Stem_info::Stem_info(Stem const *s)
{
- x = s->hindex();
+ x = s->hpos_f();
int dir = s->dir_i_;
- idealy = max(dir*s->top, dir*s->bot);
- miny = max(dir*s->minnote, dir*s-> maxnote);
+ idealy = dir * s->stem_end_f();
+ miny = dir * s->stem_start_f();
assert(miny <= idealy);
-
}
/* *************** */
{
stems.bottom().add(s);
s->add_dependency(this);
- s->print_flag = false;
+ s->print_flag_b_ = false;
}
void
Array<Stem_info> sinfo;
for (iter_top(stems,i); i.ok(); i++) {
i->set_default_extents();
+ if (i->invisible_b())
+ continue;
+
Stem_info info(i);
sinfo.push(info);
}
Beam::set_stemlens()
{
iter_top(stems,s);
- Real x0 = s->hindex();
+ Real x0 = s->hpos_f();
for (; s.ok() ; s++) {
- Real x = s->hindex()-x0;
+ Real x = s->hpos_f()-x0;
s->set_stemend(left_pos + slope * x);
}
}
iter_top(stems,s);
Array<int> flags;
for (; s.ok(); s++) {
- int f = intlog2(abs(s->flag))-2;
+ int f = intlog2(abs(s->flag_i_))-2;
assert(f>0);
flags.push(f);
}
iter_top(stems,s);
for (int i=0; i < b.size() && s.ok(); i+=2, s++) {
- s->beams_left = b[i];
- s->beams_right = b[i+1];
+ s->beams_left_i_ = b[i];
+ s->beams_right_i_ = b[i+1];
}
}
Beam::do_width() const
{
Beam * me = (Beam*) this; // ugh
- return Interval( (*me->stems.top()) ->hindex(),
- (*me->stems.bottom()) ->hindex() );
+ return Interval( (*me->stems.top()) ->hpos_f(),
+ (*me->stems.bottom()) ->hpos_f() );
}
/*
Molecule
Beam::stem_beams(Stem *here, Stem *next, Stem *prev)const
{
- assert( !next || next->hindex() > here->hindex() );
- assert( !prev || prev->hindex() < here->hindex() );
+ assert( !next || next->hpos_f() > here->hpos_f() );
+ assert( !prev || prev->hpos_f() < here->hpos_f() );
Real dy=paper()->internote()*2;
Real stemdx = paper()->rule_thickness();
Real sl = slope*paper()->internote();
/* half beams extending to the left. */
if (prev) {
- int lhalfs= lhalfs = here->beams_left - prev->beams_right ;
- int lwholebeams= here->beams_left <? prev->beams_right ;
- Real w = (here->hindex() - prev->hindex())/4;
+ int lhalfs= lhalfs = here->beams_left_i_ - prev->beams_right_i_ ;
+ int lwholebeams= here->beams_left_i_ <? prev->beams_right_i_ ;
+ Real w = (here->hpos_f() - prev->hpos_f())/4;
Symbol dummy;
Atom a(dummy);
if (lhalfs) // generates warnings if not
}
if (next){
- int rhalfs = here->beams_right - next->beams_left;
- int rwholebeams = here->beams_right <? next->beams_left;
+ int rhalfs = here->beams_right_i_ - next->beams_left_i_;
+ int rwholebeams = here->beams_right_i_ <? next->beams_left_i_;
- Real w = next->hindex() - here->hindex();
+ Real w = next->hpos_f() - here->hpos_f();
Atom a = paper()->lookup_l()->beam(sl, w + stemdx);
int j = 0;
Molecule*
-Beam::brew_molecule_p() const return out;
+Beam::brew_molecule_p() const
{
+ Molecule *out=0;
Real inter=paper()->internote();
out = new Molecule;
- Real x0 = stems.top()->hindex();
+ Real x0 = stems.top()->hpos_f();
for (iter_top(stems,i); i.ok(); i++) {
PCursor<Stem*> p(i-1);
Stem * next = n.ok() ? n.ptr() : 0;
Molecule sb = stem_beams(i, next, prev);
- Real x = i->hindex()-x0;
+ Real x = i->hpos_f()-x0;
sb.translate(Offset(x, (x * slope + left_pos)* inter));
out->add(sb);
}
out->translate(Offset(x0 - left_col_l_->hpos,0));
+ return out;
}
IMPLEMENT_STATIC_NAME(Beam);