry's value(not reference) ", \
"is the first of multiple matches and is the value match ", \
"has no match at all " \
} ;
const char* suffix1 = " :- Verify returned value" ;
const char* suffix2 = " :- Verify total entries" ;
commonList.insertAt(2, commonContainables_Clone[4]) ;
UtlString notExistCollectable("This cannot and willnot exist");
UtlContainable* itemToRemove[] = { \
commonContainables[0], commonContainables[commonEntriesCount -1 ], \
commonContainables_Clone[2], commonContainables[4], \
¬ExistCollectable \
} ;
int totalEnt = commonEntriesCount + 1;
UtlContainable* expectedValue[] = { \
commonContainables[0], commonContainables[commonEntriesCount -1 ], \
commonContainables[2], commonContainables_Clone[4], \
NULL \
};
int entriesValue[] = { --totalEnt, --totalEnt, --totalEnt, --totalEnt, totalEnt } ;
totalEnt = commonEntriesCount + 1;
UtlContainable* expectedRef[] = { \
commonContainables[0], commonContainables[commonEntriesCount -1 ], \
NULL, commonContainables[4], \
NULL \
};
int entriesRef[] = { --totalEnt, --totalEnt, totalEnt, --totalEnt, totalEnt } ;
for (int i = 0 ; i < testCount ; i++)
{
string msg ;
if (type == TEST_REMOVE)
{
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix1) ;
UtlContainable* retValue = commonList.remove(itemToRemove[i]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValue[i], retValue) ;
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix2) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), entriesValue[i], (int)commonList.entries()) ;
}
else if (type == TEST_REMOVE_REF)
{
UtlContainable* uRemoved = commonList.removeReference(itemToRemove[i]) ;
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix2) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedRef[i], uRemoved) ;
TestUtilities::createMessage(3, &msg, prefix, Msgs[i], suffix2) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), entriesRef[i], (int)commonList.entries()) ;
}
}
} //utlRemove
// Since the test setup / preconditions for the index, find,
// contains and containsReference are all the same, these
// tests have been combined into one utility function. Based
// on the type argument, the method to be tested is varied.
void utlTestIndex_Find_And_Contains(IndexOrContains type)
{
const int testCount = 7 ;
const char* prefixIndex = "Test the index() method when the match " ;
const char* prefixFind = "Test the find() method when the match " ;
const char* prefixContains = "Test the contains() method when the match " ;
const char* prefixContainsRef = "Test the containsReference() method when the match " ;
const char* Msgs[] = { \
"is the first element ", \
"is the last element ", \
"is a mid element (unique match) ", \
"has two value matches but a single ref match ", \
"has two ref matches", \
"has a value match but no ref match", \
"has no match at all" \
} ;
// insert a clone of the 4th element to the 1st position
commonList.insertAt(1, commonContainables_Clone[4]) ;
// The new index for a value match of commonContainables[4] must be 1.
// insert another copy of the 3rd element to the 2nd position.
commonList.insertAt(2, commonContainables[3]) ;
// The new index for commonContainables[3] must be 2) ;
// what used to be the second element has now moved to 4.
UtlString noExist("This cannot and should not exist!!!") ;
UtlContainable* searchValues[] = { \
commonContainables[0], commonContainables[5], commonContainables[2], \
commonContainables[4], commonContainables[3], \
commonContainables_Clone[2], &noExist \
} ;
size_t expectedValues_Index[] = { 0, 7, 4, 1, 2, 4, UTL_NOT_FOUND } ;
bool expectedValues_Contains[] = {true, true, true, true, true, true, false } ;
bool expectedValues_ContainsRef[] = {true, true, true, true, true, false, false} ;
UtlContainable* searchValuesForFind[] = { \
commonContainables[0], commonContainables[5], commonContainables[2], \
commonContainables[4], commonContainables[3], \
commonContainables_Clone[1], &noExist \
} ;
UtlContainable* expectedValuesForFind[] = { \
commonContainables[0], commonContainables[5], commonContainables[2], \
commonContainables_Clone[4], commonContainables[3], \
commonContainables[1], NULL \
} ;
for (int i = 0 ; i < testCount ; i++)
{
string msg ;
if (type == TEST_INDEX)
{
size_t actual = commonList.index(searchValues[i]) ;
TestUtilities::createMessage(2, &msg, prefixIndex, Msgs[i]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValues_Index[i], actual) ;
}
else if (type == TEST_FIND)
{
UtlContainable* actual = commonList.find(searchValuesForFind[i]) ;
TestUtilities::createMessage(2, &msg, prefixFind, Msgs[i]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValuesForFind[i], actual) ;
}
else if (type == TEST_CONTAINS)
{
UtlBoolean actual = commonList.contains(searchValues[i]) ;
TestUtilities::createMessage(2, &msg, prefixContains, Msgs[i]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValues_Contains[i], \
(TRUE == actual)) ;
}
else if (type == TEST_CONTAINS_REF)
{
UtlBoolean actual = commonList.containsReference(searchValues[i]) ;
TestUtilities::createMessage(2, &msg, prefixContainsRef, Msgs[i]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), expectedValues_ContainsRef[i], \
(TRUE == actual)) ;
}
}
}//utlTestIndex
/*!a Test case to test the first() and last() method.
*
* The test data for this test case is :-
* a) Test the first and last element after appending
* b) Test the first and last element after insertAt(midlevel)
* c) Test the first and last element after insertAt(0)
* d) Test the first and last element after insertAt(last)
*/
void testFirst_And_Last()
{
const char* prefix1 = "Test the first() method ";
const char* prefix2 = "Test the last() method " ;
string msg ;
UtlContainable* uActual ;
UtlContainable* uData ;
UtlContainable* uExpected ;
const char* Msgs[] = { \
"after appending ", \
"after insertAt(0) ", \
"after insertAt(last) ", \
"after insertAt(mid-level) " \
} ;
// Since this testcase requires a different test data
// for each of its test data, the regula test-matrix
// technique is not being used here.
// create a new list and append one element to it.
UtlDList testList ;
uData = commonContainables[0] ;
testList.append(uData);
// Test the first() and last() element immeidately after
// appending to an empty list.
TestUtilities::createMessage(2, &msg, prefix1, Msgs[0]);
uActual = testList.first() ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), uData, uActual) ;
uActual = testList.last() ;
TestUtilities::createMessage(2, &msg, prefix2, Msgs[0]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), uData, uActual) ;
// insert more values to populate the List
testList.append(commonContainables[1]) ;
testList.append(commonContainables[2]) ;
// test the first() / last() methods
// after insertAt(0..)
uData = commonContainables[3] ;
testList.insertAt(0, uData) ;
uExpected = commonContainables[3] ;
uActual = testList.first() ;
TestUtilities::createMessage(2, &msg, prefix1, Msgs[1]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), uExpected, uActual) ;
uExpected = commonContainables[2] ;
uActual = testList.last() ;
TestUtilities::createMessage(2, &msg, prefix2, Msgs[1]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), uExpected, uActual) ;
// test after inserting at the last location
uData = commonContainables[4] ;
testList.insertAt(4, uData) ;
uExpected = commonContainables[3] ;
uActual = testList.first() ;
TestUtilities::createMessage(2, &msg, prefix1, Msgs[2]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), uExpected, uActual) ;
uExpected = commonContainables[4] ;
uActual = testList.last() ;
TestUtilities::createMessage(2, &msg, prefix2, Msgs[2]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), uExpected, uActual) ;
//test after inserting at the midLocation
uData = commonContainables[5] ;
testList.insertAt(2, uData) ;
uExpected = commonContainables[3] ;
uActual = testList.first() ;
TestUtilities::createMessage(2, &msg, prefix1, Msgs[3]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), uExpected, uActual) ;
uExpected = commonContainables[4] ;
uActual = testList.last() ;
TestUtilities::createMessage(2, &msg, prefix2, Msgs[3]) ;
CPPUNIT_ASSERT_EQUAL_MESSAGE(msg.data(), uExpected, uActual) ;
} //testFirst_And_Last