/* * COPYRIGHT * * pcb-rnd, interactive printed circuit board design * (this file is based on PCB, interactive printed circuit board design) * Copyright (C) 1994,1995,1996,2004,2006 Thomas Nau * Copyright (C) 2016, 2017, 2020, 2023 Tibor 'Igor2' Palinkas (pcb-rnd extensions) * * This program is free software; you can redistribute it and/or modify * it under the terms of the GNU General Public License as published by * the Free Software Foundation; either version 2 of the License, or * (at your option) any later version. * * This program is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program; if not, write to the Free Software * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA. * * Contact: * Project page: http://repo.hu/projects/pcb-rnd * lead developer: http://repo.hu/projects/pcb-rnd/contact.html * mailing list: pcb-rnd (at) list.repo.hu (send "subscribe") * */ #include "config.h" #include "board.h" #include "data.h" #include "conf_core.h" #include "layer.h" #include #include "undo.h" #include "event.h" #include "layer_ui.h" #include "layer_vis.h" #include "funchash_core.h" #include #include "obj_pstk_inlines.h" #include "list_common.h" static const char core_layer_cookie[] = "core-layer"; pcb_virt_layer_t pcb_virt_layers[] = { {"invisible", PCB_LYT_VIRTUAL + 1, PCB_LYT_VIRTUAL | PCB_LYT_INVIS, NULL, -1 }, {"rats", PCB_LYT_VIRTUAL + 2, PCB_LYT_VIRTUAL | PCB_LYT_RAT, NULL, -1 }, {"topassembly", PCB_LYT_VIRTUAL + 3, PCB_LYT_VIRTUAL | PCB_LYT_TOP, "assy", F_assy }, {"bottomassembly", PCB_LYT_VIRTUAL + 4, PCB_LYT_VIRTUAL | PCB_LYT_BOTTOM, "assy", F_assy }, {"fab", PCB_LYT_VIRTUAL + 5, PCB_LYT_VIRTUAL | PCB_LYT_LOGICAL, "fab", F_fab }, {"plated-drill", PCB_LYT_VIRTUAL + 6, PCB_LYT_VIRTUAL, "pdrill", F_pdrill }, {"unplated-drill", PCB_LYT_VIRTUAL + 7, PCB_LYT_VIRTUAL, "udrill", F_udrill }, {"csect", PCB_LYT_VIRTUAL + 8, PCB_LYT_VIRTUAL | PCB_LYT_LOGICAL, "csect", F_csect }, {"dialog", PCB_LYT_VIRTUAL + 9, PCB_LYT_VIRTUAL | PCB_LYT_DIALOG | PCB_LYT_LOGICAL | PCB_LYT_NOEXPORT, NULL, -1 }, { NULL, 0 }, }; const pcb_menu_layers_t pcb_menu_layers[] = { { "Subcircuits", "subc", &conf_core.appearance.color.subc, NULL, offsetof(pcb_board_t, SubcOn), 0 }, { "Subc. parts", "subcpart", &conf_core.appearance.color.subc, NULL, offsetof(pcb_board_t, SubcPartsOn), 0 }, { "Padstacks", "padstacks",&conf_core.appearance.color.pin, NULL, offsetof(pcb_board_t, pstk_on), 0 }, { "Holes", "holes", &conf_core.appearance.color.pin, NULL, offsetof(pcb_board_t, hole_on), 0 }, { "Pstk. marks", "pstkmark", &conf_core.appearance.color.padstackmark, NULL, offsetof(pcb_board_t, padstack_mark_on), 0 }, { "Far side", "farside", &conf_core.appearance.color.invisible_objects, NULL, offsetof(pcb_board_t, InvisibleObjectsOn), 0 }, { "Rats", "rats", &conf_core.appearance.color.rat, "rats", offsetof(pcb_board_t, RatOn), offsetof(pcb_board_t, RatDraw) }, { NULL, NULL, NULL, NULL, 0} }; typedef struct { pcb_layer_type_t type; int class; const char *name; } pcb_layer_type_name_t; /* update docs: lihata format tree */ static const pcb_layer_type_name_t pcb_layer_type_names[] = { { PCB_LYT_TOP, 1, "top" }, { PCB_LYT_BOTTOM, 1, "bottom" }, { PCB_LYT_INTERN, 1, "intern" }, { PCB_LYT_LOGICAL, 1, "logical" }, { PCB_LYT_COPPER, 2, "copper" }, { PCB_LYT_SILK, 2, "silk" }, { PCB_LYT_MASK, 2, "mask" }, { PCB_LYT_PASTE, 2, "paste" }, { PCB_LYT_BOUNDARY,2, "boundary" }, { PCB_LYT_RAT, 2, "rat" }, { PCB_LYT_INVIS, 2, "invis" }, { PCB_LYT_SUBSTRATE,2,"substrate" }, { PCB_LYT_MISC, 2, "misc" }, { PCB_LYT_DOC, 2, "doc" }, { PCB_LYT_MECH, 2, "mech" }, { PCB_LYT_UI, 2, "userinterface" }, { PCB_LYT_VIRTUAL, 3, "virtual" }, { 0, 0, NULL } }; static const char *pcb_layer_type_class_names[] = { "INVALID", "location", "purpose", "property" }; static const pcb_layer_type_name_t pcb_layer_comb_names[] = { { PCB_LYC_SUB, 0, "sub"}, { PCB_LYC_AUTO, 0, "auto"}, { 0, 0, NULL } }; #define PCB_LAYER_VIRT_MIN (PCB_LYT_VIRTUAL + PCB_VLY_first + 1) #define PCB_LAYER_VIRT_MAX (PCB_LYT_VIRTUAL + PCB_VLY_end) #define layer_if_too_many(pcb, fail_cmd) \ do { \ if (pcb->Data->LayerN >= PCB_MAX_LAYER) { \ rnd_message(RND_MSG_ERROR, "Too many layers - can't have more than %d\n", PCB_MAX_LAYER); \ fail_cmd; \ } \ } while(0) #define PURP_MATCH(ps, pi) (((purpi == -1) || (purpi == pi)) && ((purpose == NULL) || ((ps != NULL) && (strcmp(purpose, ps) == 0)))) static void obj_free_undoable(pcb_any_obj_t *obj) { pcb_undo_move_obj_to_remove(obj->type, obj->parent.any, obj, obj); } static void layer_post_change(pcb_attribute_list_t *list, const char *name, const char *value) { if (strncmp(name, "pcb-rnd::key::", 14) == 0) rnd_event(&PCB->hidlib, PCB_EVENT_LAYER_KEY_CHANGE, NULL); } #define UFC(f) ((void (*)(void *))(f)) void pcb_layer_free_fields(pcb_layer_t *layer, rnd_bool undoable) { if (!layer->is_bound) pcb_attribute_free(&layer->Attributes); list_map0(&layer->Line, pcb_line_t, undoable ? UFC(obj_free_undoable) : UFC(pcb_line_free)); list_map0(&layer->Arc, pcb_arc_t, undoable ? UFC(obj_free_undoable) : UFC(pcb_arc_free)); list_map0(&layer->Text, pcb_text_t, undoable ? UFC(obj_free_undoable) : UFC(pcb_text_free)); if (!undoable) { PCB_POLY_LOOP(layer); { pcb_poly_free_fields(polygon); } PCB_END_LOOP; } list_map0(&layer->Polygon, pcb_poly_t, undoable ? UFC(obj_free_undoable) : UFC(pcb_poly_free)); if (!layer->is_bound) { if (layer->line_tree) { rnd_rtree_uninit(layer->line_tree); free(layer->line_tree); layer->line_tree = NULL; } if (layer->arc_tree) { rnd_rtree_uninit(layer->arc_tree); free(layer->arc_tree); layer->arc_tree = NULL; } if (layer->text_tree) { rnd_rtree_uninit(layer->text_tree); free(layer->text_tree); layer->text_tree = NULL; } if (layer->polygon_tree) { rnd_rtree_uninit(layer->polygon_tree); free(layer->polygon_tree); layer->polygon_tree = NULL; } if (layer->gfx_tree){ rnd_rtree_uninit(layer->gfx_tree); free(layer->gfx_tree); layer->gfx_tree = NULL; } } free((char *)layer->name); memset(layer, 0, sizeof(pcb_layer_t)); layer->Attributes.post_change = layer_post_change; } #define RTREE_EMPTY(rt) (((rt) == NULL) || ((rt)->size == 0)) rnd_bool pcb_layer_is_pure_empty(pcb_layer_t *layer) { /* if any local list is non-empty, the layer is non-empty */ if (layer->Line.lst.length > 0) return rnd_false; if (layer->Arc.lst.length > 0) return rnd_false; if (layer->Polygon.lst.length > 0) return rnd_false; if (layer->Text.lst.length > 0) return rnd_false; /* if the layer is locally empty, it might be a board layer that has objects from subcircuits so also check the rtrees */ return RTREE_EMPTY(layer->line_tree) && RTREE_EMPTY(layer->arc_tree) && RTREE_EMPTY(layer->gfx_tree) && RTREE_EMPTY(layer->polygon_tree) && RTREE_EMPTY(layer->text_tree); } static rnd_bool pcb_layer_is_empty_glob(pcb_board_t *pcb, pcb_data_t *data, pcb_layer_t *layer) { /* if any padstack has a shape on this layer, it is not empty */ PCB_PADSTACK_LOOP(data); { if (pcb_pstk_shape_at(pcb, padstack, layer) != NULL) return 0; } PCB_END_LOOP; /* need to recurse to subc */ PCB_SUBC_LOOP(data); { rnd_layer_id_t n; pcb_layer_t *sl; for(sl = subc->data->Layer, n = 0; n < subc->data->LayerN; sl++,n++) { if (sl->meta.bound.real == layer) { if (!pcb_layer_is_empty_(pcb, sl)) return 0; /* can't break here: multiple bound layers may point to the same real layer! */ } } if (!pcb_layer_is_empty_glob(pcb, subc->data, layer)) return 0; } PCB_END_LOOP; return 1; } rnd_bool pcb_layer_is_empty_(pcb_board_t *pcb, pcb_layer_t *layer) { pcb_layer_type_t flags = pcb_layer_flags_(layer); if (flags == 0) return 1; /* fast check: direct object */ if (!pcb_layer_is_pure_empty(layer)) return 0; if (!pcb_layer_is_empty_glob(pcb, pcb->Data, layer)) return 0; /* found nothing: layer is empty */ return 1; } rnd_bool pcb_layer_is_empty(pcb_board_t *pcb, rnd_layer_id_t num) { if ((num >= 0) && (num < pcb->Data->LayerN)) return pcb_layer_is_empty_(pcb, pcb->Data->Layer + num); return rnd_false; } rnd_layer_id_t pcb_layer_id(const pcb_data_t *Data, const pcb_layer_t *Layer) { if (Layer->parent_type == PCB_PARENT_UI) return pcb_uilayer_get_id(Layer); if (Layer->parent.data != Data) { /* the only case this makes sense is when we are resolving a bound layer */ if ((Layer->is_bound) && (Layer->meta.bound.real != NULL)) return pcb_layer_id(Data, Layer->meta.bound.real); /* failed binding, ignore the layer */ return -1; } if ((Layer >= Data->Layer) && (Layer < (Data->Layer + PCB_MAX_LAYER))) return Layer - Data->Layer; return -1; } unsigned int pcb_layer_flags(const pcb_board_t *pcb, rnd_layer_id_t layer_idx) { pcb_layer_t *l; if (layer_idx & PCB_LYT_UI) return PCB_LYT_UI | PCB_LYT_VIRTUAL; if ((layer_idx >= PCB_LAYER_VIRT_MIN) && (layer_idx <= PCB_LAYER_VIRT_MAX)) return pcb_virt_layers[layer_idx - PCB_LAYER_VIRT_MIN].type; if ((layer_idx < 0) || (layer_idx >= pcb->Data->LayerN)) return 0; l = &pcb->Data->Layer[layer_idx]; return pcb_layergrp_flags(pcb, l->meta.real.grp); } unsigned int pcb_layer_flags_(const pcb_layer_t *layer) { /* real layer: have to do a layer stack based lookup; but at least we have a real layer ID */ if (!layer->is_bound) { pcb_data_t *data = layer->parent.data; rnd_layer_id_t lid; if (data == NULL) return 0; lid = pcb_layer_id(data, layer);; if (lid < 0) return 0; assert(data->parent_type == PCB_PARENT_BOARD); return pcb_layer_flags(data->parent.board, lid); } /* bound layer: if it is already bound to a real layer, use that, whatever it is (manual binding may override our local type match pattern) */ if (layer->meta.bound.real != NULL) { layer = pcb_layer_get_real(layer); if (layer == NULL) return 0; return pcb_layer_flags_(layer); /* tail recursion */ } /* bound layer without a real layer binding: use the type match */ return layer->meta.bound.type; } int pcb_layer_purpose(const pcb_board_t *pcb, rnd_layer_id_t layer_idx, const char **out) { pcb_layergrp_t *grp; if (layer_idx & PCB_LYT_UI) return PCB_LYT_UI | PCB_LYT_VIRTUAL; if ((layer_idx >= PCB_LAYER_VIRT_MIN) && (layer_idx <= PCB_LAYER_VIRT_MAX)) { if (out != NULL) *out = pcb_virt_layers[layer_idx - PCB_LAYER_VIRT_MIN].purpose; return pcb_virt_layers[layer_idx - PCB_LAYER_VIRT_MIN].purpi; } if ((layer_idx < 0) || (layer_idx >= pcb->Data->LayerN)) { if (out != NULL) *out = NULL; return -1; } grp = pcb_get_layergrp((pcb_board_t *)pcb, pcb->Data->Layer[layer_idx].meta.real.grp); if (out != NULL) { if (grp == NULL) { *out = NULL; return -1; } *out = grp->purpose; return grp->purpi; } if (grp == NULL) return -1; return grp->purpi; } int pcb_layer_purpose_(const pcb_layer_t *layer, const char **out) { /* real layer: have to do a layer stack based lookup; but at least we have a real layer ID */ if (!layer->is_bound) { pcb_data_t *data = layer->parent.data; rnd_layer_id_t lid; if (data == NULL) return 0; lid = pcb_layer_id(data, layer);; if (lid < 0) return 0; assert(data->parent_type == PCB_PARENT_BOARD); return pcb_layer_purpose(data->parent.board, lid, out); } /* bound layer: if it is already bound to a real layer, use that, whatever it is (manual binding may override our local type match pattern) */ if (layer->meta.bound.real != NULL) { layer = pcb_layer_get_real(layer); if (layer == NULL) return 0; return pcb_layer_purpose_(layer, out); /* tail recursion */ } /* bound layer without a real layer binding: use the type match */ if (out != NULL) *out = layer->meta.bound.purpose; return rnd_funchash_get(layer->meta.bound.purpose, NULL); } #define APPEND(n) \ do { \ if (res != NULL) { \ if (used < res_len) { \ res[used] = n; \ used++; \ } \ } \ else \ used++; \ } while(0) #define APPEND_VIRT(v) \ do { \ APPEND(v->new_id); \ } while(0) const pcb_virt_layer_t *pcb_vlayer_get_first(pcb_layer_type_t mask, const char *purpose, int purpi) { const pcb_virt_layer_t *v; mask &= (~PCB_LYT_VIRTUAL); for(v = pcb_virt_layers; v->name != NULL; v++) if ((((v->type & (~PCB_LYT_VIRTUAL)) & mask) == mask) && PURP_MATCH(v->purpose, v->purpi)) return v; return NULL; } int pcb_layer_list(const pcb_board_t *pcb, pcb_layer_type_t mask, rnd_layer_id_t *res, int res_len) { int n, used = 0; pcb_virt_layer_t *v; for(v = pcb_virt_layers; v->name != NULL; v++) if ((v->type & mask) == mask) APPEND_VIRT(v); for (n = 0; n < PCB_MAX_LAYER; n++) if ((pcb_layer_flags(pcb, n) & mask) == mask) APPEND(n); if (mask == PCB_LYT_UI) for (n = 0; n < vtp0_len(&pcb_uilayers); n++) if (pcb_uilayers.array[n] != NULL) APPEND(n | PCB_LYT_UI | PCB_LYT_VIRTUAL); return used; } /* optimization: code dup for speed */ int pcb_layer_listp(const pcb_board_t *pcb, pcb_layer_type_t mask, rnd_layer_id_t *res, int res_len, int purpi, const char *purpose) { int n, used = 0; pcb_virt_layer_t *v; for(v = pcb_virt_layers; v->name != NULL; v++) if (((v->type & mask) == mask) && (PURP_MATCH(v->purpose, v->purpi))) APPEND_VIRT(v); for (n = 0; n < PCB_MAX_LAYER; n++) { if ((pcb_layer_flags(pcb, n) & mask) == mask) { const char *lpurp; int lpurpi = pcb_layer_purpose(pcb, n, &lpurp); if (PURP_MATCH(lpurp, lpurpi)) APPEND(n); } } if (mask == PCB_LYT_UI) for (n = 0; n < vtp0_len(&pcb_uilayers); n++) if ((pcb_uilayers.array[n] != NULL)) APPEND(n | PCB_LYT_UI | PCB_LYT_VIRTUAL); return used; } int pcb_layer_list_any(const pcb_board_t *pcb, pcb_layer_type_t mask, rnd_layer_id_t *res, int res_len) { int n, used = 0; pcb_virt_layer_t *v; for(v = pcb_virt_layers; v->name != NULL; v++) if ((v->type & mask)) APPEND_VIRT(v); for (n = 0; n < PCB_MAX_LAYER; n++) if ((pcb_layer_flags(pcb, n) & mask)) APPEND(n); if (mask & PCB_LYT_UI) for (n = 0; n < vtp0_len(&pcb_uilayers); n++) if (pcb_uilayers.array[n] != NULL) APPEND(n | PCB_LYT_UI | PCB_LYT_VIRTUAL); return used; } rnd_layer_id_t pcb_layer_by_name(pcb_data_t *data, const char *name) { rnd_layer_id_t n; for (n = 0; n < data->LayerN; n++) if ((data->Layer[n].name != NULL) && (strcmp(data->Layer[n].name, name) == 0)) return n; return -1; } void pcb_layers_reset(pcb_board_t *pcb) { rnd_layer_id_t n; /* reset everything to empty, even if that's invalid (no top/bottom copper) for the rest of the code: the (embedded) default design will overwrite this. */ /* reset layers */ for(n = 0; n < PCB_MAX_LAYER; n++) { if (pcb->Data->Layer[n].name != NULL) free((char *)pcb->Data->Layer[n].name); pcb->Data->Layer[n].name = rnd_strdup(""); pcb->Data->Layer[n].meta.real.grp = -1; pcb->Data->Layer[n].Attributes.post_change = layer_post_change; } /* reset layer groups */ for(n = 0; n < PCB_MAX_LAYERGRP; n++) { pcb->LayerGroups.grp[n].len = 0; pcb->LayerGroups.grp[n].ltype = 0; pcb->LayerGroups.grp[n].valid = 0; } pcb->LayerGroups.len = 0; pcb->Data->LayerN = 0; } /* empty and detach a layer - must be initialized or another layer moved over it later */ static void layer_clear(pcb_layer_t *dst) { memset(dst, 0, sizeof(pcb_layer_t)); dst->meta.real.grp = -1; dst->Attributes.post_change = layer_post_change; } static void pcb_layer_undoable_created(pcb_board_t *pcb, pcb_layer_t *l); rnd_layer_id_t pcb_layer_create(pcb_board_t *pcb, rnd_layergrp_id_t grp, const char *lname, rnd_bool undoable) { rnd_layer_id_t id; layer_if_too_many(pcb, return -1); id = pcb->Data->LayerN++; if (lname != NULL) { if (pcb->Data->Layer[id].name != NULL) free((char *)pcb->Data->Layer[id].name); } layer_clear(&pcb->Data->Layer[id]); pcb->Data->Layer[id].name = rnd_strdup(lname); /* add layer to group */ if (grp >= 0) { pcb->LayerGroups.grp[grp].lid[pcb->LayerGroups.grp[grp].len] = id; pcb->LayerGroups.grp[grp].len++; pcb->Data->Layer[id].meta.real.vis = pcb->Data->Layer[pcb->LayerGroups.grp[grp].lid[0]].meta.real.vis; } pcb->Data->Layer[id].meta.real.grp = grp; pcb->Data->Layer[id].meta.real.color = *pcb_layer_default_color(id, (grp < 0) ? 0 : pcb->LayerGroups.grp[grp].ltype); pcb->Data->Layer[id].parent_type = PCB_PARENT_DATA; pcb->Data->Layer[id].parent.data = pcb->Data; pcb->Data->Layer[id].type = PCB_OBJ_LAYER; pcb->Data->Layer[id].Attributes.post_change = layer_post_change; if (pcb == PCB) pcb_board_set_changed_flag(pcb, 1); if (undoable) pcb_layer_undoable_created(pcb, &pcb->Data->Layer[id]); return id; } /*** undoable layer rename ***/ typedef struct { pcb_layer_t *layer; char *name; } undo_layer_rename_t; static int undo_layer_rename_swap(void *udata) { char *old; undo_layer_rename_t *r = udata; old = (char *)r->layer->name; r->layer->name = r->name; r->name = old; if (!r->layer->is_bound) { assert((r->layer->parent_type == PCB_PARENT_DATA) && (r->layer->parent.data->parent_type == PCB_PARENT_BOARD)); pcb_layergrp_notify_chg(r->layer->parent.data->parent.board); } return 0; } static void undo_layer_rename_print(void *udata, char *dst, size_t dst_len) { undo_layer_rename_t *r = udata; rnd_snprintf(dst, dst_len, "rename layer: '%s' -> '%s'", r->layer->name, r->name); } static void undo_layer_rename_free(void *udata) { undo_layer_rename_t *r = udata; free(r->name); } static const uundo_oper_t undo_layer_rename = { core_layer_cookie, undo_layer_rename_free, undo_layer_rename_swap, undo_layer_rename_swap, undo_layer_rename_print }; int pcb_layer_rename_(pcb_layer_t *Layer, char *Name, rnd_bool undoable) { undo_layer_rename_t rtmp, *r = &rtmp; if (undoable) { pcb_board_t *pcb = pcb_data_get_top(Layer->parent.data); if (pcb != NULL) r = pcb_undo_alloc(pcb, &undo_layer_rename, sizeof(undo_layer_rename_t)); } r->layer = Layer; r->name = Name; undo_layer_rename_swap(r); if (undoable) pcb_undo_inc_serial(); else undo_layer_rename_free(r); return 0; } int pcb_layer_rename(pcb_data_t *data, rnd_layer_id_t layer, const char *lname, rnd_bool undoable) { return pcb_layer_rename_(&data->Layer[layer], rnd_strdup(lname), undoable); } /*** undoable layer recolor ***/ typedef struct { pcb_layer_t *layer; rnd_color_t color; } undo_layer_recolor_t; static int undo_layer_recolor_swap(void *udata) { rnd_color_t old; undo_layer_recolor_t *r = udata; old = r->layer->meta.real.color; r->layer->meta.real.color = r->color; r->color = old; if (!r->layer->is_bound) { assert((r->layer->parent_type == PCB_PARENT_DATA) && (r->layer->parent.data->parent_type == PCB_PARENT_BOARD)); pcb_layergrp_notify_chg(r->layer->parent.data->parent.board); } return 0; } static void undo_layer_recolor_print(void *udata, char *dst, size_t dst_len) { undo_layer_recolor_t *r = udata; rnd_snprintf(dst, dst_len, "recolor layer: '%s' -> '%s'", r->layer->meta.real.color.str, r->color.str); } static const uundo_oper_t undo_layer_recolor = { core_layer_cookie, NULL, undo_layer_recolor_swap, undo_layer_recolor_swap, undo_layer_recolor_print }; int pcb_layer_recolor_(pcb_layer_t *Layer, const rnd_color_t *color, rnd_bool undoable) { undo_layer_recolor_t rtmp, *r = &rtmp; if (Layer->is_bound) return -1; if (undoable) { pcb_board_t *pcb = pcb_data_get_top(Layer->parent.data); if (pcb != NULL) r = pcb_undo_alloc(pcb, &undo_layer_recolor, sizeof(undo_layer_recolor_t)); } r->layer = Layer; r->color = *color; undo_layer_recolor_swap(r); if (undoable) pcb_undo_inc_serial(); return 0; } int pcb_layer_recolor(pcb_data_t *data, rnd_layer_id_t layer, const char *color, rnd_bool undoable) { rnd_color_t clr; rnd_color_load_str(&clr, color); return pcb_layer_recolor_(&data->Layer[layer], &clr, undoable); } /*** undoable layer comb changes ***/ typedef struct { pcb_layer_t *layer; pcb_layer_combining_t comb; } undo_layer_recomb_t; static int undo_layer_recomb_swap(void *udata) { pcb_layer_combining_t old; undo_layer_recomb_t *r = udata; old = r->layer->comb; r->layer->comb = r->comb; r->comb = old; if (!r->layer->is_bound) { assert((r->layer->parent_type == PCB_PARENT_DATA) && (r->layer->parent.data->parent_type == PCB_PARENT_BOARD)); pcb_layergrp_notify_chg(r->layer->parent.data->parent.board); } return 0; } static void undo_layer_recomb_print(void *udata, char *dst, size_t dst_len) { undo_layer_recomb_t *r = udata; rnd_snprintf(dst, dst_len, "recomb layer: '%x' -> '%x'", r->layer->comb, r->comb); } static const uundo_oper_t undo_layer_recomb = { core_layer_cookie, NULL, undo_layer_recomb_swap, undo_layer_recomb_swap, undo_layer_recomb_print }; int pcb_layer_recomb(pcb_layer_t *Layer, pcb_layer_combining_t comb, rnd_bool undoable) { undo_layer_recomb_t rtmp, *r = &rtmp; if (Layer->is_bound) return -1; if (Layer->comb == comb) return 0; if (undoable) { pcb_board_t *pcb = pcb_data_get_top(Layer->parent.data); if (pcb != NULL) r = pcb_undo_alloc(pcb, &undo_layer_recomb, sizeof(undo_layer_recomb_t)); } r->layer = Layer; r->comb = comb; undo_layer_recomb_swap(r); if (undoable) pcb_undo_inc_serial(); return 0; } #undef APPEND /* Safe move of a layer within a layer array, updating all fields (list->parents) */ void pcb_layer_move_(pcb_layer_t *dst, pcb_layer_t *src) { pcb_line_t *li; pcb_text_t *te; pcb_poly_t *po; pcb_arc_t *ar; memcpy(dst, src, sizeof(pcb_layer_t)); /* reparent all the lists: each list item has a ->parent pointer that needs to point to the new place */ for(li = linelist_first(&dst->Line); li != NULL; li = linelist_next(li)) { li->parent.layer = dst; li->link.parent = &dst->Line.lst; } for(te = textlist_first(&dst->Text); te != NULL; te = textlist_next(te)) { te->parent.layer = dst; te->link.parent = &dst->Text.lst; } for(po = polylist_first(&dst->Polygon); po != NULL; po = polylist_next(po)) { po->parent.layer = dst; po->link.parent = &dst->Polygon.lst; } for(ar = arclist_first(&dst->Arc); ar != NULL; ar = arclist_next(ar)) { ar->parent.layer = dst; ar->link.parent = &dst->Arc.lst; } } const rnd_color_t *pcb_layer_default_color(int idx, pcb_layer_type_t lyt) { const int clrs = sizeof(conf_core.appearance.color.layer) / sizeof(conf_core.appearance.color.layer[0]); if (lyt & PCB_LYT_MASK) return &conf_core.appearance.color.mask; if (lyt & PCB_LYT_PASTE) return &conf_core.appearance.color.paste; if (lyt & PCB_LYT_SILK) return &conf_core.appearance.color.element; return &conf_core.appearance.color.layer[idx % clrs]; } void pcb_layer_setup(pcb_layer_t *ly, pcb_data_t *parent_data) { ly->Attributes.post_change = layer_post_change; ly->parent.data = parent_data; ly->parent_type = PCB_PARENT_DATA; ly->type = PCB_OBJ_LAYER; } /* Initialize a new layer with safe initial values */ static void layer_init(pcb_board_t *pcb, pcb_layer_t *lp, rnd_layer_id_t idx, rnd_layergrp_id_t gid, pcb_data_t *parent) { memset(lp, 0, sizeof(pcb_layer_t)); lp->meta.real.grp = gid; lp->meta.real.vis = 1; lp->name = rnd_strdup("New Layer"); lp->meta.real.color = *pcb_layer_default_color(idx, (gid >= 0) ? pcb->LayerGroups.grp[gid].ltype : 0); if ((gid >= 0) && (pcb->LayerGroups.grp[gid].len == 0)) { /*When adding the first layer in a group, set up comb flags automatically */ switch((pcb->LayerGroups.grp[gid].ltype) & PCB_LYT_ANYTHING) { case PCB_LYT_MASK: lp->comb = PCB_LYC_AUTO | PCB_LYC_SUB; break; case PCB_LYT_SILK: lp->comb = PCB_LYC_AUTO; case PCB_LYT_PASTE: lp->comb = PCB_LYC_AUTO; default: break; } } pcb_layer_setup(lp, parent); } static pcb_layer_t *pcb_layer_move_append_(pcb_board_t *pcb, rnd_layer_id_t new_index, rnd_layergrp_id_t new_in_grp) { pcb_layergrp_t *g; pcb_layer_t *lp; rnd_layer_id_t new_lid = pcb->Data->LayerN++; int grp_idx; lp = &pcb->Data->Layer[new_lid]; if (new_in_grp >= 0) layer_init(pcb, lp, new_lid, new_in_grp, pcb->Data); else layer_init(pcb, lp, new_lid, pcb->Data->Layer[new_index].meta.real.grp, pcb->Data); g = pcb_get_layergrp(pcb, lp->meta.real.grp); if (new_in_grp >= 0) { if (new_index == 0) grp_idx = 0; else grp_idx = g->len; } else grp_idx = pcb_layergrp_index_in_grp(g, new_index); /* shift group members up and insert the new layer in group */ if ((g->len > grp_idx) && (grp_idx >= 0)) memmove(g->lid+grp_idx+1, g->lid+grp_idx, (g->len - grp_idx) * sizeof(rnd_layer_id_t)); if (grp_idx < 0) grp_idx = 0; g->lid[grp_idx] = new_lid; g->len++; pcb_layergrp_notify_chg(pcb); pcb_layervis_change_group_vis(&pcb->hidlib, new_lid, 1, 1); rnd_event(&pcb->hidlib, PCB_EVENT_LAYERVIS_CHANGED, NULL); return lp; } static pcb_layer_t *pcb_layer_move_insert_(pcb_board_t *pcb, rnd_layer_id_t new_lid, rnd_layergrp_id_t new_in_grp, int grp_idx) { pcb_layergrp_t *g; pcb_layer_t *lp; rnd_layergrp_id_t gid; rnd_layer_id_t lid; /* update lids in all groups (shifting down idx) */ for(gid = 0; gid < pcb_max_group(pcb); gid++) { int n; g = &pcb->LayerGroups.grp[gid]; for(n = 0; n < g->len; n++) if (g->lid[n] >= new_lid) g->lid[n]++; } /* shift the layer array to make room */ for(lid = pcb->Data->LayerN-1; lid >= new_lid ; lid--) { layer_clear(&pcb->Data->Layer[lid+1]); pcb_layer_move_(&pcb->Data->Layer[lid+1], &pcb->Data->Layer[lid]); } /* do not update the stack - rendering order is not that important */ /* remove layer from the logical layer array */ pcb_max_layer(PCB)++; /* shift target group members up and insert the new layer in group */ g = pcb_get_layergrp(pcb, new_in_grp); if ((g->len > grp_idx) && (grp_idx >= 0)) memmove(g->lid+grp_idx+1, g->lid+grp_idx, (g->len - grp_idx) * sizeof(rnd_layer_id_t)); g->lid[grp_idx] = new_lid; g->len++; lp = &pcb->Data->Layer[new_lid]; layer_clear(lp); layer_init(pcb, lp, new_lid, new_in_grp, pcb->Data); return lp; } /* update padstack thermals for layer ID changes on del */ static void layer_del_update_thermals(pcb_board_t *pcb, rnd_layer_id_t old_index, rnd_bool undoable) { rnd_box_t *b; rnd_rtree_it_t it; if (pcb->Data->padstack_tree == NULL) return; /* thermals are referenced by layer IDs which are going to change now */ for(b = rnd_rtree_all_first(&it, pcb->Data->padstack_tree); b != NULL; b = rnd_rtree_all_next(&it)) { int n; pcb_pstk_t *ps = (pcb_pstk_t *)b; for(n = old_index; n < pcb->Data->LayerN-1; n++) { unsigned char *src = pcb_pstk_get_thermal(ps, n+1, 0); unsigned char *dst = pcb_pstk_get_thermal(ps, n, 0); if (src == NULL) break; if (*src != *dst) pcb_pstk_set_thermal(ps, n, *src, undoable); } } } static int pcb_layer_move_delete_(pcb_board_t *pcb, rnd_layer_id_t old_index, rnd_bool undoable) { rnd_layer_id_t l; rnd_layergrp_id_t gid; pcb_layergrp_t *g; int grp_idx, remaining; /* make sure subcircuits don't reference this layer any more */ pcb_subc_unbind_all(pcb, &pcb->Data->Layer[old_index], undoable); /* remove the current lid from its group */ g = pcb_get_layergrp(pcb, pcb->Data->Layer[old_index].meta.real.grp); grp_idx = pcb_layergrp_index_in_grp(g, old_index); if (grp_idx < 0) { rnd_message(RND_MSG_ERROR, "Internal error; layer not in group\n"); return -1; } pcb_layer_free_fields(&pcb->Data->Layer[old_index], undoable); remaining = (g->len - grp_idx - 1); if (remaining > 0) memmove(g->lid+grp_idx, g->lid+grp_idx+1, remaining * sizeof(rnd_layer_id_t)); g->len--; /* update lids in all groups (shifting down idx) */ for(gid = 0; gid < pcb_max_group(pcb); gid++) { int n; g = &pcb->LayerGroups.grp[gid]; for(n = 0; n < g->len; n++) if (g->lid[n] > old_index) g->lid[n]--; } layer_del_update_thermals(pcb, old_index, undoable); /* update visibility */ for(l = old_index; l < pcb->Data->LayerN-1; l++) { pcb_layer_move_(&pcb->Data->Layer[l], &pcb->Data->Layer[l+1]); layer_clear(&pcb->Data->Layer[l+1]); } for (l = 0; l < pcb->Data->LayerN; l++) if (pcb_layer_stack[l] == old_index) memmove(pcb_layer_stack + l, pcb_layer_stack + l + 1, (pcb->Data->LayerN - l - 1) * sizeof(pcb_layer_stack[0])); /* remove layer from the logical layer array */ pcb_max_layer(PCB)--; for (l = 0; l < pcb->Data->LayerN; l++) if (pcb_layer_stack[l] > old_index) pcb_layer_stack[l]--; pcb_layergrp_notify_chg(pcb); return 0; } typedef struct { pcb_board_t *pcb; unsigned append:1; rnd_layer_id_t lid; long in_grp_idx; /* fields */ char *name; pcb_layer_combining_t comb; rnd_layergrp_id_t grp; rnd_color_t color; } undo_layer_move_t; static int undo_layer_move_swap(void *udata) { undo_layer_move_t *m = udata; pcb_board_t *pcb = m->pcb; if (m->append) { /* undo an append by deleting */ pcb_layer_t *l = &pcb->Data->Layer[m->lid]; m->name = (char *)l->name; l->name = NULL; pcb_layer_move_delete_(pcb, m->lid, 0); } else { /* undo a delete by inserting it back in its place */ pcb_layer_t *l = pcb_layer_move_insert_(pcb, m->lid, m->grp, m->in_grp_idx); l->name = m->name; m->name = NULL; l->meta.real.color = m->color; pcb_layergrp_notify_chg(pcb); pcb_layervis_change_group_vis(&pcb->hidlib, m->lid, 1, 1); rnd_event(&pcb->hidlib, PCB_EVENT_LAYERVIS_CHANGED, NULL); } m->append = !m->append; return 0; } static void undo_layer_move_print(void *udata, char *dst, size_t dst_len) { undo_layer_move_t *m = udata; rnd_snprintf(dst, dst_len, "layer_move: %s %s lid=%ld grp=%ld", m->append ? "append" : "delete", m->name, m->lid, m->grp); } static void undo_layer_move_free(void *udata) { undo_layer_move_t *m = udata; free(m->name); } static const uundo_oper_t undo_layer_move = { core_layer_cookie, undo_layer_move_free, undo_layer_move_swap, undo_layer_move_swap, undo_layer_move_print }; static long layer_idx_in_grp(pcb_board_t *pcb, pcb_layer_t *l) { rnd_layer_id_t lid = l - pcb->Data->Layer; pcb_layergrp_t *g; if ((lid < 0) || (lid >= pcb->Data->LayerN)) return 0; g = pcb_get_layergrp(pcb, l->meta.real.grp); if (g != NULL) { long n; for(n = 0; n < g->len; n++) if (g->lid[n] == lid) return n; } return 0; } /* Call this after creating grp to add the creation to the undo list */ static void pcb_layer_undoable_created(pcb_board_t *pcb, pcb_layer_t *l) { undo_layer_move_t *m = pcb_undo_alloc(pcb, &undo_layer_move, sizeof(undo_layer_move_t)); memset(m, 0, sizeof(undo_layer_move_t)); m->pcb = pcb; m->lid = l - pcb->Data->Layer; m->grp = l->meta.real.grp; m->color = l->meta.real.color; m->in_grp_idx = layer_idx_in_grp(pcb, l); m->append = 1; pcb_undo_inc_serial(); } static int pcb_layer_move_append(pcb_board_t *pcb, rnd_layer_id_t new_index, rnd_layergrp_id_t new_in_grp, int undoable) { pcb_layer_t *l; l = pcb_layer_move_append_(pcb, new_index, new_in_grp); if (l == NULL) return 1; if (undoable) pcb_layer_undoable_created(pcb, l); return 0; } static int pcb_layer_move_delete(pcb_board_t *pcb, rnd_layer_id_t old_index, int undoable) { undo_layer_move_t *m, mtmp; pcb_layer_t *l; int res; if (!undoable) return pcb_layer_move_delete_(pcb, old_index, undoable); pcb_undo_freeze_serial(); l = &pcb->Data->Layer[old_index]; memset(&mtmp, 0, sizeof(undo_layer_move_t)); mtmp.pcb = pcb; mtmp.lid = old_index; mtmp.name = (char *)l->name; l->name = NULL; mtmp.grp = l->meta.real.grp; mtmp.color = l->meta.real.color; mtmp.in_grp_idx = layer_idx_in_grp(pcb, l); mtmp.append = 0; res = pcb_layer_move_delete_(pcb, old_index, undoable); m = pcb_undo_alloc(pcb, &undo_layer_move, sizeof(undo_layer_move_t)); memcpy(m, &mtmp, sizeof(undo_layer_move_t)); pcb_undo_unfreeze_serial(); pcb_undo_inc_serial(); return res; } int pcb_layer_move(pcb_board_t *pcb, rnd_layer_id_t old_index, rnd_layer_id_t new_index, rnd_layergrp_id_t new_in_grp, rnd_bool undoable) { /* sanity checks */ if (old_index < -1 || old_index >= pcb->Data->LayerN) { rnd_message(RND_MSG_ERROR, "Invalid old layer %d for move: must be -1..%d\n", old_index, pcb->Data->LayerN - 1); return 1; } if (new_index < -1 || new_index > pcb->Data->LayerN || new_index >= PCB_MAX_LAYER) { rnd_message(RND_MSG_ERROR, "Invalid new layer %d for move: must be -1..%d\n", new_index, pcb->Data->LayerN); return 1; } if (old_index == -1) /* append new layer at the end of the logical layer list, put it in the current group */ return pcb_layer_move_append(pcb, new_index, new_in_grp, undoable); if (new_index == -1) /* Delete the layer at old_index */ return pcb_layer_move_delete(pcb, old_index, undoable); rnd_message(RND_MSG_ERROR, "Logical layer move is not supported any more. This function should have not been called. Please report this error.\n"); /* Removed r8686: The new layer design presents the layers by groups to preserve physical order. In this system the index of the logical layer on the logical layer list is insignificant, thus we shouldn't try to change it. */ return 1; } const char *pcb_layer_name(pcb_data_t *data, rnd_layer_id_t id) { if (id < 0) return NULL; if (id < data->LayerN) return data->Layer[id].name; if ((id >= PCB_LAYER_VIRT_MIN) && (id <= PCB_LAYER_VIRT_MAX)) return pcb_virt_layers[id-PCB_LAYER_VIRT_MIN].name; return NULL; } pcb_layer_t *pcb_get_layer(pcb_data_t *data, rnd_layer_id_t id) { if ((id >= 0) && (id < data->LayerN)) return &data->Layer[id]; if (id & PCB_LYT_UI) return pcb_uilayer_get(id); return NULL; } rnd_layer_id_t pcb_layer2id(pcb_data_t *data, pcb_layer_t *ly) { long lid; if (ly == NULL) return -1; lid = ly - data->Layer; if ((lid < 0) || (lid >= data->LayerN)) return -1; return lid; } void pcb_layer_link_trees(pcb_layer_t *dst, pcb_layer_t *src) { /* we can't link non-existing trees - make sure src does have the trees initialized */ if (src->line_tree == NULL) rnd_rtree_init(src->line_tree = malloc(sizeof(rnd_rtree_t))); if (src->arc_tree == NULL) rnd_rtree_init(src->arc_tree = malloc(sizeof(rnd_rtree_t))); if (src->text_tree == NULL) rnd_rtree_init(src->text_tree = malloc(sizeof(rnd_rtree_t))); if (src->polygon_tree == NULL) rnd_rtree_init(src->polygon_tree = malloc(sizeof(rnd_rtree_t))); if (src->gfx_tree == NULL) rnd_rtree_init(src->gfx_tree = malloc(sizeof(rnd_rtree_t))); dst->line_tree = src->line_tree; dst->arc_tree = src->arc_tree; dst->text_tree = src->text_tree; dst->polygon_tree = src->polygon_tree; dst->gfx_tree = src->gfx_tree; } void pcb_layer_real2bound_offs(pcb_layer_t *dst, pcb_board_t *src_pcb, pcb_layer_t *src) { dst->meta.bound.real = NULL; dst->is_bound = 1; if ((dst->meta.bound.type & PCB_LYT_INTERN) && (dst->meta.bound.type & PCB_LYT_COPPER)) { int from_top, from_bottom, res; pcb_layergrp_t *tcop = pcb_get_grp(&src_pcb->LayerGroups, PCB_LYT_TOP, PCB_LYT_COPPER); pcb_layergrp_t *bcop = pcb_get_grp(&src_pcb->LayerGroups, PCB_LYT_BOTTOM, PCB_LYT_COPPER); rnd_layergrp_id_t tcop_id = pcb_layergrp_id(src_pcb, tcop); rnd_layergrp_id_t bcop_id = pcb_layergrp_id(src_pcb, bcop); res = pcb_layergrp_dist(src_pcb, src->meta.real.grp, tcop_id, PCB_LYT_COPPER, &from_top); res |= pcb_layergrp_dist(src_pcb, src->meta.real.grp, bcop_id, PCB_LYT_COPPER, &from_bottom); if (res == 0) { if (from_top <= from_bottom) dst->meta.bound.stack_offs = from_top; else dst->meta.bound.stack_offs = -from_bottom; } else rnd_message(RND_MSG_ERROR, "Internal error: can't figure the inter copper\nlayer offset for %s\n", src->name); } else dst->meta.bound.stack_offs = 0; } void pcb_layer_real2bound(pcb_layer_t *dst, pcb_layer_t *src, int share_rtrees) { pcb_board_t *pcb; pcb_layergrp_t *grp; assert(!src->is_bound); pcb = pcb_layer_get_top(src); grp = pcb_get_layergrp(pcb, src->meta.real.grp); dst->comb = src->comb; dst->meta.bound.type = pcb_layergrp_flags(pcb, src->meta.real.grp); if (src->name != NULL) dst->name = rnd_strdup(src->name); else dst->name = NULL; if ((grp != NULL) && (grp->purpose != NULL)) dst->meta.bound.purpose = rnd_strdup(grp->purpose); else dst->meta.bound.purpose = NULL; pcb_layer_real2bound_offs(dst, pcb, src); if (!src->is_bound) { dst->meta.bound.real = src; if (share_rtrees) pcb_layer_link_trees(dst, src); } } static int strcmp_score(const char *s1, const char *s2) { int score = 0; if (s1 == s2) /* mainly for NULL = NULL */ score += 4; if ((s1 != NULL) && (s2 != NULL)) { if (strcmp(s1, s2) == 0) score += 4; else if (rnd_strcasecmp(s1, s2) == 0) score += 2; } return score; } void pcb_layer_resolve_best(pcb_board_t *pcb, pcb_layergrp_t *grp, pcb_layer_t *src, int *best_score, pcb_layer_t **best) { int l, score; for(l = 0; l < grp->len; l++) { pcb_layer_t *ly = pcb_get_layer(pcb->Data, grp->lid[l]); if ((ly->comb & PCB_LYC_SUB) == (src->comb & PCB_LYC_SUB)) { score = 1; if (ly->comb == src->comb) score++; score += strcmp_score(ly->name, src->name); score += strcmp_score(grp->purpose, src->meta.bound.purpose); if (score > *best_score) { *best = ly; *best_score = score; } } } } pcb_layer_t *pcb_layer_resolve_binding(pcb_board_t *pcb, pcb_layer_t *src) { rnd_layergrp_id_t gid; pcb_layergrp_t *grp; int best_score = 0; pcb_layer_t *best = NULL; assert(src->is_bound); /* look up the layer group; for internal copper this means counting the offset */ if ((src->meta.bound.type & PCB_LYT_INTERN) && (src->meta.bound.type & PCB_LYT_COPPER) && (src->meta.bound.stack_offs != 0)) { if (src->meta.bound.stack_offs < 0) gid = pcb_layergrp_get_bottom_copper(); else gid = pcb_layergrp_get_top_copper(); gid = pcb_layergrp_step(pcb, gid, src->meta.bound.stack_offs, PCB_LYT_COPPER | PCB_LYT_INTERN); /* target group identified; pick the closest match layer within that group */ grp = pcb->LayerGroups.grp+gid; pcb_layer_resolve_best(pcb, grp, src, &best_score, &best); } else { pcb_layer_type_t lyt = src->meta.bound.type; if ((lyt & PCB_LYT_BOUNDARY) && (lyt & PCB_LYT_ANYWHERE)) { lyt = PCB_LYT_BOUNDARY; rnd_message(RND_MSG_WARNING, "Ignoring invalid layer flag combination for %s: boundary layer must be global\n(fixed up by removing location specifier bits)\n", src->name); } for(gid = 0, grp = pcb->LayerGroups.grp; gid < pcb->LayerGroups.len; gid++,grp++) if ((grp->ltype & lyt) == lyt) pcb_layer_resolve_best(pcb, grp, src, &best_score, &best); } return best; } pcb_layer_t *pcb_layer_new_bound(pcb_data_t *data, pcb_layer_type_t type, const char *name, const char *purpose) { pcb_layer_t *lay = &data->Layer[data->LayerN++]; memset(lay, 0, sizeof(pcb_layer_t)); lay->is_bound = 1; lay->name = rnd_strdup(name); lay->meta.bound.type = type; if (purpose == NULL) lay->meta.bound.purpose = NULL; else lay->meta.bound.purpose = rnd_strdup(purpose); lay->parent.data = data; lay->parent_type = PCB_PARENT_DATA; lay->type = PCB_OBJ_LAYER; return lay; } unsigned int pcb_layer_hash_bound(pcb_layer_t *ly, rnd_bool smirror) { unsigned int hash; pcb_layer_type_t lyt; int offs; assert(ly->is_bound); lyt = ly->meta.bound.type; offs = ly->meta.bound.stack_offs; if (smirror) { lyt = pcb_layer_mirror_type(lyt); offs = -offs; } hash = (unsigned long)arclist_length(&ly->Arc); hash ^= (unsigned long)linelist_length(&ly->Line); hash ^= (unsigned long)textlist_length(&ly->Text); hash ^= (unsigned long)polylist_length(&ly->Polygon); hash ^= (unsigned long)ly->comb ^ (unsigned long)lyt; if (ly->meta.bound.type & PCB_LYT_INTERN) hash ^= (unsigned int)offs; return hash; } pcb_layer_type_t pcb_layer_mirror_type(pcb_layer_type_t lyt) { if (lyt & PCB_LYT_TOP) return (lyt & ~PCB_LYT_TOP) | PCB_LYT_BOTTOM; else if (lyt & PCB_LYT_BOTTOM) return (lyt & ~PCB_LYT_BOTTOM) | PCB_LYT_TOP; return lyt; } int pcb_layer_type_map(pcb_layer_type_t type, void *ctx, void (*cb)(void *ctx, pcb_layer_type_t bit, const char *name, int class, const char *class_name)) { const pcb_layer_type_name_t *n; int found = 0; for(n = pcb_layer_type_names; n->name != NULL; n++) { if (type & n->type) { cb(ctx, n->type, n->name, n->class, pcb_layer_type_class_names[n->class]); found++; } } return found; } int pcb_layer_comb_map(pcb_layer_combining_t type, void *ctx, void (*cb)(void *ctx, pcb_layer_combining_t bit, const char *name)) { const pcb_layer_type_name_t *n; int found = 0; for(n = pcb_layer_comb_names; n->name != NULL; n++) { if (type & n->type) { cb(ctx, n->type, n->name); found++; } } return found; } pcb_layer_type_t pcb_layer_type_str2bit(const char *name) { const pcb_layer_type_name_t *n; for(n = pcb_layer_type_names; n->name != NULL; n++) if (strcmp(n->name, name) == 0) return n->type; return 0; } pcb_layer_type_t pcb_layer_type_strn2bit(const char *name, size_t len) { const pcb_layer_type_name_t *n; for(n = pcb_layer_type_names; n->name != NULL; n++) if ((strncmp(n->name, name, len) == 0) && (n->name[len] == '\0')) return n->type; return 0; } const char *pcb_layer_type_bit2str(pcb_layer_type_t type) { const pcb_layer_type_name_t *n; for(n = pcb_layer_type_names; n->name != NULL; n++) if (type & n->type) return n->name; return 0; } pcb_layer_combining_t pcb_layer_comb_str2bit(const char *name) { const pcb_layer_type_name_t *n; for(n = pcb_layer_comb_names; n->name != NULL; n++) if (strcmp(n->name, name) == 0) return n->type; return 0; } int pcb_layer_typecomb_str2bits(const char *str, pcb_layer_type_t *lyt, pcb_layer_combining_t *lyc, rnd_bool allow_implicit_lyc) { const char *curr, *next; int res = 0, got_lyc = 0; *lyt = 0; *lyc = 0; for(curr = str; curr != NULL; curr = next) { const pcb_layer_type_name_t *nc; const pcb_layer_type_name_t *nt; size_t len; while((*curr != '\0') && !isalnum(*curr)) curr++; if (*curr == '\0') break; for(next = curr; isalpha(*next); next++) ; len = next - curr; for(nt = pcb_layer_type_names; nt->name != NULL; nt++) { if (rnd_strncasecmp(nt->name, curr, len) == 0) { *lyt |= nt->type; goto done; } } for(nc = pcb_layer_comb_names; nc->name != NULL; nc++) { if (rnd_strncasecmp(nc->name, curr, len) == 0) { got_lyc = 1; *lyc |= nc->type; goto done; } } if ((rnd_strncasecmp("pos", curr, len) == 0) || (rnd_strncasecmp("add", curr, len) == 0)) { got_lyc = 1; *lyc &= ~PCB_LYC_SUB; goto done; } res = -1; /* not found in either */ done:; } if (allow_implicit_lyc && !got_lyc) { if (*lyt & PCB_LYT_MASK) *lyc = PCB_LYC_SUB | PCB_LYC_AUTO; if (*lyt & PCB_LYT_PASTE) *lyc = PCB_LYC_AUTO; } return res; } void pcb_layer_auto_fixup(pcb_board_t *pcb) { rnd_layer_id_t n; /* old silk layers are always auto */ for(n = 0; n < pcb->Data->LayerN; n++) { if (pcb_layer_flags(pcb, n) & PCB_LYT_SILK) pcb->Data->Layer[n].comb |= PCB_LYC_AUTO; if (pcb->Data->Layer[n].name == NULL) pcb->Data->Layer[n].name = rnd_strdup(""); } } int pcb_layer_gui_set_vlayer(pcb_board_t *pcb, pcb_virtual_layer_t vid, int is_empty, rnd_xform_t **xform) { pcb_virt_layer_t *v = &pcb_virt_layers[vid]; assert((vid >= 0) && (vid < PCB_VLY_end)); /* if there's no renderer, that means no draw should be done */ if (rnd_render == NULL) return 0; if (xform != NULL) *xform = NULL; TODO("layer: need to pass the flags of the group, not the flags of the layer once we have a group for each layer") if (rnd_render->set_layer_group != NULL) { rnd_layergrp_id_t grp; rnd_layer_id_t lid = v->new_id; grp = pcb_layer_get_group(pcb, lid); return rnd_render->set_layer_group(rnd_render, &pcb->hidlib, grp, v->purpose, v->purpi, lid, v->type, is_empty, xform); } /* if the GUI doesn't have a set_layer, assume it wants to draw all layers */ return 1; } int pcb_layer_gui_set_g_ui(pcb_layer_t *first, int is_empty, rnd_xform_t **xform) { /* if there's no renderer, that means no draw should be done */ if (rnd_render == NULL) return 0; if (xform != NULL) *xform = NULL; if (rnd_render->set_layer_group != NULL) return rnd_render->set_layer_group(rnd_render, NULL, -1, NULL, -1, pcb_layer_id(first->parent.data, first), PCB_LYT_VIRTUAL | PCB_LYT_UI, is_empty, xform); /* if the GUI doesn't have a set_layer, assume it wants to draw all layers */ return 1; } const pcb_menu_layers_t *pcb_menu_layer_find(const char *name_or_abbrev) { const pcb_menu_layers_t *ml; for(ml = pcb_menu_layers; ml->name != NULL; ml++) if (rnd_strcasecmp(name_or_abbrev, ml->abbrev) == 0) return ml; for(ml = pcb_menu_layers; ml->name != NULL; ml++) if (rnd_strcasecmp(name_or_abbrev, ml->name) == 0) return ml; return NULL; }