///////////////////////
// normal
void Tooltip::draw()
{
if(is_visible())
{
std::string text = get_text();
int x = get_x();
int y = get_y();
int width = get_width ();
int height = get_height();
double angle = get_angle();
double scale_x = get_scale().x;
double scale_y = get_scale().y;
double red = get_color().x;
double green = get_color().y;
double blue = get_color().z;
double alpha = get_color().w;
Renderer::draw_tooltip(text, x, y, width, height, angle, scale_x, scale_y,
red, green, blue, alpha);
if(label != nullptr)
{
label->draw();
//Renderer::draw_label(text, x, y, angle, get_label()->get_scale().x, get_label()->get_scale().y,
// get_label()->get_font()->get_data(),
// get_text_color().x,get_text_color().y,get_text_color().z,get_text_color().w);
}
}
on_draw(); // callback for all gui
}
node<P> batch_create(DistanceCallback& dcb, v_array<P> points)
{
assert(points.index > 0);
v_array<ds_node<P> > point_set;
v_array<v_array<ds_node<P> > > stack;
for (int i = 1; i < points.index; i++) {
ds_node<P> temp;
push(temp.dist, distance(dcb, points[0], points[i], std::numeric_limits<ScalarType>::max()));
temp.p = points[i];
push(point_set,temp);
}
v_array<ds_node<P> > consumed_set;
ScalarType max_dist = max_set(point_set);
node<P> top = batch_insert (dcb, points[0],
get_scale(max_dist),
get_scale(max_dist),
point_set,
consumed_set,
stack);
for (int i = 0; i<consumed_set.index;i++)
free(consumed_set[i].dist.elements);
free(consumed_set.elements);
for (int i = 0; i<stack.index;i++)
free(stack[i].elements);
free(stack.elements);
free(point_set.elements);
return top;
}
Vector2 GraphNode::get_connection_output_pos(int p_idx){
if (connpos_dirty)
_connpos_update();
ERR_FAIL_INDEX_V(p_idx,conn_output_cache.size(),Vector2());
Vector2 pos = conn_output_cache[p_idx].pos;
pos.x *= get_scale().x;
pos.y *= get_scale().y;
return pos;
}
void geometry2d_renderer::render(renderer_ptr render)
{
if (game_obj_.expired())
{
return;
}
auto obj = game_obj_.lock();
if (!obj->get_active())
{
return;
}
auto trans = obj->get_component<transform2d>();
assert_return((trans != nullptr));
if (geo_type_ == gt_none)
{
return;
}
vert_buf_.clear();
if (geo_type_ == gt_polygon)
{
auto mat = matrix3::make_transform(trans->get_pos(), trans->get_scale(), trans->get_forward());
for (auto vt : geo_data_.vertices)
{
vert_buf_.push_back(mat * vt);
}
}
else if (geo_type_ == gt_circle)
{
static const int vert_cnt = 180;
float scale_factor = 100.0f;
vec2 scale = trans->get_scale();
vec2 pos = trans->get_pos();
for (int i = 0; i < vert_cnt; ++i)
{
float delta = 360.0f / vert_cnt;
float rad = (float)(i * delta * PI) / 180.0f;
vec2 pt;
pt.x = scale_factor * cosf(rad) * geo_data_.radius * scale.x / scale_factor + pos.x;
pt.y = scale_factor * sinf(rad) * geo_data_.radius * scale.y / scale_factor + pos.y;
vert_buf_.push_back(pt);
}
vec2 st = vert_buf_[0];
vert_buf_.push_back(st);
}
else
{
return;
}
render->set_draw_color(vert_color_);
render->draw_polygon(vert_buf_);
}
/*
* This function returns the major scale of the given tonic note. The scale is
* an array of semitone_t terminated by an UNKNOWN_SEMITONE, and it is allocated
* on the heap. If the tonic is an illegal argument, NULL is returned.
*/
enum semitone_t *get_major_scale(enum semitone_t tonic)
{
enum semitone_t major_scale[] = {C, D, E, F, G, A, B, UNKNOWN_SEMITONE};
return get_scale(tonic, major_scale,
sizeof(major_scale) / sizeof(enum semitone_t));
}
/*
* This function returns the chromatic scale of the given tonic note. The scale
* is an array of semitone_t terminated by an UNKNOWN_SEMITONE, and it is
* allocated on the heap. If the tonic is an illegal argument, NULL is
* returned.
*/
enum semitone_t *get_chromatic_scale(enum semitone_t tonic)
{
enum semitone_t chromatic_scale[] = {C, Db, D, Eb, E, F, Gb, G, Ab, A, Bb, B, UNKNOWN_SEMITONE};
return get_scale(tonic, chromatic_scale,
sizeof(chromatic_scale) / sizeof(enum semitone_t));
}
/*
* This function returns the natural minor scale of the given tonic note. The
* scale is an array of semitone_t terminated by an UNKNOWN_SEMITONE, and it is
* allocated on the heap. If the tonic is an illegal argument, NULL is
* returned.
*/
enum semitone_t *get_natural_minor_scale(enum semitone_t tonic)
{
enum semitone_t natural_minor_scale[] = {C, D, Eb, F, G, Ab, Bb, UNKNOWN_SEMITONE};
return get_scale(tonic, natural_minor_scale,
sizeof(natural_minor_scale) / sizeof(enum semitone_t));
}
static void
clamp_view(struct image *image)
{
struct rectangle allocation;
double scale = get_scale(image);
double sw, sh;
sw = image->width * scale;
sh = image->height * scale;
widget_get_allocation(image->widget, &allocation);
if (sw < allocation.width) {
image->matrix.x0 =
(allocation.width - image->width * scale) / 2;
} else {
if (image->matrix.x0 > 0.0)
image->matrix.x0 = 0.0;
if (sw + image->matrix.x0 < allocation.width)
image->matrix.x0 = allocation.width - sw;
}
if (sh < allocation.width) {
image->matrix.y0 =
(allocation.height - image->height * scale) / 2;
} else {
if (image->matrix.y0 > 0.0)
image->matrix.y0 = 0.0;
if (sh + image->matrix.y0 < allocation.height)
image->matrix.y0 = allocation.height - sh;
}
}
/*
* This function returns the melodic minor scale of the given tonic note. The
* scale is an array of semitone_t terminated by an UNKNOWN_SEMITONE, and it is
* allocated on the heap. If the tonic is an illegal argument, NULL is
* returned.
*/
enum semitone_t *get_melodic_minor_scale(enum semitone_t tonic)
{
enum semitone_t melodic_minor_scale[] = {C, D, Eb, F, G, A, B, UNKNOWN_SEMITONE};
return get_scale(tonic, melodic_minor_scale,
sizeof(melodic_minor_scale) / sizeof(enum semitone_t));
}
/*
* This function returns the harmonic minor scale of the given tonic note. The
* scale is an array of semitone_t terminated by an UNKNOWN_SEMITONE, and it is
* allocated on the heap. If the tonic is an illegal argument, NULL is
* returned.
*/
enum semitone_t *get_harmonic_minor_scale(enum semitone_t tonic)
{
enum semitone_t harmonic_minor_scale[] = {C, D, Eb, F, G, Ab, B, UNKNOWN_SEMITONE};
return get_scale(tonic, harmonic_minor_scale,
sizeof(harmonic_minor_scale) / sizeof(enum semitone_t));
}
CL_CollisionOutline CL_CollisionOutline::clone() const
{
CL_CollisionOutline copy;
copy.impl->contours.clear();
copy.impl->contours.reserve(impl->contours.size());
for (size_t i = 0; i < impl->contours.size(); i++)
copy.impl->contours.push_back(impl->contours[i].clone());
copy.impl->do_inside_test = get_inside_test();
copy.impl->width = get_width();
copy.impl->height = get_height();
copy.impl->position = get_translation();
copy.impl->scale_factor = get_scale();
copy.impl->angle = get_angle();
copy.impl->minimum_enclosing_disc = get_minimum_enclosing_disc();
bool points, normals, metadata, pendepths;
get_collision_info_state(points,normals,metadata,pendepths);
copy.enable_collision_info(points,normals,metadata,pendepths);
CL_Origin origin;
float x, y;
get_alignment(origin,x,y);
copy.impl->translation_origin = origin;
copy.impl->translation_offset.x = x;
copy.impl->translation_offset.y = y;
get_rotation_hotspot(origin,x,y);
copy.impl->rotation_origin = origin;
copy.impl->rotation_hotspot.x = x;
copy.impl->rotation_hotspot.y = y;
return copy;
}
//! get parameter
var* sci_psk_dem::get(int param)
{
var* p_var_vec = new var_vec; // create var_vec;
vec &v = (dynamic_cast<var_vec *>(p_var_vec))->v; // alias to vector
var* p_var_ivec = new var_ivec; // create var_vec;
ivec &iv = (dynamic_cast<var_ivec *>(p_var_ivec))->v; // alias to vector
switch (param)
{
case SCI_SIZE:
iv.set_length(1);
iv[0] = get_size();
return(p_var_ivec);
case SCI_SCALE:
v.set_length(1);
v[0] = get_scale();
return(p_var_vec);
case SCI_OUTPUT:
iv.set_length(1);
iv[0] = get_output();
return(p_var_ivec);
default:
throw sci_exception ("sci_psk_dem::get - unknown param");
}
};
void AnimationNode::set_transform(const D3DXMATRIX& transform)
{
transform_ = transform;
pos_ = get_translation(transform);
D3DXQuaternionRotationMatrix(&rot_, &transform);
scale_ = get_scale(transform);
}
bool NodeDatabrick::compute_projection_bbox(CFrustumCull* fculler, float* bbox)
{
bool ret = fculler->get_boundingbox(get_pos(),
get_scale(),
bbox);
return ret;
}
main(){
make_linked_list();
get_numbers();
get_scale();
calculate_sum();
print_result();
getch();
}
Dictionary Node2D::_edit_get_state() const {
Dictionary state;
state["position"] = get_position();
state["rotation"] = get_rotation();
state["scale"] = get_scale();
return state;
}
int dcpred_for_enc(M4V_DCPRED* p, int n, int level)
{
int* dc_cur = p->dc_cur[n];
int scale = get_scale(p, n);
int pred = get_pred(dc_cur, p->stride[n], scale);
set_dc_to_dc_cur(dc_cur, level, scale);
return level - pred;
}
Variant Node2D::edit_get_state() const {
Array state;
state.push_back(get_pos());
state.push_back(get_rot());
state.push_back(get_scale());
return state;
}
void
sphere::gl_render( view& geometry)
{
if (degenerate())
return;
//init_model();
init_model(geometry);
// coverage is the radius of this sphere in pixels:
double coverage = geometry.pixel_coverage( pos, radius);
int lod = 0;
if (coverage < 0) // Behind the camera, but still visible.
lod = 4;
else if (coverage < 30)
lod = 0;
else if (coverage < 100)
lod = 1;
else if (coverage < 500)
lod = 2;
else if (coverage < 5000)
lod = 3;
else
lod = 4;
lod += geometry.lod_adjust; // allow user to reduce level of detail
if (lod > 5)
lod = 5;
else if (lod < 0)
lod = 0;
gl_matrix_stackguard guard;
model_world_transform( geometry.gcf, get_scale() ).gl_mult();
color.gl_set(opacity);
if (translucent()) {
// Spheres are convex, so we don't need to sort
gl_enable cull_face( GL_CULL_FACE);
// Render the back half (inside)
glCullFace( GL_FRONT );
geometry.sphere_model[lod].gl_render();
// Render the front half (outside)
glCullFace( GL_BACK );
geometry.sphere_model[lod].gl_render();
}
else {
// Render a simple sphere.
geometry.sphere_model[lod].gl_render();
}
}
void view::transform(int& x, int& y) {
int dx = get_dx();
int dy = get_dy();
double scale = get_scale();
x *= scale;
y *= scale;
x += dx;
y += dy;
}
void view::rtransform(int& x, int& y) {
int dx = - get_dx();
int dy = - get_dy();
double scale = 1.0 / get_scale();
x += dx;
y += dy;
x *= scale;
y *= scale;
}
inline void rebuild()
{
glm::mat4 matrix;
matrix = glm::translate(get_translation());
matrix *= glm::mat4(glm::mat3_cast(
get_rotation()));
matrix = glm::scale(matrix, get_scale());
m_matrix = glm::mat4x3(matrix);
}
void Edit::draw()
{
if(is_visible()) // is it visible?
{
if(is_active()) // is it disabled?
{}
double x = get_position().x;
double y = get_position().y;
double angle = get_angle();
double scale_x = get_scale().x;
double scale_y = get_scale().y;
int width = get_width();
int height = get_height();
int red = get_color().x;
int green = get_color().y;
int blue = get_color().z;
int alpha = get_color().w;
void * font = (get_label() ? get_label()->get_font()->get_data() : nullptr);
Vector4 text_color = get_text_color();
// Draw edit
Renderer::draw_edit(get_text(), x, y, width, height, angle, scale_x, scale_y,
red, green, blue, alpha, multilined, cursor, cursor_x, cursor_y);
// Draw text
if(!label->get_string().empty())
{
label->draw();
label->set_position(x, y + cursor_y);
label->set_scale(0.5, 0.5);
label->set_color(text_color);
}
// if mouse over edit, change mouse to I-beam
// edit is pressed, set cursor at position_pressed
on_hover();
on_mousepress();
on_keypress();
on_backspace();
on_enter();
}
}
static void
move_viewport(struct image *image, double dx, double dy)
{
double scale = get_scale(image);
if (!image->initialized)
return;
cairo_matrix_translate(&image->matrix, -dx/scale, -dy/scale);
clamp_view(image);
window_schedule_redraw(image->window);
}
static void
zoom(struct image *image, double scale)
{
double x = image->pointer.x;
double y = image->pointer.y;
cairo_matrix_t scale_matrix;
if (!image->initialized)
return;
if (get_scale(image) * scale > 20.0 ||
get_scale(image) * scale < 0.02)
return;
cairo_matrix_init_identity(&scale_matrix);
cairo_matrix_translate(&scale_matrix, x, y);
cairo_matrix_scale(&scale_matrix, scale, scale);
cairo_matrix_translate(&scale_matrix, -x, -y);
cairo_matrix_multiply(&image->matrix, &image->matrix, &scale_matrix);
clamp_view(image);
}
void view::transform(int& x, int& y, int& w, int& h, int& r) {
int dx = get_dx();
int dy = get_dy();
double scale = get_scale();
x *= scale;
y *= scale;
w *= scale;
h *= scale;
r *= scale;
x += dx;
y += dy;
}
void
sphere::gl_pick_render( view& geometry)
{
if (degenerate())
return;
//init_model();
init_model(geometry);
gl_matrix_stackguard guard;
model_world_transform( geometry.gcf, get_scale() ).gl_mult();
geometry.sphere_model[0].gl_render();
//check_gl_error();
}
void Standard_model_low_scale_constraint<Two_scale>::apply()
{
assert(model && "Error: Standard_model_low_scale_constraint::apply():"
" model pointer must not be zero");
qedqcd.runto(scale, 1.0e-5);
model->calculate_DRbar_masses();
const double alpha_em = qedqcd.displayAlpha(softsusy::ALPHA);
const double alpha_s = qedqcd.displayAlpha(softsusy::ALPHAS);
const double mz_pole = qedqcd.displayPoleMZ();
double delta_alpha_em = 0.;
double delta_alpha_s = 0.;
if (model->get_thresholds()) {
delta_alpha_em = model->calculate_delta_alpha_em(alpha_em);
delta_alpha_s = model->calculate_delta_alpha_s(alpha_s);
}
const double alpha_em_drbar = alpha_em / (1.0 - delta_alpha_em);
const double alpha_s_drbar = alpha_s / (1.0 - delta_alpha_s);
const double e_drbar = Sqrt(4.0 * Pi * alpha_em_drbar);
const double g1 = model->get_g1();
const double g2 = model->get_g2();
const double mZ = model->get_thresholds() ?
model->calculate_MVZ_DRbar(mz_pole) : mz_pole;
double theta_w = model->calculate_theta_w(qedqcd, alpha_em_drbar);
if (IsFinite(theta_w)) {
model->get_problems().unflag_non_perturbative_parameter(
"sin(theta_W)");
} else {
model->get_problems().flag_non_perturbative_parameter(
"sin(theta_W)", theta_w, get_scale(), 0);
theta_w = ArcSin(Electroweak_constants::sinThetaW);
}
model->set_v(Re((2*mZ)/Sqrt(0.6*Sqr(g1) + Sqr(g2))));
model->calculate_Yu_DRbar(qedqcd);
model->calculate_Yd_DRbar(qedqcd);
model->calculate_Ye_DRbar(qedqcd);
model->set_g1(1.2909944487358056*e_drbar*Sec(theta_w));
model->set_g2(e_drbar*Csc(theta_w));
model->set_g3(3.5449077018110318*Sqrt(alpha_s_drbar));
if (model->get_thresholds())
qedqcd.setPoleMW(model->recalculate_mw_pole(qedqcd.displayPoleMW()));
}
template<class T> node<T> batch_create(const std::vector<T> &points,
typename distfn<T>::Type distance,
const double* dist_params, void* dist_extra)
{
v_array<ds_node<T> > point_set;
v_array<v_array<ds_node<T> > > stack;
ds_node<T> initial_pt;
initial_pt.p = points[0];
for (std::vector<point>::size_type i = 1; i < points.size(); i++) {
ds_node<T> temp;
push(temp.dist, distance(points[0], points[i], std::numeric_limits< double >::max(), dist_params, dist_extra));
temp.p = points[i];
push(point_set,temp);
}
v_array< ds_node < T > > consumed_set;
double max_dist = max_set(point_set);
node<T> top = batch_insert(initial_pt,
get_scale(max_dist),
get_scale(max_dist),
point_set,
consumed_set,
stack,
distance, dist_params, dist_extra);
for (int i = 0; i<consumed_set.index;i++)
free(consumed_set[i].dist.elements);
free(consumed_set.elements);
for (int i = 0; i<stack.index;i++)
free(stack[i].elements);
free(stack.elements);
free(point_set.elements);
return top;
}
void NodeDatabrick::draw()
{
//std::cout <<"direction=" << m_direction << ",ratio=" << m_ratio << "\n";
//NodeDimension::draw();
float color[4]={0.5, 0.5, 0.5, 0.5};
//float color[4]={0., 0., 1., 0.5};
//for(int i=0; i<3; i++)
//color[0] = 0.35*(0.5 - m_pos[0]);
//color[1] = 0.5*(0.5 - m_pos[1]);
//color[2] = 0.35*(0.5 + m_pos[2]);
drawColorBox(get_scale(), get_pos(), color);
//drawColorBox(get_scale(), get_pos(), 0);
}