TEST(AttackCharacterTest, WarriorsAndRoguesTakeFullDamageFromMagicSpells){
Character warrior(WARRIOR);
Character rogue(ROGUE);
MagicAttack spell;
warrior.sustainDamage(&spell);
rogue.sustainDamage(&spell);
EXPECT_EQ(WARRIOR_HP - 50, warrior.getRemainingHP());
EXPECT_EQ(ROGUE_HP - 50, rogue.getRemainingHP());
}
void test_example_cpp(bool copy_on_write) {
// create a new empty bitmap
Roaring r1;
r1.setCopyOnWrite(copy_on_write);
// then we can add values
for (uint32_t i = 100; i < 1000; i++) {
r1.add(i);
}
// check whether a value is contained
assert_true(r1.contains(500));
// compute how many bits there are:
uint32_t cardinality = r1.cardinality();
std::cout << "Cardinality = " << cardinality << std::endl;
// if your bitmaps have long runs, you can compress them by calling
// run_optimize
uint32_t size = r1.getSizeInBytes();
r1.runOptimize();
uint32_t compact_size = r1.getSizeInBytes();
std::cout << "size before run optimize " << size << " bytes, and after "
<< compact_size << " bytes." << std::endl;
// create a new bitmap with varargs
Roaring r2 = Roaring::bitmapOf(5, 1, 2, 3, 5, 6);
r2.printf();
printf("\n");
// test select
uint32_t element;
r2.select(3, &element);
assert_true(element == 5);
assert_true(r2.minimum() == 1);
assert_true(r2.maximum() == 6);
assert_true(r2.rank(4) == 3);
// we can also create a bitmap from a pointer to 32-bit integers
const uint32_t values[] = {2, 3, 4};
Roaring r3(3, values);
r3.setCopyOnWrite(copy_on_write);
// we can also go in reverse and go from arrays to bitmaps
uint64_t card1 = r1.cardinality();
uint32_t *arr1 = new uint32_t[card1];
assert_true(arr1 != NULL);
r1.toUint32Array(arr1);
Roaring r1f(card1, arr1);
delete[] arr1;
// bitmaps shall be equal
assert_true(r1 == r1f);
// we can copy and compare bitmaps
Roaring z(r3);
z.setCopyOnWrite(copy_on_write);
assert_true(r3 == z);
// we can compute union two-by-two
Roaring r1_2_3 = r1 | r2;
r1_2_3.setCopyOnWrite(copy_on_write);
r1_2_3 |= r3;
// we can compute a big union
const Roaring *allmybitmaps[] = {&r1, &r2, &r3};
Roaring bigunion = Roaring::fastunion(3, allmybitmaps);
assert_true(r1_2_3 == bigunion);
// we can compute intersection two-by-two
Roaring i1_2 = r1 & r2;
// we can write a bitmap to a pointer and recover it later
uint32_t expectedsize = r1.getSizeInBytes();
char *serializedbytes = new char[expectedsize];
r1.write(serializedbytes);
Roaring t = Roaring::read(serializedbytes);
assert_true(expectedsize == t.getSizeInBytes());
assert_true(r1 == t);
Roaring t2 = Roaring::readSafe(serializedbytes,expectedsize);
assert_true(expectedsize == t2.getSizeInBytes());
assert_true(r1 == t2);
delete[] serializedbytes;
// we can iterate over all values using custom functions
uint32_t counter = 0;
r1.iterate(roaring_iterator_sumall, &counter);
/**
* void roaring_iterator_sumall(uint32_t value, void *param) {
* *(uint32_t *) param += value;
* }
*
*/
// we can also iterate the C++ way
counter = 0;
for (Roaring::const_iterator i = t.begin(); i != t.end(); i++) {
++counter;
}
assert_true(counter == t.cardinality());
// we can move iterators
const uint32_t manyvalues[] = {2, 3, 4, 7, 8};
Roaring rogue(5, manyvalues);
Roaring::const_iterator j = rogue.begin();
j.equalorlarger(4);
assert_true(*j == 4);
// test move constructor
{
Roaring b;
b.add(10);
b.add(20);
Roaring a(std::move(b));
assert_true(a.cardinality() == 2);
assert_true(a.contains(10));
assert_true(a.contains(20));
// b should be destroyed without any errors
assert_true(b.cardinality() == 0);
}
// test move operator
{
Roaring b;
b.add(10);
b.add(20);
Roaring a;
a = std::move(b);
assert_int_equal(2, a.cardinality());
assert_true(a.contains(10));
assert_true(a.contains(20));
// b should be destroyed without any errors
assert_int_equal(0, b.cardinality());
}
// test toString
{
Roaring a;
a.add(1);
a.add(2);
a.add(3);
a.add(4);
assert_string_equal("{1,2,3,4}", a.toString().c_str());
}
}