/*========================================================================= Library: CTK Copyright (c) Kitware Inc. Licensed under the Apache License, Version 2.0 (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.apache.org/licenses/LICENSE-2.0.txt Unless required by applicable law or agreed to in writing, software distributed under the License is distributed on an "AS IS" BASIS, WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. See the License for the specific language governing permissions and limitations under the License. =========================================================================*/ // CTK includes #include "ctkDependencyGraph.h" #include "ctkDependencyGraphTestHelper.h" // STL includes #include #include //----------------------------------------------------------------------------- int ctkDependencyGraphTest1(int argc, char * argv [] ) { if (argc > 1) { std::cerr << argv[0] << " expects zero arguments" << std::endl; } const int numberOfVertices = 14; ctkDependencyGraph graph(numberOfVertices); graph.setVerbose(true); graph.setVerbose(false); //graph.setVerbose(true); // // 6 - 8 // | // 7 - 5 - 1 - 2 - // | | | - 9 // | 4 - 3 - | // | | // 10 - 11 - 12 - 13 - 14 // graph.insertEdge(3,4); graph.insertEdge(4,1); graph.insertEdge(1,5); graph.insertEdge(5,7); graph.insertEdge(2,1); graph.insertEdge(8,6); graph.insertEdge(6,7); graph.insertEdge(9,2); graph.insertEdge(9,3); graph.insertEdge(14,9); graph.insertEdge(14,13); graph.insertEdge(13,12); graph.insertEdge(12,11); graph.insertEdge(11,10); graph.insertEdge(10,7); int expectedNumberOfEdge = 15; graph.printAdditionalInfo(); // graph.printGraph(); // printAdditionalInfo also prints graph. int nov = graph.numberOfVertices(); if( nov != numberOfVertices ) { return EXIT_FAILURE; } int noe = graph.numberOfEdges(); if( noe != expectedNumberOfEdge ) { return EXIT_FAILURE; } bool cfc = graph.checkForCycle(); if( cfc == true ) { return EXIT_FAILURE; } bool cdtd = graph.cycleDetected(); if( cdtd == true ) { return EXIT_FAILURE; } //int corigin = graph.cycleOrigin(); //int cend = graph.cycleEnd(); std::list path; std::list expectedPath; graph.findPath( 8, 7, path ); expectedPath.push_back(8); expectedPath.push_back(6); expectedPath.push_back(7); if (path != expectedPath) { std::cerr << "Problem with findPath()" << std::endl; printIntegerList("current:", path); printIntegerList("expected:", expectedPath); return EXIT_FAILURE; } path.clear(); expectedPath.clear(); graph.findPath( 1, 7, path ); expectedPath.push_back(1); expectedPath.push_back(5); expectedPath.push_back(7); if (path != expectedPath) { std::cerr << "Problem with findPath()" << std::endl; printIntegerList("current:", path); printIntegerList("expected:", expectedPath); return EXIT_FAILURE; } path.clear(); expectedPath.clear(); graph.findPath( 3, 7, path ); expectedPath.push_back(3); expectedPath.push_back(4); expectedPath.push_back(1); expectedPath.push_back(5); expectedPath.push_back(7); if (path != expectedPath) { std::cerr << "Problem with findPath()" << std::endl; printIntegerList("current:", path); printIntegerList("expected:", expectedPath); return EXIT_FAILURE; } path.clear(); expectedPath.clear(); graph.findPath( 2, 5, path ); expectedPath.push_back(2); expectedPath.push_back(1); expectedPath.push_back(5); if (path != expectedPath) { std::cerr << "Problem with findPath()" << std::endl; printIntegerList("current:", path); printIntegerList("expected:", expectedPath); return EXIT_FAILURE; } path.clear(); expectedPath.clear(); std::list* > paths; std::list expectedPath1; std::list expectedPath2; std::list expectedPath3; graph.findPaths(14, 5, paths); expectedPath1.push_back(14); expectedPath1.push_back(9); expectedPath1.push_back(3); expectedPath1.push_back(4); expectedPath1.push_back(1); expectedPath1.push_back(5); expectedPath2.push_back(14); expectedPath2.push_back(9); expectedPath2.push_back(2); expectedPath2.push_back(1); expectedPath2.push_back(5); std::list* >::const_iterator pathsIterator; for(pathsIterator = paths.begin(); pathsIterator != paths.end(); pathsIterator++) { if (*(*pathsIterator) != expectedPath1 && *(*pathsIterator) != expectedPath2) { printIntegerList("current:", *(*pathsIterator)); printIntegerList("expected:", expectedPath1, false); printIntegerList(" or ", expectedPath2); return EXIT_FAILURE; } } expectedPath1.clear(); expectedPath2.clear(); graph.findPaths(14, 7, paths); expectedPath1.push_back(14); expectedPath1.push_back(9); expectedPath1.push_back(3); expectedPath1.push_back(4); expectedPath1.push_back(1); expectedPath1.push_back(5); expectedPath1.push_back(7); expectedPath2.push_back(14); expectedPath2.push_back(9); expectedPath2.push_back(2); expectedPath2.push_back(1); expectedPath2.push_back(5); expectedPath2.push_back(7); expectedPath3.push_back(14); expectedPath3.push_back(13); expectedPath3.push_back(12); expectedPath3.push_back(11); expectedPath3.push_back(10); expectedPath3.push_back(7); for(pathsIterator = paths.begin(); pathsIterator != paths.end(); pathsIterator++) { if (*(*pathsIterator) != expectedPath1 && *(*pathsIterator) != expectedPath2 && *(*pathsIterator) != expectedPath3) { printIntegerList("current:", *(*pathsIterator)); printIntegerList("expected:", expectedPath1, false); printIntegerList(" or ", expectedPath2, false); printIntegerList(" or ", expectedPath3); return EXIT_FAILURE; } } return EXIT_SUCCESS; }