void addToGraphs(Graphs &graphs, OrderedSeq orderedSeq)
{
bool added = false;
for (int i = 0; i < graphs.size(); i++) {
if (nestsIn(graphs[i].val, orderedSeq)) {
addToGraphs(graphs[i].edges, orderedSeq);
added = true;
}
}
if (!added)
graphs.push_back(Node(orderedSeq));
}
int unmarshallGraph(const std::string& file, char delimiter) {
Graphs graphs;
graphs.unmarshall(file, delimiter);
if(Env::verbose()) {
std::cout << "Graphs: " << graphs.size() << std::endl;
for (Graphs::Graph_map::iterator it = graphs.begin(); it != graphs.end(); it++) {
std::cout << it->first << it->second << std::endl;
}
}
std::shared_ptr<Graph> g = graphs.find("main");
if (g == nullptr)
return -9;
if(Env::verbose()) {
std::cout << "Name: " << g->name() << "Size: " << g->nodeCount() << std::endl;
}
std::shared_ptr<Node> n = g->start();
printNode(n);
g = graphs.find("Hello");
if (g == nullptr)
return -9;
if(Env::verbose()) {
std::cout << "Name: " << g->name() << "Size: " << g->nodeCount() << std::endl;
}
n = g->start();
printNode(n);
return 0;
}
void printGraphs(const Graphs &graphs, int depth=0)
{
for (int i = 0; i < graphs.size(); i++) {
for (int j = 0; j < depth; j++)
cout << " ";
printSequence(graphs[i].val);
printGraphs(graphs[i].edges, depth + 1);
}
}
// this is totally f****d
vector<int> getLongestPath(const Graphs &graphs, vector<int> path=vector<int>())
{
vector<int> longest(path); // lol so terrible
int len = 0;
for (int i = 0; i < graphs.size(); i++) {
vector<int> dup(path);
dup.push_back(graphs[i].val.second);
vector<int> ret = getLongestPath(graphs[i].edges, dup);
if (ret.size() > len) {
longest = ret;
len = ret.size();
}
}
return longest;
}
int main(int argc, char **argv) {
int diff, old_score, new_score;
struct timeval start;
gettimeofday(&start,NULL);
Shapes s;
s.readFile(argc, argv);
s.buildConflictArray();
Graphs g;
g.buildConflictGraph(s.getShapes());
s.findBoundingBox();
Windows w;
w.createWindow();
w.countArea(s.getShapes(), g.getGraphs());
g.countTotalColorDiff();
Calculate c;
//c.printResult(s.getShapes(), g.getGraphs(), w.getWindows(), argc, argv);
//printf("real score : %.2f\n\n\n", c.real_score(w.getWindows()));
//std::vector<Graph> &gg = g.getGraphs();
//c.changeGraphColor(w.getWindows(), g.getGraphs()[0]);
//c.changeGraphColor(w.getWindows(), g.getGraphs()[0]);
//c.changeGraphColor(w.getWindows(), g.getGraphs()[2]);
c.initial_total_color_diff(&g, g.getGraphs(), w.getWindows());
//c.printResult(s.getShapes(), g.getGraphs(), w.getWindows(), argc, argv);
//printf("real score : %.2f\n\n\n", c.real_score(w.getWindows()));
for (int group_id = 0; group_id < c.group_size; group_id++) {
c.iterative_sol(g.getGraphs(), w.getWindows(), group_id);
}
//printf("real score : %.2f\n\n\n", c.real_score(w.getWindows()));
c.simulatedAnnealing(g.getGraphs(), w.getWindows(), start, argv[1]);
for (int group_id = 0; group_id < c.group_size; group_id++) {
c.iterative_sol(g.getGraphs(), w.getWindows(), group_id);
}
c.printResult(s.getShapes(), g.getGraphs(), w.getWindows(), argc, argv);
printf("real score : %.2f\n\n\n", c.real_score(w.getWindows()));
return 0;
}
int main(int argc, char *argv[]) {
try {
Env::parseParams(argc, argv);
if(Env::verbose()) {
std::cout << std::endl;
std::cout << " __ _ __ " << std::endl;
std::cout << " / /___ _(_) / __ __ " << std::endl;
std::cout << " __ / / __ `/ / /_/ /___/ /_" << std::endl;
std::cout << " / /_/ / /_/ / / /_ __/_ __/" << std::endl;
std::cout << " \\____/\\__,_/_/_/ /_/ /_/ " << std::endl;
std::cout << std::endl;
}
Env::initTimer();
//Env::initIoDirectory(); // produces io folders from the callers location - not intended
Env::showStatus();
Graphs graphs;
// ------------------------------------------------------------------------
// FRONTEND
// ------------------------------------------------------------------------
if(Env::hasSrcFile()) {
Env::printCaption("Frontend - Lexer");
// Lexer
Lexer lexer;
lexer.lex(Env::getSrcFile());
Env::showStatus();
if(!lexer.hasFunctions()) {
throw EnvException(FRONTEND_LEXER, "No rail functions found in " + Env::getSrcFile());
}
// Parser
Env::printCaption("Frontend - Parser");
Parser p(lexer.functions);
graphs = p.parseGraphs(graphs);
Env::showStatus();
}
else if(Env::hasSrcDeserialize()) {
// Deserialize
Env::printCaption("ASG - Deserialize");
graphs.unmarshall(Env::getSrcDeserialize(), ';');
Env::showStatus();
}
else {
// handled within Env.h
}
// ------------------------------------------------------------------------
// ASG
// ------------------------------------------------------------------------
// Serialize
if(Env::hasDstSerialize()) {
Env::printCaption("ASG - Serialize");
graphs.marshall(Env::getDstSerialize(), ';');
}
Env::showStatus();
// GraphViz
if(Env::hasDstGraphviz()) {
Env::printCaption("ASG - GraphViz");
graphs.writeGraphViz(Env::getDstGraphviz());
}
Env::showStatus();
// ------------------------------------------------------------------------
// BACKEND
// ------------------------------------------------------------------------
if(Env::hasDstClassfile()) {
Env::printCaption("Backend");
// TODO #118
ofstream outFile(Env::getDstClassfile(), std::ofstream::binary);
Backend::Generate(graphs, &outFile);
Env::showStatus();
if(Env::verbose()) {
std::cout << "done..." << std::endl;
}
}
Env::printCaption("Finished");
Env::printBuildStatus(!Env::hasErrors());
return Env::hasErrors();
}
catch(EnvException &ee) {
Env::showStatus();
ee.showMessage();
Env::printBuildStatus(false);
return 1;
}
catch(...) {
Env::addError(UNKNOWN, "An unhandled exception occurred");
Env::showStatus();
Env::printBuildStatus(false);
return 1;
}
}
/** This method builds a minimum spanning tree
* for the given graph. This will be used to
* calculate the total cost of the building
* for the cheapest network.
* */
Graphs* Graphs::minSpanTree()
{
// reset all nodes to non visited
int bIndex = 0;
while (bIndex < vertexList.size())
{
vertexList[bIndex]->alreadyChecked = false;
bIndex++;
}
// create a new graph for spanning tree
Graphs* spanGraph = new Graphs();
// start spanning vertex
Vertex* startVert = vertexList[0];
// set pointer and boolean value
startVert->prevPtr = NULL;
startVert->alreadyChecked = true;
// create a pqueue to hold edge, edge vector and cost compare class
priority_queue<Edges, vector<Edges>, CompareEdgeCost> mySpanQueue;
// enqueue to the priority queue
int index = 0;
while(index < startVert->ListEdgesAround.size())
{
mySpanQueue.push(startVert->ListEdgesAround[index]);
index++;
}
// dequeue from pqueue
while(mySpanQueue.empty() != true)
{
// save the top of the queue
Edges edg = mySpanQueue.top();
// dequeue shortest edge from the queue
mySpanQueue.pop();
// if end vert is visited then continue
if( edg.endVert->alreadyChecked)
continue;
// set end vertex to visited
edg.endVert->alreadyChecked = true;
// set prev of w to indicate v
edg.endVert->prevPtr = edg.initVert;
// create 2 vertices to make the edge for MST
Vertex* initSpanVert = new Vertex(edg.initVert->stringName);
Vertex* endSpanVert = new Vertex(edg.endVert->stringName);
// set the ptr to existing vertex
if ((spanGraph->containsVertex(initSpanVert->stringName)))
initSpanVert = spanGraph->getVertex(initSpanVert->stringName);
// if vertex not on the graph, then add new one
else
spanGraph->vertexList.push_back(initSpanVert);
// else set ptr to existing vertex
if ((spanGraph->containsVertex(endSpanVert->stringName)))
endSpanVert = spanGraph->getVertex(endSpanVert->stringName);
// if vertex not on graph, then add new one
else
spanGraph->vertexList.push_back(endSpanVert);
// add the vertices
initSpanVert->createEdge( endSpanVert, edg.edgeCost, edg.transmitTime);
endSpanVert->createEdge( initSpanVert, edg.edgeCost, edg.transmitTime);
// create w's adjacency list
vector<Edges> wAdjList = edg.endVert->ListEdgesAround;
// push each edge of w's adjacent list to queue
int wIndex = 0;
while (wIndex < wAdjList.size()){
mySpanQueue.push(wAdjList[wIndex]);
wIndex++;
}
}
// return the minimum spanning tree
return spanGraph;
}