void testConstruction ()
{
testcase ("construction");
{
std::uint8_t src[16];
for (std::uint8_t i = 0; i < 64; i++)
{
beast::rngfill (
src,
sizeof(src),
default_prng());
Seed const seed ( {
src, sizeof(src)
});
BEAST_EXPECT(memcmp (seed.data(), src, sizeof(src)) == 0);
}
}
for (int i = 0; i < 64; i++)
{
uint128 src;
beast::rngfill (
src.data(),
src.size(),
default_prng());
Seed const seed (src);
BEAST_EXPECT(memcmp (seed.data(), src.data(), src.size()) == 0);
}
}
BigInt generate_number(Seed &s, GeneratorParams ¶ms) {
unsigned int v = params.first;
unsigned int w = params.second;
std::vector<unsigned char> h;
// step 2
BigInt tmp = s.sha1();
// step 3
std::vector<unsigned char> h0 = (std::vector<unsigned char>) tmp.right_bits(w);
h.insert(h.end(), h0.begin(), h0.end()); //step 6
// step 4
BigInt z = s;
BigInt _2_e_160 = BigInt(2).pow(160);
for(unsigned int i = 1; i < v + 1; i++) { // step 5
BigInt zi = z;
zi += i;
Seed si = (zi) % _2_e_160; // step 5.1
std::vector<unsigned char> hi = si.sha1();// step 5.2
h.insert(h.end(), hi.begin(), hi.end()); // step 6
}
BigInt c = h;
return c;
}
Seed * Hero::Shoot () {
if (shootCountdown > 0)
return 0;
shootCountdown = cShootCooldown;
float x = posX, y = posY;
if (facing > 0)
x += boxWidth*cTileSize;
Seed * seed = new Seed(x, y, facing);
seed->SetGameGrid(gameGrid, gridWidth, gridHeight);
return seed;
}
//--------------------------------------------------------------
void ofApp::setup(){
ofBackground(0);
ofEnableAlphaBlending();
ofEnableSmoothing();
numSeeds = (int)ofRandom(30,50);
for (int i = 0; i < numSeeds; i++){
Seed tempSeed;
tempSeed.setup();
seeds.push_back(tempSeed);
}
}
Surface::Surface(Seed seed){
this->seed = seed;
// TODO: DENSITY
switch (seed.getSurfaceShape()){
case Seed::SPHERE:
rawShape = ofSpherePrimitive(seed.shapeSize, 64);
break;
case Seed::PLANE:
rawShape = ofPlanePrimitive(seed.shapeSize, seed.shapeSize, seed.numCols, seed.numCols);
// rawShape =ofBoxPrimitive(seed.shapeSize, seed.shapeSize, seed.shapeSize);
break;
default:
rawShape = ofSpherePrimitive(1,1);
}
if ((seed.numCols % 2) != 0){
even = false;
}
else even = true;
vboMesh = rawShape.getMesh();
};
static
bool equal(Seed const& lhs, Seed const& rhs)
{
return std::equal (
lhs.data(), lhs.data() + lhs.size(),
rhs.data(), rhs.data() + rhs.size());
}
std::string
seedAs1751 (Seed const& seed)
{
std::string key;
std::reverse_copy (
seed.data(),
seed.data() + 16,
std::back_inserter(key));
std::string encodedKey;
RFC1751::getEnglishFromKey (encodedKey, key);
return encodedKey;
}
void Seed::grow(MaximumCommonSubgraph& mcs) const {
const ROMol& qmol = mcs.getQueryMolecule();
std::set<unsigned> newAtomsSet; // keep track of newly added atoms
if (!canGrowBiggerThan(mcs.getMaxNumberBonds(),
mcs.getMaxNumberAtoms())) { // prune() parent
GrowingStage = NotSet; // finished
#ifdef VERBOSE_STATISTICS_ON
++mcs.VerboseStatistics.RemainingSizeRejected;
#endif
return;
}
if (0 == GrowingStage) {
// 0. Fill out list of all directly connected outgoing bonds
((Seed*)this)
->fillNewBonds(
qmol); // non const method, multistage growing optimisation
if (NewBonds.empty()) {
GrowingStage = NotSet; // finished
return;
}
// 1. Check and add the biggest child seed with all outgoing bonds added:
// Add all bonds at first (build the biggest child seed). All new atoms are
// already in the seed
Seed seed;
seed.createFromParent(this);
for (std::vector<NewBond>::const_iterator nbi = NewBonds.begin();
nbi != NewBonds.end(); nbi++) {
unsigned aIdx = nbi->EndAtomIdx;
if (NotSet == aIdx) { // new atom
// check if new bonds simultaneously close a ring
if (newAtomsSet.find(nbi->NewAtomIdx) == newAtomsSet.end()) {
const Atom* end_atom = nbi->NewAtom;
aIdx = seed.addAtom(end_atom);
newAtomsSet.insert(nbi->NewAtomIdx);
}
}
const Bond* src_bond = qmol.getBondWithIdx(nbi->BondIdx);
seed.addBond(src_bond);
}
#ifdef VERBOSE_STATISTICS_ON
{ ++mcs.VerboseStatistics.Seed; }
#endif
seed.RemainingBonds = RemainingBonds - NewBonds.size(); // Added ALL !!!
seed.RemainingAtoms =
RemainingAtoms - newAtomsSet.size(); // new atoms added to seed
// prune() Best Sizes
if (!seed.canGrowBiggerThan(mcs.getMaxNumberBonds(),
mcs.getMaxNumberAtoms())) {
GrowingStage = NotSet;
#ifdef VERBOSE_STATISTICS_ON
++mcs.VerboseStatistics.RemainingSizeRejected;
#endif
return; // the biggest possible subrgaph from this seed is too small for
// future growing. So, skip ALL children !
}
seed.MatchResult = MatchResult;
bool allMatched = mcs.checkIfMatchAndAppend(
seed); // this seed + all extern bonds is a part of MCS
GrowingStage = 1;
if (allMatched && NewBonds.size() > 1)
return; // grow deep first. postpone next growing steps
}
// 2. Check and add all 2^N-1-1 other possible seeds:
if (1 == NewBonds.size()) {
GrowingStage = NotSet;
return; // everything has been done
}
// OPTIMISATION:
// check each single bond first: if (this seed + single bond) does not exist
// in MCS, exclude this new bond from growing this seed.
unsigned numErasedNewBonds = 0;
for (auto& nbi : NewBonds) {
#ifdef VERBOSE_STATISTICS_ON
{ ++mcs.VerboseStatistics.Seed; }
#endif
Seed seed;
seed.createFromParent(this);
// existed in this parent seed (ring) or -1
unsigned aIdx = nbi.EndAtomIdx;
if (NotSet == aIdx) { // new atom
const Atom* end_atom = nbi.NewAtom;
aIdx = seed.addAtom(end_atom);
}
const Bond* src_bond = qmol.getBondWithIdx(nbi.BondIdx);
seed.addBond(src_bond);
seed.computeRemainingSize(qmol);
if (seed.canGrowBiggerThan(mcs.getMaxNumberBonds(),
mcs.getMaxNumberAtoms())) { // prune()
if (!MatchResult.empty()) seed.MatchResult = MatchResult;
if (!mcs.checkIfMatchAndAppend(seed)) {
nbi.BondIdx = NotSet; // exclude this new bond from growing this seed
// - decrease 2^^N-1 to 2^^k-1, k<N.
++numErasedNewBonds;
#ifdef VERBOSE_STATISTICS_ON
++mcs.VerboseStatistics.SingleBondExcluded;
#endif
}
} else { // seed too small
#ifdef VERBOSE_STATISTICS_ON
++mcs.VerboseStatistics.RemainingSizeRejected;
#endif
}
}
if (numErasedNewBonds > 0) {
std::vector<NewBond> dirtyNewBonds;
dirtyNewBonds.reserve(NewBonds.size());
dirtyNewBonds.swap(NewBonds);
for (std::vector<NewBond>::const_iterator nbi = dirtyNewBonds.begin();
nbi != dirtyNewBonds.end(); nbi++)
if (NotSet != nbi->BondIdx) NewBonds.push_back(*nbi);
}
// add all other from 2^k-1 possible seeds, where k=newBonds.size()
// if just one new bond, then seed has already been created
if (NewBonds.size() > 1) {
if (sizeof(unsigned long long) * 8 < NewBonds.size())
throw std::runtime_error(
"Max number of new external bonds of a seed more than 64");
BitSet maxCompositionValue;
Composition2N::compute2N(NewBonds.size(), maxCompositionValue);
maxCompositionValue -= 1; // 2^N-1
Composition2N composition(maxCompositionValue, maxCompositionValue);
#ifdef EXCLUDE_WRONG_COMPOSITION
std::vector<BitSet> failedCombinations;
BitSet failedCombinationsMask = 0uLL;
#endif
while (composition.generateNext()) {
// exclude already processed single external bond combinations
if (composition.is2Power())
continue;
if (0 == numErasedNewBonds &&
composition.getBitSet() == maxCompositionValue)
continue; // exclude already processed all external bonds combination
// 2N-1
#ifdef EXCLUDE_WRONG_COMPOSITION
// OPTIMISATION. reduce amount of generated seeds and match calls
// 2120 instead of 2208 match calls on small test. 43 wrongComp-s, 83
// rejected
if (failedCombinationsMask & composition.getBitSet()) {
// possibly exists in the list
bool compositionWrong = false;
for (std::vector<BitSet>::const_iterator failed =
failedCombinations.begin();
failed != failedCombinations.end(); failed++)
if (*failed == (*failed & composition.getBitSet())) {
// combination includes failed combination
compositionWrong = true;
break;
}
if (compositionWrong) {
#ifdef VERBOSE_STATISTICS_ON
++mcs.VerboseStatistics.WrongCompositionRejected;
#endif
continue;
}
}
#endif
#ifdef VERBOSE_STATISTICS_ON
{ ++mcs.VerboseStatistics.Seed; }
#endif
Seed seed;
seed.createFromParent(this);
newAtomsSet.clear();
for (unsigned i = 0; i < NewBonds.size(); i++)
if (composition.isSet(i)) {
const NewBond* nbi = &NewBonds[i];
unsigned aIdx =
nbi->EndAtomIdx; // existed in this parent seed (ring) or -1
if (NotSet == aIdx) { // new atom
if (newAtomsSet.find(nbi->NewAtomIdx) == newAtomsSet.end()) {
const Atom* end_atom = nbi->NewAtom;
aIdx = seed.addAtom(end_atom);
newAtomsSet.insert(nbi->NewAtomIdx);
}
}
const Bond* src_bond = qmol.getBondWithIdx(nbi->BondIdx);
seed.addBond(src_bond);
}
seed.computeRemainingSize(qmol);
if (!seed.canGrowBiggerThan(
mcs.getMaxNumberBonds(),
mcs.getMaxNumberAtoms())) { // prune(). // seed too small
#ifdef VERBOSE_STATISTICS_ON
++mcs.VerboseStatistics.RemainingSizeRejected;
#endif
} else {
seed.MatchResult = MatchResult;
bool found = mcs.checkIfMatchAndAppend(seed);
if (!found) {
#ifdef EXCLUDE_WRONG_COMPOSITION // if seed does not matched it is possible to
// exclude this mismatched combination for
// performance improvement
failedCombinations.push_back(composition.getBitSet());
failedCombinationsMask &= composition.getBitSet();
#ifdef VERBOSE_STATISTICS_ON
++mcs.VerboseStatistics.WrongCompositionDetected;
#endif
#endif
}
}
}
}
GrowingStage = NotSet; // finished
}
void BossBot::update(Game *game){
////////////////////////
///////////////////////
///////////////////////
if(dead) {
return;
}
// If hitpoints are 0, remove it
if(hitPoints <= 0){
setCurrentState(direction==1?DYING_RIGHT:DYING_LEFT);
game->getGSM()->getSpriteManager()->addBotToRemovalList(this, 15);
dead = true;
game->getGSM()->goToLevelWon();
return;
}
// Decrement frames since last attack
cooldownCounter--;
if(getCurrentState()==ATTACKING_RIGHT||getCurrentState()==ATTACKING_LEFT){
if(this->getFrameIndex()==10)
setCurrentState(direction==1?IDLE_RIGHT:IDLE_LEFT);
}
// If can attack, check if player in range.
if(cooldownCounter <= 0){
// If player is next to this bot, do something different
int botX = getCurrentBodyX() * BOX2D_CONVERSION_FACTOR;
int pX = game->getGSM()->getSpriteManager()->getPlayer()->getCurrentBodyX() * BOX2D_CONVERSION_FACTOR;
// If the player is within the bots targeting area, go after the player
if(isInBounds(pX)) {
int botY = getCurrentBodyY() * BOX2D_CONVERSION_FACTOR;
int pY = game->getGSM()->getSpriteManager()->getPlayer()->getCurrentBodyY() * BOX2D_CONVERSION_FACTOR;
// Make sure the player is in the same y area
if(std::abs(botY - pY) < 200){
if (pX<botX)
direction=-1;
else
direction=1;
cooldownCounter = attackCooldown;
this->setCurrentState(direction==1?ATTACKING_RIGHT:ATTACKING_LEFT);
// Seed
AnimatedSpriteType *seedSpriteType = game->getGSM()->getSpriteManager()->getSpriteType(3);
Seed *seed = new Seed(PROJECTILE_DESIGNATION, true);
seed->setHitPoints(1);
seed->setDamage(SEED_DAMAGE);
seed->setSpriteType(seedSpriteType);
seed->setAlpha(255);
seed->setCurrentState(IDLE_LEFT);
PhysicalProperties *seedProps = seed->getPhysicalProperties();
seedProps->setX(botX);
seedProps->setY(game->getGSM()->getWorld()->getWorldHeight() - botY);
seedProps->setVelocity(0.0f, 0.0f);
seedProps->setAccelerationX(0);
seedProps->setAccelerationY(0);
seed->setOnTileThisFrame(false);
seed->setOnTileLastFrame(false);
seed->affixTightAABBBoundingVolume();
//create a physics object for the seed
game->getGSM()->getBoxPhysics()->getPhysicsFactory()->createEnemyObject(game,seed,false);
float difX = botX - pX;
float difY = botY - pY;
// Set the velocity of the seed
float length = std::sqrt( (difX * difX) + (difY * difY) );
// Normalize the distances
difX /= length;
difY /= length;
// Scale distances to be x and y velocity
difX *= PROJECTILE_VELOCITY;
difY = difY*PROJECTILE_VELOCITY-10;
seed->getPhysicsBody()->SetLinearVelocity(b2Vec2(-difX, -difY));
game->getGSM()->getPhysics()->addCollidableObject(seed);
game->getGSM()->getSpriteManager()->addBot(seed);
}
}
}
//////////////////////
///////////////////////
///////////////////////
/*
if(dead) {
return;
}
// If hitpoints are 0, remove it
if(hitPoints <= 0){
game->getGSM()->goToLevelWon();
game->getGSM()->getSpriteManager()->addBotToRemovalList(this, 0);
dead = true;
return;
}
// Decrement frames since last attack
cooldownCounter--;
// If can attack, check if player in range.
if(cooldownCounter <= 0){
// If player is next to this bot, do something different
int botX = getCurrentBodyX() * BOX2D_CONVERSION_FACTOR;
int pX = game->getGSM()->getSpriteManager()->getPlayer()->getCurrentBodyX() * BOX2D_CONVERSION_FACTOR;
// If the player is within the bots targeting area, go after the player
if(isInBounds(pX)) {
int botY = getCurrentBodyY() * BOX2D_CONVERSION_FACTOR;
int pY = game->getGSM()->getSpriteManager()->getPlayer()->getCurrentBodyY() * BOX2D_CONVERSION_FACTOR;
// Make sure the player is in the same y area
if(std::abs(botY - pY) < 200){
cooldownCounter = attackCooldown;
// Seed
AnimatedSpriteType *seedSpriteType = game->getGSM()->getSpriteManager()->getSpriteType(3);
Seed *seed = new Seed(PROJECTILE_DESIGNATION, true);
seed->setHitPoints(1);
seed->setDamage(SEED_DAMAGE);
seed->setSpriteType(seedSpriteType);
seed->setAlpha(255);
seed->setCurrentState(IDLE_LEFT);
PhysicalProperties *seedProps = seed->getPhysicalProperties();
seedProps->setX(botX);
seedProps->setY(game->getGSM()->getWorld()->getWorldHeight() - botY);
seedProps->setVelocity(0.0f, 0.0f);
seedProps->setAccelerationX(0);
seedProps->setAccelerationY(0);
seed->setOnTileThisFrame(false);
seed->setOnTileLastFrame(false);
seed->affixTightAABBBoundingVolume();
//create a physics object for the seed
game->getGSM()->getBoxPhysics()->getPhysicsFactory()->createEnemyObject(game,seed,true);
// Set the velocity of the seed
seed->getPhysicsBody()->SetLinearVelocity(b2Vec2(attackSpeed, 0.5));
game->getGSM()->getPhysics()->addCollidableObject(seed);
game->getGSM()->getSpriteManager()->addBot(seed);
}
}
}
*/
}
int rnasequel::build_transcriptome(int argc, char * argv[]) {
Timer ti("Total time building the transcriptome");
po::variables_map vm;
tx_init_options(argc,argv,vm);
FastaIndex fi(vm["ref"].as<string>());
fi.load_all(false);
unsigned int read_size = vm["read-size"].as<unsigned int>();
std::vector<bool> tskips(fi.size(), false);
bool skip_nc = vm.count("skip-non-canonical") > 0;
{
string skip = vm["skip"].as<string>();
Tokenizer::token_t skips;
Tokenizer::get(skip, ',', skips);
for(size_t i = 0; i < skips.size(); i++){
FastaIndex::const_iterator it = fi.get_entry(skips[i]);
if(it != fi.end()) tskips[it->tid] = true;
}
}
JunctionSet pjuncs, mjuncs, ajuncs;
std::map<Junction, Strand> strand_map;
SpliceSiteStrand strander;
SpliceSiteMap splice_sites;
if(vm.count("gtf") > 0) {
int min_intron = vm["min-intron"].as<unsigned int>();
Model m;
GTF::parse(vm["gtf"].as<string>(), m);
splice_sites.build_from_model(m);
size_t kept = 0;
for(Model::iterator it = m.begin(); it != m.end(); it++){
unsigned int tid = fi.tid(it->first);
if(tskips[tid]) continue;
for(size_t i = 0; i < it->second.size(); i++){
for(Gene::iterator it2 = it->second[i].begin(); it2 != it->second[i].end(); it2++){
Transcript::junc_iterator jit = it2->junc_it();
while(jit.next()){
int isize = jit->rgt() - jit->lft() - 1;
if(isize < min_intron) continue;
Junction j(tid, jit->lft(), jit->rgt(), jit->strand());
if(it2->strand() == PLUS){
strander.add_junction(j);
if(pjuncs.insert(j).second) kept++;
}else{
strander.add_junction(j);
if(mjuncs.insert(j).second) kept++;
}
}
}
}
}
cout << " Kept " << kept << " annotated junctions from the gtf file\n";
}
if(vm.count("bam") > 0){
bool use_repeats = vm.count("use-repeats") > 0;
SpliceStrand infer_strand(vm["canonical"].as<string>());
std::map<Junction, JunctionCount> counts;
BamReader bin(vm["bam"].as<string>());
BamRead r;
size_t min_length = vm["min-length"].as<unsigned int>();
unsigned int end_cutoff = vm["end-cutoff"].as<unsigned int>();
std::vector<int> tidmap(bin.header().size());
for(size_t i = 0; i < bin.header().size(); i++){
tidmap[i] = fi[bin.header()[i]].tid;
}
cout << "Extracting novel splice junctions" << endl;
Timer ti2("Time extracting junctions");
size_t total = 0;
while(bin.get_read(r)){
total++;
if(total % 0x40000 == 0){
time_t e = ti2.elapsed();
if(e > 0){
std::cerr << "\33[2K\rTotal processed: " << total
<< ", reads / second: " << (total / e);
std::cerr.flush();
}
}
if(!r.aligned() || !r.flag.paired || !r.flag.proper_pair || r.flag.secondary){
continue;
}
size_t num_juncs = std::count_if(r.cigar.begin(), r.cigar.end(), is_skip);
if(num_juncs == 0 || (!use_repeats && r.repeat())) continue;
uint64_t block = 0;
if(r.flag.paired && r.flag.proper_pair){
int tlen = r.tlen();
if(tlen < 0){
block = (static_cast<uint64_t>(r.rgt() + r.cigar.back_clipped() - (tlen - 1)) << 32) | static_cast<uint64_t>(r.lft() - r.cigar.front_clipped() + tlen - 1);
}else{
block = (static_cast<uint64_t>(r.lft()) << 32) | static_cast<uint64_t>(r.lft() + tlen - 1);
}
}
size_t junc_num = 1;
SeedIterator<Cigar::const_iterator> bit(r.cigar.begin(), r.cigar.end(), r.lft(), 0);
Seed l = bit();
int tid = tidmap[r.tid()];
const PackedSequence & ref = fi[tid].seq;
unsigned int qrgt = r.qrgt();
while(bit.next()){
Junction j(tid, l.rrgt(), bit().rlft(), UNKNOWN);
Strand s1 = splice_sites.find(r.tname(), j.lft).infer();
Strand s2 = splice_sites.find(r.tname(), j.rgt).infer();
Strand strand;
if((s1 == UNKNOWN && s2 == UNKNOWN) || (s1 != UNKNOWN && s2 != UNKNOWN && s1 != s2)){
strand = infer_strand.strand(ref[j.lft + 1], ref[j.lft + 2], ref[j.rgt - 2], ref[j.rgt - 1]);
}else{
strand = s1 == UNKNOWN ? s2 : s1;
}
bool end = l.qrgt() < end_cutoff || r.qlft() >= (qrgt - end_cutoff);
j.strand = strand;
if((junc_num != 1 || l.score() >= static_cast<int>(min_length))
&& (junc_num != num_juncs || bit().score() >= static_cast<int>(min_length))){
JunctionCount & jc = counts[j];
jc.count++;
jc.positions.insert(block);
if(end) jc.ends++;
}
l = bit();
junc_num++;
}
}
unsigned int min_intron = vm["min-intron"].as<unsigned int>();
unsigned int max_intron = vm["max-intron"].as<unsigned int>();
unsigned int min_unique = vm["min-unique"].as<unsigned int>();
unsigned int min_count = vm["min-count"].as<unsigned int>();
unsigned int end_count = vm["end-count"].as<unsigned int>();
unsigned int min_nc_unique = vm["min-nc-unique"].as<unsigned int>();
unsigned int min_nc_count = vm["min-nc-count"].as<unsigned int>();
size_t kept = 0, total_novel = 0;
size_t nc_kept = 0, nc_total_novel = 0;
for(auto const & j : counts){
const Junction & junc = j.first;
const JunctionCount & jc = j.second;
unsigned int isize = junc.isize();
const PackedSequence & ref = fi[junc.tid].seq;
bool canonical = infer_strand.canonical(ref[junc.lft + 1], ref[junc.lft + 2], ref[junc.rgt - 2], ref[junc.rgt - 1]);
bool found = false;
if(junc.strand == PLUS){
found = pjuncs.find(junc) != pjuncs.end();
}else if(junc.strand == MINUS){
found = mjuncs.find(junc) != mjuncs.end();
}else{
found = ajuncs.find(junc) != ajuncs.end();
}
if(!found) {
if(canonical) total_novel++;
else nc_total_novel++;
}
if((canonical && (jc.count < min_count || jc.positions.size() < min_unique)) ||
(!canonical && (jc.count < min_nc_count || jc.positions.size() < min_nc_unique)) ||
isize < min_intron || isize > max_intron || (jc.count - jc.ends) < end_count){
continue;
}
if(!found) {
if(junc.strand == PLUS){
pjuncs.insert(junc);
}else if(junc.strand == MINUS){
mjuncs.insert(junc);
}else{
ajuncs.insert(junc);
}
if(canonical) kept++;
else nc_kept++;
}
}
cout << "\n\nKept " << kept << " out of " << total_novel << " novel junctions\n";
if(!skip_nc) cout << "Kept " << nc_kept << " out of " << nc_total_novel << " non-canonical novel junctions\n";
}
if(!skip_nc){
for(auto const & j : ajuncs){
Strand lft = strander.find_lft(j.tid, j.lft);
Strand rgt = strander.find_rgt(j.tid, j.rgt);
Strand strand = BOTH;
if(lft != BOTH && rgt != BOTH && lft == rgt){
strand = lft;
}else if(lft == BOTH && rgt != BOTH){
strand = rgt;
}else if(lft != BOTH && rgt == BOTH){
strand = lft;
}
if(strand == PLUS){
pjuncs.insert(j);
}else if(strand == MINUS){
mjuncs.insert(j);
}else{
pjuncs.insert(j);
mjuncs.insert(j);
}
}
}
Transcriptome builder(vm["out"].as<string>(), fi, read_size, vm["max-iter"].as<unsigned int>(), false);
builder.process_junctions(pjuncs, PLUS);
builder.process_junctions(mjuncs, MINUS);
return 0;
}
