/* * PROGRAM: Client/Server Common Code * MODULE: class_test.cpp * DESCRIPTION: Class library integrity tests * * The contents of this file are subject to the Interbase Public * License Version 1.0 (the "License"); you may not use this file * except in compliance with the License. You may obtain a copy * of the License at http://www.Inprise.com/IPL.html * * Software distributed under the License is distributed on an * "AS IS" basis, WITHOUT WARRANTY OF ANY KIND, either express * or implied. See the License for the specific language governing * rights and limitations under the License. * * The Original Code was created by Inprise Corporation * and its predecessors. Portions created by Inprise Corporation are * Copyright (C) Inprise Corporation. * * Created by: Nickolay Samofatov * * All Rights Reserved. * Contributor(s): ______________________________________. */ #include "../../include/firebird.h" #include "tree.h" #include "alloc.h" #include using namespace Firebird; void testVector() { printf("Test Firebird::Vector: "); Vector v; int i; for (i=0;i<100;i++) v.add(i); for (i=0;i<50;i++) v.remove(0); bool passed = true; for (i=50;i<100;i++) if (v[i-50] != i) passed = false; printf(passed?"PASSED\n":"FAILED\n"); } void testSortedVector() { printf("Test Firebird::SortedVector: "); SortedVector v; int i; for (i=0;i<100;i++) v.add(99-i); for (i=0;i<50;i++) v.remove(0); bool passed = true; for (i=50;i<100;i++) if (v[i-50] != i) passed = false; printf(passed?"PASSED\n":"FAILED\n"); } #define TEST_ITEMS 1000000 struct Test { int value; int count; static const int& generate(void *sender, const Test& value) { return value.value; } }; void testBePlusTree() { MallocAllocator temp; printf("Test Firebird::BePlusTree\n"); printf("Fill array with test data (%d items)...", TEST_ITEMS); Vector v; int n = 0; int i; for (i=0;i, 2, 2> tree1(&temp); BePlusTree, 13, 13> tree2(&temp); int cnt1 = 0, cnt2 = 0; for (i=0; i < v.getCount(); i++) { if (tree1.locate(locEqual, v[i])) tree1.current().count++; else { Test t; t.value = v[i]; t.count = 1; if (!tree1.add(t)) assert(false); cnt1++; } if (tree2.locate(locEqual, v[i])) tree2.current().count++; else { Test t; t.value = v[i]; t.count = 1; if (!tree2.add(t)) assert(false); cnt2++; } } printf(" DONE\n"); bool passed = true; printf("Check that tree(2) contains test data: "); for (i=0; i< v.getCount(); i++) { if(!tree1.locate(locEqual,v[i])) passed = false; } printf(passed?"PASSED\n":"FAILED\n"); passed = true; printf("Check that tree(13) contains test data: "); for (i=0; i< v.getCount(); i++) { if(!tree2.locate(locEqual,v[i])) passed = false; } printf(passed?"PASSED\n":"FAILED\n"); passed = true; printf("Check that tree(2) contains data from the tree(13) and its count is correct: "); n = 0; if (tree1.getFirst()) do { n++; if (!tree2.locate(locEqual, tree1.current().value)) passed = false; } while (tree1.getNext()); if (n != cnt1 || cnt1 != cnt2) passed = false; printf(passed?"PASSED\n":"FAILED\n"); printf("Check that tree(13) contains data from the tree(2) "\ "and its count is correct (check in reverse order): "); n = 0; if (tree2.getLast()) do { n++; if (!tree1.locate(locEqual, tree2.current().value)) passed = false; } while (tree2.getPrev()); if (n != cnt2) passed = false; printf(passed?"PASSED\n":"FAILED\n"); printf("Remove half of data from the trees: "); while (v.getCount() > TEST_ITEMS/2) { if (!tree1.locate(locEqual, v[v.getCount()-1])) assert(false); if (tree1.current().count > 1) tree1.current().count--; else { tree1.fastRemove(); cnt1--; } if (!tree2.locate(locEqual, v[v.getCount()-1])) assert(false); if (tree2.current().count > 1) tree2.current().count--; else { tree2.fastRemove(); cnt2--; } v.shrink(v.getCount()-1); } printf(" DONE\n"); printf("Check that tree(2) contains test data: "); for (i=0; i< v.getCount(); i++) { if(!tree1.locate(locEqual,v[i])) passed = false; } printf(passed?"PASSED\n":"FAILED\n"); passed = true; printf("Check that tree(13) contains test data: "); for (i=0; i < v.getCount(); i++) { if(!tree2.locate(locEqual,v[i])) passed = false; } printf(passed?"PASSED\n":"FAILED\n"); passed = true; printf("Check that tree(2) contains data from the tree(13) and its count is correct: "); n = 0; if (tree1.getFirst()) do { n++; if (!tree2.locate(locEqual, tree1.current().value)) passed = false; } while (tree1.getNext()); if (n != cnt1 || cnt1 != cnt2) passed = false; printf(passed?"PASSED\n":"FAILED\n"); passed = true; printf("Check that tree(13) contains data from the tree(2) "\ "and its count is correct (check in reverse order): "); n = 0; if (tree2.getLast()) do { n++; if (!tree1.locate(locEqual, tree2.current().value)) passed = false; } while (tree2.getPrev()); if (n != cnt2) passed = false; printf(passed?"PASSED\n":"FAILED\n"); passed = true; printf("Remove the rest of data from the trees: "); for (i=0;i < v.getCount(); i++) { if (!tree1.locate(locEqual, v[i])) assert(false); if (tree1.current().count > 1) tree1.current().count--; else { tree1.fastRemove(); cnt1--; } if (!tree2.locate(locEqual, v[i])) assert(false); if (tree2.current().count > 1) tree2.current().count--; else { tree2.fastRemove(); cnt2--; } } printf(" DONE\n"); printf("Check that both trees do not contain anything: "); if (tree1.getFirst()) passed = false; if (tree2.getLast()) passed = false; printf(passed?"PASSED\n":"FAILED\n"); } #define ALLOC_ITEMS 1000000 #define MAX_ITEM_SIZE 50 #define BIG_ITEMS (ALLOC_ITEMS/10) #define BIG_SIZE (MAX_ITEM_SIZE*5) struct AllocItem { int order; void *item; static int compare(const AllocItem &i1, const AllocItem &i2) { return i1.order > i2.order || (i1.order==i2.order && i1.item > i2.item); } }; void testAllocator() { printf("Test Firebird::MemoryPool\n"); MemoryPool* pool = MemoryPool::createPool(); MallocAllocator allocator; BePlusTree,AllocItem> items(&allocator), bigItems(&allocator); printf("Allocate %d items: ", ALLOC_ITEMS); int n = 0; int i; pool->verify_pool(); for (i=0;iallocate((n % MAX_ITEM_SIZE + MAX_ITEM_SIZE)/2+1)}; items.add(temp); } printf(" DONE\n"); pool->verify_pool(); printf("Deallocate half of items in quasi-random order: "); n = 0; if (items.getFirst()) do { pool->deallocate(items.current().item); n++; } while (n < ALLOC_ITEMS/2 && items.getNext()); printf(" DONE\n"); pool->verify_pool(); printf("Allocate %d big items: ", BIG_ITEMS); n = 0; pool->verify_pool(); for (i=0;iallocate((n % BIG_SIZE + BIG_SIZE)/2+1)}; bigItems.add(temp); } printf(" DONE\n"); pool->verify_pool(); printf("Deallocate the rest of small items in quasi-random order: "); while (items.getNext()) { pool->deallocate(items.current().item); } printf(" DONE\n"); pool->verify_pool(); printf("Deallocate big items in quasi-random order: "); if (bigItems.getFirst()) do { pool->deallocate(bigItems.current().item); } while (bigItems.getNext()); printf(" DONE\n"); pool->verify_pool(); pool->print_contents(stdout,true); MemoryPool::deletePool(pool); // TODO: // Test critically low memory conditions } int main() { testVector(); testSortedVector(); testBePlusTree(); testAllocator(); }