Cataclysm-DDA/src/cata_tiles.cpp

4897 lines
192 KiB
C++

#if defined(TILES)
#include "cata_tiles.h"
#include <algorithm>
#include <array>
#include <bitset>
#include <cmath>
#include <cstdint>
#include <iterator>
#include <set>
#include <stdexcept>
#include <tuple>
#include <unordered_set>
#include "action.h"
#include "avatar.h"
#include "cached_options.h"
#include "calendar.h"
#include "cata_assert.h"
#include "cata_utility.h"
#include "catacharset.h"
#include "character.h"
#include "character_id.h"
#include "clzones.h"
#include "color.h"
#include "creature_tracker.h"
#include "cursesdef.h"
#include "cursesport.h"
#include "debug.h"
#include "field.h"
#include "field_type.h"
#include "filesystem.h"
#include "game.h"
#include "game_constants.h"
#include "int_id.h"
#include "item.h"
#include "item_factory.h"
#include "itype.h"
#include "json.h"
#include "json_loader.h"
#include "map.h"
#include "map_extras.h"
#include "map_memory.h"
#include "mapdata.h"
#include "mod_tileset.h"
#include "monster.h"
#include "monstergenerator.h"
#include "mtype.h"
#include "npc.h"
#include "optional.h"
#include "output.h"
#include "overlay_ordering.h"
#include "path_info.h"
#include "pixel_minimap.h"
#include "rect_range.h"
#include "scent_map.h"
#include "sdl_utils.h"
#include "sdl_wrappers.h"
#include "sdltiles.h"
#include "sounds.h"
#include "string_formatter.h"
#include "string_id.h"
#include "submap.h"
#include "tileray.h"
#include "translations.h"
#include "trap.h"
#include "type_id.h"
#include "veh_type.h"
#include "vehicle.h"
#include "vpart_position.h"
#include "weather.h"
#include "weighted_list.h"
#define dbg(x) DebugLog((x),D_SDL) << __FILE__ << ":" << __LINE__ << ": "
static const efftype_id effect_ridden( "ridden" );
static const itype_id itype_corpse( "corpse" );
static const trait_id trait_INATTENTIVE( "INATTENTIVE" );
static const std::string ITEM_HIGHLIGHT( "highlight_item" );
static const std::string ZOMBIE_REVIVAL_INDICATOR( "zombie_revival_indicator" );
static const std::array<std::string, 8> multitile_keys = {{
"center",
"corner",
"edge",
"t_connection",
"end_piece",
"unconnected",
"open",
"broken"
}
};
static const std::string empty_string;
static const std::array<std::string, 15> TILE_CATEGORY_IDS = {{
"", // TILE_CATEGORY::NONE,
"vehicle_part", // TILE_CATEGORY::VEHICLE_PART,
"terrain", // TILE_CATEGORY::TERRAIN,
"item", // TILE_CATEGORY::ITEM,
"furniture", // TILE_CATEGORY::FURNITURE,
"trap", // TILE_CATEGORY::TRAP,
"field", // TILE_CATEGORY::FIELD,
"lighting", // TILE_CATEGORY::LIGHTING,
"monster", // TILE_CATEGORY::MONSTER,
"bullet", // TILE_CATEGORY::BULLET,
"hit_entity", // TILE_CATEGORY::HIT_ENTITY,
"weather", // TILE_CATEGORY::WEATHER,
"overmap_terrain", // TILE_CATEGORY::OVERMAP_TERRAIN
"map_extra", // TILE_CATEGORY::MAP_EXTRA
"overmap_note", // TILE_CATEGORY::OVERMAP_NOTE
}
};
static_assert( TILE_CATEGORY_IDS.size() == static_cast<size_t>( TILE_CATEGORY::last ),
"TILE_CATEGORY_IDS must match list of TILE_CATEGORY values" );
namespace
{
std::string get_ascii_tile_id( const uint32_t sym, const int FG, const int BG )
{
return std::string( { 'A', 'S', 'C', 'I', 'I', '_', static_cast<char>( sym ),
static_cast<char>( FG ), static_cast<char>( BG )
} );
}
pixel_minimap_mode pixel_minimap_mode_from_string( const std::string &mode )
{
if( mode == "solid" ) {
return pixel_minimap_mode::solid;
} else if( mode == "squares" ) {
return pixel_minimap_mode::squares;
} else if( mode == "dots" ) {
return pixel_minimap_mode::dots;
}
debugmsg( "Unsupported pixel minimap mode \"" + mode + "\"." );
return pixel_minimap_mode::solid;
}
} // namespace
static int msgtype_to_tilecolor( const game_message_type type, const bool bOldMsg )
{
const int iBold = bOldMsg ? 0 : 8;
switch( type ) {
case m_good:
return iBold + catacurses::green;
case m_bad:
return iBold + catacurses::red;
case m_mixed:
case m_headshot:
return iBold + catacurses::magenta;
case m_neutral:
return iBold + catacurses::white;
case m_warning:
case m_critical:
return iBold + catacurses::yellow;
case m_info:
case m_grazing:
return iBold + catacurses::blue;
default:
break;
}
return -1;
}
formatted_text::formatted_text( const std::string &text, const int color,
const direction text_direction )
: text( text ), color( color )
{
switch( text_direction ) {
case direction::NORTHWEST:
case direction::WEST:
case direction::SOUTHWEST:
alignment = text_alignment::right;
break;
case direction::NORTH:
case direction::CENTER:
case direction::SOUTH:
alignment = text_alignment::center;
break;
default:
alignment = text_alignment::left;
break;
}
}
cata_tiles::cata_tiles( const SDL_Renderer_Ptr &renderer, const GeometryRenderer_Ptr &geometry,
tileset_cache &cache ) :
renderer( renderer ),
geometry( geometry ),
cache( cache ),
minimap( renderer, geometry )
{
cata_assert( renderer );
tile_height = 0;
tile_width = 0;
tile_ratiox = 0;
tile_ratioy = 0;
in_animation = false;
do_draw_explosion = false;
do_draw_custom_explosion = false;
do_draw_bullet = false;
do_draw_hit = false;
do_draw_line = false;
do_draw_cursor = false;
do_draw_highlight = false;
do_draw_weather = false;
do_draw_sct = false;
do_draw_zones = false;
nv_goggles_activated = false;
on_options_changed();
}
cata_tiles::~cata_tiles() = default;
void cata_tiles::on_options_changed()
{
memory_map_mode = get_option <std::string>( "MEMORY_MAP_MODE" );
pixel_minimap_settings settings;
settings.mode =
pixel_minimap_mode_from_string( get_option<std::string>( "PIXEL_MINIMAP_MODE" ) );
settings.brightness = get_option<int>( "PIXEL_MINIMAP_BRIGHTNESS" );
settings.beacon_size = get_option<int>( "PIXEL_MINIMAP_BEACON_SIZE" );
settings.beacon_blink_interval = get_option<int>( "PIXEL_MINIMAP_BLINK" );
settings.square_pixels = get_option<bool>( "PIXEL_MINIMAP_RATIO" );
settings.scale_to_fit = get_option<bool>( "PIXEL_MINIMAP_SCALE_TO_FIT" );
minimap->set_settings( settings );
}
void tileset::clear()
{
tile_values.clear();
shadow_tile_values.clear();
night_tile_values.clear();
overexposed_tile_values.clear();
memory_tile_values.clear();
duplicate_ids.clear();
tile_ids.clear();
for( std::unordered_map<std::string, season_tile_value> &m : tile_ids_by_season ) {
m.clear();
}
item_layer_data.clear();
field_layer_data.clear();
}
const tile_type *tileset::find_tile_type( const std::string &id ) const
{
const auto iter = tile_ids.find( id );
return iter != tile_ids.end() ? &iter->second : nullptr;
}
cata::optional<tile_lookup_res>
tileset::find_tile_type_by_season( const std::string &id, season_type season ) const
{
cata_assert( season < season_type::NUM_SEASONS );
const auto iter = tile_ids_by_season[season].find( id );
if( iter == tile_ids_by_season[season].end() ) {
return cata::nullopt;
}
const tileset::season_tile_value &res = iter->second;
if( res.season_tile ) {
return *res.season_tile;
} else if( res.default_tile ) { // can skip this check, but just in case
return tile_lookup_res( iter->first, *res.default_tile );
}
debugmsg( "empty record found in `tile_ids_by_season` for key: %s", id );
return cata::nullopt;
}
tile_type &tileset::create_tile_type( const std::string &id, tile_type &&new_tile_type )
{
// Must overwrite existing tile
// TODO: c++17 - replace [] + find() with insert_or_assign()
tile_ids[id] = std::move( new_tile_type );
auto inserted = tile_ids.find( id );
const std::string &inserted_id = inserted->first;
tile_type &inserted_tile = inserted->second;
// populate cache by season
constexpr size_t suffix_len = 15;
// NOLINTNEXTLINE(cata-use-mdarray,modernize-avoid-c-arrays)
constexpr char season_suffix[NUM_SEASONS][suffix_len] = {
"_season_spring", "_season_summer", "_season_autumn", "_season_winter"
};
bool has_season_suffix = false;
for( int i = 0; i < NUM_SEASONS; i++ ) {
if( string_ends_with( id, season_suffix[i] ) ) {
has_season_suffix = true;
// key is id without _season suffix
season_tile_value &value = tile_ids_by_season[i][id.substr( 0,
id.size() - strlen( season_suffix[i] ) )];
// value stores reference to string id with _season suffix
value.season_tile = tile_lookup_res( inserted_id, inserted_tile );
break;
}
}
// tile doesn't have _season suffix, add it as "default" into all four seasons
if( !has_season_suffix ) {
for( auto &by_season_map : tile_ids_by_season ) {
by_season_map[id].default_tile = &inserted_tile;
}
}
return inserted_tile;
}
void cata_tiles::load_tileset( const std::string &tileset_id, const bool precheck,
const bool force, const bool pump_events )
{
if( tileset_ptr && tileset_ptr->get_tileset_id() == tileset_id && !force ) {
return;
}
// TODO: move into clear or somewhere else.
// reset the overlay ordering from the previous loaded tileset
tileset_mutation_overlay_ordering.clear();
tileset_ptr = cache.load_tileset( tileset_id, renderer, precheck, force, pump_events );
set_draw_scale( 16 );
}
void cata_tiles::reinit()
{
set_draw_scale( 16 );
RenderClear( renderer );
}
static void get_tile_information( const cata_path &config_path, std::string &json_path,
std::string &tileset_path, std::string &layering_path )
{
const std::string default_json = PATH_INFO::defaulttilejson();
const std::string default_tileset = PATH_INFO::defaulttilepng();
const std::string default_layering = PATH_INFO::defaultlayeringjson();
// Get JSON and TILESET vars from config
const auto reader = [&]( std::istream & fin ) {
while( !fin.eof() ) {
std::string sOption;
fin >> sOption;
if( string_starts_with( sOption, "JSON" ) ) {
fin >> json_path;
dbg( D_INFO ) << "JSON path set to [" << json_path << "].";
} else if( string_starts_with( sOption, "TILESET" ) ) {
fin >> tileset_path;
dbg( D_INFO ) << "TILESET path set to [" << tileset_path << "].";
} else if( string_starts_with( sOption, "LAYERING" ) ) {
fin >> layering_path;
dbg( D_INFO ) << "LAYERING path set to [" << layering_path << "].";
} else {
getline( fin, sOption );
}
}
};
if( !read_from_file( config_path, reader ) ) {
json_path = default_json;
tileset_path = default_tileset;
layering_path = default_layering;
}
if( json_path.empty() ) {
json_path = default_json;
dbg( D_INFO ) << "JSON set to default [" << json_path << "].";
}
if( tileset_path.empty() ) {
tileset_path = default_tileset;
dbg( D_INFO ) << "TILESET set to default [" << tileset_path << "].";
}
if( layering_path.empty() ) {
layering_path = default_layering;
dbg( D_INFO ) << "TILESET set to default [" << layering_path << "].";
}
}
template<typename PixelConverter>
static SDL_Surface_Ptr apply_color_filter( const SDL_Surface_Ptr &original,
PixelConverter pixel_converter )
{
cata_assert( original );
SDL_Surface_Ptr surf = create_surface_32( original->w, original->h );
cata_assert( surf );
throwErrorIf( SDL_BlitSurface( original.get(), nullptr, surf.get(), nullptr ) != 0,
"SDL_BlitSurface failed" );
SDL_Color *pix = static_cast<SDL_Color *>( surf->pixels );
for( int y = 0, ey = surf->h; y < ey; ++y ) {
for( int x = 0, ex = surf->w; x < ex; ++x, ++pix ) {
if( pix->a == 0x00 ) {
// This check significantly improves the performance since
// vast majority of pixels in the tilesets are completely transparent.
continue;
}
*pix = pixel_converter( *pix );
}
}
return surf;
}
static bool is_contained( const SDL_Rect &smaller, const SDL_Rect &larger )
{
return smaller.x >= larger.x &&
smaller.y >= larger.y &&
smaller.x + smaller.w <= larger.x + larger.w &&
smaller.y + smaller.h <= larger.y + larger.h;
}
void tileset_cache::loader::copy_surface_to_texture( const SDL_Surface_Ptr &surf,
const point &offset, std::vector<texture> &target )
{
cata_assert( surf );
const rect_range<SDL_Rect> input_range( sprite_width, sprite_height,
point( surf->w / sprite_width,
surf->h / sprite_height ) );
const std::shared_ptr<SDL_Texture> texture_ptr = CreateTextureFromSurface( renderer, surf );
cata_assert( texture_ptr );
for( const SDL_Rect rect : input_range ) {
cata_assert( offset.x % sprite_width == 0 );
cata_assert( offset.y % sprite_height == 0 );
const point pos( offset + point( rect.x, rect.y ) );
cata_assert( pos.x % sprite_width == 0 );
cata_assert( pos.y % sprite_height == 0 );
const size_t index = this->offset + ( pos.x / sprite_width ) + ( pos.y / sprite_height ) *
( tile_atlas_width / sprite_width );
cata_assert( index < target.size() );
cata_assert( target[index].dimension() == std::make_pair( 0, 0 ) );
target[index] = texture( texture_ptr, rect );
}
}
void tileset_cache::loader::create_textures_from_tile_atlas( const SDL_Surface_Ptr &tile_atlas,
const point &offset )
{
cata_assert( tile_atlas );
/** perform color filter conversion here */
using tiles_pixel_color_entry = std::tuple<std::vector<texture>*, std::string>;
std::array<tiles_pixel_color_entry, 5> tile_values_data = {{
{ std::make_tuple( &ts.tile_values, "color_pixel_none" ) },
{ std::make_tuple( &ts.shadow_tile_values, "color_pixel_grayscale" ) },
{ std::make_tuple( &ts.night_tile_values, "color_pixel_nightvision" ) },
{ std::make_tuple( &ts.overexposed_tile_values, "color_pixel_overexposed" ) },
{ std::make_tuple( &ts.memory_tile_values, tilecontext->memory_map_mode ) }
}
};
for( tiles_pixel_color_entry &entry : tile_values_data ) {
std::vector<texture> *tile_values = std::get<0>( entry );
color_pixel_function_pointer color_pixel_function = get_color_pixel_function( std::get<1>
( entry ) );
if( !color_pixel_function ) {
// TODO: Move it inside apply_color_filter.
copy_surface_to_texture( tile_atlas, offset, *tile_values );
} else {
copy_surface_to_texture( apply_color_filter( tile_atlas, color_pixel_function ), offset,
*tile_values );
}
}
}
template<typename T>
static void extend_vector_by( std::vector<T> &vec, const size_t additional_size )
{
vec.resize( vec.size() + additional_size );
}
void tileset_cache::loader::load_tileset( const cata_path &img_path, const bool pump_events )
{
cata_assert( sprite_width > 0 );
cata_assert( sprite_height > 0 );
const SDL_Surface_Ptr tile_atlas = load_image( img_path.get_unrelative_path().u8string().c_str() );
cata_assert( tile_atlas );
tile_atlas_width = tile_atlas->w;
if( R >= 0 && R <= 255 && G >= 0 && G <= 255 && B >= 0 && B <= 255 ) {
const Uint32 key = SDL_MapRGB( tile_atlas->format, 0, 0, 0 );
throwErrorIf( SDL_SetColorKey( tile_atlas.get(), SDL_TRUE, key ) != 0,
"SDL_SetColorKey failed" );
throwErrorIf( SDL_SetSurfaceRLE( tile_atlas.get(), 1 ), "SDL_SetSurfaceRLE failed" );
}
SDL_RendererInfo info;
throwErrorIf( SDL_GetRendererInfo( renderer.get(), &info ) != 0, "SDL_GetRendererInfo failed" );
// Software rendering stores textures as surfaces with run-length encoding, which makes
// extracting a part in the middle of the texture slow. Therefore this "simulates" that the
// renderer only supports one tile
// per texture. Each tile will go on its own texture object.
if( info.flags & SDL_RENDERER_SOFTWARE ) {
info.max_texture_width = sprite_width;
info.max_texture_height = sprite_height;
}
// for debugging only: force a very small maximal texture size, as to trigger
// splitting the tile atlas.
#if 0
// +1 to check correct rounding
info.max_texture_width = sprite_width * 10 + 1;
info.max_texture_height = sprite_height * 20 + 1;
#endif
const int min_tile_xcount = 128;
const int min_tile_ycount = min_tile_xcount * 2;
if( info.max_texture_width == 0 ) {
info.max_texture_width = sprite_width * min_tile_xcount;
DebugLog( D_INFO, DC_ALL ) << "SDL_RendererInfo max_texture_width was set to 0. " <<
" Changing it to " << info.max_texture_width;
} else {
throwErrorIf( info.max_texture_width < sprite_width,
"Maximal texture width is smaller than tile width" );
}
if( info.max_texture_height == 0 ) {
info.max_texture_height = sprite_height * min_tile_ycount;
DebugLog( D_INFO, DC_ALL ) << "SDL_RendererInfo max_texture_height was set to 0. " <<
" Changing it to " << info.max_texture_height;
} else {
throwErrorIf( info.max_texture_height < sprite_height,
"Maximal texture height is smaller than tile height" );
}
// Number of tiles in each dimension that fits into a (maximal) SDL texture.
// If the tile atlas contains more than that, we have to split it.
const int max_tile_xcount = info.max_texture_width / sprite_width;
const int max_tile_ycount = info.max_texture_height / sprite_height;
// Range over the tile atlas, wherein each rectangle fits into the maximal
// SDL texture size. In other words: a range over the parts into which the
// tile atlas needs to be split.
const rect_range<SDL_Rect> output_range(
max_tile_xcount * sprite_width,
max_tile_ycount * sprite_height,
point( divide_round_up( tile_atlas->w, info.max_texture_width ),
divide_round_up( tile_atlas->h, info.max_texture_height ) ) );
const int expected_tilecount = ( tile_atlas->w / sprite_width ) *
( tile_atlas->h / sprite_height );
extend_vector_by( ts.tile_values, expected_tilecount );
extend_vector_by( ts.shadow_tile_values, expected_tilecount );
extend_vector_by( ts.night_tile_values, expected_tilecount );
extend_vector_by( ts.overexposed_tile_values, expected_tilecount );
extend_vector_by( ts.memory_tile_values, expected_tilecount );
for( const SDL_Rect sub_rect : output_range ) {
cata_assert( sub_rect.x % sprite_width == 0 );
cata_assert( sub_rect.y % sprite_height == 0 );
cata_assert( sub_rect.w % sprite_width == 0 );
cata_assert( sub_rect.h % sprite_height == 0 );
SDL_Surface_Ptr smaller_surf;
if( is_contained( SDL_Rect{ 0, 0, tile_atlas->w, tile_atlas->h }, sub_rect ) ) {
// can use tile_atlas directly, it is completely contained in the output rectangle
} else {
// Need a temporary surface that contains the parts of the tile atlas that fit
// into sub_rect. But doesn't always need to be as large as sub_rect.
const int w = std::min( tile_atlas->w - sub_rect.x, sub_rect.w );
const int h = std::min( tile_atlas->h - sub_rect.y, sub_rect.h );
smaller_surf = ::create_surface_32( w, h );
cata_assert( smaller_surf );
const SDL_Rect inp{ sub_rect.x, sub_rect.y, w, h };
throwErrorIf( SDL_BlitSurface( tile_atlas.get(), &inp, smaller_surf.get(),
nullptr ) != 0, "SDL_BlitSurface failed" );
}
const SDL_Surface_Ptr &surf_to_use = smaller_surf ? smaller_surf : tile_atlas;
cata_assert( surf_to_use );
create_textures_from_tile_atlas( surf_to_use, point( sub_rect.x, sub_rect.y ) );
if( pump_events ) {
inp_mngr.pump_events();
}
}
size = expected_tilecount;
}
void cata_tiles::set_draw_scale( int scale )
{
cata_assert( tileset_ptr );
tile_width = tileset_ptr->get_tile_width() * tileset_ptr->get_tile_pixelscale() * scale / 16;
tile_height = tileset_ptr->get_tile_height() * tileset_ptr->get_tile_pixelscale() * scale / 16;
tile_ratiox = ( static_cast<float>( tile_width ) / static_cast<float>( fontwidth ) );
tile_ratioy = ( static_cast<float>( tile_height ) / static_cast<float>( fontheight ) );
}
void tileset_cache::loader::load( const std::string &tileset_id, const bool precheck,
const bool pump_events )
{
std::string json_conf;
std::string layering;
std::string tileset_path;
cata_path tileset_root;
bool has_layering = true;
const auto tset_iter = TILESETS.find( tileset_id );
if( tset_iter != TILESETS.end() ) {
tileset_root = tset_iter->second;
dbg( D_INFO ) << '"' << tileset_id << '"' << " tileset: found config file path: " <<
tileset_root;
get_tile_information( tileset_root / PATH_INFO::tileset_conf(),
json_conf, tileset_path, layering );
dbg( D_INFO ) << "Current tileset is: " << tileset_id;
} else {
dbg( D_ERROR ) << "Tileset \"" << tileset_id << "\" from options is invalid";
json_conf = PATH_INFO::defaulttilejson();
tileset_path = PATH_INFO::defaulttilepng();
layering = PATH_INFO::defaultlayeringjson();
}
cata_path json_path = tileset_root / fs::u8path( json_conf );
cata_path img_path = tileset_root / fs::u8path( tileset_path );
cata_path layering_path = tileset_root / fs::u8path( layering );
dbg( D_INFO ) << "Attempting to Load LAYERING file " << layering_path;
cata::ifstream layering_file( layering_path.get_unrelative_path(),
std::ifstream::in | std::ifstream::binary );
if( !layering_file.good() ) {
has_layering = false;
//throw std::runtime_error(std::string("Failed to open layering info json: ") + layering_path);
}
dbg( D_INFO ) << "Attempting to Load JSON file " << json_path;
cata::optional<JsonValue> config_json = json_loader::from_path_opt( json_path );
if( !config_json.has_value() ) {
throw std::runtime_error( std::string( "Failed to open tile info json: " ) +
json_path.generic_u8string() );
}
JsonObject config = ( *config_json ).get_object();
config.allow_omitted_members();
// "tile_info" section must exist.
if( !config.has_member( "tile_info" ) ) {
config.throw_error( "\"tile_info\" missing" );
}
for( const JsonObject curr_info : config.get_array( "tile_info" ) ) {
ts.tile_height = curr_info.get_int( "height" );
ts.tile_width = curr_info.get_int( "width" );
ts.tile_isometric = curr_info.get_bool( "iso", false );
ts.tile_pixelscale = curr_info.get_float( "pixelscale", 1.0f );
ts.retract_dist_min = curr_info.get_float( "retract_dist_min", -1.0f );
ts.retract_dist_max = curr_info.get_float( "retract_dist_max", 0.0f );
}
if( precheck ) {
config.allow_omitted_members();
return;
}
ts.clear();
// Load tile information if available.
offset = 0;
load_internal( config, tileset_root, img_path, pump_events );
// Load mod tilesets if available
for( const mod_tileset &mts : all_mod_tilesets ) {
// Set sprite_id offset to separate from other tilesets.
sprite_id_offset = offset;
tileset_root = mts.get_base_path();
json_path = mts.get_full_path();
if( !mts.is_compatible( tileset_id ) ) {
dbg( D_ERROR ) << "Mod tileset in \"" << json_path << "\" is not compatible with \""
<< tileset_id << "\".";
continue;
}
dbg( D_INFO ) << "Attempting to Load JSON file " << json_path;
cata::optional<JsonValue> mod_config_json_opt = json_loader::from_path_opt( json_path );
if( !mod_config_json_opt.has_value() ) {
throw std::runtime_error( std::string( "Failed to open tile info json: " ) +
json_path.generic_u8string() );
}
JsonValue &mod_config_json = *mod_config_json_opt;
const auto mark_visited = []( const JsonObject & jobj ) {
// These fields have been visited in load_mod_tileset
jobj.get_string_array( "compatibility" );
};
int num_in_file = 1;
if( mod_config_json.test_array() ) {
for( const JsonObject mod_config : mod_config_json.get_array() ) {
if( mod_config.get_string( "type" ) == "mod_tileset" ) {
mark_visited( mod_config );
if( num_in_file == mts.num_in_file() ) {
// visit this if it exists, it's used elsewhere
if( mod_config.has_member( "compatibility" ) ) {
mod_config.get_member( "compatibility" );
}
load_internal( mod_config, tileset_root, img_path, pump_events );
break;
}
num_in_file++;
}
}
} else {
JsonObject mod_config = mod_config_json.get_object();
mark_visited( mod_config );
load_internal( mod_config, tileset_root, img_path, pump_events );
}
}
// loop through all tile ids and eliminate empty/invalid things
for( auto it = ts.tile_ids.begin(); it != ts.tile_ids.end(); ) {
// second is the tile_type describing that id
tile_type &td = it->second;
process_variations_after_loading( td.fg );
process_variations_after_loading( td.bg );
// All tiles need at least foreground or background data, otherwise they are useless.
if( td.bg.empty() && td.fg.empty() ) {
dbg( D_ERROR ) << "tile " << it->first << " has no (valid) foreground nor background";
ts.tile_ids.erase( it++ );
} else {
++it;
}
}
if( !ts.find_tile_type( "unknown" ) ) {
dbg( D_ERROR ) << "The tileset you're using has no 'unknown' tile defined!";
}
ensure_default_item_highlight();
ts.tileset_id = tileset_id;
// set up layering data
if( has_layering ) {
JsonValue layering_json = json_loader::from_path( layering_path );
JsonObject layer_config = layering_json.get_object();
layer_config.allow_omitted_members();
// "variants" section must exist.
if( !layer_config.has_member( "variants" ) ) {
layer_config.throw_error( "\"variants\" missing" );
}
load_layers( layer_config );
}
}
void tileset_cache::loader::load_internal( const JsonObject &config,
const cata_path &tileset_root,
const cata_path &img_path, const bool pump_events )
{
if( config.has_array( "tiles-new" ) ) {
// new system, several entries
// When loading multiple tileset images this defines where
// the tiles from the most recently loaded image start from.
for( const JsonObject tile_part_def : config.get_array( "tiles-new" ) ) {
const cata_path tileset_image_path = tileset_root / tile_part_def.get_string( "file" );
R = -1;
G = -1;
B = -1;
if( tile_part_def.has_object( "transparency" ) ) {
JsonObject tra = tile_part_def.get_object( "transparency" );
R = tra.get_int( "R" );
G = tra.get_int( "G" );
B = tra.get_int( "B" );
}
sprite_width = tile_part_def.get_int( "sprite_width", ts.tile_width );
sprite_height = tile_part_def.get_int( "sprite_height", ts.tile_height );
// Now load the tile definitions for the loaded tileset image.
sprite_offset.x = tile_part_def.get_int( "sprite_offset_x", 0 );
sprite_offset.y = tile_part_def.get_int( "sprite_offset_y", 0 );
sprite_offset_retracted.x = tile_part_def.get_int( "sprite_offset_x_retracted", sprite_offset.x );
sprite_offset_retracted.y = tile_part_def.get_int( "sprite_offset_y_retracted", sprite_offset.y );
sprite_pixelscale = tile_part_def.get_float( "pixelscale", 1.0 );
// First load the tileset image to get the number of available tiles.
dbg( D_INFO ) << "Attempting to Load Tileset file " << tileset_image_path;
load_tileset( tileset_image_path, pump_events );
load_tilejson_from_file( tile_part_def );
if( tile_part_def.has_member( "ascii" ) ) {
load_ascii( tile_part_def );
}
// Make sure the tile definitions of the next tileset image don't
// override the current ones.
offset += size;
if( pump_events ) {
inp_mngr.pump_events();
}
}
} else {
sprite_width = ts.tile_width;
sprite_height = ts.tile_height;
sprite_offset = point_zero;
sprite_offset_retracted = point_zero;
sprite_pixelscale = 1.0;
R = -1;
G = -1;
B = -1;
// old system, no tile file path entry, only one array of tiles
dbg( D_INFO ) << "Attempting to Load Tileset file " << img_path;
load_tileset( img_path, pump_events );
load_tilejson_from_file( config );
offset = size;
}
// allows a tileset to override the order of mutation images being applied to a character
if( config.has_array( "overlay_ordering" ) ) {
load_overlay_ordering_into_array( config, tileset_mutation_overlay_ordering );
}
// offset should be the total number of sprites loaded from every tileset image
// eliminate any sprite references that are too high to exist
// also eliminate negative sprite references
}
void tileset_cache::loader::load_layers( const JsonObject &config )
{
for( const JsonObject item : config.get_array( "variants" ) ) {
if( item.has_member( "context" ) && ( item.has_array( "item_variants" ) ||
item.has_array( "field_variants" ) ) ) {
std::string context;
context = item.get_string( "context" );
std::vector<layer_variant> item_variants;
std::vector<layer_variant> field_variants;
if( item.has_array( "item_variants" ) ) {
for( const JsonObject vars : item.get_array( "item_variants" ) ) {
if( vars.has_member( "item" ) && vars.has_array( "sprite" ) && vars.has_member( "layer" ) ) {
layer_variant v;
v.id = vars.get_string( "item" );
v.layer = vars.get_int( "layer" );
v.offset = point( vars.get_int( "offset_x", 0 ), vars.get_int( "offset_y", 0 ) );
int total_weight = 0;
for( const JsonObject sprites : vars.get_array( "sprite" ) ) {
std::string id = sprites.get_string( "id" );
int weight = sprites.get_int( "weight", 1 );
v.sprite.emplace( id, weight );
total_weight += weight;
}
v.total_weight = total_weight;
item_variants.push_back( v );
} else {
config.throw_error( "item_variants configured incorrectly" );
}
}
// sort them based on layering so we can draw them correctly
std::sort( item_variants.begin(), item_variants.end(), []( const layer_variant & a,
const layer_variant & b ) {
return a.layer < b.layer;
} );
ts.item_layer_data.emplace( context, item_variants );
}
if( item.has_array( "field_variants" ) ) {
for( const JsonObject vars : item.get_array( "field_variants" ) ) {
if( vars.has_member( "field" ) && vars.has_array( "sprite" ) ) {
layer_variant v;
v.id = vars.get_string( "field" );
v.offset = point( vars.get_int( "offset_x", 0 ), vars.get_int( "offset_y", 0 ) );
int total_weight = 0;
for( const JsonObject sprites : vars.get_array( "sprite" ) ) {
std::string id = sprites.get_string( "id" );
int weight = sprites.get_int( "weight", 1 );
v.sprite.emplace( id, weight );
total_weight += weight;
}
v.total_weight = total_weight;
field_variants.push_back( v );
} else {
config.throw_error( "field_variants configured incorrectly" );
}
}
ts.field_layer_data.emplace( context, field_variants );
}
} else {
config.throw_error( "layering configured incorrectly" );
}
}
}
void tileset_cache::loader::process_variations_after_loading(
weighted_int_list<std::vector<int>> &vs ) const
{
// loop through all of the variations
for( auto &v : vs ) {
// in a given variation, erase any invalid sprite ids
v.obj.erase(
std::remove_if(
v.obj.begin(),
v.obj.end(),
[&]( int id ) {
return id >= offset || id < 0;
} ),
v.obj.end()
);
}
// erase any variations with no valid sprite ids left
vs.erase(
std::remove_if(
vs.begin(),
vs.end(),
[&]( const weighted_object<int, std::vector<int>> &o ) {
return o.obj.empty();
}
),
vs.end()
);
// populate the bookkeeping table used for selecting sprite variations
vs.precalc();
}
void tileset_cache::loader::add_ascii_subtile( tile_type &curr_tile, const std::string &t_id,
int sprite_id, const std::string &s_id )
{
const std::string m_id = t_id + "_" + s_id;
tile_type curr_subtile;
curr_subtile.fg.add( std::vector<int>( {sprite_id} ), 1 );
curr_subtile.rotates = true;
curr_tile.available_subtiles.push_back( s_id );
ts.create_tile_type( m_id, std::move( curr_subtile ) );
}
void tileset_cache::loader::load_ascii( const JsonObject &config )
{
if( !config.has_member( "ascii" ) ) {
config.throw_error( "\"ascii\" section missing" );
}
for( const JsonObject entry : config.get_array( "ascii" ) ) {
load_ascii_set( entry );
}
}
void tileset_cache::loader::load_ascii_set( const JsonObject &entry )
{
// tile for ASCII char 0 is at `in_image_offset`,
// the other ASCII chars follow from there.
const int in_image_offset = entry.get_int( "offset" );
if( in_image_offset >= size ) {
entry.throw_error_at( "offset", "invalid offset (out of range)" );
}
// color, of the ASCII char. Can be -1 to indicate all/default colors.
int FG = -1;
const std::string scolor = entry.get_string( "color", "DEFAULT" );
if( scolor == "BLACK" ) {
FG = catacurses::black;
} else if( scolor == "RED" ) {
FG = catacurses::red;
} else if( scolor == "GREEN" ) {
FG = catacurses::green;
} else if( scolor == "YELLOW" ) {
FG = catacurses::yellow;
} else if( scolor == "BLUE" ) {
FG = catacurses::blue;
} else if( scolor == "MAGENTA" ) {
FG = catacurses::magenta;
} else if( scolor == "CYAN" ) {
FG = catacurses::cyan;
} else if( scolor == "WHITE" ) {
FG = catacurses::white;
} else if( scolor == "DEFAULT" ) {
FG = -1;
} else {
entry.throw_error_at( "color", "invalid color for ASCII" );
}
// Add an offset for bold colors (ncurses has this bold attribute,
// this mimics it). bold does not apply to default color.
if( FG != -1 && entry.get_bool( "bold", false ) ) {
FG += 8;
}
const int base_offset = offset + in_image_offset;
// Finally load all 256 ASCII chars (actually extended ASCII)
for( int ascii_char = 0; ascii_char < 256; ascii_char++ ) {
const int index_in_image = ascii_char + in_image_offset;
if( index_in_image < 0 || index_in_image >= size ) {
// Out of range is ignored for now.
continue;
}
const std::string id = get_ascii_tile_id( ascii_char, FG, -1 );
tile_type curr_tile;
curr_tile.offset = sprite_offset;
curr_tile.offset_retracted = sprite_offset_retracted;
curr_tile.pixelscale = sprite_pixelscale;
auto &sprites = *curr_tile.fg.add( std::vector<int>( {index_in_image + offset} ), 1 );
switch( ascii_char ) {
// box bottom/top side (horizontal line)
case LINE_OXOX_C:
sprites[0] = 205 + base_offset;
break;
// box left/right side (vertical line)
case LINE_XOXO_C:
sprites[0] = 186 + base_offset;
break;
// box top left
case LINE_OXXO_C:
sprites[0] = 201 + base_offset;
break;
// box top right
case LINE_OOXX_C:
sprites[0] = 187 + base_offset;
break;
// box bottom right
case LINE_XOOX_C:
sprites[0] = 188 + base_offset;
break;
// box bottom left
case LINE_XXOO_C:
sprites[0] = 200 + base_offset;
break;
// box bottom north T (left, right, up)
case LINE_XXOX_C:
sprites[0] = 202 + base_offset;
break;
// box bottom east T (up, right, down)
case LINE_XXXO_C:
sprites[0] = 208 + base_offset;
break;
// box bottom south T (left, right, down)
case LINE_OXXX_C:
sprites[0] = 203 + base_offset;
break;
// box X (left down up right)
case LINE_XXXX_C:
sprites[0] = 206 + base_offset;
break;
// box bottom east T (left, down, up)
case LINE_XOXX_C:
sprites[0] = 184 + base_offset;
break;
}
if( ascii_char == LINE_XOXO_C || ascii_char == LINE_OXOX_C ) {
curr_tile.rotates = false;
curr_tile.multitile = true;
add_ascii_subtile( curr_tile, id, 206 + base_offset, "center" );
add_ascii_subtile( curr_tile, id, 201 + base_offset, "corner" );
add_ascii_subtile( curr_tile, id, 186 + base_offset, "edge" );
add_ascii_subtile( curr_tile, id, 203 + base_offset, "t_connection" );
add_ascii_subtile( curr_tile, id, 210 + base_offset, "end_piece" );
add_ascii_subtile( curr_tile, id, 219 + base_offset, "unconnected" );
}
ts.create_tile_type( id, std::move( curr_tile ) );
}
}
void tileset_cache::loader::load_tilejson_from_file( const JsonObject &config )
{
if( !config.has_member( "tiles" ) ) {
config.throw_error( "\"tiles\" section missing" );
}
for( const JsonObject entry : config.get_array( "tiles" ) ) {
std::vector<std::string> ids;
if( entry.has_string( "id" ) ) {
ids.push_back( entry.get_string( "id" ) );
} else if( entry.has_array( "id" ) ) {
ids = entry.get_string_array( "id" );
}
for( const std::string &t_id : ids ) {
tile_type &curr_tile = load_tile( entry, t_id );
curr_tile.offset = sprite_offset;
curr_tile.offset_retracted = sprite_offset_retracted;
curr_tile.pixelscale = sprite_pixelscale;
bool t_multi = entry.get_bool( "multitile", false );
bool t_rota = entry.get_bool( "rotates", t_multi );
int t_h3d = entry.get_int( "height_3d", 0 );
if( t_multi ) {
// fetch additional tiles
for( const JsonObject subentry : entry.get_array( "additional_tiles" ) ) {
const std::string s_id = subentry.get_string( "id" );
const std::string m_id = str_cat( t_id, "_", s_id );
tile_type &curr_subtile = load_tile( subentry, m_id );
curr_subtile.offset = sprite_offset;
curr_subtile.offset_retracted = sprite_offset_retracted;
curr_subtile.pixelscale = sprite_pixelscale;
curr_subtile.rotates = true;
curr_subtile.height_3d = t_h3d;
curr_subtile.animated = subentry.get_bool( "animated", false );
curr_tile.available_subtiles.push_back( s_id );
}
} else if( entry.has_array( "additional_tiles" ) ) {
try {
entry.throw_error( "Additional tiles defined, but 'multitile' is not true." );
} catch( const JsonError &err ) {
debugmsg( "(json-error)\n%s", err.what() );
}
}
// write the information of the base tile to curr_tile
curr_tile.multitile = t_multi;
curr_tile.rotates = t_rota;
curr_tile.height_3d = t_h3d;
curr_tile.animated = entry.get_bool( "animated", false );
}
}
dbg( D_INFO ) << "Tile Width: " << ts.tile_width << " Tile Height: " << ts.tile_height <<
" Tile Definitions: " << ts.tile_ids.size();
}
/**
* Load a tile definition and add it to the @ref tileset::tile_ids map.
* All loaded tiles go into one vector (@ref tileset::tile_values), their index in it is their id.
* The JSON data (loaded here) contains tile ids relative to the associated image.
* They are translated into global ids by adding the @p offset, which is the number of
* previously loaded tiles (excluding the tiles from the associated image).
* @param id The id of the new tile definition (which is the key in @ref tileset::tile_ids).
* Any existing definition of the same id is overridden.
* @return A reference to the loaded tile inside the @ref tileset::tile_ids map.
*/
tile_type &tileset_cache::loader::load_tile( const JsonObject &entry, const std::string &id )
{
if( ts.find_tile_type( id ) ) {
ts.duplicate_ids.insert( id );
}
tile_type curr_subtile;
load_tile_spritelists( entry, curr_subtile.fg, "fg" );
load_tile_spritelists( entry, curr_subtile.bg, "bg" );
return ts.create_tile_type( id, std::move( curr_subtile ) );
}
void tileset_cache::loader::load_tile_spritelists( const JsonObject &entry,
weighted_int_list<std::vector<int>> &vs,
const std::string &objname ) const
{
// json array indicates rotations or variations
if( entry.has_array( objname ) ) {
JsonArray g_array = entry.get_array( objname );
// int elements of array indicates rotations
// create one variation, populate sprite_ids with list of ints
if( g_array.test_int() ) {
std::vector<int> v;
for( const int entry : g_array ) {
const int sprite_id = entry + sprite_id_offset;
if( sprite_id >= 0 ) {
v.push_back( sprite_id );
}
}
vs.add( v, 1 );
}
// object elements of array indicates variations
// create one variation per object
else if( g_array.test_object() ) {
for( const JsonObject vo : g_array ) {
std::vector<int> v;
int weight = vo.get_int( "weight" );
// negative weight is invalid
if( weight < 0 ) {
vo.throw_error_at( objname, "Invalid weight for sprite variation (<0)" );
}
// int sprite means one sprite
if( vo.has_int( "sprite" ) ) {
const int sprite_id = vo.get_int( "sprite" ) + sprite_id_offset;
if( sprite_id >= 0 ) {
v.push_back( sprite_id );
}
}
// array sprite means rotations
else if( vo.has_array( "sprite" ) ) {
for( const int entry : vo.get_array( "sprite" ) ) {
const int sprite_id = entry + sprite_id_offset;
if( sprite_id >= 0 ) {
v.push_back( sprite_id );
}
}
}
if( v.size() != 1 &&
v.size() != 2 &&
v.size() != 4 ) {
vo.throw_error_at( objname, "Invalid number of sprites (not 1, 2, or 4)" );
}
vs.add( v, weight );
}
}
}
// json int indicates a single sprite id
else if( entry.has_int( objname ) && entry.get_int( objname ) >= 0 ) {
vs.add( std::vector<int>( {entry.get_int( objname ) + sprite_id_offset} ), 1 );
}
}
struct tile_render_info {
const tripoint pos{};
// accumulator for 3d tallness of sprites rendered here so far;
int height_3d = 0;
lit_level ll;
std::array<bool, 5> invisible;
tile_render_info( const tripoint &pos, const int height_3d, const lit_level ll,
const std::array<bool, 5> &inv )
: pos( pos ), height_3d( height_3d ), ll( ll ), invisible( inv ) {
}
};
static std::map<tripoint, int> display_npc_attack_potential()
{
avatar &you = get_avatar();
npc avatar_as_npc;
std::ostringstream os;
JsonOut jsout( os );
jsout.write( you );
JsonValue jsin = json_loader::from_string( os.str() );
jsin.read( avatar_as_npc );
avatar_as_npc.regen_ai_cache();
avatar_as_npc.evaluate_best_weapon( nullptr );
std::map<tripoint, int> effectiveness_map;
std::vector<npc_attack_rating> effectiveness =
avatar_as_npc.get_current_attack()->all_evaluations( avatar_as_npc, nullptr );
for( const npc_attack_rating &effectiveness_at_point : effectiveness ) {
if( !effectiveness_at_point.value() ) {
continue;
}
effectiveness_map[effectiveness_at_point.target()] = *effectiveness_at_point.value();
}
return effectiveness_map;
}
void cata_tiles::draw( const point &dest, const tripoint &center, int width, int height,
std::multimap<point, formatted_text> &overlay_strings,
color_block_overlay_container &color_blocks )
{
if( !g ) {
return;
}
#if defined(__ANDROID__)
// Attempted bugfix for Google Play crash - prevent divide-by-zero if no tile
// width/height specified
if( tile_width == 0 || tile_height == 0 ) {
return;
}
#endif
{
//set clipping to prevent drawing over stuff we shouldn't
SDL_Rect clipRect = {dest.x, dest.y, width, height};
printErrorIf( SDL_RenderSetClipRect( renderer.get(), &clipRect ) != 0,
"SDL_RenderSetClipRect failed" );
//fill render area with black to prevent artifacts where no new pixels are drawn
geometry->rect( renderer, clipRect, SDL_Color() );
}
point s;
get_window_tile_counts( width, height, s.x, s.y );
init_light();
map &here = get_map();
const visibility_variables &cache = here.get_visibility_variables_cache();
o = is_isometric() ? center.xy() : center.xy() - point( POSX, POSY );
op = dest;
// Rounding up to include incomplete tiles at the bottom/right edges
screentile_width = divide_round_up( width, tile_width );
screentile_height = divide_round_up( height, tile_height );
const int min_col = 0;
const int max_col = s.x;
const int min_row = 0;
const int max_row = s.y;
avatar &you = get_avatar();
//limit the render area to maximum view range (121x121 square centered on player)
const point min_visible( you.posx() % SEEX, you.posy() % SEEY );
const point max_visible( ( you.posx() % SEEX ) + ( MAPSIZE - 1 ) * SEEX,
( you.posy() % SEEY ) + ( MAPSIZE - 1 ) * SEEY );
const level_cache &ch = here.access_cache( center.z );
// Map memory should be at least the size of the view range
// so that new tiles can be memorized, and at least the size of the display
// since at farthest zoom displayed area may be bigger than view range.
const point min_mm_reg = point(
std::min( o.x, min_visible.x ),
std::min( o.y, min_visible.y )
);
const point max_mm_reg = point(
std::max( s.x + o.x, max_visible.x ),
std::max( s.y + o.y, max_visible.y )
);
you.prepare_map_memory_region(
here.getabs( tripoint( min_mm_reg, center.z ) ),
here.getabs( tripoint( max_mm_reg, center.z ) )
);
//set up a default tile for the edges outside the render area
visibility_type offscreen_type = visibility_type::DARK;
if( cache.u_is_boomered ) {
offscreen_type = visibility_type::BOOMER_DARK;
}
//retrieve night vision goggle status once per draw
auto vision_cache = you.get_vision_modes();
nv_goggles_activated = vision_cache[NV_GOGGLES];
// check that the creature for which we'll draw the visibility map is still alive at that point
if( g->display_overlay_state( ACTION_DISPLAY_VISIBILITY ) &&
g->displaying_visibility_creature ) {
const Creature *creature = g->displaying_visibility_creature;
const auto is_same_creature_predicate = [&creature]( const Creature & c ) {
return creature == &c;
};
if( g->get_creature_if( is_same_creature_predicate ) == nullptr ) {
g->displaying_visibility_creature = nullptr;
}
}
const point half_tile( tile_width / 2, 0 );
const point quarter_tile( tile_width / 4, tile_height / 4 );
if( g->display_overlay_state( ACTION_DISPLAY_VEHICLE_AI ) ) {
for( const wrapped_vehicle &elem : here.get_vehicles() ) {
const vehicle &veh = *elem.v;
const point veh_pos = veh.global_pos3().xy();
for( const auto &overlay_data : veh.get_debug_overlay_data() ) {
const point pt = veh_pos + std::get<0>( overlay_data );
const int color = std::get<1>( overlay_data );
const std::string &text = std::get<2>( overlay_data );
overlay_strings.emplace( player_to_screen( pt ),
formatted_text( text, color,
text_alignment::left ) );
}
}
}
const auto apply_visible = [&]( const tripoint & np, const level_cache & ch, map & here ) {
return np.y < min_visible.y || np.y > max_visible.y ||
np.x < min_visible.x || np.x > max_visible.x ||
would_apply_vision_effects( here.get_visibility( ch.visibility_cache[np.x][np.y],
cache ) );
};
std::map<tripoint, int> npc_attack_rating_map;
int max_npc_effectiveness = 0;
if( g->display_overlay_state( ACTION_DISPLAY_NPC_ATTACK_POTENTIAL ) ) {
npc_attack_rating_map = display_npc_attack_potential();
for( const std::pair<const tripoint, int> &pair : npc_attack_rating_map ) {
max_npc_effectiveness = std::max( pair.second, max_npc_effectiveness );
}
}
creature_tracker &creatures = get_creature_tracker();
for( int row = min_row; row < max_row; row ++ ) {
std::vector<tile_render_info> draw_points;
draw_points.reserve( max_col );
for( int col = min_col; col < max_col; col ++ ) {
point temp;
if( is_isometric() ) {
// in isometric, rows and columns represent a checkerboard screen space,
// and we place the appropriate tile in valid squares by getting position
// relative to the screen center.
if( modulo( row - s.y / 2, 2 ) != modulo( col - s.x / 2, 2 ) ) {
continue;
}
temp.x = divide_round_down( col - row - s.x / 2 + s.y / 2, 2 ) + o.x;
temp.y = divide_round_down( row + col - s.y / 2 - s.x / 2, 2 ) + o.y;
} else {
temp.x = col + o.x;
temp.y = row + o.y;
}
const tripoint pos( temp, center.z );
const int &x = pos.x;
const int &y = pos.y;
lit_level ll;
// invisible to normal eyes
std::array<bool, 5> invisible;
invisible[0] = false;
if( y < min_visible.y || y > max_visible.y || x < min_visible.x || x > max_visible.x ) {
if( has_memory_at( pos ) ) {
ll = lit_level::MEMORIZED;
invisible[0] = true;
} else if( has_draw_override( pos ) ) {
ll = lit_level::DARK;
invisible[0] = true;
} else {
apply_vision_effects( pos, offscreen_type );
continue;
}
} else {
ll = ch.visibility_cache[x][y];
}
// Add scent value to the overlay_strings list for every visible tile when
// displaying scent
if( g->display_overlay_state( ACTION_DISPLAY_SCENT ) && !invisible[0] ) {
const int scent_value = get_scent().get( pos );
if( scent_value > 0 ) {
overlay_strings.emplace( player_to_screen( point( x, y ) ) + half_tile,
formatted_text( std::to_string( scent_value ),
8 + catacurses::yellow, direction::NORTH ) );
}
}
// Add scent type to the overlay_strings list for every visible tile when
// displaying scent
if( g->display_overlay_state( ACTION_DISPLAY_SCENT_TYPE ) && !invisible[0] ) {
const scenttype_id scent_type = get_scent().get_type( pos );
if( !scent_type.is_empty() ) {
overlay_strings.emplace( player_to_screen( point( x, y ) ) + half_tile,
formatted_text( scent_type.c_str(),
8 + catacurses::yellow, direction::NORTH ) );
}
}
if( g->display_overlay_state( ACTION_DISPLAY_RADIATION ) ) {
const auto rad_override = radiation_override.find( pos );
const bool rad_overridden = rad_override != radiation_override.end();
if( rad_overridden || !invisible[0] ) {
const int rad_value = rad_overridden ? rad_override->second :
here.get_radiation( pos );
catacurses::base_color col;
if( rad_value > 0 ) {
col = catacurses::green;
} else {
col = catacurses::cyan;
}
overlay_strings.emplace( player_to_screen( point( x, y ) ) + half_tile,
formatted_text( std::to_string( rad_value ),
8 + col, direction::NORTH ) );
}
}
if( g->display_overlay_state( ACTION_DISPLAY_NPC_ATTACK_POTENTIAL ) ) {
if( npc_attack_rating_map.count( pos ) ) {
const int val = npc_attack_rating_map.at( pos );
short color;
if( val <= 0 ) {
color = catacurses::red;
} else if( val == max_npc_effectiveness ) {
color = catacurses::cyan;
} else {
color = catacurses::white;
}
overlay_strings.emplace( player_to_screen( point( x, y ) ) + half_tile,
formatted_text( std::to_string( val ), color,
direction::NORTH ) );
}
}
// Add temperature value to the overlay_strings list for every visible tile when
// displaying temperature
if( g->display_overlay_state( ACTION_DISPLAY_TEMPERATURE ) && !invisible[0] ) {
units::temperature temp_value = get_weather().get_temperature( pos );
short color;
const short bold = 8;
if( temp_value > units::from_celsius( 40 ) ) {
color = catacurses::red;
} else if( temp_value > units::from_celsius( 25 ) ) {
color = catacurses::yellow + bold;
} else if( temp_value > units::from_celsius( 10 ) ) {
color = catacurses::green + bold;
} else if( temp_value > units::from_celsius( 0 ) ) {
color = catacurses::white + bold;
} else if( temp_value > units::from_celsius( -10 ) ) {
color = catacurses::cyan + bold;
} else {
color = catacurses::blue + bold;
}
std::string temp_str;
if( get_option<std::string>( "USE_CELSIUS" ) == "celsius" ) {
temp_str = std::to_string( units::to_celsius( temp_value ) );
} else if( get_option<std::string>( "USE_CELSIUS" ) == "kelvin" ) {
temp_str = std::to_string( units::to_kelvin( temp_value ) );
}
overlay_strings.emplace( player_to_screen( point( x, y ) ) + half_tile,
formatted_text( temp_str, color,
direction::NORTH ) );
}
if( g->display_overlay_state( ACTION_DISPLAY_VISIBILITY ) &&
g->displaying_visibility_creature && !invisible[0] ) {
const bool visibility = g->displaying_visibility_creature->sees( pos );
// color overlay.
SDL_Color block_color = visibility ? windowsPalette[catacurses::green] :
SDL_Color{ 192, 192, 192, 255 };
block_color.a = 100;
color_blocks.first = SDL_BLENDMODE_BLEND;
color_blocks.second.emplace( player_to_screen( point( x, y ) ), block_color );
// overlay string
std::string visibility_str = visibility ? "+" : "-";
overlay_strings.emplace( player_to_screen( point( x, y ) ) + quarter_tile,
formatted_text( visibility_str, catacurses::black,
direction::NORTH ) );
}
static std::vector<SDL_Color> lighting_colors;
// color hue in the range of [0..10], 0 being white, 10 being blue
auto draw_debug_tile = [&]( const int color_hue, const std::string & text ) {
if( lighting_colors.empty() ) {
SDL_Color white = { 255, 255, 255, 255 };
SDL_Color blue = { 0, 0, 255, 255 };
lighting_colors = color_linear_interpolate( white, blue, 9 );
}
point tile_pos = player_to_screen( point( x, y ) );
// color overlay
SDL_Color color = lighting_colors[std::min( std::max( 0, color_hue ), 10 )];
color.a = 100;
color_blocks.first = SDL_BLENDMODE_BLEND;
color_blocks.second.emplace( tile_pos, color );
// string overlay
overlay_strings.emplace(
tile_pos + quarter_tile,
formatted_text( text, catacurses::black, direction::NORTH ) );
};
if( g->display_overlay_state( ACTION_DISPLAY_LIGHTING ) ) {
if( g->displaying_lighting_condition == 0 ) {
const float light = here.ambient_light_at( {x, y, center.z} );
// note: lighting will be constrained in the [1.0, 11.0] range.
int intensity =
static_cast<int>( std::max( 1.0, LIGHT_AMBIENT_LIT - light + 1.0 ) ) - 1;
draw_debug_tile( intensity, string_format( "%.1f", light ) );
}
}
if( g->display_overlay_state( ACTION_DISPLAY_TRANSPARENCY ) ) {
const float tr = here.light_transparency( {x, y, center.z} );
int intensity = tr <= LIGHT_TRANSPARENCY_SOLID ? 10 : static_cast<int>
( ( tr - LIGHT_TRANSPARENCY_OPEN_AIR ) * 8 );
draw_debug_tile( intensity, string_format( "%.2f", tr ) );
}
if( g->display_overlay_state( ACTION_DISPLAY_REACHABILITY_ZONES ) ) {
tripoint tile_pos( x, y, center.z );
int value = here.reachability_cache_value( tile_pos,
g->debug_rz_display.r_cache_vertical, g->debug_rz_display.quadrant );
// use color to denote reachability from you to the target tile according to the
// cache
bool reachable = here.has_potential_los( you.pos(), tile_pos );
draw_debug_tile( reachable ? 0 : 6, std::to_string( value ) );
}
if( !invisible[0] && apply_vision_effects( pos, here.get_visibility( ll, cache ) ) ) {
const Creature *critter = creatures.creature_at( pos, true );
if( has_draw_override( pos ) || has_memory_at( pos ) ||
( critter &&
( critter->has_flag( MF_ALWAYS_VISIBLE )
|| you.sees_with_infrared( *critter )
|| you.sees_with_specials( *critter ) ) ) ) {
invisible[0] = true;
} else {
continue;
}
}
for( int i = 0; i < 4; i++ ) {
const tripoint np = pos + neighborhood[i];
invisible[1 + i] = apply_visible( np, ch, here );
}
int height_3d = 0;
// light level is now used for choosing between grayscale filter and normal lit tiles.
draw_terrain( pos, ll, height_3d, invisible );
draw_points.emplace_back( pos, height_3d, ll, invisible );
}
const std::array<decltype( &cata_tiles::draw_furniture ), 12> drawing_layers = {{
&cata_tiles::draw_furniture, &cata_tiles::draw_graffiti, &cata_tiles::draw_trap,
&cata_tiles::draw_field_or_item, &cata_tiles::draw_vpart_below,
&cata_tiles::draw_critter_at_below, &cata_tiles::draw_terrain_below,
&cata_tiles::draw_vpart_no_roof, &cata_tiles::draw_vpart_roof,
&cata_tiles::draw_critter_at, &cata_tiles::draw_zone_mark,
&cata_tiles::draw_zombie_revival_indicators
}
};
// for each of the drawing layers in order, back to front ...
for( auto f : drawing_layers ) {
// ... draw all the points we drew terrain for, in the same order
for( tile_render_info &p : draw_points ) {
( this->*f )( p.pos, p.ll, p.height_3d, p.invisible );
}
}
// display number of monsters to spawn in mapgen preview
for( const tile_render_info &p : draw_points ) {
const auto mon_override = monster_override.find( p.pos );
if( mon_override != monster_override.end() ) {
const int count = std::get<1>( mon_override->second );
const bool more = std::get<2>( mon_override->second );
if( count > 1 || more ) {
std::string text = "x" + std::to_string( count );
if( more ) {
text += "+";
}
overlay_strings.emplace( player_to_screen( p.pos.xy() ) + half_tile,
formatted_text( text, catacurses::red,
direction::NORTH ) );
}
}
if( !p.invisible[0] ) {
here.check_and_set_seen_cache( p.pos );
}
}
}
// tile overrides are already drawn in the previous code
void_radiation_override();
void_terrain_override();
void_furniture_override();
void_graffiti_override();
void_trap_override();
void_field_override();
void_item_override();
void_vpart_override();
void_draw_below_override();
void_monster_override();
//Memorize everything the character just saw even if it wasn't displayed.
for( int mem_y = min_visible.y; mem_y <= max_visible.y; mem_y++ ) {
for( int mem_x = min_visible.x; mem_x <= max_visible.x; mem_x++ ) {
half_open_rectangle<point> already_drawn(
point( min_col, min_row ), point( max_col, max_row ) );
if( is_isometric() ) {
// calculate the screen position according to the drawing code above
// (division rounded down):
// mem_x = ( col - row - sx / 2 + sy / 2 ) / 2 + o.x;
// mem_y = ( row + col - sy / 2 - sx / 2 ) / 2 + o.y;
// ( col - sx / 2 ) % 2 = ( row - sy / 2 ) % 2
// ||
// \/
const int col = mem_y + mem_x + s.x / 2 - o.y - o.x;
const int row = mem_y - mem_x + s.y / 2 - o.y + o.x;
if( already_drawn.contains( point( col, row ) ) ) {
continue;
}
} else {
// calculate the screen position according to the drawing code above:
// mem_x = col + o.x
// mem_y = row + o.y
// ||
// \/
// col = mem_x - o.x
// row = mem_y - o.y
if( already_drawn.contains( point( mem_x, mem_y ) - o ) ) {
continue;
}
}
const tripoint p( mem_x, mem_y, center.z );
lit_level lighting = ch.visibility_cache[p.x][p.y];
if( apply_vision_effects( p, here.get_visibility( lighting, cache ) ) ) {
continue;
}
int height_3d = 0;
std::array<bool, 5> invisible;
invisible[0] = false;
for( int i = 0; i < 4; i++ ) {
const tripoint np = p + neighborhood[i];
invisible[1 + i] = apply_visible( np, ch, here );
}
//calling draw to memorize everything.
//bypass cache check in case we learn something new about the terrain's connections
draw_terrain( p, lighting, height_3d, invisible );
if( here.check_seen_cache( p ) ) {
draw_furniture( p, lighting, height_3d, invisible );
draw_trap( p, lighting, height_3d, invisible );
draw_vpart_no_roof( p, lighting, height_3d, invisible );
draw_vpart_roof( p, lighting, height_3d, invisible );
here.check_and_set_seen_cache( p );
}
}
}
in_animation = do_draw_explosion || do_draw_custom_explosion ||
do_draw_bullet || do_draw_hit || do_draw_line ||
do_draw_cursor || do_draw_highlight || do_draw_weather ||
do_draw_sct || do_draw_zones;
draw_footsteps_frame( center );
if( in_animation ) {
if( do_draw_explosion ) {
draw_explosion_frame();
}
if( do_draw_custom_explosion ) {
draw_custom_explosion_frame();
}
if( do_draw_bullet ) {
draw_bullet_frame();
}
if( do_draw_hit ) {
draw_hit_frame();
void_hit();
}
if( do_draw_line ) {
draw_line();
void_line();
}
if( do_draw_weather ) {
draw_weather_frame();
void_weather();
}
if( do_draw_sct ) {
draw_sct_frame( overlay_strings );
void_sct();
}
if( do_draw_zones ) {
draw_zones_frame();
void_zones();
}
if( do_draw_cursor ) {
draw_cursor();
void_cursor();
}
if( do_draw_highlight ) {
draw_highlight();
void_highlight();
}
} else if( you.view_offset != tripoint_zero && !you.in_vehicle ) {
// check to see if player is located at ter
draw_from_id_string( "cursor", TILE_CATEGORY::NONE, empty_string,
tripoint( g->ter_view_p.xy(), center.z ), 0, 0, lit_level::LIT,
false );
}
if( you.controlling_vehicle ) {
cata::optional<tripoint> indicator_offset = g->get_veh_dir_indicator_location( true );
if( indicator_offset ) {
draw_from_id_string( "cursor", TILE_CATEGORY::NONE, empty_string,
indicator_offset->xy() +
tripoint( you.posx(), you.posy(), center.z ),
0, 0, lit_level::LIT, false );
}
}
printErrorIf( SDL_RenderSetClipRect( renderer.get(), nullptr ) != 0,
"SDL_RenderSetClipRect failed" );
}
void cata_tiles::draw_minimap( const point &dest, const tripoint &center, int width, int height )
{
minimap->set_type( is_isometric() ? pixel_minimap_type::iso : pixel_minimap_type::ortho );
minimap->draw( SDL_Rect{ dest.x, dest.y, width, height }, center );
}
void cata_tiles::get_window_tile_counts( const int width, const int height, int &columns,
int &rows ) const
{
if( is_isometric() ) {
columns = std::ceil( static_cast<double>( width ) / tile_width ) * 2 + 4;
rows = std::ceil( static_cast<double>( height ) / ( tile_width / 2.0 - 1 ) ) * 2 + 4;
} else {
columns = std::ceil( static_cast<double>( width ) / tile_width );
rows = std::ceil( static_cast<double>( height ) / tile_height );
}
}
bool cata_tiles::draw_from_id_string( const std::string &id, const tripoint &pos, int subtile,
int rota,
lit_level ll, bool apply_night_vision_goggles )
{
int nullint = 0;
return cata_tiles::draw_from_id_string( id, TILE_CATEGORY::NONE, empty_string, pos, subtile,
rota, ll, apply_night_vision_goggles, nullint, 0 );
}
bool cata_tiles::draw_from_id_string( const std::string &id, TILE_CATEGORY category,
const std::string &subcategory, const tripoint &pos,
int subtile, int rota, lit_level ll,
bool apply_night_vision_goggles )
{
int nullint = 0;
return cata_tiles::draw_from_id_string( id, category, subcategory, pos, subtile, rota,
ll, apply_night_vision_goggles, nullint, 0 );
}
bool cata_tiles::draw_from_id_string( const std::string &id, const tripoint &pos, int subtile,
int rota,
lit_level ll, bool apply_night_vision_goggles,
int &height_3d )
{
return cata_tiles::draw_from_id_string( id, TILE_CATEGORY::NONE, empty_string, pos, subtile,
rota, ll, apply_night_vision_goggles, height_3d, 0 );
}
bool cata_tiles::draw_from_id_string( const std::string &id, TILE_CATEGORY category,
const std::string &subcategory, const tripoint &pos,
int subtile, int rota, lit_level ll,
bool apply_night_vision_goggles, int &height_3d, int intensity )
{
return cata_tiles::draw_from_id_string( id, category, subcategory, pos, subtile, rota,
ll, apply_night_vision_goggles, height_3d, intensity, "", point() );
}
bool cata_tiles::draw_from_id_string( const std::string &id, TILE_CATEGORY category,
const std::string &subcategory, const tripoint &pos,
int subtile, int rota, lit_level ll,
bool apply_night_vision_goggles, int &height_3d )
{
return cata_tiles::draw_from_id_string( id, category, subcategory, pos, subtile, rota,
ll, apply_night_vision_goggles, height_3d, 0, "", point() );
}
bool cata_tiles::draw_from_id_string( const std::string &id, TILE_CATEGORY category,
const std::string &subcategory, const tripoint &pos,
int subtile, int rota, lit_level ll,
bool apply_night_vision_goggles, int &height_3d,
int intensity_level, const std::string &variant )
{
return cata_tiles::draw_from_id_string( id, category, subcategory, pos, subtile, rota,
ll, apply_night_vision_goggles, height_3d, intensity_level,
variant, point() );
}
cata::optional<tile_lookup_res>
cata_tiles::find_tile_with_season( const std::string &id ) const
{
const season_type season = season_of_year( calendar::turn );
return tileset_ptr->find_tile_type_by_season( id, season );
}
template<typename T>
cata::optional<tile_lookup_res>
cata_tiles::find_tile_looks_like_by_string_id( const std::string &id, TILE_CATEGORY category,
const int looks_like_jumps_limit ) const
{
const string_id<T> s_id( id );
if( !s_id.is_valid() ) {
return cata::nullopt;
}
const T &obj = s_id.obj();
return find_tile_looks_like( obj.looks_like, category, "", looks_like_jumps_limit - 1 );
}
cata::optional<tile_lookup_res>
cata_tiles::find_tile_looks_like( const std::string &id, TILE_CATEGORY category,
const std::string &variant,
const int looks_like_jumps_limit ) const
{
if( id.empty() || looks_like_jumps_limit <= 0 ) {
return cata::nullopt;
}
/*
* Note on memory management:
* This method must returns pointers to the objects (std::string *id and tile_type * tile)
* that are valid when this method returns. Ideally they should have the lifetime
* that is equal or exceeds lifetime of `this` or `this::tileset_ptr`.
* For example, `id` argument may have shorter lifetime and thus should not be returned!
* The result of `find_tile_with_season` is OK to be returned, because it's guaranteed to
* return pointers to the keys and values that are stored inside the `tileset_ptr`.
*/
// Try the variant first
if( !variant.empty() ) {
auto tile_variant_with_season = find_tile_with_season( id + "_var_" + variant );
if( tile_variant_with_season ) {
return tile_variant_with_season;
} else {
// Then try the non-variant
auto tile_with_season = find_tile_with_season( id );
if( tile_with_season ) {
return tile_with_season;
}
}
} else {
auto tile_with_season = find_tile_with_season( id );
if( tile_with_season ) {
return tile_with_season;
}
}
// Then do looks_like
switch( category ) {
case TILE_CATEGORY::FURNITURE:
return find_tile_looks_like_by_string_id<furn_t>( id, category,
looks_like_jumps_limit );
case TILE_CATEGORY::TERRAIN:
return find_tile_looks_like_by_string_id<ter_t>( id, category, looks_like_jumps_limit );
case TILE_CATEGORY::FIELD:
return find_tile_looks_like_by_string_id<field_type>( id, category,
looks_like_jumps_limit );
case TILE_CATEGORY::MONSTER:
return find_tile_looks_like_by_string_id<mtype>( id, category, looks_like_jumps_limit );
case TILE_CATEGORY::OVERMAP_TERRAIN: {
cata::optional<tile_lookup_res> ret;
const oter_type_str_id type_tmp( id );
if( !type_tmp.is_valid() ) {
return ret;
}
int jump_limit = looks_like_jumps_limit;
for( const std::string &looks_like : type_tmp.obj().looks_like ) {
ret = find_tile_looks_like( looks_like, category, "", jump_limit - 1 );
if( ret.has_value() ) {
return ret;
}
jump_limit--;
if( jump_limit <= 0 ) {
return ret;
}
}
return ret;
}
case TILE_CATEGORY::VEHICLE_PART: {
cata::optional<tile_lookup_res> ret;
// vehicle parts start with vp_ for their tiles, but not their IDs
const vpart_id new_vpid( id.substr( 3 ) );
// check the base id for a vehicle with variant parts
vpart_id base_vpid;
std::string variant_id;
std::tie( base_vpid, variant_id ) = get_vpart_id_variant( new_vpid );
if( base_vpid.is_valid() ) {
ret = find_tile_looks_like( "vp_" + base_vpid.str(), category, "",
looks_like_jumps_limit - 1 );
}
if( !ret.has_value() ) {
if( new_vpid.is_valid() ) {
const vpart_info &new_vpi = new_vpid.obj();
ret = find_tile_looks_like( "vp_" + new_vpi.looks_like, category, "",
looks_like_jumps_limit - 1 );
if( !ret.has_value() ) {
ret = find_tile_looks_like( new_vpi.looks_like, category, "", looks_like_jumps_limit - 1 );
}
}
}
return ret;
}
case TILE_CATEGORY::ITEM: {
if( !item::type_is_defined( itype_id( id ) ) ) {
if( string_starts_with( id, "corpse_" ) ) {
return find_tile_looks_like(
"corpse", category, "", looks_like_jumps_limit - 1
);
}
return cata::nullopt;
}
const itype *new_it = item::find_type( itype_id( id ) );
return find_tile_looks_like( new_it->looks_like.str(), category, "",
looks_like_jumps_limit - 1 );
}
default:
return cata::nullopt;
}
}
bool cata_tiles::find_overlay_looks_like( const bool male, const std::string &overlay,
const std::string &variant, std::string &draw_id )
{
bool exists = false;
std::string looks_like;
std::string over_type;
if( string_starts_with( overlay, "worn_" ) ) {
looks_like = overlay.substr( 5 );
over_type = "worn_";
} else if( string_starts_with( overlay, "wielded_" ) ) {
looks_like = overlay.substr( 8 );
over_type = "wielded_";
} else {
looks_like = overlay;
}
// Try to draw variants, then fall back to drawing the base
// We can potentially do this twice for a variant of an active mutation
for( int i = 0; i < 2; ++i ) {
draw_id.clear();
str_append( draw_id,
( male ? "overlay_male_" : "overlay_female_" ), over_type, looks_like, "_var_",
variant );
if( tileset_ptr->find_tile_type( draw_id ) ) {
return true;
}
draw_id.clear();
str_append( draw_id, "overlay_", over_type, looks_like, "_var_", variant );
if( tileset_ptr->find_tile_type( draw_id ) ) {
return true;
}
if( string_starts_with( looks_like, "mutation_active_" ) ) {
looks_like = "mutation_" + looks_like.substr( 16 );
continue;
}
break;
}
for( int cnt = 0; cnt < 10 && !looks_like.empty(); cnt++ ) {
draw_id.clear();
str_append( draw_id,
( male ? "overlay_male_" : "overlay_female_" ), over_type, looks_like );
if( tileset_ptr->find_tile_type( draw_id ) ) {
exists = true;
break;
}
draw_id.clear();
str_append( draw_id, "overlay_", over_type, looks_like );
if( tileset_ptr->find_tile_type( draw_id ) ) {
exists = true;
break;
}
if( string_starts_with( looks_like, "mutation_active_" ) ) {
looks_like = "mutation_" + looks_like.substr( 16 );
continue;
}
if( !item::type_is_defined( itype_id( looks_like ) ) ) {
break;
}
const itype *new_it = item::find_type( itype_id( looks_like ) );
looks_like = new_it->looks_like.str();
}
return exists;
}
bool cata_tiles::draw_from_id_string( const std::string &id, TILE_CATEGORY category,
const std::string &subcategory, const tripoint &pos,
int subtile, int rota, lit_level ll,
bool apply_night_vision_goggles, int &height_3d,
int intensity_level, const std::string &variant,
const point &offset )
{
bool nv_color_active = apply_night_vision_goggles && get_option<bool>( "NV_GREEN_TOGGLE" );
// If the ID string does not produce a drawable tile
// it will revert to the "unknown" tile.
// The "unknown" tile is one that is highly visible so you kinda can't miss it :D
// check to make sure that we are drawing within a valid area
// [0->width|height / tile_width|height]
half_open_rectangle<point> screen_bounds( o, o + point( screentile_width, screentile_height ) );
if( !is_isometric() && !screen_bounds.contains( pos.xy() ) ) {
return false;
}
const tile_type *tt = nullptr;
cata::optional<tile_lookup_res> res;
// check if there is an available intensity tile and if there is use that instead of the basic tile
// this is only relevant for fields
if( intensity_level > 0 ) {
res = find_tile_looks_like( id + "_int" + std::to_string( intensity_level ), category, variant );
if( res ) {
tt = &res -> tile();
}
}
// if a tile with intensity hasn't already been found then fall back to a base tile
if( !res ) {
res = find_tile_looks_like( id, category, variant );
if( res ) {
tt = &res -> tile();
}
}
const std::string &found_id = res ? res->id() : id;
if( !tt ) {
uint32_t sym = UNKNOWN_UNICODE;
nc_color col = c_white;
if( category == TILE_CATEGORY::FURNITURE ) {
const furn_str_id fid( found_id );
if( fid.is_valid() ) {
const furn_t &f = fid.obj();
sym = f.symbol();
col = f.color();
}
} else if( category == TILE_CATEGORY::TERRAIN ) {
const ter_str_id tid( found_id );
if( tid.is_valid() ) {
const ter_t &t = tid.obj();
sym = t.symbol();
col = t.color();
}
} else if( category == TILE_CATEGORY::MONSTER ) {
const mtype_id mid( found_id );
if( mid.is_valid() ) {
const mtype &mt = mid.obj();
sym = UTF8_getch( mt.sym );
col = mt.color;
}
} else if( category == TILE_CATEGORY::VEHICLE_PART ) {
const std::pair<std::string,
std::string> &vpid_data = get_vpart_str_variant( found_id.substr( 3 ) );
const vpart_id vpid( vpid_data.first );
if( vpid.is_valid() ) {
const vpart_info &v = vpid.obj();
if( subtile == open_ ) {
sym = '\'';
} else if( subtile == broken ) {
sym = v.sym_broken;
} else {
sym = v.sym;
if( !vpid_data.second.empty() ) {
const auto &var_data = v.symbols.find( vpid_data.second );
if( var_data != v.symbols.end() ) {
sym = var_data->second;
}
}
}
subtile = -1;
tileray face = tileray( units::from_degrees( rota ) );
sym = special_symbol( face.dir_symbol( sym ) );
rota = 0;
col = v.color;
}
} else if( category == TILE_CATEGORY::FIELD ) {
const field_type_id fid = field_type_id( found_id );
sym = fid->get_intensity_level().symbol;
col = fid->get_intensity_level().color;
} else if( category == TILE_CATEGORY::TRAP ) {
const trap_str_id tmp( found_id );
if( tmp.is_valid() ) {
const trap &t = tmp.obj();
sym = t.sym;
col = t.color;
}
} else if( category == TILE_CATEGORY::ITEM ) {
item tmp;
if( string_starts_with( found_id, "corpse_" ) ) {
tmp = item( itype_corpse, calendar::turn_zero );
} else {
tmp = item( found_id, calendar::turn_zero );
}
if( !variant.empty() ) {
tmp.set_itype_variant( variant );
} else {
tmp.clear_itype_variant();
}
sym = static_cast<uint8_t>( tmp.symbol().empty() ? ' ' : tmp.symbol().front() );
col = tmp.color();
} else if( category == TILE_CATEGORY::OVERMAP_TERRAIN ) {
const oter_type_str_id tmp( id );
if( tmp.is_valid() ) {
if( !tmp->is_linear() ) {
sym = tmp->get_rotated( static_cast<om_direction::type>( rota ) )->get_uint32_symbol();
} else {
sym = tmp->symbol;
}
col = tmp->color;
}
} else if( category == TILE_CATEGORY::OVERMAP_NOTE ) {
sym = static_cast<uint8_t>( id[5] );
col = color_from_string( id.substr( 7, id.length() - 1 ) );
}
// Special cases for walls
switch( sym ) {
case LINE_XOXO:
case LINE_XOXO_UNICODE:
sym = LINE_XOXO_C;
break;
case LINE_OXOX:
case LINE_OXOX_UNICODE:
sym = LINE_OXOX_C;
break;
case LINE_XXOO:
case LINE_XXOO_UNICODE:
sym = LINE_XXOO_C;
break;
case LINE_OXXO:
case LINE_OXXO_UNICODE:
sym = LINE_OXXO_C;
break;
case LINE_OOXX:
case LINE_OOXX_UNICODE:
sym = LINE_OOXX_C;
break;
case LINE_XOOX:
case LINE_XOOX_UNICODE:
sym = LINE_XOOX_C;
break;
case LINE_XXXO:
case LINE_XXXO_UNICODE:
sym = LINE_XXXO_C;
break;
case LINE_XXOX:
case LINE_XXOX_UNICODE:
sym = LINE_XXOX_C;
break;
case LINE_XOXX:
case LINE_XOXX_UNICODE:
sym = LINE_XOXX_C;
break;
case LINE_OXXX:
case LINE_OXXX_UNICODE:
sym = LINE_OXXX_C;
break;
case LINE_XXXX:
case LINE_XXXX_UNICODE:
sym = LINE_XXXX_C;
break;
default:
// sym goes unchanged
break;
}
if( sym != 0 && sym < 256 ) {
// see cursesport.cpp, function wattron
const int pairNumber = col.to_color_pair_index();
const cata_cursesport::pairs &colorpair = cata_cursesport::colorpairs[pairNumber];
// What about isBlink?
const bool isBold = col.is_bold();
const int FG = colorpair.FG + ( isBold ? 8 : 0 );
std::string generic_id = get_ascii_tile_id( sym, FG, -1 );
// do not rotate fallback tiles!
if( sym != LINE_XOXO_C && sym != LINE_OXOX_C ) {
rota = 0;
}
if( tileset_ptr->find_tile_type( generic_id ) ) {
return draw_from_id_string( generic_id, pos, subtile, rota,
ll, nv_color_active );
}
// Try again without color this time (using default color).
generic_id = get_ascii_tile_id( sym, -1, -1 );
if( tileset_ptr->find_tile_type( generic_id ) ) {
return draw_from_id_string( generic_id, pos, subtile, rota,
ll, nv_color_active );
}
}
}
// if id is not found, try to find a tile for the category+subcategory combination
const std::string &category_id = TILE_CATEGORY_IDS[static_cast<size_t>( category )];
if( !tt ) {
if( !category_id.empty() && !subcategory.empty() ) {
tt = tileset_ptr->find_tile_type( "unknown_" + category_id + "_" + subcategory );
}
}
// if at this point we have no tile, try just the category
if( !tt ) {
if( !category_id.empty() ) {
tt = tileset_ptr->find_tile_type( "unknown_" + category_id );
}
}
// if we still have no tile, we're out of luck, fall back to unknown
if( !tt ) {
tt = tileset_ptr->find_tile_type( "unknown" );
}
// this really shouldn't happen, but the tileset creator might have forgotten to define
// an unknown tile
if( !tt ) {
return false;
}
const tile_type &display_tile = *tt;
// check to see if the display_tile is multitile, and if so if it has the key related to
// subtile
if( subtile != -1 && display_tile.multitile ) {
const auto &display_subtiles = display_tile.available_subtiles;
const auto end = std::end( display_subtiles );
if( std::find( begin( display_subtiles ), end, multitile_keys[subtile] ) != end ) {
// append subtile name to tile and re-find display_tile
return draw_from_id_string(
found_id + "_" + multitile_keys[subtile], category, subcategory, pos, -1, rota, ll,
nv_color_active, height_3d );
}
}
// translate from player-relative to screen relative tile position
const point screen_pos = player_to_screen( pos.xy() );
int retract;
if( tile_retracted == 0 ) {
retract = 0;
} else if( tile_retracted == 1 ) {
retract = 100;
} else {
const float distance = o.distance( pos.xy() );
const float d_min = tile_retract_dist_min > 0.0 ? tile_retract_dist_min :
tileset_ptr->get_retract_dist_min();
const float d_max = tile_retract_dist_max > 0.0 ? tile_retract_dist_max :
tileset_ptr->get_retract_dist_max();
const float d_range = d_max - d_min;
const float d_slope = d_range <= 0.0f ? 100.0 : 1.0 / d_range;
retract = static_cast<int>( 100.0 * ( 1.0 - clamp( ( distance - d_min ) * d_slope, 0.0f, 1.0f ) ) );
}
auto simple_point_hash = []( const auto & p ) {
return p.x + p.y * 65536;
};
// seed the PRNG to get a reproducible random int
// TODO: faster solution here
unsigned int seed = 0;
map &here = get_map();
creature_tracker &creatures = get_creature_tracker();
// TODO: determine ways other than category to differentiate more types of sprites
switch( category ) {
case TILE_CATEGORY::TERRAIN:
case TILE_CATEGORY::FIELD:
case TILE_CATEGORY::LIGHTING:
// stationary map tiles, seed based on map coordinates
seed = simple_point_hash( here.getabs( pos ) );
break;
case TILE_CATEGORY::VEHICLE_PART:
// vehicle parts, seed based on coordinates within the vehicle
// TODO: also use some vehicle id, for less predictability
{
// new scope for variable declarations
const auto vp_override = vpart_override.find( pos );
const bool vp_overridden = vp_override != vpart_override.end();
if( vp_overridden ) {
const vpart_id &vp_id = std::get<0>( vp_override->second );
if( vp_id ) {
const point &mount = std::get<4>( vp_override->second );
seed = simple_point_hash( mount );
}
} else {
const optional_vpart_position vp = here.veh_at( pos );
if( vp ) {
seed = simple_point_hash( vp->mount() );
}
}
// convert vehicle 360-degree direction (0=E,45=SE, etc) to 4-way tile
// rotation (0=N,1=W,etc)
tileray face = tileray( units::from_degrees( rota ) );
rota = 3 - face.dir4();
}
break;
case TILE_CATEGORY::FURNITURE: {
// If the furniture is not movable, we'll allow seeding by the position
// since we won't get the behavior that occurs where the tile constantly
// changes when the player grabs the furniture and drags it, causing the
// seed to change.
const furn_str_id fid( found_id );
if( fid.is_valid() ) {
const furn_t &f = fid.obj();
if( !f.is_movable() ) {
seed = simple_point_hash( here.getabs( pos ) );
}
}
}
break;
case TILE_CATEGORY::OVERMAP_TERRAIN:
case TILE_CATEGORY::MAP_EXTRA:
seed = simple_point_hash( pos );
break;
case TILE_CATEGORY::NONE:
// graffiti
if( found_id == "graffiti" ) {
seed = std::hash<std::string> {}( here.graffiti_at( pos ) );
} else if( string_starts_with( found_id, "graffiti" ) ) {
seed = simple_point_hash( here.getabs( pos ) );
}
break;
case TILE_CATEGORY::ITEM:
case TILE_CATEGORY::TRAP:
case TILE_CATEGORY::BULLET:
case TILE_CATEGORY::HIT_ENTITY:
case TILE_CATEGORY::WEATHER:
// TODO: come up with ways to make random sprites consistent for these types
break;
case TILE_CATEGORY::MONSTER:
// FIXME: add persistent id to Creature type, instead of using monster pointer address
if( monster_override.find( pos ) == monster_override.end() ) {
seed = reinterpret_cast<uintptr_t>( creatures.creature_at<monster>( pos ) );
}
break;
default:
// player
if( string_starts_with( found_id, "player_" ) ) {
seed = std::hash<std::string> {}( get_player_character().name );
break;
}
// NPC
if( string_starts_with( found_id, "npc_" ) ) {
if( npc *const guy = creatures.creature_at<npc>( pos ) ) {
seed = guy->getID().get_value();
break;
}
}
}
// make sure we aren't going to rotate the tile if it shouldn't be rotated
if( !display_tile.rotates && !( category == TILE_CATEGORY::NONE )
&& !( category == TILE_CATEGORY::MONSTER ) ) {
rota = 0;
}
unsigned int loc_rand = 0;
// only bother mixing up a hash/random value if the tile has some sprites to randomly pick
// between
if( display_tile.fg.size() > 1 || display_tile.bg.size() > 1 ) {
static const auto rot32 = []( const unsigned int x, const int k ) {
return ( x << k ) | ( x >> ( 32 - k ) );
};
// use a fair mix function to turn the "random" seed into a random int
// taken from public domain code at http://burtleburtle.net/bob/c/lookup3.c 2015/12/11
unsigned int a = seed;
unsigned int b = -seed;
unsigned int c = seed * seed;
c ^= b;
c -= rot32( b, 14 );
a ^= c;
a -= rot32( c, 11 );
b ^= a;
b -= rot32( a, 25 );
c ^= b;
c -= rot32( b, 16 );
a ^= c;
a -= rot32( c, 4 );
b ^= a;
b -= rot32( a, 14 );
c ^= b;
c -= rot32( b, 24 );
loc_rand = c;
// idle tile animations:
if( display_tile.animated ) {
// idle animations run during the user's turn, and the animation speed
// needs to be defined by the tileset to look good, so we use system clock:
auto now = std::chrono::system_clock::now();
auto now_ms = std::chrono::time_point_cast<std::chrono::milliseconds>( now );
auto value = now_ms.time_since_epoch();
// aiming roughly at the standard 60 frames per second:
int animation_frame = value.count() / 17;
// offset by log_rand so that everything does not blink at the same time:
animation_frame += loc_rand;
int frames_in_loop = display_tile.fg.get_weight();
if( frames_in_loop == 1 ) {
frames_in_loop = display_tile.bg.get_weight();
}
// loc_rand is actually the weighed index of the selected tile, and
// for animations the "weight" is the number of frames to show the tile for:
loc_rand = animation_frame % frames_in_loop;
}
}
//draw it!
draw_tile_at( display_tile, screen_pos, loc_rand, rota, ll,
nv_color_active, retract, height_3d, offset );
return true;
}
bool cata_tiles::draw_sprite_at(
const tile_type &tile, const weighted_int_list<std::vector<int>> &svlist,
const point &p, unsigned int loc_rand, bool rota_fg, int rota, lit_level ll,
bool apply_night_vision_goggles, int retract, int &height_3d, const point &offset )
{
const std::vector<int> *picked = svlist.pick( loc_rand );
if( !picked ) {
return true;
}
const std::vector<int> &spritelist = *picked;
if( spritelist.empty() ) {
return true;
}
int ret = 0;
// blit foreground based on rotation
bool rotate_sprite = false;
int sprite_num = 0;
if( !rota_fg && spritelist.size() == 1 ) {
// don't rotate, a background tile without manual rotations
rotate_sprite = false;
sprite_num = 0;
} else if( spritelist.size() == 1 ) {
// just one tile, apply SDL sprite rotation if not in isometric mode
rotate_sprite = true;
sprite_num = 0;
} else {
// multiple rotated tiles defined, don't apply sprite rotation after picking one
rotate_sprite = false;
// two tiles, tile 0 is N/S, tile 1 is E/W
// four tiles, 0=N, 1=E, 2=S, 3=W
// extending this to more than 4 rotated tiles will require changing rota to degrees
sprite_num = rota % spritelist.size();
}
const int sprite_index = spritelist[sprite_num];
const texture *sprite_tex = tileset_ptr->get_tile( sprite_index );
//use night vision colors when in use
//then use low light tile if available
if( ll == lit_level::MEMORIZED ) {
if( const texture *ptr = tileset_ptr->get_memory_tile( sprite_index ) ) {
sprite_tex = ptr;
}
} else if( apply_night_vision_goggles ) {
if( ll != lit_level::LOW ) {
if( const texture *ptr = tileset_ptr->get_overexposed_tile( sprite_index ) ) {
sprite_tex = ptr;
}
} else {
if( const texture *ptr = tileset_ptr->get_night_tile( sprite_index ) ) {
sprite_tex = ptr;
}
}
} else if( ll == lit_level::LOW ) {
if( const texture *ptr = tileset_ptr->get_shadow_tile( sprite_index ) ) {
sprite_tex = ptr;
}
}
int width = 0;
int height = 0;
std::tie( width, height ) = sprite_tex->dimension();
const point &tile_offset = retract <= 0
? tile.offset
: ( retract >= 100
? tile.offset_retracted
: tile.offset
+ ( ( tile.offset_retracted - tile.offset ) * retract ) / 100
);
SDL_Rect destination;
destination.x = p.x + ( tile_offset.x + offset.x ) * tile_width / tileset_ptr->get_tile_width();
destination.y = p.y + ( tile_offset.y + offset.y - height_3d ) *
tile_width / tileset_ptr->get_tile_width();
destination.w = width * tile_width * tile.pixelscale / tileset_ptr->get_tile_width();
destination.h = height * tile_height * tile.pixelscale / tileset_ptr->get_tile_height();
if( rotate_sprite ) {
if( rota == -1 ) {
// flip horizontally
ret = sprite_tex->render_copy_ex(
renderer, &destination, 0, nullptr,
static_cast<SDL_RendererFlip>( SDL_FLIP_HORIZONTAL ) );
} else {
switch( rota % 4 ) {
default:
case 0:
// unrotated (and 180, with just two sprites)
ret = sprite_tex->render_copy_ex( renderer, &destination, 0, nullptr,
SDL_FLIP_NONE );
break;
case 1:
// 90 degrees (and 270, with just two sprites)
#if defined(_WIN32) && defined(CROSS_LINUX)
// For an unknown reason, additional offset is required in direct3d mode
// for cross-compilation from Linux to Windows
if( direct3d_mode ) {
destination.y -= 1;
}
#endif
if( !is_isometric() ) {
// never rotate isometric tiles
ret = sprite_tex->render_copy_ex( renderer, &destination, -90, nullptr,
SDL_FLIP_NONE );
} else {
ret = sprite_tex->render_copy_ex( renderer, &destination, 0, nullptr,
SDL_FLIP_NONE );
}
break;
case 2:
// 180 degrees, implemented with flips instead of rotation
if( !is_isometric() ) {
// never flip isometric tiles vertically
ret = sprite_tex->render_copy_ex(
renderer, &destination, 0, nullptr,
static_cast<SDL_RendererFlip>( SDL_FLIP_HORIZONTAL | SDL_FLIP_VERTICAL ) );
} else {
ret = sprite_tex->render_copy_ex( renderer, &destination, 0, nullptr,
SDL_FLIP_NONE );
}
break;
case 3:
// 270 degrees
#if defined(_WIN32) && defined(CROSS_LINUX)
// For an unknown reason, additional offset is required in direct3d mode
// for cross-compilation from Linux to Windows
if( direct3d_mode ) {
destination.x -= 1;
}
#endif
if( !is_isometric() ) {
// never rotate isometric tiles
ret = sprite_tex->render_copy_ex( renderer, &destination, 90, nullptr,
SDL_FLIP_NONE );
} else {
ret = sprite_tex->render_copy_ex( renderer, &destination, 0, nullptr,
SDL_FLIP_NONE );
}
break;
}
}
} else {
// don't rotate, same as case 0 above
ret = sprite_tex->render_copy_ex( renderer, &destination, 0, nullptr, SDL_FLIP_NONE );
}
printErrorIf( ret != 0, "SDL_RenderCopyEx() failed" );
// this reference passes all the way back up the call chain back to
// cata_tiles::draw() std::vector<tile_render_info> draw_points[].height_3d
// where we are accumulating the height of every sprite stacked up in a tile
height_3d += tile.height_3d;
return true;
}
bool cata_tiles::draw_tile_at(
const tile_type &tile, const point &p, unsigned int loc_rand, int rota,
lit_level ll, bool apply_night_vision_goggles, int retract, int &height_3d,
const point &offset )
{
int fake_int = height_3d;
draw_sprite_at( tile, tile.bg, p, loc_rand, /*fg:*/ false, rota, ll,
apply_night_vision_goggles, retract, fake_int, offset );
draw_sprite_at( tile, tile.fg, p, loc_rand, /*fg:*/ true, rota, ll,
apply_night_vision_goggles, retract, height_3d, offset );
return true;
}
bool cata_tiles::would_apply_vision_effects( const visibility_type visibility ) const
{
return visibility != visibility_type::CLEAR;
}
bool cata_tiles::apply_vision_effects( const tripoint &pos,
const visibility_type visibility )
{
if( !would_apply_vision_effects( visibility ) ) {
return false;
}
std::string light_name;
switch( visibility ) {
case visibility_type::HIDDEN:
light_name = "lighting_hidden";
break;
case visibility_type::LIT:
light_name = "lighting_lowlight_light";
break;
case visibility_type::BOOMER:
light_name = "lighting_boomered_light";
break;
case visibility_type::BOOMER_DARK:
light_name = "lighting_boomered_dark";
break;
case visibility_type::DARK:
light_name = "lighting_lowlight_dark";
break;
case visibility_type::CLEAR:
// should never happen
break;
}
// lighting is never rotated, though, could possibly add in random rotation?
draw_from_id_string( light_name, TILE_CATEGORY::LIGHTING, empty_string, pos, 0, 0,
lit_level::LIT, false );
return true;
}
bool cata_tiles::draw_terrain_below( const tripoint &p, const lit_level, int &,
const std::array<bool, 5> &invisible )
{
map &here = get_map();
const auto low_override = draw_below_override.find( p );
const bool low_overridden = low_override != draw_below_override.end();
if( low_overridden ? !low_override->second :
( invisible[0] || here.dont_draw_lower_floor( p ) ) ) {
return false;
}
tripoint pbelow = tripoint( p.xy(), p.z - 1 );
SDL_Color tercol = curses_color_to_SDL( c_dark_gray );
const ter_t &curr_ter = here.ter( pbelow ).obj();
const furn_t &curr_furn = here.furn( pbelow ).obj();
int part_below;
int sizefactor = 2;
if( curr_furn.has_flag( ter_furn_flag::TFLAG_SEEN_FROM_ABOVE ) || curr_furn.movecost < 0 ) {
tercol = curses_color_to_SDL( curr_furn.color() );
} else if( const vehicle *veh = here.veh_at_internal( pbelow, part_below ) ) {
const int roof = veh->roof_at_part( part_below );
const auto vpobst = vpart_position( const_cast<vehicle &>( *veh ),
part_below ).obstacle_at_part();
tercol = curses_color_to_SDL( ( roof >= 0 ||
vpobst ) ? c_light_gray : c_magenta );
sizefactor = ( roof >= 0 || vpobst ) ? 4 : 2;
} else if( curr_ter.has_flag( ter_furn_flag::TFLAG_SEEN_FROM_ABOVE ) ||
curr_ter.has_flag( ter_furn_flag::TFLAG_NO_FLOOR ) ||
curr_ter.movecost == 0 ) {
tercol = curses_color_to_SDL( curr_ter.color() );
} else {
sizefactor = 4;
tercol = curses_color_to_SDL( curr_ter.color() );
}
SDL_Rect belowRect;
point screen;
belowRect.h = tile_width / sizefactor;
belowRect.w = tile_height / sizefactor;
if( is_isometric() ) {
belowRect.h = ( belowRect.h * 2 ) / 3;
belowRect.w = ( belowRect.w * 3 ) / 4;
// translate from player-relative to screen relative tile position
screen.x = ( ( pbelow.x - o.x ) - ( o.y - pbelow.y ) + screentile_width - 2 ) *
tile_width / 2 + op.x;
// y uses tile_width because width is definitive for iso tiles
// tile footprints are half as tall as wide, arbitrarily tall
screen.y = ( ( pbelow.y - o.y ) - ( pbelow.x - o.x ) - 4 ) * tile_width / 4 +
screentile_height * tile_height / 2 + // TODO: more obvious centering math
op.y;
} else {
screen.x = ( pbelow.x - o.x ) * tile_width + op.x;
screen.y = ( pbelow.y - o.y ) * tile_height + op.y;
}
belowRect.x = screen.x + ( tile_width - belowRect.w ) / 2;
belowRect.y = screen.y + ( tile_height - belowRect.h ) / 2;
if( is_isometric() ) {
belowRect.y += tile_height / 8;
}
geometry->rect( renderer, belowRect, tercol );
return true;
}
bool cata_tiles::draw_terrain( const tripoint &p, const lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
map &here = get_map();
const auto override = terrain_override.find( p );
const bool overridden = override != terrain_override.end();
bool neighborhood_overridden = overridden;
if( !neighborhood_overridden ) {
for( const point &dir : neighborhood ) {
if( terrain_override.find( p + dir ) != terrain_override.end() ) {
neighborhood_overridden = true;
break;
}
}
}
// first memorize the actual terrain
const ter_id &t = here.ter( p );
if( t && !invisible[0] ) {
int subtile = 0;
int rotation = 0;
const std::bitset<NUM_TERCONN> &connect_group = t.obj().connect_to_groups;
const std::bitset<NUM_TERCONN> &rotate_group = t.obj().rotate_to_groups;
if( connect_group.any() ) {
get_connect_values( p, subtile, rotation, connect_group, rotate_group, {} );
// re-memorize previously seen terrain in case new connections have been seen
here.set_memory_seen_cache_dirty( p );
} else {
get_terrain_orientation( p, rotation, subtile, {}, invisible, rotate_group );
// do something to get other terrain orientation values
}
const std::string &tname = t.id().str();
if( here.check_seen_cache( p ) ) {
get_avatar().memorize_tile( here.getabs( p ), tname, subtile, rotation );
}
// draw the actual terrain if there's no override
if( !neighborhood_overridden ) {
return draw_from_id_string( tname, TILE_CATEGORY::TERRAIN, empty_string, p, subtile,
rotation, ll, nv_goggles_activated, height_3d );
}
}
if( invisible[0] ? overridden : neighborhood_overridden ) {
// and then draw the override terrain
const ter_id &t2 = overridden ? override->second : t;
if( t2 ) {
// both the current and neighboring overrides may change the appearance
// of the tile, so always re-calculate it.
int subtile = 0;
int rotation = 0;
const std::bitset<NUM_TERCONN> &connect_group = t2.obj().connect_to_groups;
const std::bitset<NUM_TERCONN> &rotate_group = t2.obj().rotate_to_groups;
if( connect_group.any() ) {
get_connect_values( p, subtile, rotation, connect_group, rotate_group, terrain_override );
} else {
get_terrain_orientation( p, rotation, subtile, terrain_override, invisible, rotate_group );
}
const std::string &tname = t2.id().str();
// tile overrides are never memorized
// tile overrides are always shown with full visibility
const lit_level lit = overridden ? lit_level::LIT : ll;
const bool nv = overridden ? false : nv_goggles_activated;
return draw_from_id_string( tname, TILE_CATEGORY::TERRAIN, empty_string, p, subtile,
rotation, lit, nv, height_3d );
}
} else if( invisible[0] && has_terrain_memory_at( p ) ) {
// try drawing memory if invisible and not overridden
const memorized_terrain_tile &t = get_terrain_memory_at( p );
return draw_from_id_string(
t.tile, TILE_CATEGORY::TERRAIN, empty_string, p, t.subtile, t.rotation,
lit_level::MEMORIZED, nv_goggles_activated, height_3d );
}
return false;
}
bool cata_tiles::has_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
const memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
return !t.tile.empty();
}
return false;
}
bool cata_tiles::has_terrain_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
const memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
if( string_starts_with( t.tile, "t_" ) ) {
return true;
}
}
return false;
}
bool cata_tiles::has_furniture_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
const memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
if( string_starts_with( t.tile, "f_" ) ) {
return true;
}
}
return false;
}
bool cata_tiles::has_trap_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
const memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
if( string_starts_with( t.tile, "tr_" ) ) {
return true;
}
}
return false;
}
bool cata_tiles::has_vpart_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
const memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
if( string_starts_with( t.tile, "vp_" ) ) {
return true;
}
}
return false;
}
memorized_terrain_tile cata_tiles::get_terrain_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
if( string_starts_with( t.tile, "t_" ) ) {
return t;
}
}
return {};
}
memorized_terrain_tile cata_tiles::get_furniture_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
if( string_starts_with( t.tile, "f_" ) ) {
return t;
}
}
return {};
}
memorized_terrain_tile cata_tiles::get_trap_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
if( string_starts_with( t.tile, "tr_" ) ) {
return t;
}
}
return {};
}
memorized_terrain_tile cata_tiles::get_vpart_memory_at( const tripoint &p ) const
{
avatar &you = get_avatar();
if( you.should_show_map_memory() ) {
memorized_terrain_tile t = you.get_memorized_tile( get_map().getabs( p ) );
if( string_starts_with( t.tile, "vp_" ) ) {
return t;
}
}
return {};
}
bool cata_tiles::draw_furniture( const tripoint &p, const lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
avatar &you = get_avatar();
const auto override = furniture_override.find( p );
const bool overridden = override != furniture_override.end();
bool neighborhood_overridden = overridden;
if( !neighborhood_overridden ) {
for( const point &dir : neighborhood ) {
if( furniture_override.find( p + dir ) != furniture_override.end() ) {
neighborhood_overridden = true;
break;
}
}
}
map &here = get_map();
// first memorize the actual furniture
const furn_id &f = here.furn( p );
if( f && !invisible[0] ) {
const std::array<int, 4> neighborhood = {
static_cast<int>( here.furn( p + point_south ) ),
static_cast<int>( here.furn( p + point_east ) ),
static_cast<int>( here.furn( p + point_west ) ),
static_cast<int>( here.furn( p + point_north ) )
};
int subtile = 0;
int rotation = 0;
const std::bitset<NUM_TERCONN> &connect_group = f.obj().connect_to_groups;
const std::bitset<NUM_TERCONN> &rotate_group = f.obj().rotate_to_groups;
if( connect_group.any() ) {
get_furn_connect_values( p, subtile, rotation, connect_group, rotate_group, {} );
} else {
get_tile_values_with_ter( p, f.to_i(), neighborhood, subtile, rotation, rotate_group );
}
const std::string &fname = f.id().str();
if( !( you.get_grab_type() == object_type::FURNITURE
&& p == you.pos() + you.grab_point )
&& here.check_seen_cache( p ) ) {
you.memorize_tile( here.getabs( p ), fname, subtile, rotation );
}
// draw the actual furniture if there's no override
if( !neighborhood_overridden ) {
return draw_from_id_string( fname, TILE_CATEGORY::FURNITURE, empty_string, p, subtile,
rotation, ll, nv_goggles_activated, height_3d );
}
}
if( invisible[0] ? overridden : neighborhood_overridden ) {
// and then draw the override furniture
const furn_id &f2 = overridden ? override->second : f;
if( f2 ) {
// both the current and neighboring overrides may change the appearance
// of the tile, so always re-calculate it.
const auto furn = [&]( const tripoint & q, const bool invis ) -> furn_id {
const auto it = furniture_override.find( q );
return it != furniture_override.end() ? it->second :
( !overridden || !invis ) ? here.furn( q ) : f_null;
};
const std::array<int, 4> neighborhood = {
static_cast<int>( furn( p + point_south, invisible[1] ) ),
static_cast<int>( furn( p + point_east, invisible[2] ) ),
static_cast<int>( furn( p + point_west, invisible[3] ) ),
static_cast<int>( furn( p + point_north, invisible[4] ) )
};
int subtile = 0;
int rotation = 0;
const std::bitset<NUM_TERCONN> &connect_group = f.obj().connect_to_groups;
const std::bitset<NUM_TERCONN> &rotate_group = f.obj().rotate_to_groups;
if( connect_group.any() ) {
get_furn_connect_values( p, subtile, rotation, connect_group, rotate_group, {} );
} else {
get_tile_values_with_ter( p, f.to_i(), neighborhood, subtile, rotation, rotate_group );
}
get_tile_values_with_ter( p, f2.to_i(), neighborhood, subtile, rotation, 0 );
const std::string &fname = f2.id().str();
// tile overrides are never memorized
// tile overrides are always shown with full visibility
const lit_level lit = overridden ? lit_level::LIT : ll;
const bool nv = overridden ? false : nv_goggles_activated;
return draw_from_id_string( fname, TILE_CATEGORY::FURNITURE, empty_string, p, subtile,
rotation, lit, nv, height_3d );
}
} else if( invisible[0] && has_furniture_memory_at( p ) ) {
// try drawing memory if invisible and not overridden
const memorized_terrain_tile &t = get_furniture_memory_at( p );
return draw_from_id_string(
t.tile, TILE_CATEGORY::FURNITURE, empty_string, p, t.subtile, t.rotation,
lit_level::MEMORIZED, nv_goggles_activated, height_3d );
}
return false;
}
bool cata_tiles::draw_trap( const tripoint &p, const lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
const auto override = trap_override.find( p );
const bool overridden = override != trap_override.end();
bool neighborhood_overridden = overridden;
if( !neighborhood_overridden ) {
for( const point &dir : neighborhood ) {
if( trap_override.find( p + dir ) != trap_override.end() ) {
neighborhood_overridden = true;
break;
}
}
}
avatar &you = get_avatar();
map &here = get_map();
// first memorize the actual trap
const trap &tr = here.tr_at( p );
if( !tr.is_null() && !invisible[0] && tr.can_see( p, you ) ) {
const std::array<int, 4> neighborhood = {
static_cast<int>( here.tr_at( p + point_south ).loadid ),
static_cast<int>( here.tr_at( p + point_east ).loadid ),
static_cast<int>( here.tr_at( p + point_west ).loadid ),
static_cast<int>( here.tr_at( p + point_north ).loadid )
};
int subtile = 0;
int rotation = 0;
get_tile_values( tr.loadid.to_i(), neighborhood, subtile, rotation, 0 );
const std::string trname = tr.loadid.id().str();
if( here.check_seen_cache( p ) ) {
you.memorize_tile( here.getabs( p ), trname, subtile, rotation );
}
// draw the actual trap if there's no override
if( !neighborhood_overridden ) {
return draw_from_id_string( trname, TILE_CATEGORY::TRAP, empty_string, p, subtile,
rotation, ll, nv_goggles_activated, height_3d );
}
}
if( overridden || ( !invisible[0] && neighborhood_overridden &&
tr.can_see( p, you ) ) ) {
// and then draw the override trap
const trap_id &tr2 = overridden ? override->second : tr.loadid;
if( tr2 ) {
// both the current and neighboring overrides may change the appearance
// of the tile, so always re-calculate it.
const auto tr_at = [&]( const tripoint & q, const bool invis ) -> trap_id {
const auto it = trap_override.find( q );
return it != trap_override.end() ? it->second :
( !overridden || !invis ) ? here.tr_at( q ).loadid : tr_null;
};
const std::array<int, 4> neighborhood = {
static_cast<int>( tr_at( p + point_south, invisible[1] ) ),
static_cast<int>( tr_at( p + point_east, invisible[2] ) ),
static_cast<int>( tr_at( p + point_west, invisible[3] ) ),
static_cast<int>( tr_at( p + point_north, invisible[4] ) )
};
int subtile = 0;
int rotation = 0;
get_tile_values( tr2.to_i(), neighborhood, subtile, rotation, 0 );
const std::string &trname = tr2.id().str();
// tile overrides are never memorized
// tile overrides are always shown with full visibility
const lit_level lit = overridden ? lit_level::LIT : ll;
const bool nv = overridden ? false : nv_goggles_activated;
return draw_from_id_string( trname, TILE_CATEGORY::TRAP, empty_string, p, subtile,
rotation, lit, nv, height_3d );
}
} else if( invisible[0] && has_trap_memory_at( p ) ) {
// try drawing memory if invisible and not overridden
const memorized_terrain_tile &t = get_trap_memory_at( p );
return draw_from_id_string(
t.tile, TILE_CATEGORY::TRAP, empty_string, p, t.subtile, t.rotation,
lit_level::MEMORIZED, nv_goggles_activated, height_3d );
}
return false;
}
bool cata_tiles::draw_graffiti( const tripoint &p, const lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
map &here = get_map();
const auto override = graffiti_override.find( p );
const bool overridden = override != graffiti_override.end();
if( overridden ? !override->second : ( invisible[0] || !here.has_graffiti_at( p ) ) ) {
return false;
}
const lit_level lit = overridden ? lit_level::LIT : ll;
const int rotation = here.passable( p ) ? 1 : 0;
const std::string tile = "graffiti_" +
to_upper_case( string_replace( remove_punctuations( here.graffiti_at( p ).substr( 0, 32 ) ), " ",
"_" ) );
return draw_from_id_string( tileset_ptr->find_tile_type( tile ) ? tile : "graffiti",
TILE_CATEGORY::NONE, empty_string, p, 0, rotation, lit, false, height_3d );
}
bool cata_tiles::draw_field_or_item( const tripoint &p, const lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
const auto fld_override = field_override.find( p );
const bool fld_overridden = fld_override != field_override.end();
map &here = get_map();
const field_type_id &fld = fld_overridden ?
fld_override->second : here.field_at( p ).displayed_field_type();
bool ret_draw_field = false;
bool ret_draw_items = false;
// go through each field and draw it
if( !fld_overridden ) {
const maptile &tile = here.maptile_at( p );
for( const std::pair<const field_type_id, field_entry> &fd_pr : here.field_at( p ) ) {
const field_type_id &fld = fd_pr.first;
if( !invisible[0] && fld.obj().display_field ) {
const lit_level lit = ll;
const bool nv = nv_goggles_activated;
auto has_field = [&]( field_type_id fld, const tripoint & q, const bool invis ) -> field_type_id {
// go through the fields and see if they are equal
field_type_id found = fd_null;
for( std::pair<const field_type_id, field_entry> &this_fld : here.field_at( q ) )
{
if( this_fld.first == fld ) {
found = fld;
}
}
const auto it = field_override.find( q );
return it != field_override.end() ? it->second :
( !fld_overridden || !invis ) ? found : fd_null;
};
// for rotation information
const std::array<int, 4> neighborhood = { {
static_cast<int>( has_field( fld, p + point_south, invisible[1] ) ),
static_cast<int>( has_field( fld, p + point_east, invisible[2] ) ),
static_cast<int>( has_field( fld, p + point_west, invisible[3] ) ),
static_cast<int>( has_field( fld, p + point_north, invisible[4] ) )
}
};
int subtile = 0;
int rotation = 0;
get_tile_values( fld.to_i(), neighborhood, subtile, rotation, 0 );
//get field intensity
int intensity = fd_pr.second.get_field_intensity();
int nullint = 0;
bool has_drawn = false;
// start by drawing the layering data if available
// start for checking if layer data is available for the furniture
auto itt = tileset_ptr->field_layer_data.find( tile.get_furn_t().id.str() );
if( itt != tileset_ptr->field_layer_data.end() ) {
// the furniture has layer info
// go through all the layer variants
for( const layer_variant &layer_var : itt->second ) {
if( fld.id().str() == layer_var.id ) {
// get the sprite to draw
// roll should be based on the maptile seed to keep visuals consistent
int roll = 1;
std::string sprite_to_draw;
for( const auto &sprite_list : layer_var.sprite ) {
roll = roll - sprite_list.second;
if( roll < 0 ) {
sprite_to_draw = sprite_list.first;
break;
}
}
// if we have found info on the item go through and draw its stuff
ret_draw_field = draw_from_id_string( sprite_to_draw, TILE_CATEGORY::FIELD, empty_string, p,
subtile, rotation, lit, nv, nullint, intensity, "", layer_var.offset );
has_drawn = true;
break;
}
}
} else {
// check if the terrain has data
auto itt = tileset_ptr->item_layer_data.find( tile.get_ter_t().id.str() );
if( itt != tileset_ptr->item_layer_data.end() ) {
// the furniture has layer info
// go through all the layer variants
for( const layer_variant &layer_var : itt->second ) {
if( fld.id().str() == layer_var.id ) {
// get the sprite to draw
// roll should be based on the maptile seed to keep visuals consistent
int roll = 1;
std::string sprite_to_draw;
for( const auto &sprite_list : layer_var.sprite ) {
roll = roll - sprite_list.second;
if( roll < 0 ) {
sprite_to_draw = sprite_list.first;
break;
}
}
// if we have found info on the item go through and draw its stuff
ret_draw_field = draw_from_id_string( sprite_to_draw, TILE_CATEGORY::FIELD, empty_string, p,
subtile, rotation, lit, nv, nullint, intensity, "", layer_var.offset );
has_drawn = true;
break;
}
}
}
}
// draw the default sprite
if( !has_drawn ) {
ret_draw_field = draw_from_id_string( fld.id().str(), TILE_CATEGORY::FIELD, empty_string,
p, subtile, rotation, lit, nv, nullint, intensity );
}
}
}
} else {
// draw the override
const field_type_id &fld = fld_override->second;
if( fld.obj().display_field ) {
const lit_level lit = lit_level::LIT;
const bool nv = false;
auto field_at = [&]( const tripoint & q, const bool invis ) -> field_type_id {
const auto it = field_override.find( q );
return it != field_override.end() ? it->second :
( !fld_overridden || !invis ) ? here.field_at( q ).displayed_field_type() : fd_null;
};
// for rotation information
const std::array<int, 4> neighborhood = {
static_cast<int>( field_at( p + point_south, invisible[1] ) ),
static_cast<int>( field_at( p + point_east, invisible[2] ) ),
static_cast<int>( field_at( p + point_west, invisible[3] ) ),
static_cast<int>( field_at( p + point_north, invisible[4] ) )
};
int subtile = 0;
int rotation = 0;
get_tile_values( fld.to_i(), neighborhood, subtile, rotation, 0 );
//get field intensity
int intensity = fld_overridden ? 0 : here.field_at( p ).displayed_intensity();
int nullint = 0;
ret_draw_field = draw_from_id_string( fld.id().str(), TILE_CATEGORY::FIELD, empty_string,
p, subtile, rotation, lit, nv, nullint, intensity );
}
}
if( fld.obj().display_items ) {
const auto it_override = item_override.find( p );
const bool it_overridden = it_override != item_override.end();
itype_id it_id;
mtype_id mon_id;
std::string variant;
bool hilite = false;
bool drawtop = true;
const itype *it_type;
const maptile &tile = here.maptile_at( p );
if( !invisible[0] ) {
// start by drawing the layering data if available
// start for checking if layer data is available for the furniture
auto itt = tileset_ptr->item_layer_data.find( tile.get_furn_t().id.str() );
if( itt != tileset_ptr->item_layer_data.end() ) {
// the furniture has layer info
// go through all the layer variants
for( const layer_variant &layer_var : itt->second ) {
for( const item &i : tile.get_items() ) {
if( i.typeId().str() == layer_var.id ) {
// if an item matches draw it and break
const std::string layer_it_category = i.typeId()->get_item_type_string();
const lit_level layer_lit = ll;
const bool layer_nv = nv_goggles_activated;
// get the sprite to draw
// roll should be based on the maptile seed to keep visuals consistent
int roll = i.seed % layer_var.total_weight;
std::string sprite_to_draw;
for( const auto &sprite_list : layer_var.sprite ) {
roll = roll - sprite_list.second;
if( roll < 0 ) {
sprite_to_draw = sprite_list.first;
break;
}
}
if( i.has_itype_variant() ) {
variant = i.itype_variant().id;
}
// if we have found info on the item go through and draw its stuff
draw_from_id_string( sprite_to_draw, TILE_CATEGORY::ITEM, layer_it_category, p, 0,
0, layer_lit, layer_nv, height_3d, 0, variant, layer_var.offset );
// if the top item is already being layered don't draw it later
if( i.typeId() == tile.get_uppermost_item().typeId() ) {
drawtop = false;
}
break;
}
}
}
} else {
// check if the terrain has data
auto itt = tileset_ptr->item_layer_data.find( tile.get_ter_t().id.str() );
if( itt != tileset_ptr->item_layer_data.end() ) {
// the furniture has layer info
// go through all the layer variants
for( const layer_variant &layer_var : itt->second ) {
for( const item &i : tile.get_items() ) {
if( i.typeId().str() == layer_var.id ) {
// if an item matches draw it and break
const std::string layer_it_category = i.typeId()->get_item_type_string();
const lit_level layer_lit = ll;
const bool layer_nv = nv_goggles_activated;
// get the sprite to draw
// roll should be based on the maptile seed to keep visuals consistent
int roll = i.seed % layer_var.total_weight;
std::string sprite_to_draw;
for( const auto &sprite_list : layer_var.sprite ) {
roll = roll - sprite_list.second;
if( roll < 0 ) {
sprite_to_draw = sprite_list.first;
break;
}
}
if( i.has_itype_variant() ) {
variant = i.itype_variant().id;
}
// if we have found info on the item go through and draw its stuff
draw_from_id_string( sprite_to_draw, TILE_CATEGORY::ITEM, layer_it_category, p, 0,
0, layer_lit, layer_nv, height_3d, 0, variant, layer_var.offset );
// if the top item is already being layered don't draw it later
if( i.typeId() == tile.get_uppermost_item().typeId() ) {
drawtop = false;
}
break;
}
}
}
}
}
}
variant = "";
if( drawtop || it_overridden ) {
if( it_overridden ) {
it_id = std::get<0>( it_override->second );
mon_id = std::get<1>( it_override->second );
hilite = std::get<2>( it_override->second );
it_type = item::find_type( it_id );
} else if( !invisible[0] && here.sees_some_items( p, get_player_character() ) ) {
const item &itm = tile.get_uppermost_item();
if( itm.has_itype_variant() ) {
variant = itm.itype_variant().id;
}
const mtype *const mon = itm.get_mtype();
it_id = itm.typeId();
mon_id = mon ? mon->id : mtype_id::NULL_ID();
hilite = tile.get_item_count() > 1;
it_type = itm.type;
} else {
it_type = nullptr;
}
if( it_type && !it_id.is_null() ) {
const std::string disp_id = it_id == itype_corpse && mon_id ?
"corpse_" + mon_id.str() : it_id.str();
const std::string it_category = it_type->get_item_type_string();
const lit_level lit = it_overridden ? lit_level::LIT : ll;
const bool nv = it_overridden ? false : nv_goggles_activated;
ret_draw_items = draw_from_id_string( disp_id, TILE_CATEGORY::ITEM, it_category, p, 0,
0, lit, nv, height_3d, 0, variant );
if( ret_draw_items && hilite ) {
draw_item_highlight( p );
}
}
}
// we may still need to draw the highlight
else if( tile.get_item_count() > 1 && here.sees_some_items( p, get_player_character() ) ) {
draw_item_highlight( p );
}
}
return ret_draw_field && ret_draw_items;
}
bool cata_tiles::draw_vpart_below( const tripoint &p, const lit_level /*ll*/, int &/*height_3d*/,
const std::array<bool, 5> &invisible )
{
const auto low_override = draw_below_override.find( p );
const bool low_overridden = low_override != draw_below_override.end();
if( low_overridden ? !low_override->second : ( invisible[0] ||
get_map().dont_draw_lower_floor( p ) ) ) {
return false;
}
tripoint pbelow( p.xy(), p.z - 1 );
int height_3d_below = 0;
std::array<bool, 5> below_invisible;
std::fill( below_invisible.begin(), below_invisible.end(), false );
return draw_vpart_no_roof( pbelow, lit_level::LOW, height_3d_below, below_invisible );
}
bool cata_tiles::draw_vpart_no_roof( const tripoint &p, lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
return draw_vpart( p, ll, height_3d, invisible, false );
}
bool cata_tiles::draw_vpart_roof( const tripoint &p, lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
return draw_vpart( p, ll, height_3d, invisible, true );
}
bool cata_tiles::draw_vpart( const tripoint &p, lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible, bool roof )
{
( void ) roof;
const auto override = vpart_override.find( p );
const bool overridden = override != vpart_override.end();
map &here = get_map();
// first memorize the actual vpart
const optional_vpart_position vp = here.veh_at( p );
if( vp && !invisible[0] ) {
const vehicle &veh = vp->vehicle();
const int veh_part = vp->part_index();
// Gets the visible part, should work fine once tileset vp_ids are updated to work
// with the vehicle part json ids
// get the vpart_id
char part_mod = 0;
const std::string &vp_id = veh.part_id_string( veh_part, part_mod, !roof, roof );
if( !vp_id.empty() ) {
const int subtile = part_mod == 1 ? open_ : part_mod == 2 ? broken : 0;
const int rotation = std::round( to_degrees( veh.face.dir() ) );
const std::string vpname = "vp_" + vp_id;
avatar &you = get_avatar();
if( !veh.forward_velocity() && !veh.player_in_control( you )
&& !( you.get_grab_type() == object_type::VEHICLE
&& veh.get_points().count( you.pos() + you.grab_point ) )
&& here.check_seen_cache( p ) ) {
you.memorize_tile( here.getabs( p ), vpname, subtile, rotation );
}
if( !overridden ) {
const cata::optional<vpart_reference> cargopart = vp.part_with_feature( "CARGO", true );
const bool draw_highlight = cargopart &&
!veh.get_items( cargopart->part_index() ).empty();
int height_3d_temp = 0;
const bool ret =
draw_from_id_string( vpname, TILE_CATEGORY::VEHICLE_PART, empty_string, p,
subtile, rotation, ll, nv_goggles_activated, height_3d_temp );
if( !roof ) {
height_3d = height_3d_temp;
}
if( ret && draw_highlight ) {
draw_item_highlight( p );
}
return ret;
}
}
}
if( overridden ) {
// and then draw the override vpart
const vpart_id &vp2 = std::get<0>( override->second );
if( vp2 ) {
const char part_mod = std::get<1>( override->second );
const int subtile = part_mod == 1 ? open_ : part_mod == 2 ? broken : 0;
const units::angle rotation = std::get<2>( override->second );
const int draw_highlight = std::get<3>( override->second );
const std::string vpname = "vp_" + vp2.str();
// tile overrides are never memorized
// tile overrides are always shown with full visibility
int height_3d_temp = 0;
const bool ret =
draw_from_id_string( vpname, TILE_CATEGORY::VEHICLE_PART, empty_string, p, subtile,
to_degrees( rotation ), lit_level::LIT, false, height_3d_temp );
if( !roof ) {
height_3d = height_3d_temp;
}
if( ret && draw_highlight ) {
draw_item_highlight( p );
}
return ret;
}
} else if( !roof && invisible[0] && has_vpart_memory_at( p ) ) {
// try drawing memory if invisible and not overridden
const memorized_terrain_tile &t = get_vpart_memory_at( p );
int height_3d_temp = 0;
return draw_from_id_string(
t.tile, TILE_CATEGORY::VEHICLE_PART, empty_string, p, t.subtile, t.rotation,
lit_level::MEMORIZED, nv_goggles_activated, height_3d_temp );
}
return false;
}
bool cata_tiles::draw_critter_at_below( const tripoint &p, const lit_level, int &,
const std::array<bool, 5> &invisible )
{
// Check if we even need to draw below. If not, bail.
const auto low_override = draw_below_override.find( p );
const bool low_overridden = low_override != draw_below_override.end();
if( low_overridden ? !low_override->second : ( invisible[0] ||
get_map().dont_draw_lower_floor( p ) ) ) {
return false;
}
tripoint pbelow( p.xy(), p.z - 1 );
// Get the critter at the location below. If there isn't one,
// we can bail.
const Creature *critter = get_creature_tracker().creature_at( pbelow, true );
if( critter == nullptr ) {
return false;
}
Character &you = get_player_character();
// Check if the player can actually see the critter. We don't care if
// it's via infrared or not, just whether or not they're seen. If not,
// we can bail.
if( !you.sees( *critter ) &&
!( you.sees_with_infrared( *critter ) || you.sees_with_specials( *critter ) ) ) {
return false;
}
const point screen_point = player_to_screen( pbelow.xy() );
SDL_Color tercol = curses_color_to_SDL( c_red );
const int sizefactor = 2;
SDL_Rect belowRect;
belowRect.h = tile_width / sizefactor;
belowRect.w = tile_height / sizefactor;
if( is_isometric() ) {
belowRect.h = ( belowRect.h * 2 ) / 3;
belowRect.w = ( belowRect.w * 3 ) / 4;
}
belowRect.x = screen_point.x + ( tile_width - belowRect.w ) / 2;
belowRect.y = screen_point.y + ( tile_height - belowRect.h ) / 2;
if( is_isometric() ) {
belowRect.y += tile_height / 8;
}
geometry->rect( renderer, belowRect, tercol );
return true;
}
bool cata_tiles::draw_critter_at( const tripoint &p, lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
bool result;
bool is_player;
bool sees_player;
Creature::Attitude attitude;
Character &you = get_player_character();
const Creature *pcritter = get_creature_tracker().creature_at( p, true );
const bool always_visible = pcritter && pcritter->has_flag( MF_ALWAYS_VISIBLE );
const auto override = monster_override.find( p );
if( override != monster_override.end() ) {
const mtype_id id = std::get<0>( override->second );
if( !id ) {
return false;
}
is_player = false;
sees_player = false;
attitude = std::get<3>( override->second );
const std::string &chosen_id = id.str();
const std::string &ent_subcategory = id.obj().species.empty() ?
empty_string : id.obj().species.begin()->str();
result = draw_from_id_string( chosen_id, TILE_CATEGORY::MONSTER, ent_subcategory, p,
corner, 0, lit_level::LIT, false, height_3d );
} else if( !invisible[0] || always_visible ) {
if( pcritter == nullptr ) {
return false;
}
const Creature &critter = *pcritter;
if( !you.sees( critter ) ) {
if( you.sees_with_infrared( critter ) ||
you.sees_with_specials( critter ) ) {
return draw_from_id_string( "infrared_creature", TILE_CATEGORY::NONE, empty_string,
p, 0, 0, lit_level::LIT, false, height_3d );
}
return false;
}
result = false;
sees_player = false;
is_player = false;
attitude = Creature::Attitude::ANY;
const monster *m = dynamic_cast<const monster *>( &critter );
if( m != nullptr ) {
const TILE_CATEGORY ent_category = TILE_CATEGORY::MONSTER;
std::string ent_subcategory = empty_string;
if( !m->type->species.empty() ) {
ent_subcategory = m->type->species.begin()->str();
}
const int subtile = corner;
// depending on the toggle flip sprite left or right
int rot_facing = -2;
if( m->facing == FacingDirection::RIGHT ) {
rot_facing = 0;
} else if( m->facing == FacingDirection::LEFT ) {
rot_facing = -1;
}
if( rot_facing >= -1 ) {
const auto ent_name = m->type->id;
std::string chosen_id = ent_name.str();
if( m->has_effect( effect_ridden ) ) {
int pl_under_height = 6;
if( m->mounted_player ) {
draw_entity_with_overlays( *m->mounted_player, p, ll, pl_under_height );
}
const std::string prefix = "rid_";
std::string copy_id = chosen_id;
const std::string ridden_id = copy_id.insert( 0, prefix );
const tile_type *tt = tileset_ptr->find_tile_type( ridden_id );
if( tt ) {
chosen_id = ridden_id;
}
}
result = draw_from_id_string( chosen_id, ent_category, ent_subcategory, p,
subtile, rot_facing, ll, false, height_3d );
sees_player = m->sees( you );
attitude = m->attitude_to( you );
}
}
const Character *pl = dynamic_cast<const Character *>( &critter );
if( pl != nullptr ) {
draw_entity_with_overlays( *pl, p, ll, height_3d );
result = true;
if( pl->is_avatar() ) {
is_player = true;
} else {
sees_player = pl->sees( you );
attitude = pl->attitude_to( you );
}
}
} else {
// invisible
if( pcritter == nullptr ) {
return false;
}
// scope_is_blocking is true if player is aiming and aim FOV limits obscure that position
const bool scope_is_blocking = you.is_avatar() && you.as_avatar()->cant_see( p );
const bool sees_with_infrared = !scope_is_blocking && you.sees_with_infrared( *pcritter );
if( sees_with_infrared || you.sees_with_specials( *pcritter ) ) {
// try drawing infrared creature if invisible and not overridden
// return directly without drawing overlay
return draw_from_id_string( "infrared_creature", TILE_CATEGORY::NONE, empty_string, p,
0, 0, lit_level::LIT, false, height_3d );
} else {
return false;
}
}
if( result && !is_player ) {
std::string draw_id = "overlay_" + Creature::attitude_raw_string( attitude );
if( sees_player && !you.has_trait( trait_INATTENTIVE ) ) {
draw_id += "_sees_player";
}
if( tileset_ptr->find_tile_type( draw_id ) ) {
draw_from_id_string( draw_id, TILE_CATEGORY::NONE, empty_string, p, 0, 0,
lit_level::LIT, false, height_3d );
}
}
return result;
}
bool cata_tiles::draw_zone_mark( const tripoint &p, lit_level ll, int &height_3d,
const std::array<bool, 5> &invisible )
{
if( invisible[0] ) {
return false;
}
if( !g->is_zones_manager_open() ) {
return false;
}
const zone_manager &mgr = zone_manager::get_manager();
const tripoint_abs_ms abs = get_map().getglobal( p );
const zone_data *zone = mgr.get_bottom_zone( abs );
if( zone && zone->has_options() ) {
const mark_option *option = dynamic_cast<const mark_option *>( &zone->get_options() );
if( option && !option->get_mark().empty() ) {
return draw_from_id_string( option->get_mark(), TILE_CATEGORY::NONE, empty_string, p,
0, 0, ll, nv_goggles_activated, height_3d );
}
}
return false;
}
bool cata_tiles::draw_zombie_revival_indicators( const tripoint &pos, const lit_level /*ll*/,
int &/*height_3d*/, const std::array<bool, 5> &invisible )
{
map &here = get_map();
if( tileset_ptr->find_tile_type( ZOMBIE_REVIVAL_INDICATOR ) && !invisible[0] &&
item_override.find( pos ) == item_override.end() &&
here.could_see_items( pos, get_player_character() ) ) {
for( item &i : here.i_at( pos ) ) {
if( i.can_revive() ) {
return draw_from_id_string( ZOMBIE_REVIVAL_INDICATOR, TILE_CATEGORY::NONE,
empty_string, pos, 0, 0, lit_level::LIT, false );
}
}
}
return false;
}
void cata_tiles::draw_entity_with_overlays( const Character &ch, const tripoint &p, lit_level ll,
int &height_3d )
{
std::string ent_name;
if( ch.is_npc() ) {
ent_name = ch.male ? "npc_male" : "npc_female";
} else {
ent_name = ch.male ? "player_male" : "player_female";
}
// first draw the character itself(i guess this means a tileset that
// takes this seriously needs a naked sprite)
int prev_height_3d = height_3d;
// depending on the toggle flip sprite left or right
if( ch.facing == FacingDirection::RIGHT ) {
draw_from_id_string( ent_name, TILE_CATEGORY::NONE, "", p, corner, 0, ll, false,
height_3d );
} else if( ch.facing == FacingDirection::LEFT ) {
draw_from_id_string( ent_name, TILE_CATEGORY::NONE, "", p, corner, -1, ll, false,
height_3d );
}
// next up, draw all the overlays
std::vector<std::pair<std::string, std::string>> overlays = ch.get_overlay_ids();
for( const std::pair<std::string, std::string> &overlay : overlays ) {
std::string draw_id = overlay.first;
if( find_overlay_looks_like( ch.male, overlay.first, overlay.second, draw_id ) ) {
int overlay_height_3d = prev_height_3d;
if( ch.facing == FacingDirection::RIGHT ) {
draw_from_id_string( draw_id, TILE_CATEGORY::NONE, "", p, corner, /*rota:*/ 0, ll,
false, overlay_height_3d );
} else if( ch.facing == FacingDirection::LEFT ) {
draw_from_id_string( draw_id, TILE_CATEGORY::NONE, "", p, corner, /*rota:*/ -1, ll,
false, overlay_height_3d );
}
// the tallest height-having overlay is the one that counts
height_3d = std::max( height_3d, overlay_height_3d );
}
}
}
bool cata_tiles::draw_item_highlight( const tripoint &pos )
{
return draw_from_id_string( ITEM_HIGHLIGHT, TILE_CATEGORY::NONE, empty_string, pos, 0, 0,
lit_level::LIT, false );
}
std::shared_ptr<const tileset> tileset_cache::load_tileset( const std::string &tileset_id,
const SDL_Renderer_Ptr &renderer, const bool precheck, const bool force, const bool pump_events )
{
const auto get_or_create_tileset = [&]() {
const auto it = tilesets_.find( tileset_id );
if( it == tilesets_.end() || it->second.expired() ) {
std::shared_ptr<tileset> new_ts = std::make_shared<tileset>();
loader loader( *new_ts, renderer );
loader.load( tileset_id, precheck, pump_events );
tilesets_.emplace( tileset_id, new_ts );
return new_ts;
}
return it->second.lock();
};
std::shared_ptr<tileset> ts = get_or_create_tileset();
if( force || ( ts->get_tileset_id().empty() && !precheck ) ) {
loader loader( *ts, renderer );
loader.load( tileset_id, precheck, pump_events );
}
return ts;
}
void tileset_cache::loader::ensure_default_item_highlight()
{
if( ts.find_tile_type( ITEM_HIGHLIGHT ) ) {
return;
}
const Uint8 highlight_alpha = 127;
int index = ts.tile_values.size();
const SDL_Surface_Ptr surface = create_surface_32( ts.tile_width, ts.tile_height );
cata_assert( surface );
throwErrorIf( SDL_FillRect( surface.get(), nullptr, SDL_MapRGBA( surface->format, 0, 0, 127,
highlight_alpha ) ) != 0, "SDL_FillRect failed" );
ts.tile_values.emplace_back( CreateTextureFromSurface( renderer, surface ),
SDL_Rect{ 0, 0, ts.tile_width, ts.tile_height } );
ts.tile_ids[ITEM_HIGHLIGHT].fg.add( std::vector<int>( {index} ), 1 );
}
/* Animation Functions */
/* -- Inits */
void cata_tiles::init_explosion( const tripoint &p, int radius )
{
do_draw_explosion = true;
exp_pos = p;
exp_rad = radius;
}
void cata_tiles::init_custom_explosion_layer( const std::map<tripoint, explosion_tile> &layer )
{
do_draw_custom_explosion = true;
custom_explosion_layer = layer;
}
void cata_tiles::init_draw_bullet( const tripoint &p, std::string name )
{
do_draw_bullet = true;
bul_pos = p;
bul_id = std::move( name );
}
void cata_tiles::init_draw_hit( const tripoint &p, std::string name )
{
do_draw_hit = true;
hit_pos = p;
hit_entity_id = std::move( name );
}
void cata_tiles::init_draw_line( const tripoint &p, std::vector<tripoint> trajectory,
std::string name, bool target_line )
{
do_draw_line = true;
is_target_line = target_line;
line_pos = p;
line_endpoint_id = std::move( name );
line_trajectory = std::move( trajectory );
}
void cata_tiles::init_draw_cursor( const tripoint &p )
{
do_draw_cursor = true;
cursors.emplace_back( p );
}
void cata_tiles::init_draw_highlight( const tripoint &p )
{
do_draw_highlight = true;
highlights.emplace_back( p );
}
void cata_tiles::init_draw_weather( weather_printable weather, std::string name )
{
do_draw_weather = true;
weather_name = std::move( name );
anim_weather = std::move( weather );
}
void cata_tiles::init_draw_sct()
{
do_draw_sct = true;
}
void cata_tiles::init_draw_zones( const tripoint &_start, const tripoint &_end,
const tripoint &_offset )
{
do_draw_zones = true;
zone_start = _start;
zone_end = _end;
zone_offset = _offset;
}
void cata_tiles::init_draw_radiation_override( const tripoint &p, const int rad )
{
radiation_override.emplace( p, rad );
}
void cata_tiles::init_draw_terrain_override( const tripoint &p, const ter_id &id )
{
terrain_override.emplace( p, id );
}
void cata_tiles::init_draw_furniture_override( const tripoint &p, const furn_id &id )
{
furniture_override.emplace( p, id );
}
void cata_tiles::init_draw_graffiti_override( const tripoint &p, const bool has )
{
graffiti_override.emplace( p, has );
}
void cata_tiles::init_draw_trap_override( const tripoint &p, const trap_id &id )
{
trap_override.emplace( p, id );
}
void cata_tiles::init_draw_field_override( const tripoint &p, const field_type_id &id )
{
field_override.emplace( p, id );
}
void cata_tiles::init_draw_item_override( const tripoint &p, const itype_id &id,
const mtype_id &mid, const bool hilite )
{
item_override.emplace( p, std::make_tuple( id, mid, hilite ) );
}
void cata_tiles::init_draw_vpart_override( const tripoint &p, const vpart_id &id,
const int part_mod, const units::angle &veh_dir, const bool hilite, const point &mount )
{
vpart_override.emplace( p, std::make_tuple( id, part_mod, veh_dir, hilite, mount ) );
}
void cata_tiles::init_draw_below_override( const tripoint &p, const bool draw )
{
draw_below_override.emplace( p, draw );
}
void cata_tiles::init_draw_monster_override( const tripoint &p, const mtype_id &id, const int count,
const bool more, const Creature::Attitude att )
{
monster_override.emplace( p, std::make_tuple( id, count, more, att ) );
}
/* -- Void Animators */
void cata_tiles::void_explosion()
{
do_draw_explosion = false;
exp_pos = {-1, -1, -1};
exp_rad = -1;
}
void cata_tiles::void_custom_explosion()
{
do_draw_custom_explosion = false;
custom_explosion_layer.clear();
}
void cata_tiles::void_bullet()
{
do_draw_bullet = false;
bul_pos = { -1, -1, -1 };
bul_id.clear();
}
void cata_tiles::void_hit()
{
do_draw_hit = false;
hit_pos = { -1, -1, -1 };
hit_entity_id.clear();
}
void cata_tiles::void_line()
{
do_draw_line = false;
is_target_line = false;
line_pos = { -1, -1, -1 };
line_endpoint_id.clear();
line_trajectory.clear();
}
void cata_tiles::void_cursor()
{
do_draw_cursor = false;
cursors.clear();
}
void cata_tiles::void_highlight()
{
do_draw_highlight = false;
highlights.clear();
}
void cata_tiles::void_weather()
{
do_draw_weather = false;
weather_name.clear();
anim_weather.vdrops.clear();
}
void cata_tiles::void_sct()
{
do_draw_sct = false;
}
void cata_tiles::void_zones()
{
do_draw_zones = false;
}
void cata_tiles::void_radiation_override()
{
radiation_override.clear();
}
void cata_tiles::void_terrain_override()
{
terrain_override.clear();
}
void cata_tiles::void_furniture_override()
{
furniture_override.clear();
}
void cata_tiles::void_graffiti_override()
{
graffiti_override.clear();
}
void cata_tiles::void_trap_override()
{
trap_override.clear();
}
void cata_tiles::void_field_override()
{
field_override.clear();
}
void cata_tiles::void_item_override()
{
item_override.clear();
}
void cata_tiles::void_vpart_override()
{
vpart_override.clear();
}
void cata_tiles::void_draw_below_override()
{
draw_below_override.clear();
}
void cata_tiles::void_monster_override()
{
monster_override.clear();
}
bool cata_tiles::has_draw_override( const tripoint &p ) const
{
return radiation_override.find( p ) != radiation_override.end() ||
terrain_override.find( p ) != terrain_override.end() ||
furniture_override.find( p ) != furniture_override.end() ||
graffiti_override.find( p ) != graffiti_override.end() ||
trap_override.find( p ) != trap_override.end() ||
field_override.find( p ) != field_override.end() ||
item_override.find( p ) != item_override.end() ||
vpart_override.find( p ) != vpart_override.end() ||
draw_below_override.find( p ) != draw_below_override.end() ||
monster_override.find( p ) != monster_override.end();
}
/* -- Animation Renders */
void cata_tiles::draw_explosion_frame()
{
std::string exp_name = "explosion";
int subtile = 0;
int rotation = 0;
for( int i = 1; i < exp_rad; ++i ) {
subtile = corner;
rotation = 0;
draw_from_id_string( exp_name, exp_pos + point( -i, -i ),
subtile, rotation++, lit_level::LIT, nv_goggles_activated );
draw_from_id_string( exp_name, exp_pos + point( -i, i ),
subtile, rotation++, lit_level::LIT, nv_goggles_activated );
draw_from_id_string( exp_name, exp_pos + point( i, i ),
subtile, rotation++, lit_level::LIT, nv_goggles_activated );
draw_from_id_string( exp_name, exp_pos + point( i, -i ),
subtile, rotation, lit_level::LIT, nv_goggles_activated );
subtile = edge;
for( int j = 1 - i; j < 0 + i; j++ ) {
rotation = 0;
draw_from_id_string( exp_name, exp_pos + point( j, -i ),
subtile, rotation, lit_level::LIT, nv_goggles_activated );
draw_from_id_string( exp_name, exp_pos + point( j, i ),
subtile, rotation, lit_level::LIT, nv_goggles_activated );
rotation = 1;
draw_from_id_string( exp_name, exp_pos + point( -i, j ),
subtile, rotation, lit_level::LIT, nv_goggles_activated );
draw_from_id_string( exp_name, exp_pos + point( i, j ),
subtile, rotation, lit_level::LIT, nv_goggles_activated );
}
}
}
void cata_tiles::draw_custom_explosion_frame()
{
// TODO: Make the drawing code handle all the missing tiles: <^>v and *
// TODO: Add more explosion tiles, like "strong explosion", so that it displays more info
static const std::string exp_strong = "explosion";
static const std::string exp_medium = "explosion_medium";
static const std::string exp_weak = "explosion_weak";
int subtile = 0;
int rotation = 0;
for( const auto &pr : custom_explosion_layer ) {
const explosion_neighbors ngh = pr.second.neighborhood;
const nc_color col = pr.second.color;
switch( ngh ) {
case N_NORTH:
case N_SOUTH:
subtile = edge;
rotation = 1;
break;
case N_WEST:
case N_EAST:
subtile = edge;
rotation = 0;
break;
case N_NORTH | N_SOUTH:
case N_NORTH | N_SOUTH | N_WEST:
case N_NORTH | N_SOUTH | N_EAST:
subtile = edge;
rotation = 1;
break;
case N_WEST | N_EAST:
case N_WEST | N_EAST | N_NORTH:
case N_WEST | N_EAST | N_SOUTH:
subtile = edge;
rotation = 0;
break;
case N_SOUTH | N_EAST:
subtile = corner;
rotation = 0;
break;
case N_NORTH | N_EAST:
subtile = corner;
rotation = 1;
break;
case N_NORTH | N_WEST:
subtile = corner;
rotation = 2;
break;
case N_SOUTH | N_WEST:
subtile = corner;
rotation = 3;
break;
case N_NO_NEIGHBORS:
case N_WEST | N_EAST | N_NORTH | N_SOUTH:
// Needs some special tile
subtile = edge;
break;
}
const tripoint &p = pr.first;
std::string explosion_tile_id;
if( pr.second.tile_name &&
find_tile_looks_like( *pr.second.tile_name, TILE_CATEGORY::NONE, "" ) ) {
explosion_tile_id = *pr.second.tile_name;
} else if( col == c_red ) {
explosion_tile_id = exp_strong;
} else if( col == c_yellow ) {
explosion_tile_id = exp_medium;
} else {
explosion_tile_id = exp_weak;
}
draw_from_id_string( explosion_tile_id, p, subtile, rotation, lit_level::LIT,
nv_goggles_activated );
}
}
void cata_tiles::draw_bullet_frame()
{
draw_from_id_string( bul_id, TILE_CATEGORY::BULLET, empty_string, bul_pos, 0, 0,
lit_level::LIT, false );
}
void cata_tiles::draw_hit_frame()
{
std::string hit_overlay = "animation_hit";
draw_from_id_string( hit_entity_id, TILE_CATEGORY::HIT_ENTITY, empty_string, hit_pos, 0, 0,
lit_level::LIT, false );
draw_from_id_string( hit_overlay, hit_pos, 0, 0, lit_level::LIT, false );
}
void cata_tiles::draw_line()
{
if( line_trajectory.empty() ) {
return;
}
static std::string line_overlay = "animation_line";
if( !is_target_line || get_player_view().sees( line_pos ) ) {
for( auto it = line_trajectory.begin(); it != line_trajectory.end() - 1; ++it ) {
draw_from_id_string( line_overlay, *it, 0, 0, lit_level::LIT, false );
}
}
draw_from_id_string( line_endpoint_id, line_trajectory.back(), 0, 0, lit_level::LIT, false );
}
void cata_tiles::draw_cursor()
{
for( const tripoint &p : cursors ) {
draw_from_id_string( "cursor", p, 0, 0, lit_level::LIT, false );
}
}
void cata_tiles::draw_highlight()
{
for( const tripoint &p : highlights ) {
draw_from_id_string( "highlight", p, 0, 0, lit_level::LIT, false );
}
}
void cata_tiles::draw_weather_frame()
{
for( auto &vdrop : anim_weather.vdrops ) {
// TODO: Z-level awareness if weather ever happens on anything but z-level 0.
tripoint p( vdrop.first, vdrop.second, 0 );
if( !is_isometric() ) {
// currently in ASCII screen coordinates
p += o;
}
draw_from_id_string( weather_name, TILE_CATEGORY::WEATHER, empty_string, p, 0, 0,
lit_level::LIT, nv_goggles_activated );
}
}
void cata_tiles::draw_sct_frame( std::multimap<point, formatted_text> &overlay_strings )
{
const bool use_font = get_option<bool>( "ANIMATION_SCT_USE_FONT" );
tripoint player_pos = get_player_character().pos();
for( auto iter = SCT.vSCT.begin(); iter != SCT.vSCT.end(); ++iter ) {
const point iD( iter->getPosX(), iter->getPosY() );
const int full_text_length = utf8_width( iter->getText() );
point iOffset;
for( int j = 0; j < 2; ++j ) {
std::string sText = iter->getText( ( j == 0 ) ? "first" : "second" );
int FG = msgtype_to_tilecolor( iter->getMsgType( ( j == 0 ) ? "first" : "second" ),
iter->getStep() >= SCT.iMaxSteps / 2 );
if( use_font ) {
const direction direction = iter->getDirection();
// Compensate for string length offset added at SCT creation
// (it will be readded using font size and proper encoding later).
const int direction_offset = ( -displace_XY( direction ).x + 1 ) *
full_text_length / 2;
overlay_strings.emplace(
player_to_screen( iD + point( direction_offset, 0 ) ),
formatted_text( sText, FG, direction ) );
} else {
for( char &it : sText ) {
const std::string generic_id = get_ascii_tile_id( it, FG, -1 );
if( tileset_ptr->find_tile_type( generic_id ) ) {
draw_from_id_string( generic_id, TILE_CATEGORY::NONE, empty_string,
iD + tripoint( iOffset, player_pos.z ),
0, 0, lit_level::LIT, false );
}
if( is_isometric() ) {
iOffset.y++;
}
iOffset.x++;
}
}
}
}
}
void cata_tiles::draw_zones_frame()
{
tripoint player_pos = get_player_character().pos();
for( int iY = zone_start.y; iY <= zone_end.y; ++ iY ) {
for( int iX = zone_start.x; iX <= zone_end.x; ++iX ) {
draw_from_id_string( "highlight", TILE_CATEGORY::NONE, empty_string,
zone_offset.xy() + tripoint( iX, iY, player_pos.z ),
0, 0, lit_level::LIT, false );
}
}
}
void cata_tiles::draw_footsteps_frame( const tripoint &center )
{
static const std::string id_footstep = "footstep";
static const std::string id_footstep_above = "footstep_above";
static const std::string id_footstep_below = "footstep_below";
const tile_type *tl_above = tileset_ptr->find_tile_type( id_footstep_above );
const tile_type *tl_below = tileset_ptr->find_tile_type( id_footstep_below );
for( const tripoint &pos : sounds::get_footstep_markers() ) {
if( pos.z > center.z && tl_above ) {
draw_from_id_string( id_footstep_above, pos, 0, 0, lit_level::LIT, false );
} else if( pos.z < center.z && tl_below ) {
draw_from_id_string( id_footstep_below, pos, 0, 0, lit_level::LIT, false );
} else {
draw_from_id_string( id_footstep, pos, 0, 0, lit_level::LIT, false );
}
}
}
/* END OF ANIMATION FUNCTIONS */
void cata_tiles::tile_loading_report_dups()
{
std::vector<std::string> dups_list;
const std::unordered_set<std::string> &dups_set = tileset_ptr->get_duplicate_ids();
std::copy( dups_set.begin(), dups_set.end(), std::back_inserter( dups_list ) );
// NOLINTNEXTLINE(cata-use-localized-sorting)
std::sort( dups_list.begin(), dups_list.end() );
std::string res;
for( const std::string &s : dups_list ) {
res += s;
res += " ";
}
DebugLog( D_INFO, DC_ALL ) << "Have duplicates: " << res;
}
void cata_tiles::init_light()
{
g->reset_light_level();
}
void cata_tiles::get_terrain_orientation( const tripoint &p, int &rota, int &subtile,
const std::map<tripoint, ter_id> &ter_override, const std::array<bool, 5> &invisible,
const std::bitset<NUM_TERCONN> &rotate_group )
{
map &here = get_map();
const bool overridden = ter_override.find( p ) != ter_override.end();
const auto ter = [&]( const tripoint & q, const bool invis ) -> ter_id {
const auto override = ter_override.find( q );
return override != ter_override.end() ? override->second :
( !overridden || !invis ) ? here.ter( q ) : t_null;
};
// get terrain at x,y
const ter_id tid = ter( p, invisible[0] );
if( tid == t_null ) {
subtile = 0;
rota = 0;
return;
}
// get terrain neighborhood
const std::array<ter_id, 4> neighborhood = {
ter( p + point_south, invisible[1] ),
ter( p + point_east, invisible[2] ),
ter( p + point_west, invisible[3] ),
ter( p + point_north, invisible[4] )
};
char val = 0;
// populate connection information
for( int i = 0; i < 4; ++i ) {
if( neighborhood[i] == tid ) {
val += 1 << i;
}
}
uint8_t rotation_targets = get_map().get_known_rotates_to( p, rotate_group, {} );
get_rotation_and_subtile( val, rotation_targets, rota, subtile );
}
void cata_tiles::get_rotation_and_subtile( const char val, const char rot_to, int &rotation,
int &subtile )
{
const bool no_rotation = rot_to == CHAR_MAX;
switch( val ) {
// no connections
case 0:
subtile = unconnected;
if( no_rotation ) {
rotation = 0;
break;
}
rotation = get_rotation_unconnected( rot_to );
break;
// all connections
case 15:
subtile = center;
rotation = 0;
break;
// end pieces
// rotations:
//
// --> edge index
// Nw, Ws, Sw, Es,
// Ne, Wn, Se, En, |
// N+, W+, S+, E+, V get_rotation_... return index
// N-, W-, S-, E-
//
// (Nw = north end piece, rotated to west)
case 8:
// vertical end piece S
subtile = end_piece;
if( no_rotation ) {
rotation = 2;
break;
}
rotation = 2 + 4 * get_rotation_edge_ns( rot_to );
break;
case 4:
// horizontal end piece E
subtile = end_piece;
if( no_rotation ) {
rotation = 3;
break;
}
rotation = 3 + 4 * get_rotation_edge_ew( rot_to );
break;
case 2:
// horizontal end piece W
subtile = end_piece;
if( no_rotation ) {
rotation = 1;
break;
}
rotation = 1 + 4 * get_rotation_edge_ew( rot_to );
break;
case 1:
// vertical end piece N
subtile = end_piece;
if( no_rotation ) {
rotation = 0;
break;
}
rotation = 4 * get_rotation_edge_ns( rot_to );
break;
// edges
// rotations:
//
// --> edge index
// NSw, EWs,
// NSe, EWn, |
// NS+, EW+, V get_rotation_... return index
// NS-, EW-,
//
// (NSw = north-south edge, rotated to west)
case 9:
// vertical edge
subtile = edge;
if( no_rotation ) {
rotation = 0;
break;
}
rotation = 2 * get_rotation_edge_ns( rot_to );
break;
case 6:
// horizontal edge
subtile = edge;
if( no_rotation ) {
rotation = 1;
break;
}
rotation = 1 + 2 * get_rotation_edge_ew( rot_to );
break;
// corners
case 12:
subtile = corner;
rotation = 2;
break;
case 10:
subtile = corner;
rotation = 1;
break;
case 3:
subtile = corner;
rotation = 0;
break;
case 5:
subtile = corner;
rotation = 3;
break;
// all t_connections
case 14:
subtile = t_connection;
rotation = 2;
break;
case 11:
subtile = t_connection;
rotation = 1;
break;
case 7:
subtile = t_connection;
rotation = 0;
break;
case 13:
subtile = t_connection;
rotation = 3;
break;
}
}
int cata_tiles::get_rotation_edge_ns( const char rot_to )
{
if( ( rot_to & static_cast<int>( NEIGHBOUR::EAST ) ) == static_cast<int>( NEIGHBOUR::EAST ) ) {
if( ( rot_to & static_cast<int>( NEIGHBOUR::WEST ) ) == static_cast<int>( NEIGHBOUR::WEST ) ) {
// EW
return 2;
} else {
// Ew
return 1;
}
} else { // east -
if( ( rot_to & static_cast<int>( NEIGHBOUR::WEST ) ) == static_cast<int>( NEIGHBOUR::WEST ) ) {
// eW
return 0;
} else {
// ew
return 3;
}
}
}
int cata_tiles::get_rotation_edge_ew( const char rot_to )
{
if( ( rot_to & static_cast<int>( NEIGHBOUR::NORTH ) ) == static_cast<int>( NEIGHBOUR::NORTH ) ) {
if( ( rot_to & static_cast<int>( NEIGHBOUR::SOUTH ) ) == static_cast<int>( NEIGHBOUR::SOUTH ) ) {
// NS
return 2;
} else {
// Ns
return 1;
}
} else { // north -
if( ( rot_to & static_cast<int>( NEIGHBOUR::SOUTH ) ) == static_cast<int>( NEIGHBOUR::SOUTH ) ) {
// nS
return 0;
} else {
// ns
return 3;
}
}
}
int cata_tiles::get_rotation_unconnected( const char rot_to )
{
int rotation = 0;
switch( rot_to ) {
// Catch no and all first for performance; these are the last sprites!
case 0: // NONE
rotation = 15;
break;
case 15: // ALL
rotation = 12;
break;
// Cases for single tile to rotate to -> easy
case static_cast<int>( NEIGHBOUR::NORTH ):
rotation = 2;
break;
case static_cast<int>( NEIGHBOUR::EAST ):
rotation = 3;
break;
case static_cast<int>( NEIGHBOUR::SOUTH ):
rotation = 0;
break;
case static_cast<int>( NEIGHBOUR::WEST ):
rotation = 1;
break;
// Two tiles, resulting in diagonal
case 10: // NE
rotation = 6;
break;
case 3: // SE
rotation = 7;
break;
case 5: // SW
rotation = 4;
break;
case 12: // NW
rotation = 5;
break;
// Cases for three tiles to rotate to -> easy
// Arranged to fallback / modulo to fitting index 0-4
case 14: // 3 but south --> modulo = north
rotation = 10;
break;
case 11: // 3 but west --> modulo = east
rotation = 11;
break;
case 7: // 3 but north --> modulo = south
rotation = 8;
break;
case 13: // 3 but east --> modulo = west
rotation = 9;
break;
// Two opposing tiles, (No tiles, all tiles; see first cases)
case 9: // N-S
rotation = 14;
break;
case 6: // E-W
rotation = 13;
break;
}
return rotation;
}
void cata_tiles::get_connect_values( const tripoint &p, int &subtile, int &rotation,
const std::bitset<NUM_TERCONN> &connect_group,
const std::bitset<NUM_TERCONN> &rotate_to_group,
const std::map<tripoint, ter_id> &ter_override )
{
uint8_t connections = get_map().get_known_connections( p, connect_group, ter_override );
uint8_t rotation_targets = get_map().get_known_rotates_to( p, rotate_to_group, ter_override );
get_rotation_and_subtile( connections, rotation_targets, rotation, subtile );
}
void cata_tiles::get_furn_connect_values( const tripoint &p, int &subtile, int &rotation,
const std::bitset<NUM_TERCONN> &connect_group, const std::bitset<NUM_TERCONN> &rotate_to_group,
const std::map<tripoint, furn_id> &furn_override )
{
uint8_t connections = get_map().get_known_connections_f( p, connect_group, furn_override );
uint8_t rotation_targets = get_map().get_known_rotates_to_f( p, rotate_to_group, {}, {} );
get_rotation_and_subtile( connections, rotation_targets, rotation, subtile );
}
void cata_tiles::get_tile_values( const int t, const std::array<int, 4> &tn, int &subtile,
int &rotation, const char rotation_targets )
{
std::array<bool, 4> connects;
char val = 0;
for( int i = 0; i < 4; ++i ) {
connects[i] = ( tn[i] == t );
if( connects[i] ) {
val += 1 << i;
}
}
get_rotation_and_subtile( val, rotation_targets, rotation, subtile );
}
void cata_tiles::get_tile_values_with_ter(
const tripoint &p, const int t, const std::array<int, 4> &tn, int &subtile, int &rotation,
const std::bitset<NUM_TERCONN> &rotate_to_group )
{
map &here = get_map();
uint8_t rotation_targets = get_map().get_known_rotates_to_f( p, rotate_to_group, {} );
//check if furniture should connect to itself
if( here.has_flag( ter_furn_flag::TFLAG_NO_SELF_CONNECT, p ) ||
here.has_flag( ter_furn_flag::TFLAG_ALIGN_WORKBENCH, p ) ) {
//if we don't ever connect to ourself just return unconnected to be used further
get_rotation_and_subtile( 0, rotation_targets, rotation, subtile );
} else {
//if we do connect to ourself (tables, counters etc.) calculate based on neighbours
get_tile_values( t, tn, subtile, rotation, rotation_targets );
}
// calculate rotation for unconnected tiles based on surrounding walls
// if not any rotates_to neighbours
if( subtile == unconnected && ( rotation_targets == 0 || rotation_targets == CHAR_MAX ) ) {
int val = 0;
bool use_furniture = false;
if( here.has_flag( ter_furn_flag::TFLAG_ALIGN_WORKBENCH, p ) ) {
for( int i = 0; i < 4; ++i ) {
// align to furniture that has the workbench quality
const tripoint &pt = p + four_adjacent_offsets[i];
if( here.has_furn( pt ) && here.furn( pt ).obj().workbench ) {
val += 1 << i;
use_furniture = true;
}
}
}
// if still unaligned, try aligning to walls
if( val == 0 ) {
for( int i = 0; i < 4; ++i ) {
const tripoint &pt = p + four_adjacent_offsets[i];
if( here.has_flag( ter_furn_flag::TFLAG_WALL, pt ) ||
here.has_flag( ter_furn_flag::TFLAG_WINDOW, pt ) ||
here.has_flag( ter_furn_flag::TFLAG_DOOR, pt ) ) {
val += 1 << i;
}
}
}
switch( val ) {
case 4: // south wall
case 14: // north opening T
rotation = 2;
break;
case 2: // east wall
case 6: // southeast corner
case 5: // E/W corridor
case 7: // east opening T
rotation = 1;
break;
case 8: // west wall
case 12: // southwest corner
case 13: // west opening T
rotation = 3;
break;
case 0: // no walls
case 1: // north wall
case 3: // northeast corner
case 9: // northwest corner
case 10: // N/S corridor
case 11: // south opening T
case 15: // surrounded
default: // just in case
rotation = rotate_to_group.none() ? 0 : 15;
break;
}
//
if( use_furniture ) {
rotation = ( rotation + 2 ) % 4;
}
}
}
void cata_tiles::do_tile_loading_report()
{
DebugLog( D_INFO, DC_ALL ) << "Loaded tileset: " << get_option<std::string>( "TILES" );
if( !g->is_core_data_loaded() ) {
// There's nothing to do anymore without the core data.
return;
}
tile_loading_report_map( vpart_info::all(), TILE_CATEGORY::VEHICLE_PART, "vp_" );
tile_loading_report_count<ter_t>( ter_t::count(), TILE_CATEGORY::TERRAIN );
std::map<itype_id, const itype *> items;
for( const itype *e : item_controller->all() ) {
items.emplace( e->get_id(), e );
}
tile_loading_report_map( items, TILE_CATEGORY::ITEM );
tile_loading_report_count<furn_t>( furn_t::count(), TILE_CATEGORY::FURNITURE );
tile_loading_report_count<trap>( trap::count(), TILE_CATEGORY::TRAP );
tile_loading_report_count<field_type>( field_type::count(), TILE_CATEGORY::FIELD );
// TODO: LIGHTING
tile_loading_report_seq_types( MonsterGenerator::generator().get_all_mtypes(),
TILE_CATEGORY::MONSTER );
// TODO: BULLET
// TODO: HIT_ENTITY
// TODO: WEATHER
std::vector<oter_type_str_id> oter_types;
for( const oter_t &oter : overmap_terrains::get_all() ) {
oter_types.push_back( oter.get_type_id() );
}
std::sort( oter_types.begin(), oter_types.end() );
oter_types.erase( std::unique( oter_types.begin(), oter_types.end() ), oter_types.end() );
tile_loading_report_seq_ids( oter_types, TILE_CATEGORY::OVERMAP_TERRAIN );
std::vector<map_extra_id> map_extra_ids = MapExtras::get_all_function_names();
map_extra_ids.erase(
std::remove_if( map_extra_ids.begin(), map_extra_ids.end(),
[]( const map_extra_id & id ) {
return !id->autonote;
} ), map_extra_ids.end() );
tile_loading_report_seq_ids( map_extra_ids, TILE_CATEGORY::MAP_EXTRA );
// TODO: OVERMAP_NOTE
static_assert( static_cast<int>( TILE_CATEGORY::last ) == 15,
"If you add more tile categories then update this tile loading report and then "
"increment the value in this static_assert accordingly" );
tile_loading_report_dups();
// needed until DebugLog ostream::flush bugfix lands
DebugLog( D_INFO, DC_ALL );
}
point cata_tiles::player_to_screen( const point &p ) const
{
point screen;
if( is_isometric() ) {
screen.x = ( ( p.x - o.x ) - ( o.y - p.y ) + screentile_width - 2 ) * tile_width / 2 +
op.x;
// y uses tile_width because width is definitive for iso tiles
// tile footprints are half as tall as wide, arbitrarily tall
screen.y = ( ( p.y - o.y ) - ( p.x - o.x ) - 4 ) * tile_width / 4 +
screentile_height * tile_height / 2 + // TODO: more obvious centering math
op.y;
} else {
screen.x = ( p.x - o.x ) * tile_width + op.x;
screen.y = ( p.y - o.y ) * tile_height + op.y;
}
return {screen};
}
template<typename Iter, typename Func>
void cata_tiles::lr_generic( Iter begin, Iter end, Func id_func, TILE_CATEGORY category,
const std::string &prefix )
{
std::string missing_list;
std::string missing_with_looks_like_list;
for( ; begin != end; ++begin ) {
const std::string id_string = id_func( begin );
if( !tileset_ptr->find_tile_type( prefix + id_string ) &&
!find_tile_looks_like( id_string, category, "" ) ) {
missing_list.append( id_string + " " );
} else if( !tileset_ptr->find_tile_type( prefix + id_string ) ) {
missing_with_looks_like_list.append( id_string + " " );
}
}
const std::string &category_name = TILE_CATEGORY_IDS[static_cast<size_t>( category )];
DebugLog( D_INFO, DC_ALL ) << "Missing " << category_name << ": " << missing_list;
DebugLog( D_INFO, DC_ALL ) << "Missing " << category_name <<
" (but looks_like tile exists): " << missing_with_looks_like_list;
}
template <typename maptype>
void cata_tiles::tile_loading_report_map( const maptype &tiletypemap, TILE_CATEGORY category,
const std::string &prefix )
{
lr_generic( tiletypemap.begin(), tiletypemap.end(),
[]( const decltype( tiletypemap.begin() ) & v ) {
// c_str works for std::string and for string_id!
return v->first.c_str();
}, category, prefix );
}
template <typename Sequence>
void cata_tiles::tile_loading_report_seq_types( const Sequence &tiletypes, TILE_CATEGORY category,
const std::string &prefix )
{
lr_generic( tiletypes.begin(), tiletypes.end(),
[]( const decltype( tiletypes.begin() ) & v ) {
return v->id.c_str();
}, category, prefix );
}
template <typename Sequence>
void cata_tiles::tile_loading_report_seq_ids( const Sequence &tiletypes, TILE_CATEGORY category,
const std::string &prefix )
{
lr_generic( tiletypes.begin(), tiletypes.end(),
[]( const decltype( tiletypes.begin() ) & v ) {
// c_str works for std::string and for string_id!
return v->c_str();
}, category, prefix );
}
template <typename base_type>
void cata_tiles::tile_loading_report_count( const size_t count, TILE_CATEGORY category,
const std::string &prefix )
{
lr_generic( static_cast<size_t>( 0 ), count,
[]( const size_t i ) {
return int_id<base_type>( i ).id().str();
}, category, prefix );
}
std::vector<options_manager::id_and_option> cata_tiles::build_renderer_list()
{
std::vector<options_manager::id_and_option> renderer_names;
std::vector<options_manager::id_and_option> default_renderer_names = {
# if defined(_WIN32)
{ "direct3d", to_translation( "direct3d" ) },
# endif
{ "software", to_translation( "software" ) },
{ "opengl", to_translation( "opengl" ) },
{ "opengles2", to_translation( "opengles2" ) },
};
int numRenderDrivers = SDL_GetNumRenderDrivers();
DebugLog( D_INFO, DC_ALL ) << "Number of render drivers on your system: " << numRenderDrivers;
for( int ii = 0; ii < numRenderDrivers; ii++ ) {
SDL_RendererInfo ri;
SDL_GetRenderDriverInfo( ii, &ri );
DebugLog( D_INFO, DC_ALL ) << "Render driver: " << ii << "/" << ri.name;
// First default renderer name we will put first on the list. We can use it later as
// default value.
if( ri.name == default_renderer_names.front().first ) {
renderer_names.emplace( renderer_names.begin(), default_renderer_names.front() );
} else {
renderer_names.emplace_back( ri.name, no_translation( ri.name ) );
}
}
return renderer_names.empty() ? default_renderer_names : renderer_names;
}
std::vector<options_manager::id_and_option> cata_tiles::build_display_list()
{
std::vector<options_manager::id_and_option> display_names;
std::vector<options_manager::id_and_option> default_display_names = {
{ "0", to_translation( "Display 0" ) }
};
int numdisplays = SDL_GetNumVideoDisplays();
display_names.reserve( numdisplays );
for( int i = 0 ; i < numdisplays ; i++ ) {
display_names.emplace_back( std::to_string( i ),
no_translation( SDL_GetDisplayName( i ) ) );
}
return display_names.empty() ? default_display_names : display_names;
}
#endif // SDL_TILES