void clock_reset()
{
Uint32 i, t = SDL_GetTicks();
int count;
count = lcount(_clocks);
for(i=0;i<count;i++)
((sclock*)lget(_clocks, i))->ticks = t;
}
void clock_pause(int enable)
{
Uint32 i, t;
int count;
if(enable) {
_pause = SDL_GetTicks();
} else {
t = SDL_GetTicks() - _pause;
count = lcount(_clocks);
for(i=0;i<count;i++)
((sclock*)lget(_clocks, i))->ticks += t;
}
}
// -------------------------------------------------------------
// GraphPartitionerImplementation::partition
// -------------------------------------------------------------
void
GraphPartitionerImplementation::partition(void)
{
static const bool verbose(false);
// Make sure that all GA communication has been flushed from the system
communicator().sync();
gridpack::utility::CoarseTimer *timer;
timer = NULL;
// timer = gridpack::utility::CoarseTimer::instance();
int t_total, t_adj, t_part, t_node_dest, t_edge_dest, t_gnode_dest, t_gedge_dest;
if (timer != NULL) {
t_total = timer->createCategory("GraphPartitioner::partition(): Total");
t_adj = timer->createCategory("GraphPartitioner::partition: Adjacency");
t_part = timer->createCategory("GraphPartitioner::partition: Partitioner");
t_node_dest = timer->createCategory("GraphPartitioner::partition: Node Destination");
t_edge_dest = timer->createCategory("GraphPartitioner::partition: Edge Destinations");
t_gnode_dest = timer->createCategory("GraphPartitioner::partition: Ghost Node Destination");
t_gedge_dest = timer->createCategory("GraphPartitioner::partition: Ghost Edge Destination");
}
if (timer != NULL) timer->start(t_total);
if (timer != NULL) timer->start(t_adj);
p_adjacency_list.ready();
int maxdim(2);
int dims[maxdim], lo[maxdim], hi[maxdim], ld[maxdim];
ld[0] = 1;
ld[1] = 1;
int locnodes(p_adjacency_list.nodes());
int locedges(p_adjacency_list.edges());
int allnodes;
int alledges;
communicator().barrier();
boost::mpi::all_reduce(communicator(),
locnodes, allnodes, std::plus<int>());
boost::mpi::all_reduce(communicator(),
locedges, alledges, std::plus<int>());
if (allnodes <= 0 || alledges <= 0) {
boost::format fmt("%d: GraphPartitioner::partition(): called without nodes (%d) or edges (%)");
std::string msg = boost::str(fmt % communicator().worldRank() % allnodes % alledges);
throw Exception(msg);
}
if (timer != NULL) timer->stop(t_adj);
if (timer != NULL) timer->start(t_part);
this->p_partition(); // fills p_node_destinations
if (timer != NULL) timer->stop(t_part);
// make two GAs, one that holds the node source and another that
// node destination; each is indexed by global node index
if (timer != NULL) timer->start(t_node_dest);
int theGAgroup(communicator().getGroup());
int oldGAgroup = GA_Pgroup_get_default();
GA_Pgroup_set_default(theGAgroup);
std::vector<int> nodeidx(locnodes);
std::vector<int *> stupid(locnodes);
for (Index n = 0; n < static_cast<Index>(locnodes); ++n) {
nodeidx[n] = p_adjacency_list.node_index(n);
stupid[n] = &nodeidx[n];
}
dims[0] = allnodes;
boost::scoped_ptr<GA::GlobalArray>
node_dest(new GA::GlobalArray(MT_C_INT, 1, dims, "Node Destinations Process", NULL)),
node_src(new GA::GlobalArray(MT_C_INT, 1, dims, "Node Source Process", NULL));
node_dest->scatter(&p_node_destinations[0], &stupid[0], locnodes);
{
std::vector<int> nsrc(locnodes, this->processor_rank());
node_src->scatter(&nsrc[0], &stupid[0], locnodes);
}
communicator().sync();
if (verbose) {
node_src->print();
node_dest->print();
}
if (timer != NULL) timer->stop(t_node_dest);
// edges are assigned to the same partition as the lowest numbered
// node to which it connects, which are extracted from the node
// destination GA.
if (timer != NULL) timer->start(t_edge_dest);
nodeidx.resize(locedges);
stupid.resize(locedges);
std::vector<int> e1dest(locedges);
for (Index e = 0; e < static_cast<Index>(locedges); ++e) {
Index n1, n2;
p_adjacency_list.edge(e, n1, n2);
nodeidx[e] = std::min(n1, n2);
stupid[e] = &nodeidx[e];
}
node_dest->gather(&e1dest[0], &stupid[0], locedges);
if (verbose) {
for (Index e = 0; e < static_cast<Index>(locedges); ++e) {
Index n1, n2;
p_adjacency_list.edge(e, n1, n2);
std::cout << processor_rank() << ": active edge " << e
<< " (" << n1 << "->" << n2 << "): "
<< "destination: " << e1dest[e] << std::endl;
}
}
p_edge_destinations.clear();
p_edge_destinations.reserve(locedges);
std::copy(e1dest.begin(), e1dest.end(),
std::back_inserter(p_edge_destinations));
if (timer != NULL) timer->stop(t_edge_dest);
// determine (possible) destinations for ghost edges (highest numbered node)
if (timer != NULL) timer->start(t_gedge_dest);
std::vector<int> e2dest(locedges);
for (Index e = 0; e < static_cast<Index>(locedges); ++e) {
Index n1, n2;
p_adjacency_list.edge(e, n1, n2);
nodeidx[e] = std::max(n1, n2);
stupid[e] = &nodeidx[e];
}
node_dest->gather(&e2dest[0], &stupid[0], locedges);
if (verbose) {
for (Index e = 0; e < static_cast<Index>(locedges); ++e) {
Index n1, n2;
p_adjacency_list.edge(e, n1, n2);
std::cout << processor_rank() << ": ghost edge " << e
<< " (" << n1 << "->" << n2 << "): "
<< "destination: " << e2dest[e] << std::endl;
}
}
communicator().sync();
// These are no longer needed
node_dest.reset();
node_src.reset();
p_ghost_edge_destinations.reserve(locedges);
std::copy(e2dest.begin(), e2dest.end(),
std::back_inserter(p_ghost_edge_destinations));
if (timer != NULL) timer->stop(t_gedge_dest);
if (timer != NULL) timer->start(t_gnode_dest);
// determine destinations for ghost nodes: go thru the edges and
// compare destinations of connected nodes; if they're different,
// then both ends need to be ghosted (to different processors)
// It's possible that edges are distributed over multiple processes,
// which could result in a different set of ghost destinations for a
// given node on each process. These need to be put together.
// In this approach, which is really slow, take each local list of
// ghost node, send it to all processes. Each process extracts the
// ghost node destination for its locally owned nodes.
// a particular node and destination needs to be unique, hence the
// use of set<>; this may be too slow with large networks and
// processors
// typedef std::set< std::pair<Index, int> > DestList;
// DestList gnodedest;
// for (Index e = 0; e < locedges; ++e) {
// Index n1, n2;
// p_adjacency_list.edge(e, n1, n2);
// int n1dest(e1dest[e]);
// int n2dest(e2dest[e]);
// if (verbose) {
// std::cout << processor_rank() << ": edge " << e
// << " (" << n1 << "->" << n2 << "): "
// << "destinations: " << n1dest << ", " << n2dest << std::endl;
// }
// if (n1dest != n2dest) {
// gnodedest.insert(std::make_pair(std::min(n1,n2), n2dest));
// gnodedest.insert(std::make_pair(std::max(n1,n2), n1dest));
// }
// }
// if (verbose) {
// if (this->processor_rank() == 0) {
// std::cout << "Ghost node destinations: " << std::endl;
// }
// for (int p = 0; p < this->processor_size(); ++p) {
// if (this->processor_rank() == p) {
// std::cout << p << ": ";
// for (DestList::const_iterator i = gnodedest.begin();
// i != gnodedest.end(); ++i) {
// std::cout << "(" << i->first << ":" << i->second << "),";
// }
// std::cout << std::endl;
// }
// this->communicator().barrier();
// }
// }
// p_ghost_node_destinations.resize(locnodes);
// DestList tmp;
// for (int p = 0; p < this->processor_size(); ++p) {
// tmp.clear();
// if (this->processor_rank() == p) {
// tmp = gnodedest;
// }
// broadcast(communicator().getCommunicator(), tmp, p);
// for (Index n = 0; n < locnodes; ++n) {
// Index nodeidx(p_adjacency_list.node_index(n));
// for (DestList::const_iterator i = tmp.begin();
// i != tmp.end(); ++i) {
// if (nodeidx == i->first) {
// p_ghost_node_destinations[n].push_back(i->second);
// }
// }
// }
// }
// Here, a 2D GA is used to store ghost node destinations. Each
// process takes it's set of ghost node destinations and appends
// those lists already in the GA.
// Determine the maximum node connectivity. There needs to be enough
// room in the GA to store all connections to a node.
size_t lconn(0), maxconn(0);
for (int l = 0; l < locnodes; ++l) {
lconn = std::max(lconn,
p_adjacency_list.node_neighbors(l));
}
boost::mpi::all_reduce(communicator(), lconn, maxconn,
boost::mpi::maximum<int>());
BOOST_ASSERT(maxconn >= lconn);
dims[0] = allnodes;
dims[1] = maxconn;
ld[0] = maxconn;
node_dest.reset(new GA::GlobalArray(MT_C_INT, 2, &dims[0],
"Ghost node dest processes", NULL));
boost::scoped_ptr<GA::GlobalArray>
node_dest_count(new GA::GlobalArray(MT_C_INT, 1, &dims[0],
"Ghost node dest count", NULL));
{
int bogus;
bogus = -1; node_dest->fill(&bogus);
bogus = 0; node_dest_count->fill(&bogus);
}
std::vector<int> lcount(allnodes, 0);
for (int p = 0; p < this->processor_size(); ++p) {
if (this->processor_rank() == p) {
lo[0] = 0; hi[0] = allnodes - 1;
node_dest_count->get(&lo[0], &hi[0], &lcount[0], &ld[0]);
for (Index e = 0; e < static_cast<Index>(locedges); ++e) {
Index n1, n2;
p_adjacency_list.edge(e, n1, n2);
int n1dest(e1dest[e]);
int n2dest(e2dest[e]);
if (verbose) {
std::cout << processor_rank() << ": edge " << e
<< " (" << n1 << "->" << n2 << "): "
<< "destinations: " << n1dest << ", " << n2dest << std::endl;
}
if (n1dest != n2dest) {
int nid, dest;
nid = std::min(n1,n2);
dest = n2dest;
lo[0] = nid; hi[0] = lo[0];
lo[1] = lcount[nid]; hi[1] = lo[1];
node_dest->put(&lo[0], &hi[0], &dest, &ld[0]);
lcount[nid] += 1;
nid = std::max(n1,n2);
dest = n1dest;
lo[0] = nid; hi[0] = lo[0];
lo[1] = lcount[nid]; hi[1] = lo[1];
node_dest->put(&lo[0], &hi[0], &dest, &ld[0]);
lcount[nid] += 1;
}
}
lo[0] = 0; hi[0] = allnodes - 1;
node_dest_count->put(&lo[0], &hi[0], &lcount[0], &ld[0]);
}
this->communicator().sync();
}
// After all processes have made their contribution to the ghost
// node destination GA, each process grabs that part that refers to
// its local nodes and fills p_ghost_edge_destinations.
lo[0] = 0; hi[0] = allnodes - 1;
node_dest_count->get(&lo[0], &hi[0], &lcount[0], &ld[0]);
p_ghost_node_destinations.clear();
p_ghost_node_destinations.resize(locnodes);
std::vector<int> tmpdest(this->processor_size(), 0);
for (Index n = 0; n < static_cast<Index>(locnodes); ++n) {
Index nid(p_adjacency_list.node_index(n));
p_ghost_node_destinations[n].clear();
if (lcount[nid] > 0) {
lo[0] = nid;
hi[0] = nid;
lo[1] = 0;
hi[1] = lcount[nid] - 1;
tmpdest.resize(lcount[nid]);
node_dest->get(&lo[0], &hi[0], &tmpdest[0], &ld[0]);
// there may be duplicates, so get rid of them
if (tmpdest.size() > 1) {
std::stable_sort(tmpdest.begin(), tmpdest.end());
std::unique(tmpdest.begin(), tmpdest.end());
}
p_ghost_node_destinations[n].reserve(tmpdest.size());
std::copy(tmpdest.begin(), tmpdest.end(),
std::back_inserter(p_ghost_node_destinations[n]));
}
}
if (timer != NULL) timer->stop(t_gnode_dest);
GA_Pgroup_set_default(oldGAgroup);
if (timer != NULL) timer->stop(t_total);
// if (timer) timer->dump();
}
static void clock_free()
{
assert(lcount(_clocks)==0);
ldelete(_clocks);
}
void GcodeParse::ParseProcess(QString strline)
{
// char buf[20];
// while((strline!=NULL)&&(!abort))
// {
// for(int i=0;i<20;i++)
// buf[i]=0;
// strline = strline.trimmed();
// if((strline.at(0)=='(')||(strline.at(0)=='%'))
// {}//ignore comments
// else
// {
// strline = strline.toUpper();
// int times = strline.count("G");
// if (times>1)
// {
// strline = removeInvalid(strline);
// }
// }
//}
int lnum=1;//记录语句中循环的次数
qDebug()<<"this is in functuin GcodeParse::ParseProcess() begin";
bool parseback;
if ((strline!=NULL)&&(!abort))
{
qDebug()<<strline;
strline = strline.trimmed();//去掉两端多余空格
if((strline.at(0)=='(')||(strline.at(0)=='%'))
{}//忽略注释
else
{
strline = strline.toUpper();//转为大写
}
if(strline.contains("L",Qt::CaseInsensitive)) //查是否包含q，大小写不敏感
{
qDebug()<<"this is the L sentence";
lnum=lcount(strline);
}
if(strline.contains("G00",Qt::CaseInsensitive)) //查是否包含q，大小写不敏感
{
qDebug()<<"this is the G00 sentence";
parseback=G00Parse(strline);
}
else if(strline.contains("G20",Qt::CaseInsensitive))
{
qDebug()<<"this is the g20 sentence";
}
else if(strline.contains("M",Qt::CaseInsensitive))
{
qDebug()<<"this is the M sentence";
}
else
{
//读入不合法的语句
HandleError(1);
}
}
else
{
//当读入的行为空时报错
}
qDebug()<<strline;
qDebug()<<"this is in functuin GcodeParse::ParseProcess() end";
}