{
SCM func = me->get_property ("space-function");
- if (gh_procedure_p (func))
+ if (ly_procedure_p (func))
{
- SCM s = gh_call2 (func, me->self_scm (), scm_int2num (get_beam_count (me)));
- return gh_scm2double (s);
+ SCM s = scm_call_2 (func, me->self_scm (), scm_int2num (get_beam_count (me)));
+ return ly_scm2double (s);
}
else
{
Beam::get_beam_count (Grob *me)
{
int m = 0;
- for (SCM s = me->get_property ("stems"); gh_pair_p (s); s = ly_cdr (s))
+ for (SCM s = me->get_property ("stems"); ly_pair_p (s); s = ly_cdr (s))
{
Grob *stem = unsmob_grob (ly_car (s));
m = m >? (Stem::beam_multiplicity (stem).length () + 1);
Real line = Staff_symbol_referencer::line_thickness (me);
Real thickness = get_thickness (me);
- Real beam_translation = gh_scm2int (beam_count) < 4
+ Real beam_translation = ly_scm2int (beam_count) < 4
? (2*staff_space + line - thickness) / 2.0
: (3*staff_space + line - thickness) / 3.0;
- return gh_double2scm (beam_translation);
+ return scm_make_real (beam_translation);
}
{
me->warning (_ ("removing beam with less than two stems"));
- unsmob_grob (gh_car (stems))->set_property ("beam", SCM_EOL);
+ unsmob_grob (ly_car (stems))->set_property ("beam", SCM_EOL);
me->suicide ();
return SCM_UNSPECIFIED;
Direction left_dir,
Direction right_dir)
{
- Slice lslice = int_list_to_slice (gh_cdr (left_beaming));
+ Slice lslice = int_list_to_slice (ly_cdr (left_beaming));
int best_count = 0;
int best_start = 0;
(i - lslice[left_dir])* left_dir <= 0 ; i+= left_dir)
{
int count =0;
- for ( SCM s = gh_car (right_beaming); gh_pair_p (s); s = gh_cdr (s))
+ for ( SCM s = ly_car (right_beaming); ly_pair_p (s); s = ly_cdr (s))
{
- int k = - right_dir * gh_scm2int (gh_car (s)) + i;
+ int k = - right_dir * ly_scm2int (ly_car (s)) + i;
if (scm_c_memq (scm_int2num (k), left_beaming) != SCM_BOOL_F)
count ++;
}
SCM this_beaming = this_stem->get_property ("beaming");
Direction this_dir = get_grob_direction (this_stem);
- if (gh_pair_p (last_beaming) && gh_pair_p (this_beaming))
+ if (ly_pair_p (last_beaming) && ly_pair_p (this_beaming))
{
int start_point = position_with_maximal_common_beams
(last_beaming, this_beaming,
new_slice.set_empty ();
SCM s = index_get_cell (this_beaming, d);
- for (; gh_pair_p (s); s = gh_cdr (s))
+ for (; ly_pair_p (s); s = ly_cdr (s))
{
int new_beam_pos =
- start_point - this_dir * gh_scm2int (gh_car (s));
+ start_point - this_dir * ly_scm2int (ly_car (s));
new_slice.add_point (new_beam_pos);
- gh_set_car_x (s, scm_int2num (new_beam_pos));
+ scm_set_car_x (s, scm_int2num (new_beam_pos));
}
}
else
{
- gh_set_car_x ( this_beaming, SCM_EOL);
- SCM s = gh_cdr (this_beaming);
- for (; gh_pair_p (s); s = gh_cdr (s))
+ scm_set_car_x ( this_beaming, SCM_EOL);
+ SCM s = ly_cdr (this_beaming);
+ for (; ly_pair_p (s); s = ly_cdr (s))
{
- int np = - this_dir * gh_scm2int (gh_car (s));
- gh_set_car_x (s, scm_int2num (np));
+ int np = - this_dir * ly_scm2int (ly_car (s));
+ scm_set_car_x (s, scm_int2num (np));
last_int.add_point (np);
}
}
if (i == stems.size () -1)
{
- gh_set_cdr_x (this_beaming, SCM_EOL);
+ scm_set_cdr_x (this_beaming, SCM_EOL);
}
- if (scm_ilength (gh_cdr (this_beaming)) > 0)
+ if (scm_ilength (ly_cdr (this_beaming)) > 0)
{
last_beaming = this_beaming;
last_dir = this_dir;
right from the left stem, and rfliebertjes pointing left from
right stem.
*/
- SCM left = (i>0) ? gh_cdr (last_beaming) : SCM_EOL;
- SCM right = st ? gh_car (this_beaming) : SCM_EOL;
+ SCM left = (i>0) ? ly_cdr (last_beaming) : SCM_EOL;
+ SCM right = st ? ly_car (this_beaming) : SCM_EOL;
Array<int> full_beams;
Array<int> lfliebertjes;
Array<int> rfliebertjes;
for (SCM s = left;
- gh_pair_p (s); s =gh_cdr (s))
+ ly_pair_p (s); s =ly_cdr (s))
{
- int b = gh_scm2int (gh_car (s));
- if (scm_c_memq (gh_car (s), right) != SCM_BOOL_F)
+ int b = ly_scm2int (ly_car (s));
+ if (scm_c_memq (ly_car (s), right) != SCM_BOOL_F)
{
full_beams.push (b);
}
}
}
for (SCM s = right;
- gh_pair_p (s); s =gh_cdr (s))
+ ly_pair_p (s); s =ly_cdr (s))
{
- int b = gh_scm2int (gh_car (s));
- if (scm_c_memq (gh_car (s), left) == SCM_BOOL_F)
+ int b = ly_scm2int (ly_car (s));
+ if (scm_c_memq (ly_car (s), left) == SCM_BOOL_F)
{
rfliebertjes.push (b);
}
Stencil gapped;
int gap_count = 0;
- if (gh_number_p (me->get_property ("gap-count")))
+ if (ly_number_p (me->get_property ("gap-count")))
{
- gap_count = gh_scm2int (me->get_property ("gap-count"));
+ gap_count = ly_scm2int (me->get_property ("gap-count"));
gapped = Lookup::beam (dydx, w - 2 * gap_length, thick, blot);
full_beams.sort (default_compare);
int t = Stem::duration_log (st);
SCM proc = me->get_property ("flag-width-function");
- SCM result = gh_call1 (proc, scm_int2num (t));
- nw_f = gh_scm2double (result);
+ SCM result = scm_call_1 (proc, scm_int2num (t));
+ nw_f = ly_scm2double (result);
}
else
nw_f = break_overshoot / 2;
#if (DEBUG_QUANTING)
SCM quant_score = me->get_property ("quant-score");
if (debug_beam_quanting_flag
- && gh_string_p (quant_score))
+ && ly_string_p (quant_score))
{
/*
} while (flip (&d) != DOWN);
SCM func = me->get_property ("dir-function");
- SCM s = gh_call2 (func,
- gh_cons (scm_int2num (count[UP]),
+ SCM s = scm_call_2 (func,
+ scm_cons (scm_int2num (count[UP]),
scm_int2num (count[DOWN])),
- gh_cons (scm_int2num (total[UP]),
+ scm_cons (scm_int2num (total[UP]),
scm_int2num (total[DOWN])));
- if (gh_number_p (s) && gh_scm2int (s))
+ if (ly_number_p (s) && ly_scm2int (s))
return to_dir (s);
/* If dir is not determined: get default */
Beam::consider_auto_knees (Grob* me)
{
SCM scm = me->get_property ("auto-knee-gap");
- if (!gh_number_p (scm))
+ if (!ly_number_p (scm))
return ;
- Real threshold = gh_scm2double (scm);
+ Real threshold = ly_scm2double (scm);
Int_set gaps;
SCM shorten_elt =
robust_list_ref (beam_count -1, shorten_list);
- Real shorten_f = gh_scm2double (shorten_elt) * staff_space;
+ Real shorten_f = ly_scm2double (shorten_elt) * staff_space;
/* your similar cute comment here */
shorten_f *= forced_fraction;
if (shorten_f)
- me->set_property ("shorten", gh_double2scm (shorten_f));
+ me->set_property ("shorten", scm_make_real (shorten_f));
}
/* Call list of y-dy-callbacks, that handle setting of
{
// one wonders if such genericity is necessary --hwn.
SCM callbacks = me->get_property ("position-callbacks");
- for (SCM i = callbacks; gh_pair_p (i); i = ly_cdr (i))
- gh_call1 (ly_car (i), me->self_scm ());
+ for (SCM i = callbacks; ly_pair_p (i); i = ly_cdr (i))
+ scm_call_1 (ly_car (i), me->self_scm ());
}
set_stem_lengths (me);
where the second part goes.
*/
me->set_property ("least-squares-dy",
- gh_double2scm (pos[RIGHT] - pos[LEFT]));
+ scm_make_real (pos[RIGHT] - pos[LEFT]));
}
else
{
minimise_least_squares (&dydx, &y, ideals);
dy = dydx * dx;
- me->set_property ("least-squares-dy", gh_double2scm (dy));
+ me->set_property ("least-squares-dy", scm_make_real (dy));
pos = Interval (y, (y+dy));
}
*/
bool is_concave1 = false;
SCM gap = me->get_property ("concaveness-gap");
- if (gh_number_p (gap))
+ if (ly_number_p (gap))
{
- Real r1 = gh_scm2double (gap);
+ Real r1 = ly_scm2double (gap);
Real dy = Stem::chord_start_y (stems.top ())
- Stem::chord_start_y (stems[0]);
Real concaveness2 = 0;
SCM thresh = me->get_property ("concaveness-threshold");
Real r2 = infinity_f;
- if (!is_concave1 && gh_number_p (thresh))
+ if (!is_concave1 && ly_number_p (thresh))
{
- r2 = gh_scm2double (thresh);
+ r2 = ly_scm2double (thresh);
Interval iv;
iv.add_point (Stem::chord_start_y (stems[0]));
r /= Staff_symbol_referencer::staff_space (me);
me->set_property ("positions", ly_interval2scm (Drul_array<Real> (r, r)));
- me->set_property ("least-squares-dy", gh_double2scm (0));
+ me->set_property ("least-squares-dy", scm_make_real (0));
}
return SCM_UNSPECIFIED;
return SCM_UNSPECIFIED;
SCM s = me->get_property ("damping");
- int damping = gh_scm2int (s);
+ int damping = ly_scm2int (s);
if (damping)
{
{
Slice l;
- for ( SCM s = gh_car (beaming); gh_pair_p (s) ; s = gh_cdr (s))
+ for ( SCM s = ly_car (beaming); ly_pair_p (s) ; s = ly_cdr (s))
{
- if (scm_c_memq (gh_car (s), gh_cdr (beaming)) != SCM_BOOL_F)
+ if (scm_c_memq (ly_car (s), ly_cdr (beaming)) != SCM_BOOL_F)
- l.add_point (gh_scm2int (gh_car (s)));
+ l.add_point (ly_scm2int (ly_car (s)));
}
return l;
bool gap = false;
Real thick =0.0;
- if (gh_number_p (me->get_property ("gap-count"))
- &&gh_scm2int (me->get_property ("gap-count")))
+ if (ly_number_p (me->get_property ("gap-count"))
+ &&ly_scm2int (me->get_property ("gap-count")))
{
gap = true;
thick = get_thickness (me);
Beam::rest_collision_callback (SCM element_smob, SCM axis)
{
Grob *rest = unsmob_grob (element_smob);
- Axis a = (Axis) gh_scm2int (axis);
+ Axis a = (Axis) ly_scm2int (axis);
- if (gh_number_p (rest->get_property ("staff-position")))
- return gh_int2scm (0);
+ if (ly_number_p (rest->get_property ("staff-position")))
+ return scm_int2num (0);
assert (a == Y_AXIS);
Grob *st = unsmob_grob (rest->get_property ("stem"));
Grob *stem = st;
if (!stem)
- return gh_double2scm (0.0);
+ return scm_make_real (0.0);
Grob *beam = unsmob_grob (stem->get_property ("beam"));
if (!beam
|| !Beam::has_interface (beam)
|| !Beam::visible_stem_count (beam))
- return gh_double2scm (0.0);
+ return scm_make_real (0.0);
Drul_array<Real> pos (0, 0);
SCM s = beam->get_property ("positions");
- if (gh_pair_p (s) && gh_number_p (ly_car (s)))
+ if (ly_pair_p (s) && ly_number_p (ly_car (s)))
pos = ly_scm2interval (s);
Real staff_space = Staff_symbol_referencer::staff_space (rest);
< rad)
shift = ceil (fabs (shift)) *sign (shift);
- return gh_double2scm (staff_space * shift);
+ return scm_make_real (staff_space * shift);
}
bool
Beam::is_knee (Grob* me)
{
SCM k = me->get_property ("knee");
- if (gh_boolean_p (k))
- return gh_scm2bool (k);
+ if (ly_boolean_p (k))
+ return ly_scm2bool (k);
bool knee = false;
int d = 0;
- for (SCM s = me->get_property ("stems"); gh_pair_p (s); s = ly_cdr (s))
+ for (SCM s = me->get_property ("stems"); ly_pair_p (s); s = ly_cdr (s))
{
Direction dir = get_grob_direction (unsmob_grob (ly_car (s)));
if (d && d != dir)
d = dir;
}
- me->set_property ("knee", gh_bool2scm (knee));
+ me->set_property ("knee", ly_bool2scm (knee));
return knee;
}
projects / lilypond.git / blobdiff