/* initGlobals - Allocates or reallocates global variables for the modules.
* Could be improved to reallocate space only when it is necessary.
*/
void initGlobals(int ll, int uu, RMat *data)
{ int l, u;
if (g_logL!=NULL)
{ for (l = 0; l<g_ll; l++)
{ for (u = 0; u<g_uu; u++)
{ freeRVec(g_logL[l][u]);
freeRVec(g_gamma[l][u]);}
free(g_logL[l]);
free(g_gamma[l]);}
for (u = 0; u<g_uu; u++) free(g_gamma_r[u]);
free(g_logL);
free(g_gamma);
free(g_gamma_r);}
g_logL = (RVec **)safe_malloc(sizeof(RVec *)*ll);
g_gamma = (RVec **)safe_malloc(sizeof(RVec *)*ll);
g_gamma_r = (RVec **)safe_malloc(sizeof(RVec *)*uu);
for (l = 0; l<ll; l++)
{ g_logL[l] = (RVec *)safe_malloc(sizeof(RVec)*uu);
g_gamma[l] = (RVec *)safe_malloc(sizeof(RVec)*uu);
for (u = 0; u<uu; u++)
{ g_logL[l][u] = allocRVec(COLUMNS(data[l]));
g_gamma[l][u] = allocRVec(COLUMNS(data[l]));}}
for (u = 0; u<uu; u++)
{ g_gamma_r[u] = (RVec *)safe_malloc(sizeof(RVec)*ll);
for (l = 0; l<ll; l++) g_gamma_r[u][l] = g_gamma[l][u];}
g_uu = uu;
g_ll = ll;}
static gint columns_expose(GtkWidget *widget, GdkEventExpose *event)
{
Columns *cols;
ColumnsChild *child;
GList *children;
GdkEventExpose child_event;
g_return_val_if_fail(widget != NULL, FALSE);
g_return_val_if_fail(IS_COLUMNS(widget), FALSE);
g_return_val_if_fail(event != NULL, FALSE);
if (GTK_WIDGET_DRAWABLE(widget)) {
cols = COLUMNS(widget);
child_event = *event;
for (children = cols->children; children && (child = children->data);
children = children->next) {
if (child->widget && GTK_WIDGET_DRAWABLE(child->widget) &&
GTK_WIDGET_NO_WINDOW(child->widget) &&
gtk_widget_intersect(child->widget, &event->area, &child_event.area))
gtk_widget_event(child->widget, (GdkEvent *)&child_event);
}
}
return FALSE;
}
static void columns_forall(GtkContainer *container,
gboolean include_internals,
GtkCallback callback,
gpointer callback_data)
{
Columns *cols;
ColumnsChild *child;
GList *children, *next;
g_return_if_fail(container != NULL);
g_return_if_fail(IS_COLUMNS(container));
g_return_if_fail(callback != NULL);
cols = COLUMNS(container);
for (children = cols->children; children && (child = children->data);
children = next) {
/*
* We can't wait until after the callback to assign
* `children = children->next', because the callback might
* be gtk_widget_destroy, which would remove the link
* `children' from the list! So instead we must get our
* hands on the value of the `next' pointer _before_ the
* callback.
*/
next = children->next;
if (child->widget)
callback(child->widget, callback_data);
}
}
static void columns_size_allocate(GtkWidget *widget, GtkAllocation *alloc)
{
Columns *cols;
ColumnsChild *child;
GList *children;
gint border;
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
g_return_if_fail(alloc != NULL);
cols = COLUMNS(widget);
gtk_widget_set_allocation(widget, alloc);
border = gtk_container_get_border_width(GTK_CONTAINER(cols));
columns_alloc_horiz(cols, alloc->width, columns_gtk2_get_width);
columns_alloc_vert(cols, alloc->height, columns_gtk2_get_height);
for (children = cols->children; children && (child = children->data);
children = children->next) {
if (child->widget && gtk_widget_get_visible(child->widget)) {
GtkAllocation call;
call.x = alloc->x + border + child->x;
call.y = alloc->y + border + child->y;
call.width = child->w;
call.height = child->h;
gtk_widget_size_allocate(child->widget, &call);
}
}
}
/*
* Override GtkContainer's focus movement so the user can
* explicitly specify the tab order.
*/
static gint columns_focus(GtkContainer *container, GtkDirectionType dir)
{
Columns *cols;
GList *pos;
GtkWidget *focuschild;
g_return_val_if_fail(container != NULL, FALSE);
g_return_val_if_fail(IS_COLUMNS(container), FALSE);
cols = COLUMNS(container);
if (!GTK_WIDGET_DRAWABLE(cols) ||
!GTK_WIDGET_IS_SENSITIVE(cols))
return FALSE;
if (!GTK_WIDGET_CAN_FOCUS(container) &&
(dir == GTK_DIR_TAB_FORWARD || dir == GTK_DIR_TAB_BACKWARD)) {
focuschild = container->focus_child;
gtk_container_set_focus_child(container, NULL);
if (dir == GTK_DIR_TAB_FORWARD)
pos = cols->taborder;
else
pos = g_list_last(cols->taborder);
while (pos) {
GtkWidget *child = pos->data;
if (focuschild) {
if (focuschild == child) {
focuschild = NULL; /* now we can start looking in here */
if (GTK_WIDGET_DRAWABLE(child) &&
GTK_IS_CONTAINER(child) &&
!GTK_WIDGET_HAS_FOCUS(child)) {
if (gtk_container_focus(GTK_CONTAINER(child), dir))
return TRUE;
}
}
} else if (GTK_WIDGET_DRAWABLE(child)) {
if (GTK_IS_CONTAINER(child)) {
if (gtk_container_focus(GTK_CONTAINER(child), dir))
return TRUE;
} else if (GTK_WIDGET_CAN_FOCUS(child)) {
gtk_widget_grab_focus(child);
return TRUE;
}
}
if (dir == GTK_DIR_TAB_FORWARD)
pos = pos->next;
else
pos = pos->prev;
}
return FALSE;
} else
return columns_inherited_focus(container, dir);
}
/**
* Functor operator.
*/
void operator() (const particles::IParticleDef& def)
{
// Add the ".prt" extension to the name fo display in the list
std::string prtName = def.getName() + ".prt";
// Add the Def name to the list store
wxutil::TreeModel::Row row = _store->AddItem();
row[COLUMNS().name] = prtName;
}
// Create the tree view
wxWindow* ParticlesChooser::createTreeView(wxWindow* parent)
{
_treeView = wxutil::TreeView::CreateWithModel(parent, _particlesList);
_treeView->SetSize(300, -1);
// Single text column
_treeView->AppendTextColumn(_("Particle"), COLUMNS().name.getColumnIndex(),
wxDATAVIEW_CELL_INERT, wxCOL_WIDTH_AUTOSIZE, wxALIGN_NOT, wxDATAVIEW_COL_SORTABLE);
// Apply full-text search to the column
_treeView->AddSearchColumn(COLUMNS().name);
// Start loading particles into the view
populateParticleList();
// Connect up the selection changed callback
_treeView->Connect(wxEVT_DATAVIEW_SELECTION_CHANGED,
wxDataViewEventHandler(ParticlesChooser::_onSelChanged), NULL, this);
return _treeView;
}
/* best_state_sequence -
* Calculates the best state sequence of entire model given the feature data.
*/
int *best_state_sequence(Model *m, RMat data)
{ int u, uu = m->uu, *rv;
RVec *logL;
logL = (RVec *)safe_malloc(uu*sizeof(RVec));
for (u = 0; u<uu; u++)
{ assert(ROWS(data)==m->ffm[u]->ii);
logL[u] = allocRVec(COLUMNS(data));
FFM_logL(m->ffm[u], logL[u], data);}
rv = HMM_best_state_sequence(m->hmm, logL);
for (u = 0; u<uu; u++) freeRVec(logL[u]);
free(logL);
return rv;}
void ParticlesChooser::_onSelChanged(wxDataViewEvent& ev)
{
// Get the selection and store it
wxDataViewItem item = _treeView->GetSelection();
if (item.IsOk())
{
wxutil::TreeModel::Row row(item, *_particlesList);
_selectedParticle = row[COLUMNS().name];
_preview->setParticle(_selectedParticle);
}
}
void ParticlesChooser::_onSelChanged()
{
// Get the selection and store it
Gtk::TreeModel::iterator iter = _selection->get_selected();
if (iter)
{
Gtk::TreeModel::Row row = *iter;
_selectedParticle = row[COLUMNS().name];
_preview->setParticle(_selectedParticle);
}
}
static void columns_size_request(GtkWidget *widget, GtkRequisition *req)
{
Columns *cols;
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
g_return_if_fail(req != NULL);
cols = COLUMNS(widget);
req->width = columns_compute_width(cols, columns_gtk2_get_width);
req->height = columns_compute_height(cols, columns_gtk2_get_height);
}
/* HMM_initGlobals -
* Given a number of states and a sequence length, allocates or reallocates
* memory for internal variables.
*/
void HMM_initGlobals(int uu, int tt)
{ if (g_alpha==NULL||COLUMNS(g_alpha)<tt||ROWS(g_alpha)<uu)
{ if (g_alpha!=NULL)
{ freeRMat(g_alpha);
freeRMat(g_delta);
freeRMat(g_deltav); /* This could be int. */
freeRMat(g_beta);
freeRMat3d(g_psi);}
g_alpha = allocRMat(uu, tt);
g_delta = allocRMat(uu, tt);
g_deltav = allocRMat(uu, tt); /* This could be int. */
g_beta = allocRMat(uu, tt);
g_psi = allocRMat3d(uu, uu, tt);}}
void ParticlesChooser::setSelectedParticle(const std::string& particleName)
{
wxDataViewItem item = _particlesList->FindString(particleName, COLUMNS().name);
if (item.IsOk())
{
_treeView->Select(item);
_treeView->EnsureVisible(item);
_preSelectParticle.clear();
return;
}
}
/* logLike -
* Calculates log likelihood of entire model given the feature data.
*/
Real logLike(Model *m, RMat data)
{ int u, uu = m->uu;
RVec *logL;
Real rv;
logL = (RVec *)safe_malloc(uu*sizeof(RVec));
for (u = 0; u<uu; u++)
{ assert(ROWS(data)==m->ffm[u]->ii);
logL[u] = allocRVec(COLUMNS(data));
FFM_logL(m->ffm[u], logL[u], data);}
rv = HMM_logL(m->hmm, logL);
for (u = 0; u<uu; u++) freeRVec(logL[u]);
free(logL);
/* needs work: Why is rv divided by the number of features? */
return rv/model_ii(m);}
static void columns_remove(GtkContainer *container, GtkWidget *widget)
{
Columns *cols;
ColumnsChild *child;
GtkWidget *childw;
GList *children;
gboolean was_visible;
g_return_if_fail(container != NULL);
g_return_if_fail(IS_COLUMNS(container));
g_return_if_fail(widget != NULL);
cols = COLUMNS(container);
for (children = cols->children; children && (child = children->data);
children = children->next) {
if (child->widget != widget)
continue;
was_visible = gtk_widget_get_visible(widget);
gtk_widget_unparent(widget);
cols->children = g_list_remove_link(cols->children, children);
g_list_free(children);
if (child->same_height_as) {
g_return_if_fail(child->same_height_as->same_height_as == child);
child->same_height_as->same_height_as = NULL;
if (gtk_widget_get_visible(child->same_height_as->widget))
gtk_widget_queue_resize(GTK_WIDGET(container));
}
g_free(child);
if (was_visible)
gtk_widget_queue_resize(GTK_WIDGET(container));
break;
}
for (children = cols->taborder; children && (childw = children->data);
children = children->next) {
if (childw != widget)
continue;
cols->taborder = g_list_remove_link(cols->taborder, children);
g_list_free(children);
#if GTK_CHECK_VERSION(2, 0, 0)
gtk_container_set_focus_chain(container, cols->taborder);
#endif
break;
}
}
static void columns_get_preferred_width(GtkWidget *widget, gint *min, gint *nat)
{
Columns *cols;
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
cols = COLUMNS(widget);
if (min)
*min = columns_compute_width(cols, columns_gtk3_get_min_width);
if (nat)
*nat = columns_compute_width(cols, columns_gtk3_get_nat_width);
}
static void columns_base_add(GtkContainer *container, GtkWidget *widget)
{
Columns *cols;
g_return_if_fail(container != NULL);
g_return_if_fail(IS_COLUMNS(container));
g_return_if_fail(widget != NULL);
cols = COLUMNS(container);
/*
* Default is to add a new widget spanning all columns.
*/
columns_add(cols, widget, 0, 0); /* 0 means ncols */
}
// Populate the particles list
void ParticlesChooser::populateParticleList()
{
_particlesLoader.reset(new ThreadedParticlesLoader(this));
_particlesList->Clear();
wxutil::TreeModel::Row row = _particlesList->AddItem();
row[COLUMNS().name] = "Loading...";
row.SendItemAdded();
GlobalRadiant().getThreadManager().execute(
boost::bind(&ThreadedParticlesLoader::run, _particlesLoader.get())
);
}
static void columns_unmap(GtkWidget *widget)
{
Columns *cols;
ColumnsChild *child;
GList *children;
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
cols = COLUMNS(widget);
gtk_widget_set_mapped(GTK_WIDGET(cols), FALSE);
for (children = cols->children; children && (child = children->data);
children = children->next) {
if (child->widget && gtk_widget_get_visible(child->widget) &&
gtk_widget_get_mapped(child->widget))
gtk_widget_unmap(child->widget);
}
}
/* logLike_with_box_scores -
* Calculates log likelihood of entire model given the feature data.
*/
Real logLike_with_box_scores(Model *m, RMat data, RMat score_mat)
{ int u, uu = m->uu;
RVec *logL;
Real rv;
Real **scores = MATRIX(score_mat);
logL = (RVec *)safe_malloc(uu*sizeof(RVec));
printf("1\n");
for (u = 0; u<uu; u++)
{ //assert(ROWS(data)==m->ffm[u]->ii);
//if(ROWS(data)!=m->ffm[u]->ii)
//printf("@@@@@@@@ data->y = %d m->ffm[u]->ii = %d\n", ROWS(data), m->ffm[u]->ii);
logL[u] = allocRVec(COLUMNS(data));
printf("2.1\n");
FFM_logL_with_box_scores(m->ffm[u], logL[u], data,scores[u]);}
printf("3\n");
rv = HMM_logL(m->hmm, logL);
for (u = 0; u<uu; u++) freeRVec(logL[u]);
free(logL);
/* needs work: Why is rv divided by the number of features? */
return rv/model_ii(m);}
static void columns_get_preferred_height_for_width(GtkWidget *widget,
gint width,
gint *min,
gint *nat)
{
Columns *cols;
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
cols = COLUMNS(widget);
/* FIXME: which one should the get-height function here be? */
columns_alloc_horiz(cols, width, columns_gtk3_get_nat_width);
if (min)
*min = columns_compute_height(cols, columns_gtk3_get_minfw_height);
if (nat)
*nat = columns_compute_height(cols, columns_gtk3_get_natfw_height);
}
static void columns_remove(GtkContainer *container, GtkWidget *widget)
{
Columns *cols;
ColumnsChild *child;
GtkWidget *childw;
GList *children;
gboolean was_visible;
g_return_if_fail(container != NULL);
g_return_if_fail(IS_COLUMNS(container));
g_return_if_fail(widget != NULL);
cols = COLUMNS(container);
for (children = cols->children;
children && (child = children->data);
children = children->next) {
if (child->widget != widget)
continue;
was_visible = GTK_WIDGET_VISIBLE(widget);
gtk_widget_unparent(widget);
cols->children = g_list_remove_link(cols->children, children);
g_list_free(children);
g_free(child);
if (was_visible)
gtk_widget_queue_resize(GTK_WIDGET(container));
break;
}
for (children = cols->taborder;
children && (childw = children->data);
children = children->next) {
if (childw != widget)
continue;
cols->taborder = g_list_remove_link(cols->taborder, children);
g_list_free(children);
break;
}
}
/*
* These appear to be thoroughly tedious functions; the only reason
* we have to reimplement them at all is because we defined our own
* format for our GList of children...
*/
static void columns_map(GtkWidget *widget)
{
Columns *cols;
ColumnsChild *child;
GList *children;
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
cols = COLUMNS(widget);
GTK_WIDGET_SET_FLAGS(cols, GTK_MAPPED);
for (children = cols->children;
children && (child = children->data);
children = children->next) {
if (child->widget &&
GTK_WIDGET_VISIBLE(child->widget) &&
!GTK_WIDGET_MAPPED(child->widget))
gtk_widget_map(child->widget);
}
}
static void columns_draw(GtkWidget *widget, GdkRectangle *area)
{
Columns *cols;
ColumnsChild *child;
GList *children;
GdkRectangle child_area;
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
if (GTK_WIDGET_DRAWABLE(widget)) {
cols = COLUMNS(widget);
for (children = cols->children; children && (child = children->data);
children = children->next) {
if (child->widget && GTK_WIDGET_DRAWABLE(child->widget) &&
gtk_widget_intersect(child->widget, area, &child_area))
gtk_widget_draw(child->widget, &child_area);
}
}
}
ParticlesChooser::ParticlesChooser() :
gtkutil::BlockingTransientWindow(_("Choose particles"), GlobalMainFrame().getTopLevelWindow()),
_particlesList(Gtk::ListStore::create(COLUMNS())),
_selectedParticle(""),
_preview(new gtkutil::ParticlePreview)
{
set_border_width(12);
// Set the default size of the window
const Glib::RefPtr<Gtk::Window>& mainWindow = GlobalMainFrame().getTopLevelWindow();
Gdk::Rectangle rect = gtkutil::MultiMonitor::getMonitorForWindow(mainWindow);
int height = static_cast<int>(rect.get_height() * 0.6f);
set_default_size(
static_cast<int>(rect.get_width() * 0.4f), height
);
// Set the default size of the window
_preview->setSize(rect.get_width() * 0.2f, height);
// Main dialog vbox
Gtk::VBox* vbox = Gtk::manage(new Gtk::VBox(false, 12));
// Create a horizontal box to pack the treeview on the left and the preview on the right
Gtk::HBox* hbox = Gtk::manage(new Gtk::HBox(false, 6));
hbox->pack_start(createTreeView(), true, true, 0);
Gtk::VBox* previewBox = Gtk::manage(new Gtk::VBox(false, 0));
previewBox->pack_start(*_preview, true, true, 0);
hbox->pack_start(*previewBox, true, true, 0);
vbox->pack_start(*hbox, true, true, 0);
vbox->pack_end(createButtons(), false, false, 0);
// Add main vbox to dialog
add(*vbox);
}
// Create the tree view
Gtk::Widget& ParticlesChooser::createTreeView()
{
_treeView = Gtk::manage(new Gtk::TreeView(_particlesList));
_treeView->set_size_request(300, -1);
// Single text column
_treeView->append_column(*Gtk::manage(new gtkutil::TextColumn(_("Particle"), COLUMNS().name, false)));
// Apply full-text search to the column
_treeView->set_search_equal_func(sigc::ptr_fun(gtkutil::TreeModel::equalFuncStringContains));
// Populate with particle names
populateParticleList();
// Connect up the selection changed callback
_selection = _treeView->get_selection();
_selection->signal_changed().connect(sigc::mem_fun(*this, &ParticlesChooser::_onSelChanged));
// Pack into scrolled window and return
return *Gtk::manage(new gtkutil::ScrolledFrame(*_treeView));
}
ParticlesChooser::ParticlesChooser() :
DialogBase(_("Choose particles")),
_particlesList(new wxutil::TreeModel(COLUMNS(), true)),
_selectedParticle(""),
_preview(new wxutil::ParticlePreview(this))
{
// Connect the finish callback to load the treestore
Connect(wxutil::EV_TREEMODEL_POPULATION_FINISHED,
TreeModelPopulationFinishedHandler(ParticlesChooser::onTreeStorePopulationFinished), NULL, this);
SetSizer(new wxBoxSizer(wxVERTICAL));
wxBoxSizer* hbox = new wxBoxSizer(wxHORIZONTAL);
hbox->Add(createTreeView(this), 1, wxEXPAND);
hbox->Add(_preview->getWidget(), 0, wxEXPAND | wxLEFT, 6);
GetSizer()->Add(hbox, 1, wxEXPAND | wxALL, 12);
GetSizer()->Add(CreateStdDialogButtonSizer(wxOK | wxCANCEL), 0, wxALIGN_RIGHT | wxBOTTOM | wxLEFT | wxRIGHT, 12);
FitToScreen(0.5f, 0.6f);
}
static void columns_size_request(GtkWidget *widget, GtkRequisition *req)
{
Columns *cols;
ColumnsChild *child;
GList *children;
gint i, ncols, colspan, *colypos;
const gint *percentages;
static const gint onecol[] = { 100 };
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
g_return_if_fail(req != NULL);
cols = COLUMNS(widget);
req->width = 0;
req->height = cols->spacing;
ncols = 1;
colypos = g_new(gint, 1);
colypos[0] = 0;
percentages = onecol;
for (children = cols->children;
children && (child = children->data);
children = children->next) {
GtkRequisition creq;
if (!child->widget) {
/* Column reconfiguration. */
for (i = 1; i < ncols; i++) {
if (colypos[0] < colypos[i])
colypos[0] = colypos[i];
}
ncols = child->ncols;
percentages = child->percentages;
colypos = g_renew(gint, colypos, ncols);
for (i = 1; i < ncols; i++)
colypos[i] = colypos[0];
continue;
}
/* Only take visible widgets into account. */
if (!GTK_WIDGET_VISIBLE(child->widget))
continue;
gtk_widget_size_request(child->widget, &creq);
colspan = child->colspan ? child->colspan : ncols-child->colstart;
/*
* To compute width: we know that creq.width plus
* cols->spacing needs to equal a certain percentage of the
* full width of the container. So we work this value out,
* figure out how wide the container will need to be to
* make that percentage of it equal to that width, and
* ensure our returned width is at least that much. Very
* simple really.
*/
{
int percent, thiswid, fullwid;
percent = 0;
for (i = 0; i < colspan; i++)
percent += percentages[child->colstart+i];
thiswid = creq.width + cols->spacing;
/*
* Since creq is the _minimum_ size the child needs, we
* must ensure that it gets _at least_ that size.
* Hence, when scaling thiswid up to fullwid, we must
* round up, which means adding percent-1 before
* dividing by percent.
*/
fullwid = (thiswid * 100 + percent - 1) / percent;
/*
* The above calculation assumes every widget gets
* cols->spacing on the right. So we subtract
* cols->spacing here to account for the extra load of
* spacing on the right.
*/
if (req->width < fullwid - cols->spacing)
req->width = fullwid - cols->spacing;
}
/*
* To compute height: the widget's top will be positioned
* at the largest y value so far reached in any of the
* columns it crosses. Then it will go down by creq.height
* plus padding; and the point it reaches at the bottom is
* the new y value in all those columns, and minus the
* padding it is also a lower bound on our own size
* request.
*/
{
int topy, boty;
topy = 0;
for (i = 0; i < colspan; i++) {
if (topy < colypos[child->colstart+i])
topy = colypos[child->colstart+i];
}
boty = topy + creq.height + cols->spacing;
for (i = 0; i < colspan; i++) {
colypos[child->colstart+i] = boty;
}
if (req->height < boty - cols->spacing)
req->height = boty - cols->spacing;
}
}
req->width += 2*GTK_CONTAINER(cols)->border_width;
req->height += 2*GTK_CONTAINER(cols)->border_width;
g_free(colypos);
}
static void columns_size_allocate(GtkWidget *widget, GtkAllocation *alloc)
{
Columns *cols;
ColumnsChild *child;
GList *children;
gint i, ncols, colspan, border, *colxpos, *colypos;
const gint *percentages;
static const gint onecol[] = { 100 };
g_return_if_fail(widget != NULL);
g_return_if_fail(IS_COLUMNS(widget));
g_return_if_fail(alloc != NULL);
cols = COLUMNS(widget);
widget->allocation = *alloc;
border = GTK_CONTAINER(cols)->border_width;
ncols = 1;
percentages = onecol;
/* colxpos gives the starting x position of each column.
* We supply n+1 of them, so that we can find the RH edge easily.
* All ending x positions are expected to be adjusted afterwards by
* subtracting the spacing. */
colxpos = g_new(gint, 2);
colxpos[0] = 0;
colxpos[1] = alloc->width - 2*border + cols->spacing;
/* As in size_request, colypos is the lowest y reached in each column. */
colypos = g_new(gint, 1);
colypos[0] = 0;
for (children = cols->children;
children && (child = children->data);
children = children->next) {
GtkRequisition creq;
GtkAllocation call;
if (!child->widget) {
gint percent;
/* Column reconfiguration. */
for (i = 1; i < ncols; i++) {
if (colypos[0] < colypos[i])
colypos[0] = colypos[i];
}
ncols = child->ncols;
percentages = child->percentages;
colypos = g_renew(gint, colypos, ncols);
for (i = 1; i < ncols; i++)
colypos[i] = colypos[0];
colxpos = g_renew(gint, colxpos, ncols + 1);
colxpos[0] = 0;
percent = 0;
for (i = 0; i < ncols; i++) {
percent += percentages[i];
colxpos[i+1] = (((alloc->width - 2*border) + cols->spacing)
* percent / 100);
}
continue;
}
/* Only take visible widgets into account. */
if (!GTK_WIDGET_VISIBLE(child->widget))
continue;
gtk_widget_get_child_requisition(child->widget, &creq);
colspan = child->colspan ? child->colspan : ncols-child->colstart;
/*
* Starting x position is cols[colstart].
* Ending x position is cols[colstart+colspan] - spacing.
*
* Unless we're forcing left, in which case the width is
* exactly the requisition width.
*/
call.x = alloc->x + border + colxpos[child->colstart];
if (child->force_left)
call.width = creq.width;
else
call.width = (colxpos[child->colstart+colspan] -
colxpos[child->colstart] - cols->spacing);
/*
* To compute height: the widget's top will be positioned
* at the largest y value so far reached in any of the
* columns it crosses. Then it will go down by creq.height
* plus padding; and the point it reaches at the bottom is
* the new y value in all those columns.
*/
{
int topy, boty;
topy = 0;
for (i = 0; i < colspan; i++) {
if (topy < colypos[child->colstart+i])
topy = colypos[child->colstart+i];
}
call.y = alloc->y + border + topy;
call.height = creq.height;
boty = topy + creq.height + cols->spacing;
for (i = 0; i < colspan; i++) {
colypos[child->colstart+i] = boty;
}
}
gtk_widget_size_allocate(child->widget, &call);
}
g_free(colxpos);
g_free(colypos);
}
/**
* Constructor.
*/
ThreadedParticlesLoader(wxEvtHandler* finishedHandler) :
_store(new wxutil::TreeModel(COLUMNS(), true)),
_finishedHandler(finishedHandler)
{}
