void apply_wind (wind_dialog_struct *wds) {
gint t1;
hf_wrapper_struct *hfw;
hfw = (hf_wrapper_struct *) * (hf_wrapper_struct **) wds->parent_data;
if (!hfw->hf_struct->tmp_buf)
hf_backup(hfw->hf_struct);
t1 = clock();
set_watch_cursor(hfw);
switch (wds->process) {
case RIPPLES:
hf_ripples (hfw->hf_struct, hfw->hf_options->img->ripples, hfw->hf_options->dist_matrix, hfw->hf_options->gauss_list);
begin_pending_record(hfw,"Ripples",accept_fn,reset_fn);
gtk_widget_set_sensitive(GTK_WIDGET(wds->accept) ,TRUE);
break;
case DUNES:
default:
hf_dunes (hfw->hf_struct, hfw->hf_options->img->dunes, hfw->hf_options->dist_matrix, hfw->hf_options->gauss_list);
begin_pending_record(hfw,"Dunes",accept_fn,reset_fn);
gtk_widget_set_sensitive(GTK_WIDGET(wds->accept) ,TRUE);
}
// printf("TEMPS D'ÉROSION PAR LE VENT: %d\n",clock() - t1);
(*hfw->if_modified) = TRUE;
hfw->if_calculated = TRUE;
unset_watch_cursor(hfw);
}
void draw_tools_callb(GtkWidget *wdg, gpointer data) {
hf_wrapper_struct *hfw;
hfw = (hf_wrapper_struct *) * (hf_wrapper_struct **) data;
if (!hfw) return;
// printf("ENTERING DRAW TOOLS\n");
if (wdg)
if (!gtk_toggle_button_get_active(GTK_TOGGLE_BUTTON(wdg))) {
// We are leaving the "draw" context, commit the changes
// printf("LEAVING DRAW TOOLS\n");
hfw->hf_options->need_tmp_buf = FALSE;
hf_commit_or_reset (hfw->hf_options);
return;
}
commit_pending_record(hfw);
hfw->hf_options->current_cursor = hfw->hf_options->pencil_cursor;
gdk_window_set_cursor(hfw->area->window, hfw->hf_options->current_cursor);
if (hfw->hf_options->current_tools)
gtk_widget_hide(hfw->hf_options->current_tools);
if (hfw->hf_options->draw) {
if (hfw->hf_options->draw->draw_tools_dialog) {
hfw->hf_options->current_tools = hfw->hf_options->draw->draw_tools_dialog;
gtk_widget_show(hfw->hf_options->current_tools);
}
else
return;
}
hf_backup(hfw->hf_struct);
hfw->hf_options->need_tmp_buf = TRUE;
hfw->hf_options->context = DRAW_TOOLS_CONTEXT;
}
void apply_rotate (hf_wrapper_struct *hfw) {
// Apply anti-aliased rotation, without redrawing the HF
gint t1;
gboolean tiling;
if (hfw->tiling_ptr) {
tiling = *hfw->tiling_ptr;
// printf("HFW->tiling_ptr in apply_rotate: %p->%p\n",hfw,hfw->tiling_ptr);
}
else
tiling = TRUE;
if (!hfw->hf_struct->tmp_buf)
hf_backup(hfw->hf_struct);
if (hfw->if_calculated)
return;
t1 = clock();
hf_rotate(hfw->hf_struct->tmp_buf, hfw->hf_struct->hf_buf,
hfw->hf_struct->max_x,
hfw->hf_options->img->angle,
tiling,
tiling ?
hfw->hf_options->img->rotate_overflow_tiling :
hfw->hf_options->img->rotate_overflow_notiling);
// printf("TEMPS DE ROTATION: %d; angle: %d\n",clock() - t1, hfw->hf_options->img->angle);
begin_pending_record(hfw,"Rotate",accept_rotate_fn,reset_fn);
gtk_widget_set_sensitive(GTK_WIDGET(hfw->hf_options->img->rotate_accept),TRUE);
(*hfw->if_modified) = TRUE;
hfw->if_calculated = TRUE;
}
void mirror_vertical_callb(GtkWidget *wdg, gpointer data) {
hf_wrapper_struct *hfw;
hfw = (hf_wrapper_struct *) * (hf_wrapper_struct **) data;
if (!gtk_toggle_button_get_active(GTK_TOGGLE_BUTTON(wdg))) {
hf_commit_or_reset (hfw->hf_options);
return;
}
if (!hfw->hf_options->img->mirror_vertical_dialog) {
hfw->hf_options->img->mirror_vertical_dialog = mirror_vertical_dialog_new(data);
gtk_container_add(GTK_CONTAINER(hfw->hf_options->img->img_dialog),
hfw->hf_options->img->mirror_vertical_dialog );
}
if (hfw->hf_options->img->current_subdialog)
gtk_widget_hide(hfw->hf_options->img->current_subdialog);
hfw->hf_options->img->current_subdialog = hfw->hf_options->img->mirror_vertical_dialog;
gtk_widget_show(hfw->hf_options->img->current_subdialog);
hf_backup(hfw->hf_struct); // We need to copy the result in the tmp_buf if we want to allow
// the user to revert the operation by clicking repeatedly on the mirror button
hf_vertical_mirror(hfw->hf_struct);
begin_pending_record(hfw,"Vertical mirror",accept_fn,reset_fn);
(*hfw->if_modified) = TRUE;
hfw->if_calculated = TRUE;
draw_hf(hfw);
}
void apply_voronoi (hf_wrapper_struct *hfw) {
// gint t1;
if (!hfw->hf_struct->tmp_buf)
hf_backup(hfw->hf_struct);
if (!hfw->hf_struct->result_buf)
hfw->hf_struct->result_buf =
(hf_type *) x_malloc(sizeof(hf_type) * hfw->hf_struct->max_x * hfw->hf_struct->max_y, "hf_type (result_buf in apply_voronoi)");
if (!hfw->hf_struct->tmp2_buf)
hfw->hf_struct->tmp2_buf =
(hf_type *) x_malloc(sizeof(hf_type) * hfw->hf_struct->max_x * hfw->hf_struct->max_y, "hf_type (tmp2_buf in apply_voronoi)");
// t1 = clock();
// Convention:
// 1. tmp_buf: original HF
// 2. tmp2_buf: distance HF
// 3. result_buf: crackled HF (base level + black lines == cracks)
// 4. hf_buf: output = crackled HF + distance HF (for lifting edges)
set_watch_cursor(hfw);
hf_voronoi(hfw->hf_struct, hfw->hf_options->img->voronoi);
voronoi_adjust_edges (hfw->hf_struct->result_buf, hfw->hf_struct->hf_buf, hfw->hf_struct->tmp2_buf, hfw->hf_options->img->voronoi->edges_level, hfw->hf_struct->max_x, hfw->hf_struct->max_y);
unset_watch_cursor(hfw);
// printf("TEMPS DE CRAQU�LEMENT: %d\n",clock() - t1);
}
void fourier_post_processing (hf_wrapper_struct *hfw) {
begin_pending_record (hfw, _("Fourier transform"), accept_fn, reset_fn);
commit_pending_record (hfw);
hf_backup(hfw->hf_struct);
hf_wrapper_display(hfw);
*(hfw->if_modified) = TRUE;
hfw->if_calculated = TRUE;
// printf("Fourier Post Processing\n");
}
void repeat_wind_callb (GtkWidget *wdg, gpointer data) {
wind_dialog_struct *wds;
hf_wrapper_struct *hfw;
wds = (wind_dialog_struct *) data;
hfw = (hf_wrapper_struct *) * (hf_wrapper_struct **) wds->parent_data;
hf_backup(hfw->hf_struct);
hfw->if_calculated = FALSE;
apply_wind(wds);
draw_hf(hfw);
}
void hf_specific_commit_or_reset (stack_struct *stack) {
hf_wrapper_struct *hfw;
// printf("HF_SPECIFIC_COMMIT_OR_RESET 1 on %p\n", stack->commit_data);
if (stack->commit_data) {
hfw = (hf_wrapper_struct *) stack->commit_data;
// printf("HF_SPECIFIC_COMMIT_OR_RESET 2 on %p: hf_buf= %p\n",hfw,hfw->hf_struct->hf_buf);
if (hfw->hf_options->img && hfw->hf_options->img->set_fn)
(*hfw->hf_options->img->set_fn) (hfw->hf_options->img);
set_render_buffer (hfw->hf_options->render_str, hfw->hf_struct->hf_buf, hfw->hf_struct->max_x,hfw->hf_struct->max_y);
hf_backup (hfw->hf_struct);
}
}
void rotate_angle_upd (GtkWidget *wdg, gpointer data) {
hf_wrapper_struct *hfw;
hfw = (hf_wrapper_struct *) * (hf_wrapper_struct **) data;
if (hfw->hf_options->img->angle == (gint) GTK_ADJUSTMENT(wdg)->value)
return;
hfw->hf_options->img->angle = (gint) GTK_ADJUSTMENT(wdg)->value;
hfw->if_calculated = FALSE;
if (!hfw->hf_struct->tmp_buf)
hf_backup(hfw->hf_struct);
// Replace with hf_fast_rotate, if too slow
// NB: hf_fast_rotate creates inconsistencies in the commitment sequence
// ... sometimes part of the process is not applied when the change is committed ??
if (gtk_toggle_button_get_active(GTK_TOGGLE_BUTTON(hfw->hf_options->img->auto_rotate))) {
apply_rotate(hfw);
draw_hf(hfw);
}
}
void fourier_callb(GtkWidget *wdg, gpointer data) {
hf_wrapper_struct *hfw;
hfw = (hf_wrapper_struct *) * (hf_wrapper_struct **) data;
if (!hfw) return;
// This is a modal dialog, so we don't change the original context
// printf("ENTERING FOURIER\n");
commit_pending_record(hfw);
hf_backup(hfw->hf_struct);
// printf("HFW->HF_STRUCT->HF_BUF: %d\n",hfw->hf_struct->hf_buf);
init_render_struct(hfw->hf_options->fourier->render_str,
hfw->dirname,
hfw->filename,
&flag_true,
&flag_true,
NULL,
NULL,0,0); // 4 last values are initialized in a fourier_dialog callback
activate_fourier_dialog(hfw->hf_options->fourier, hfw->hf_struct->tmp_buf, hfw->hf_struct->hf_buf, hfw->hf_struct->max_x, hfw->hf_struct->max_y,HF_TYPE_ID, (gpointer) fourier_post_processing, (gpointer) hfw);
}
void accept_rotate_fn (hf_wrapper_struct *hfw) {
// Special accept callback, could be used for committing the rotation
// with a high quality anti-aliased but slow rotate function,
// when the preview is done with a fast rotate function
// See the difference between hf_fast_rotate and hf_rotate in hf_c
// 2002-06-16: finally we do the preview with the normal rotate function,
// this is not so bad with a 512x512 HF at 1 ghz speed!
// Execute the anti-aliased rotation if not yet calculated
if (!hfw)
return;
if (!hfw->if_calculated) {
apply_rotate(hfw);
}
commit_pending_record(hfw);
hf_backup(hfw->hf_struct);
if (hfw->hf_options->img->set_fn)
(*hfw->hf_options->img->set_fn) ((gpointer)hfw->hf_options->img);
rotate_remove_tiling (hfw);
gtk_widget_set_sensitive(GTK_WIDGET(hfw->hf_options->img->accept_wdg),FALSE);
}
void select_for_fill (fill_struct *pen, hf_struct_type *hf, gint x, gint y) {
// Select an area in the "magic wand" style,
// Then fill it given the "paint bucket" parameters (fill _struct *)
hf_type filling_value, height;
if (!hf->tmp_buf)
hf_backup(hf);
// We use "select_buf" for storing the selection mask
if (!hf->select_buf)
hf->select_buf = (hf_type *) x_calloc(sizeof(hf_type) * hf->max_x * hf->max_y, 1, "hf_type (hf->select_buf)");
switch (pen->select_mode) {
case SELECT_ADD:
height = filling_value = pen->height;
break;
case SELECT_SUBTRACT:
filling_value = MIN_FILLING_VALUE;
height = pen->height + 1; // pen->height is bounded by MAX_HF_VALUE-1
break;
case SELECT_REPLACE:
default:
height = filling_value = pen->height;
hf_reset_buffer(hf->select_buf, hf->max_x, hf->max_y);
}
// Height must be >= 1 and <= MAX_HF_VALUE-1
height = MIN(MAX_HF_VALUE-1,MAX(1,height));
fill_area_with_mode (hf->tmp_buf, hf->select_buf, hf->max_x, hf->max_y, filling_value, height, x, y, FILL_MAX, pen->select_mode);
// Uncomment the next line for testing
// memcpy (hf->hf_buf, hf->select_buf, hf->max_x*hf->max_y*sizeof(hf_type));
}
