#include #include #include #include "unity.h" #include "bintree.h" #define MAX_TEST_NAME_LEN 10 void setUp(void) { // Falls notwendig, kann hier Vorbereitungsarbeit gemacht werden } void tearDown(void) { // Hier kann Bereinigungsarbeit nach jedem Test durchgeführt werden } static int compareIntEntries(const void *arg1, const void *arg2) { const int *entry1 = (const void *)arg1; const int *entry2 = (const void *)arg2; int result = *entry2 - *entry1; return result; } // test if addToTree expands tree correctly // by going down the path where the given pice of data is expected // and checking if the pice of data is found there void test_addToTreeExpandsTreeCorrectly(void) { TreeNode *testRoot = NULL; int testIsDouble = 0; int score1 = 12; int score2 = 6; int score3 = 18; int score4 = 3; int score5 = 9; int score6 = 15; int score7 = 21; testRoot = addToTree(testRoot, &score1, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score2, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score3, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score4, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score5, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score6, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score7, sizeof(int), compareIntEntries, NULL); // Checking the Tree without Doubles TEST_ASSERT_NOT_NULL(testRoot); TEST_ASSERT_EQUAL(score1, *(int *)testRoot->data); TEST_ASSERT_NOT_NULL(testRoot->left); TEST_ASSERT_EQUAL(score2, *(int *)testRoot->left->data); TEST_ASSERT_NOT_NULL(testRoot->right); TEST_ASSERT_EQUAL(score3, *(int *)testRoot->right->data); TEST_ASSERT_NOT_NULL(testRoot->left->left); TEST_ASSERT_EQUAL(score4, *(int *)testRoot->left->left->data); TEST_ASSERT_NOT_NULL(testRoot->left->right); TEST_ASSERT_EQUAL(score5, *(int *)testRoot->left->right->data); TEST_ASSERT_NOT_NULL(testRoot->right->left); TEST_ASSERT_EQUAL(score6, *(int *)testRoot->right->left->data); TEST_ASSERT_NOT_NULL(testRoot->right->right); TEST_ASSERT_EQUAL(score7, *(int *)testRoot->right->right->data); // Adding Double testRoot = addToTree(testRoot, &score4, sizeof(int), compareIntEntries, NULL); TEST_ASSERT_NOT_NULL(testRoot->left->left->left); TEST_ASSERT_EQUAL_UINT16(score4, *(int *)testRoot->left->left->left->data); // Trying to add Double while Doubles not Permitted testRoot = addToTree(testRoot, &score7, sizeof(int), compareIntEntries, &testIsDouble); TEST_ASSERT_NULL(testRoot->right->right->left); TEST_ASSERT_EQUAL_UINT16(1, testIsDouble); // clearTree(testRoot); } // test if nextTreeData returns the next pice of data correctly // needs Stack!!! void test_nextTreeDataReturnsNextDataCorrectly(void) { } // test if clear Tree frees all node.name and node memory AND sets them to zero // aditionally tests if the memoryspaces have been cleared void test_clearTreeworksLikeExpected(void) { TreeNode *testRoot = NULL; int score1 = 12; int score2 = 6; int score3 = 18; int score4 = 3; int score5 = 9; int score6 = 15; int score7 = 21; testRoot = addToTree(testRoot, &score1, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score2, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score3, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score4, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score5, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score6, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score7, sizeof(int), compareIntEntries, NULL); printf("Tree Filled\n"); // Save all Adresses TreeNode *node1 = testRoot->left; TreeNode *node2 = testRoot->left->left; TreeNode *node3 = testRoot->left->right; TreeNode *node4 = testRoot->right; TreeNode *node5 = testRoot->right->left; TreeNode *node6 = testRoot->right->right; TreeNode *node7 = testRoot->left->left->left; printf("Adresses Saved\n"); clearTree(testRoot); printf("Tree Cleared\n"); // Check if everything has been set to NULL TEST_ASSERT_NULL(testRoot->data); TEST_ASSERT_NULL(testRoot); //TEST_ASSERT_NULL(node1->data); // TEST_ASSERT_NULL(node1); /* TEST_ASSERT_NULL(node2->data); // TEST_ASSERT_NULL(node2); TEST_ASSERT_NULL(node3->data); // TEST_ASSERT_NULL(node3); TEST_ASSERT_NULL(node4->data); // TEST_ASSERT_NULL(node4); TEST_ASSERT_NULL(node5->data); // TEST_ASSERT_NULL(node5); TEST_ASSERT_NULL(node6->data); // TEST_ASSERT_NULL(node6); TEST_ASSERT_NULL(node7->data); // TEST_ASSERT_NULL(node7); // */ } // tests if treeSize returns correct amount of nodes in Tree // by using addToTree a given number of times and testing to see if // the treeSize matches the number of nodes added void test_treeSizeWorkingLikeExpected(void) { TreeNode *testRoot = NULL; int nodeCount = 7; unsigned int testTreeSize = 0; int score1 = 12; int score2 = 6; int score3 = 18; int score4 = 3; int score5 = 9; int score6 = 15; int score7 = 21; // Fill Tree testRoot = addToTree(testRoot, &score1, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score2, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score3, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score4, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score5, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score6, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score7, sizeof(int), compareIntEntries, NULL); testRoot = addToTree(testRoot, &score4, sizeof(int), compareIntEntries, NULL); testTreeSize = treeSize(testRoot); TEST_ASSERT_EQUAL(nodeCount, testTreeSize); clearTree(testRoot); } // main, strings together all tests int main() { UNITY_BEGIN(); printf("\n============================\nBinary Tree tests\n============================\n"); // RUN_TEST(test_addToTreeExpandsTreeCorrectly); // RUN_TEST(test_nextTreeDataReturnsNextDataCorrectly); RUN_TEST(test_clearTreeworksLikeExpected); // RUN_TEST(test_treeSizeWorkingLikeExpected); return UNITY_END(); }