/**
* Handle input and update display
*
*/
void uilist::query( bool loop, int timeout )
{
keypress = 0;
if( entries.empty() ) {
ret = UILIST_ERROR;
return;
}
ret = UILIST_WAIT_INPUT;
input_context ctxt( input_category );
ctxt.register_updown();
ctxt.register_action( "PAGE_UP" );
ctxt.register_action( "PAGE_DOWN" );
ctxt.register_action( "SCROLL_UP" );
ctxt.register_action( "SCROLL_DOWN" );
if( allow_cancel ) {
ctxt.register_action( "QUIT" );
}
ctxt.register_action( "CONFIRM" );
ctxt.register_action( "FILTER" );
ctxt.register_action( "ANY_INPUT" );
ctxt.register_action( "HELP_KEYBINDINGS" );
for( const auto &additional_action : additional_actions ) {
ctxt.register_action( additional_action.first, additional_action.second );
}
hotkeys = ctxt.get_available_single_char_hotkeys( hotkeys );
show();
#if defined(__ANDROID__)
for( const auto &entry : entries ) {
if( entry.hotkey > 0 && entry.enabled ) {
ctxt.register_manual_key( entry.hotkey, entry.txt );
}
}
#endif
do {
const auto action = ctxt.handle_input( timeout );
const auto event = ctxt.get_raw_input();
keypress = event.get_first_input();
const auto iter = keymap.find( keypress );
if( scrollby( scroll_amount_from_action( action ) ) ) {
/* nothing */
} else if( action == "HELP_KEYBINDINGS" ) {
/* nothing, handled by input_context */
} else if( filtering && action == "FILTER" ) {
inputfilter();
} else if( iter != keymap.end() ) {
selected = iter->second;
if( entries[ selected ].enabled ) {
ret = entries[ selected ].retval; // valid
} else if( allow_disabled ) {
ret = entries[selected].retval; // disabled
}
} else if( !fentries.empty() && action == "CONFIRM" ) {
if( entries[ selected ].enabled ) {
ret = entries[ selected ].retval; // valid
} else if( allow_disabled ) {
ret = entries[selected].retval; // disabled
}
} else if( allow_cancel && action == "QUIT" ) {
ret = UILIST_CANCEL;
} else if( action == "TIMEOUT" ) {
ret = UILIST_TIMEOUT;
} else {
bool unhandled = callback == nullptr || !callback->key( ctxt, event, selected, this );
if( unhandled && allow_anykey ) {
ret = UILIST_UNBOUND;
}
}
show();
} while( loop && ret == UILIST_WAIT_INPUT );
}
void player::power_bionics()
{
std::vector <bionic *> passive = filtered_bionics( my_bionics, TAB_PASSIVE );
std::vector <bionic *> active = filtered_bionics( my_bionics, TAB_ACTIVE );
bionic *bio_last = NULL;
bionic_tab_mode tab_mode = TAB_ACTIVE;
//added title_tab_height for the tabbed bionic display
int TITLE_HEIGHT = 2;
int TITLE_TAB_HEIGHT = 3;
// Main window
/** Total required height is:
* top frame line: + 1
* height of title window: + TITLE_HEIGHT
* height of tabs: + TITLE_TAB_HEIGHT
* height of the biggest list of active/passive bionics: + bionic_count
* bottom frame line: + 1
* TOTAL: TITLE_HEIGHT + TITLE_TAB_HEIGHT + bionic_count + 2
*/
const int HEIGHT = std::min( TERMY,
std::max( FULL_SCREEN_HEIGHT,
TITLE_HEIGHT + TITLE_TAB_HEIGHT +
( int )my_bionics.size() + 2 ) );
const int WIDTH = FULL_SCREEN_WIDTH + ( TERMX - FULL_SCREEN_WIDTH ) / 2;
const int START_X = ( TERMX - WIDTH ) / 2;
const int START_Y = ( TERMY - HEIGHT ) / 2;
//wBio is the entire bionic window
WINDOW *wBio = newwin( HEIGHT, WIDTH, START_Y, START_X );
WINDOW_PTR wBioptr( wBio );
const int LIST_HEIGHT = HEIGHT - TITLE_HEIGHT - TITLE_TAB_HEIGHT - 2;
const int DESCRIPTION_WIDTH = WIDTH - 2 - 40;
const int DESCRIPTION_START_Y = START_Y + TITLE_HEIGHT + TITLE_TAB_HEIGHT + 1;
const int DESCRIPTION_START_X = START_X + 1 + 40;
//w_description is the description panel that is controlled with ! key
WINDOW *w_description = newwin( LIST_HEIGHT, DESCRIPTION_WIDTH,
DESCRIPTION_START_Y, DESCRIPTION_START_X );
WINDOW_PTR w_descriptionptr( w_description );
// Title window
const int TITLE_START_Y = START_Y + 1;
const int HEADER_LINE_Y = TITLE_HEIGHT + TITLE_TAB_HEIGHT + 1;
WINDOW *w_title = newwin( TITLE_HEIGHT, WIDTH - 2, TITLE_START_Y, START_X + 1 );
WINDOW_PTR w_titleptr( w_title );
const int TAB_START_Y = TITLE_START_Y + 2;
//w_tabs is the tab bar for passive and active bionic groups
WINDOW *w_tabs = newwin( TITLE_TAB_HEIGHT, WIDTH - 2, TAB_START_Y, START_X + 1 );
WINDOW_PTR w_tabsptr( w_tabs );
int scroll_position = 0;
int cursor = 0;
//generate the tab title string and a count of the bionics owned
bionic_menu_mode menu_mode = ACTIVATING;
// offset for display: bionic with index i is drawn at y=list_start_y+i
// drawing the bionics starts with bionic[scroll_position]
const int list_start_y = HEADER_LINE_Y;// - scroll_position;
int half_list_view_location = LIST_HEIGHT / 2;
int max_scroll_position = std::max( 0, ( tab_mode == TAB_ACTIVE ?
( int )active.size() :
( int )passive.size() ) - LIST_HEIGHT );
input_context ctxt( "BIONICS" );
ctxt.register_updown();
ctxt.register_action( "ANY_INPUT" );
ctxt.register_action( "TOGGLE_EXAMINE" );
ctxt.register_action( "REASSIGN" );
ctxt.register_action( "REMOVE" );
ctxt.register_action( "NEXT_TAB" );
ctxt.register_action( "PREV_TAB" );
ctxt.register_action( "CONFIRM" );
ctxt.register_action( "HELP_KEYBINDINGS" );
bool recalc = false;
bool redraw = true;
for( ;; ) {
if( recalc ) {
passive = filtered_bionics( my_bionics, TAB_PASSIVE );
active = filtered_bionics( my_bionics, TAB_ACTIVE );
if( active.empty() && !passive.empty() ) {
tab_mode = TAB_PASSIVE;
}
if( --cursor < 0 ) {
cursor = 0;
}
if( scroll_position > max_scroll_position &&
cursor - scroll_position < LIST_HEIGHT - half_list_view_location ) {
scroll_position--;
}
recalc = false;
// bionics were modified, so it's necessary to redraw the screen
redraw = true;
}
//track which list we are looking at
std::vector<bionic *> *current_bionic_list = ( tab_mode == TAB_ACTIVE ? &active : &passive );
max_scroll_position = std::max( 0, ( int )current_bionic_list->size() - LIST_HEIGHT );
if( redraw ) {
redraw = false;
werase( wBio );
draw_border( wBio, BORDER_COLOR, _( " BIONICS " ) );
// Draw symbols to connect additional lines to border
mvwputch( wBio, HEADER_LINE_Y - 1, 0, BORDER_COLOR, LINE_XXXO ); // |-
mvwputch( wBio, HEADER_LINE_Y - 1, WIDTH - 1, BORDER_COLOR, LINE_XOXX ); // -|
if( current_bionic_list->empty() ) {
std::string msg;
switch( tab_mode ) {
case TAB_ACTIVE:
msg = _( "No activatable bionics installed." );
break;
case TAB_PASSIVE:
msg = _( "No passive bionics installed." );
break;
}
fold_and_print( wBio, list_start_y, 2, WIDTH - 3, c_ltgray, msg );
} else {
for( size_t i = scroll_position; i < current_bionic_list->size(); i++ ) {
if( list_start_y + static_cast<int>( i ) - scroll_position == HEIGHT - 1 ) {
break;
}
const bool is_highlighted = cursor == static_cast<int>( i );
const nc_color col = get_bionic_text_color( *( *current_bionic_list )[i],
is_highlighted );
const std::string desc = string_format( "%c %s", ( *current_bionic_list )[i]->invlet,
build_bionic_powerdesc_string(
*( *current_bionic_list )[i] ).c_str() );
trim_and_print( wBio, list_start_y + i - scroll_position, 2, WIDTH - 3, col,
"%s", desc.c_str() );
// draw bodyparts
if( is_highlighted && menu_mode != EXAMINING ) {
int max_width = 0;
std::vector<std::string>bps;
for( int i = 0; i < num_bp; ++i ) {
const body_part bp = bp_aBodyPart[i];
const int total = get_total_bionics_slots( bp );
const std::string s = string_format( "%s: %d/%d",
body_part_name_as_heading( bp, 1 ).c_str(),
total - get_free_bionics_slots( bp ),
total );
bps.push_back( s );
max_width = std::max( max_width, utf8_width( s ) );
}
const int pos_x = WIDTH - 2 - max_width;
const std::string bio_id = ( *current_bionic_list )[i]->id;
draw_connectors( wBio, list_start_y + i - scroll_position, utf8_width( desc ) + 3,
pos_x - 2, bio_id );
for( int i = 0; i < num_bp; ++i ) {
mvwprintz( wBio, i + list_start_y, pos_x,
bionic_info( bio_id ).occupied_bodyparts.count( bp_aBodyPart[i] ) > 0 ?
c_yellow : c_ltgray, "%s", bps[i].c_str() );
}
}
}
}
draw_scrollbar( wBio, cursor, LIST_HEIGHT, current_bionic_list->size(), list_start_y );
}
wrefresh( wBio );
draw_bionics_tabs( w_tabs, active.size(), passive.size(), tab_mode );
draw_bionics_titlebar( w_title, this, menu_mode );
if( menu_mode == EXAMINING && !current_bionic_list->empty() ) {
draw_description( w_description, *( *current_bionic_list )[cursor] );
}
const std::string action = ctxt.handle_input();
const long ch = ctxt.get_raw_input().get_first_input();
bionic *tmp = NULL;
bool confirmCheck = false;
if( menu_mode == REASSIGNING ) {
menu_mode = ACTIVATING;
tmp = bionic_by_invlet( ch );
if( tmp == nullptr ) {
// Selected an non-existing bionic (or escape, or ...)
continue;
}
redraw = true;
const long newch = popup_getkey( _( "%s; enter new letter." ),
bionic_info( tmp->id ).name.c_str() );
wrefresh( wBio );
if( newch == ch || newch == ' ' || newch == KEY_ESCAPE ) {
continue;
}
if( !bionic_chars.valid( newch ) ) {
popup( _( "Invalid bionic letter. Only those characters are valid:\n\n%s" ),
bionic_chars.get_allowed_chars().c_str() );
continue;
}
bionic *otmp = bionic_by_invlet( newch );
if( otmp != nullptr ) {
std::swap( tmp->invlet, otmp->invlet );
} else {
tmp->invlet = newch;
}
// TODO: show a message like when reassigning a key to an item?
} else if( action == "NEXT_TAB" ) {
redraw = true;
scroll_position = 0;
cursor = 0;
if( tab_mode == TAB_ACTIVE ) {
tab_mode = TAB_PASSIVE;
} else {
tab_mode = TAB_ACTIVE;
}
} else if( action == "PREV_TAB" ) {
redraw = true;
scroll_position = 0;
cursor = 0;
if( tab_mode == TAB_PASSIVE ) {
tab_mode = TAB_ACTIVE;
} else {
tab_mode = TAB_PASSIVE;
}
} else if( action == "DOWN" ) {
redraw = true;
if( static_cast<size_t>( cursor ) < current_bionic_list->size() - 1 ) {
cursor++;
}
if( scroll_position < max_scroll_position &&
cursor - scroll_position > LIST_HEIGHT - half_list_view_location ) {
scroll_position++;
}
} else if( action == "UP" ) {
redraw = true;
if( cursor > 0 ) {
cursor--;
}
if( scroll_position > 0 && cursor - scroll_position < half_list_view_location ) {
scroll_position--;
}
} else if( action == "REASSIGN" ) {
menu_mode = REASSIGNING;
} else if( action == "TOGGLE_EXAMINE" ) { // switches between activation and examination
menu_mode = menu_mode == ACTIVATING ? EXAMINING : ACTIVATING;
redraw = true;
} else if( action == "REMOVE" ) {
menu_mode = REMOVING;
redraw = true;
} else if( action == "HELP_KEYBINDINGS" ) {
redraw = true;
} else if( action == "CONFIRM" ) {
confirmCheck = true;
} else {
confirmCheck = true;
}
//confirmation either occurred by pressing enter where the bionic cursor is, or the hotkey was selected
if( confirmCheck ) {
auto &bio_list = tab_mode == TAB_ACTIVE ? active : passive;
if( action == "CONFIRM" && !current_bionic_list->empty() ) {
tmp = bio_list[cursor];
} else {
tmp = bionic_by_invlet( ch );
if( tmp && tmp != bio_last ) {
// new bionic selected, update cursor and scroll position
int temp_cursor = 0;
for( temp_cursor = 0; temp_cursor < ( int )bio_list.size(); temp_cursor++ ) {
if( bio_list[temp_cursor] == tmp ) {
break;
}
}
// if bionic is not found in current list, ignore the attempt to view/activate
if( temp_cursor >= ( int )bio_list.size() ) {
continue;
}
//relocate cursor to the bionic that was found
cursor = temp_cursor;
scroll_position = 0;
while( scroll_position < max_scroll_position &&
cursor - scroll_position > LIST_HEIGHT - half_list_view_location ) {
scroll_position++;
}
}
}
if( !tmp ) {
// entered a key that is not mapped to any bionic,
// -> leave screen
break;
}
bio_last = tmp;
const std::string &bio_id = tmp->id;
const bionic_data &bio_data = bionic_info( bio_id );
if( menu_mode == REMOVING ) {
recalc = uninstall_bionic( bio_id );
redraw = true;
continue;
}
if( menu_mode == ACTIVATING ) {
if( bio_data.activated ) {
int b = tmp - &my_bionics[0];
if( tmp->powered ) {
deactivate_bionic( b );
} else {
activate_bionic( b );
}
// update message log and the menu
g->refresh_all();
redraw = true;
continue;
} else {
popup( _( "You can not activate %s!\n"
"To read a description of %s, press '!', then '%c'." ), bio_data.name.c_str(),
bio_data.name.c_str(), tmp->invlet );
redraw = true;
}
} else if( menu_mode == EXAMINING ) { // Describing bionics, allow user to jump to description key
redraw = true;
if( action != "CONFIRM" ) {
for( size_t i = 0; i < active.size(); i++ ) {
if( active[i] == tmp ) {
tab_mode = TAB_ACTIVE;
cursor = static_cast<int>( i );
int max_scroll_check = std::max( 0, ( int )active.size() - LIST_HEIGHT );
if( static_cast<int>( i ) > max_scroll_check ) {
scroll_position = max_scroll_check;
} else {
scroll_position = i;
}
break;
}
}
for( size_t i = 0; i < passive.size(); i++ ) {
if( passive[i] == tmp ) {
tab_mode = TAB_PASSIVE;
cursor = static_cast<int>( i );
int max_scroll_check = std::max( 0, ( int )passive.size() - LIST_HEIGHT );
if( static_cast<int>( i ) > max_scroll_check ) {
scroll_position = max_scroll_check;
} else {
scroll_position = i;
}
break;
}
}
}
}
}
}
}
void construction_menu()
{
static bool hide_unconstructable = false;
// only display constructions the player can theoretically perform
std::vector<std::string> available;
std::map<std::string, std::vector<std::string>> cat_available;
load_available_constructions( available, cat_available, hide_unconstructable );
if( available.empty() ) {
popup( _( "You can not construct anything here." ) );
return;
}
int w_height = TERMY;
if( ( int )available.size() + 2 < w_height ) {
w_height = available.size() + 2;
}
if( w_height < FULL_SCREEN_HEIGHT ) {
w_height = FULL_SCREEN_HEIGHT;
}
const int w_width = std::max( FULL_SCREEN_WIDTH, TERMX * 2 / 3);
const int w_y0 = ( TERMY > w_height ) ? ( TERMY - w_height ) / 2 : 0;
const int w_x0 = ( TERMX > w_width ) ? ( TERMX - w_width ) / 2 : 0;
WINDOW_PTR w_con_ptr {newwin( w_height, w_width, w_y0, w_x0 )};
WINDOW *const w_con = w_con_ptr.get();
const int w_list_width = int( .375 * w_width );
const int w_list_height = w_height - 4;
const int w_list_x0 = 1;
WINDOW_PTR w_list_ptr {newwin( w_list_height, w_list_width, w_y0 + 3, w_x0 + w_list_x0 )};
WINDOW *const w_list = w_list_ptr.get();
draw_grid( w_con, w_list_width + w_list_x0 );
//tabcount needs to be increased to add more categories
int tabcount = 10;
std::string construct_cat[] = {_( "All" ), _( "Constructions" ), _( "Furniture" ),
_( "Digging and Mining" ), _( "Repairing" ),
_( "Reinforcing" ), _( "Decorative" ),
_( "Farming and Woodcutting" ), _( "Others" ),
_( "Filter" )
};
bool update_info = true;
bool update_cat = true;
bool isnew = true;
int tabindex = 0;
int select = 0;
int offset = 0;
bool exit = false;
std::string category_name = "";
std::vector<std::string> constructs;
//storage for the color text so it can be scrolled
std::vector< std::vector < std::string > > construct_buffers;
std::vector<std::string> full_construct_buffer;
std::vector<int> construct_buffer_breakpoints;
int total_project_breakpoints = 0;
int current_construct_breakpoint = 0;
bool previous_hide_unconstructable = false;
//track the cursor to determine when to refresh the list of construction recipes
int previous_tabindex = -1;
int previous_select = -1;
const inventory &total_inv = g->u.crafting_inventory();
input_context ctxt( "CONSTRUCTION" );
ctxt.register_action( "UP", _( "Move cursor up" ) );
ctxt.register_action( "DOWN", _( "Move cursor down" ) );
ctxt.register_action( "RIGHT", _( "Move tab right" ) );
ctxt.register_action( "LEFT", _( "Move tab left" ) );
ctxt.register_action( "PAGE_UP" );
ctxt.register_action( "PAGE_DOWN" );
ctxt.register_action( "CONFIRM" );
ctxt.register_action( "TOGGLE_UNAVAILABLE_CONSTRUCTIONS" );
ctxt.register_action( "QUIT" );
ctxt.register_action( "HELP_KEYBINDINGS" );
ctxt.register_action( "FILTER" );
std::string filter;
int previous_index = 0;
do {
if( update_cat ) {
update_cat = false;
switch( tabindex ) {
case 0:
category_name = "ALL";
break;
case 1:
category_name = "CONSTRUCT";
break;
case 2:
category_name = "FURN";
break;
case 3:
category_name = "DIG";
break;
case 4:
category_name = "REPAIR";
break;
case 5:
category_name = "REINFORCE";
break;
case 6:
category_name = "DECORATE";
break;
case 7:
category_name = "FARM_WOOD";
break;
case 8:
category_name = "OTHER";
break;
case 9:
category_name = "FILTER";
break;
}
if( category_name == "ALL" ) {
constructs = available;
previous_index = tabindex;
} else if( category_name == "FILTER" ) {
constructs.clear();
std::copy_if( available.begin(), available.end(),
std::back_inserter( constructs ),
[&](const std::string &a){
return lcmatch(a, filter);
} );
} else {
constructs = cat_available[category_name];
previous_index = tabindex;
}
if( isnew ){
if( !uistate.last_construction.empty() ){
select = std::distance(constructs.begin(),
std::find( constructs.begin(),
constructs.end(),
uistate.last_construction ));
}
filter = uistate.construction_filter;
}
}
// Erase existing tab selection & list of constructions
mvwhline( w_con, 1, 1, ' ', w_list_width );
werase( w_list );
// Print new tab listing
mvwprintz( w_con, 1, 1, c_yellow, "<< %s >>", construct_cat[tabindex].c_str() );
// Determine where in the master list to start printing
calcStartPos( offset, select, w_list_height, constructs.size() );
// Print the constructions between offset and max (or how many will fit)
for( size_t i = 0; ( int )i < w_list_height && ( i + offset ) < constructs.size(); i++ ) {
int current = i + offset;
std::string con_name = constructs[current];
bool highlight = ( current == select );
trim_and_print( w_list, i, 0, w_list_width,
construction_color( con_name, highlight ), "%s",
con_name.c_str() );
}
if( update_info ) {
update_info = false;
// Clear out lines for tools & materials
const int pos_x = w_list_width + w_list_x0 + 2;
const int available_window_width = w_width - pos_x - 1;
for( int i = 1; i < w_height - 1; i++ ) {
mvwhline( w_con, i, pos_x, ' ', available_window_width );
}
nc_color color_stage = c_white;
std::vector<std::string> notes;
notes.push_back( string_format( _( "Press %s or %s to tab." ),
ctxt.get_desc( "LEFT" ).c_str(), ctxt.get_desc( "RIGHT" ).c_str() ) );
notes.push_back( string_format( _( "Press %s to search." ),
ctxt.get_desc( "FILTER" ).c_str() ) );
notes.push_back( string_format( _( "Press %s to toggle unavailable constructions." ),
ctxt.get_desc( "TOGGLE_UNAVAILABLE_CONSTRUCTIONS" ).c_str() ) );
notes.push_back( string_format( _( "Press %s to view and edit key-bindings." ),
ctxt.get_desc( "HELP_KEYBINDINGS" ).c_str() ) );
//leave room for top and bottom UI text
const int available_buffer_height = w_height - 3 - 3 - (int)notes.size();
// print the hotkeys regardless of if there are constructions
for( size_t i = 0; i < notes.size(); ++i ) {
trim_and_print( w_con, w_height - 1 - (int)notes.size() + (int)i, pos_x,
available_window_width, c_white, "%s", notes[i].c_str() );
}
if( !constructs.empty() ) {
if( select >= (int) constructs.size() ){
select = 0;
}
std::string current_desc = constructs[select];
// Print construction name
trim_and_print( w_con, 1, pos_x, available_window_width, c_white,
"%s", current_desc.c_str() );
//only reconstruct the project list when moving away from the current item, or when changing the display mode
if( previous_select != select || previous_tabindex != tabindex ||
previous_hide_unconstructable != hide_unconstructable ) {
previous_select = select;
previous_tabindex = tabindex;
previous_hide_unconstructable = hide_unconstructable;
//construct the project list buffer
// Print stages and their requirement.
std::vector<construction *> options = constructions_by_desc( current_desc );
construct_buffers.clear();
total_project_breakpoints = 0;
current_construct_breakpoint = 0;
construct_buffer_breakpoints.clear();
full_construct_buffer.clear();
int stage_counter = 0;
for( std::vector<construction *>::iterator it = options.begin();
it != options.end(); ++it ) {
stage_counter++;
construction *current_con = *it;
if( hide_unconstructable && !can_construct( *current_con ) ) {
continue;
}
// Update the cached availability of components and tools in the requirement object
current_con->requirements->can_make_with_inventory( total_inv );
std::vector<std::string> current_buffer;
std::ostringstream current_line;
// display result only if more than one step.
// Assume single stage constructions should be clear
// in their description what their result is.
if( current_con->post_terrain != "" && options.size() > 1 ) {
//also print out stage number when multiple stages are available
current_line << _( "Stage #" ) << stage_counter;
current_buffer.push_back( current_line.str() );
current_line.str( "" );
std::string result_string;
if( current_con->post_is_furniture ) {
result_string = furn_str_id( current_con->post_terrain ).obj().name;
} else {
result_string = ter_str_id( current_con->post_terrain ).obj().name;
}
current_line << "<color_" << string_from_color( color_stage ) << ">" << string_format(
_( "Result: %s" ), result_string.c_str() ) << "</color>";
std::vector<std::string> folded_result_string = foldstring( current_line.str(),
available_window_width );
current_buffer.insert( current_buffer.end(), folded_result_string.begin(),
folded_result_string.end() );
}
current_line.str( "" );
// display required skill and difficulty
int pskill = g->u.get_skill_level( current_con->skill );
int diff = ( current_con->difficulty > 0 ) ? current_con->difficulty : 0;
current_line << "<color_" << string_from_color( ( pskill >= diff ? c_white : c_red ) ) << ">" <<
string_format( _( "Skill Req: %d (%s)" ), diff,
current_con->skill.obj().name().c_str() ) << "</color>";
current_buffer.push_back( current_line.str() );
// TODO: Textify pre_flags to provide a bit more information.
// Example: First step of dig pit could say something about
// requiring diggable ground.
current_line.str( "" );
if( current_con->pre_terrain != "" ) {
std::string require_string;
if( current_con->pre_is_furniture ) {
require_string = furn_str_id( current_con->pre_terrain ).obj().name;
} else {
require_string = ter_str_id( current_con->pre_terrain ).obj().name;
}
current_line << "<color_" << string_from_color( color_stage ) << ">" << string_format(
_( "Requires: %s" ), require_string.c_str() ) << "</color>";
std::vector<std::string> folded_result_string = foldstring( current_line.str(),
available_window_width );
current_buffer.insert( current_buffer.end(), folded_result_string.begin(),
folded_result_string.end() );
}
// get pre-folded versions of the rest of the construction project to be displayed later
// get time needed
std::vector<std::string> folded_time = current_con->get_folded_time_string(
available_window_width );
current_buffer.insert( current_buffer.end(), folded_time.begin(), folded_time.end() );
std::vector<std::string> folded_tools = current_con->requirements->get_folded_tools_list(
available_window_width, color_stage, total_inv );
current_buffer.insert( current_buffer.end(), folded_tools.begin(), folded_tools.end() );
std::vector<std::string> folded_components = current_con->requirements->get_folded_components_list(
available_window_width, color_stage, total_inv );
current_buffer.insert( current_buffer.end(), folded_components.begin(), folded_components.end() );
construct_buffers.push_back( current_buffer );
}
//determine where the printing starts for each project, so it can be scrolled to those points
size_t current_buffer_location = 0;
for( size_t i = 0; i < construct_buffers.size(); i++ ) {
construct_buffer_breakpoints.push_back( static_cast<int>( current_buffer_location ) );
full_construct_buffer.insert( full_construct_buffer.end(), construct_buffers[i].begin(),
construct_buffers[i].end() );
//handle text too large for one screen
if( construct_buffers[i].size() > static_cast<size_t>( available_buffer_height ) ) {
construct_buffer_breakpoints.push_back( static_cast<int>( current_buffer_location +
static_cast<size_t>( available_buffer_height ) ) );
}
current_buffer_location += construct_buffers[i].size();
if( i < construct_buffers.size() - 1 ) {
full_construct_buffer.push_back( std::string( "" ) );
current_buffer_location++;
}
}
total_project_breakpoints = static_cast<int>( construct_buffer_breakpoints.size() );
}
if( current_construct_breakpoint > 0 ) {
// Print previous stage indicator if breakpoint is past the beginning
trim_and_print( w_con, 2, pos_x, available_window_width, c_white,
_( "Press %s to show previous stage(s)." ),
ctxt.get_desc( "PAGE_UP" ).c_str() );
}
if( static_cast<size_t>( construct_buffer_breakpoints[current_construct_breakpoint] +
available_buffer_height ) < full_construct_buffer.size() ) {
// Print next stage indicator if more breakpoints are remaining after screen height
trim_and_print( w_con, w_height - 2 - (int)notes.size(), pos_x, available_window_width,
c_white, _( "Press %s to show next stage(s)." ),
ctxt.get_desc( "PAGE_DOWN" ).c_str() );
}
// Leave room for above/below indicators
int ypos = 3;
nc_color stored_color = color_stage;
for( size_t i = static_cast<size_t>( construct_buffer_breakpoints[current_construct_breakpoint] );
i < full_construct_buffer.size(); i++ ) {
//the value of 3 is from leaving room at the top of window
if( ypos > available_buffer_height + 3 ) {
break;
}
print_colored_text( w_con, ypos++, ( w_list_width + w_list_x0 + 2 ), stored_color, color_stage, full_construct_buffer[i] );
}
}
} // Finished updating
draw_scrollbar( w_con, select, w_list_height, constructs.size(), 3 );
wrefresh( w_con );
wrefresh( w_list );
const std::string action = ctxt.handle_input();
if( action == "FILTER" ){
filter = string_input_popup( _( "Search" ), 50, filter, "", _( "Filter" ), 100, false );
if( !filter.empty() ){
update_info = true;
update_cat = true;
tabindex = 9;
select = 0;
}else if( previous_index !=9 ){
tabindex = previous_index;
update_info = true;
update_cat = true;
select = 0;
}
uistate.construction_filter = filter;
} else if( action == "DOWN" ) {
update_info = true;
if( select < ( int )constructs.size() - 1 ) {
select++;
} else {
select = 0;
}
} else if( action == "UP" ) {
update_info = true;
if( select > 0 ) {
select--;
} else {
select = constructs.size() - 1;
}
} else if( action == "LEFT" ) {
update_info = true;
update_cat = true;
select = 0;
tabindex--;
if( tabindex < 0 ) {
tabindex = tabcount - 1;
}
} else if( action == "RIGHT" ) {
update_info = true;
update_cat = true;
select = 0;
tabindex = ( tabindex + 1 ) % tabcount;
} else if( action == "PAGE_UP" ) {
update_info = true;
if( current_construct_breakpoint > 0 ) {
current_construct_breakpoint--;
}
if( current_construct_breakpoint < 0 ) {
current_construct_breakpoint = 0;
}
} else if( action == "PAGE_DOWN" ) {
update_info = true;
if( current_construct_breakpoint < total_project_breakpoints - 1 ) {
current_construct_breakpoint++;
}
if( current_construct_breakpoint >= total_project_breakpoints ) {
current_construct_breakpoint = total_project_breakpoints - 1;
}
} else if( action == "QUIT" ) {
exit = true;
} else if( action == "HELP_KEYBINDINGS" ) {
draw_grid( w_con, w_list_width + w_list_x0 );
} else if( action == "TOGGLE_UNAVAILABLE_CONSTRUCTIONS" ) {
update_info = true;
update_cat = true;
hide_unconstructable = !hide_unconstructable;
select = 0;
offset = 0;
load_available_constructions( available, cat_available, hide_unconstructable );
} else if( action == "CONFIRM" ) {
if( constructs.empty() || select >= (int) constructs.size() ){
continue;// Nothing to be done here
}
if( player_can_build( g->u, total_inv, constructs[select] ) ) {
place_construction( constructs[select] );
uistate.last_construction = constructs[select];
exit = true;
} else {
popup( _( "You can't build that!" ) );
draw_grid( w_con, w_list_width + w_list_x0 );
update_info = true;
}
}
} while( !exit );
w_list_ptr.reset();
w_con_ptr.reset();
g->refresh_all();
}
void input_context::display_help()
{
inp_mngr.set_timeout(-1);
// Shamelessly stolen from help.cpp
WINDOW *w_help = newwin(FULL_SCREEN_HEIGHT - 2, FULL_SCREEN_WIDTH - 2,
1 + (int)((TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0),
1 + (int)((TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0));
// has the user changed something?
bool changed = false;
// keybindings before the user changed anything.
input_manager::t_action_contexts old_action_contexts(inp_mngr.action_contexts);
// current status: adding/removing/showing keybindings
enum { s_remove, s_add, s_add_global, s_show } status = s_show;
// copy of registered_actions, but without the ANY_INPUT and COORDINATE, which should not be shown
std::vector<std::string> org_registered_actions(registered_actions);
std::vector<std::string>::iterator any_input = std::find(org_registered_actions.begin(),
org_registered_actions.end(), ANY_INPUT);
if (any_input != org_registered_actions.end()) {
org_registered_actions.erase(any_input);
}
std::vector<std::string>::iterator coordinate = std::find(org_registered_actions.begin(),
org_registered_actions.end(), COORDINATE);
if (coordinate != org_registered_actions.end()) {
org_registered_actions.erase(coordinate);
}
// colors of the keybindings
static const nc_color global_key = c_ltgray;
static const nc_color local_key = c_ltgreen;
static const nc_color unbound_key = c_ltred;
// (vertical) scroll offset
size_t scroll_offset = 0;
// height of the area usable for display of keybindings, excludes headers & borders
const size_t display_height = FULL_SCREEN_HEIGHT - 2 - 2; // -2 for the border
// width of the legend
const size_t legwidth = FULL_SCREEN_WIDTH - 51 - 2;
// keybindings help
std::ostringstream legend;
legend << "<color_" << string_from_color(unbound_key) << ">" << _("Unbound keys") << "</color>\n";
legend << "<color_" << string_from_color(local_key) << ">" <<
_("Keybinding active only on this screen") << "</color>\n";
legend << "<color_" << string_from_color(global_key) << ">" << _("Keybinding active globally") <<
"</color>\n";
legend << _("Press - to remove keybinding\nPress + to add local keybinding\nPress = to add global keybinding\n");
input_context ctxt("HELP_KEYBINDINGS");
ctxt.register_action("UP", _("Scroll up"));
ctxt.register_action("DOWN", _("Scroll down"));
ctxt.register_action("PAGE_DOWN");
ctxt.register_action("PAGE_UP");
ctxt.register_action("REMOVE");
ctxt.register_action("ADD_LOCAL");
ctxt.register_action("ADD_GLOBAL");
ctxt.register_action("QUIT");
ctxt.register_action("ANY_INPUT");
if (category != "HELP_KEYBINDINGS") {
// avoiding inception!
ctxt.register_action("HELP_KEYBINDINGS");
}
std::string hotkeys = ctxt.get_available_single_char_hotkeys(display_help_hotkeys);
while(true) {
werase(w_help);
draw_border(w_help);
draw_scrollbar(w_help, scroll_offset, display_height, org_registered_actions.size() - display_height, 1);
mvwprintz(w_help, 0, (FULL_SCREEN_WIDTH - utf8_width(_("Keybindings"))) / 2 - 1,
c_ltred, " %s ", _("Keybindings"));
fold_and_print(w_help, 1, 51, legwidth, c_white, legend.str());
for (size_t i = 0; i + scroll_offset < org_registered_actions.size() && i < display_height; i++) {
const std::string &action_id = org_registered_actions[i + scroll_offset];
bool overwrite_default;
const action_attributes &attributes = inp_mngr.get_action_attributes(action_id, category,
&overwrite_default);
char invlet;
if (i < hotkeys.size()) {
invlet = hotkeys[i];
} else {
invlet = ' ';
}
if (status == s_add_global && overwrite_default) {
// We're trying to add a global, but this action has a local
// defined, so gray out the invlet.
mvwprintz(w_help, i + 1, 2, c_dkgray, "%c ", invlet);
} else if (status == s_add || status == s_add_global) {
mvwprintz(w_help, i + 1, 2, c_blue, "%c ", invlet);
} else if (status == s_remove) {
mvwprintz(w_help, i + 1, 2, c_blue, "%c ", invlet);
} else {
mvwprintz(w_help, i + 1, 2, c_blue, " ");
}
nc_color col;
if (attributes.input_events.empty()) {
col = unbound_key;
} else if (overwrite_default) {
col = local_key;
} else {
col = global_key;
}
mvwprintz(w_help, i + 1, 4, col, "%s: ", get_action_name(action_id).c_str());
mvwprintz(w_help, i + 1, 30, col, "%s", get_desc(action_id).c_str());
}
wrefresh(w_help);
refresh();
// In addition to the modifiable hotkeys, we also check for hardcoded
// keys, e.g. '+', '-', '=', in order to prevent the user from
// entering an unrecoverable state.
const std::string action = ctxt.handle_input();
const long raw_input_char = ctxt.get_raw_input().get_first_input();
if (action == "ADD_LOCAL" || raw_input_char == '+') {
status = s_add;
} else if (action == "ADD_GLOBAL" || raw_input_char == '=') {
status = s_add_global;
} else if (action == "REMOVE" || raw_input_char == '-') {
status = s_remove;
} else if (action == "ANY_INPUT") {
const size_t hotkey_index = hotkeys.find_first_of(raw_input_char);
if (status == s_show || hotkey_index == std::string::npos ) {
continue;
}
const size_t action_index = hotkey_index + scroll_offset;
if( action_index >= org_registered_actions.size() ) {
continue;
}
const std::string &action_id = org_registered_actions[action_index];
// Check if this entry is local or global.
bool is_local = false;
inp_mngr.get_action_attributes(action_id, category, &is_local);
const std::string name = get_action_name(action_id);
if (status == s_remove && (!OPTIONS["QUERY_KEYBIND_REMOVAL"] ||
query_yn(_("Clear keys for %s?"), name.c_str()))) {
// If it's global, reset the global actions.
std::string category_to_access = category;
if (!is_local) {
category_to_access = default_context_id;
}
inp_mngr.remove_input_for_action(action_id, category_to_access);
changed = true;
} else if (status == s_add_global && is_local) {
// Disallow adding global actions to an action that already has a local defined.
popup(_("There are already local keybindings defined for this action, please remove them first."));
} else if (status == s_add || status == s_add_global) {
const long newbind = popup_getkey(_("New key for %s:"), name.c_str());
const input_event new_event(newbind, CATA_INPUT_KEYBOARD);
const std::string conflicts = get_conflicts(new_event);
const bool has_conflicts = !conflicts.empty();
bool resolve_conflicts = false;
if (has_conflicts) {
resolve_conflicts = query_yn(
_("This key conflicts with %s. Remove this key from the conflicting command(s), and continue?"),
conflicts.c_str());
}
if (!has_conflicts || resolve_conflicts) {
if (resolve_conflicts) {
clear_conflicting_keybindings(new_event);
}
// We might be adding a local or global action.
std::string category_to_access = category;
if (status == s_add_global) {
category_to_access = default_context_id;
}
inp_mngr.add_input_for_action(action_id, category_to_access, new_event);
changed = true;
}
}
status = s_show;
} else if (action == "DOWN") {
if (scroll_offset < org_registered_actions.size() - display_height) {
scroll_offset++;
}
} else if (action == "UP") {
if (scroll_offset > 0) {
scroll_offset--;
}
} else if (action == "PAGE_DOWN") {
if( scroll_offset + display_height < org_registered_actions.size() ) {
scroll_offset += std::min(display_height, org_registered_actions.size() -
display_height - scroll_offset);
} else if( org_registered_actions.size() > display_height ) {
scroll_offset = 0;
}
} else if( action == "PAGE_UP" ) {
if( scroll_offset >= display_height ) {
scroll_offset -= display_height;
} else if( scroll_offset > 0 ) {
scroll_offset = 0;
} else if( org_registered_actions.size() > display_height ) {
scroll_offset = org_registered_actions.size() - display_height;
}
} else if (action == "QUIT") {
if (status != s_show) {
status = s_show;
} else {
break;
}
} else if (action == "HELP_KEYBINDINGS") {
// update available hotkeys in case they've changed
hotkeys = ctxt.get_available_single_char_hotkeys(display_help_hotkeys);
}
}
if (changed && query_yn(_("Save changes?"))) {
try {
inp_mngr.save();
} catch(std::exception &err) {
popup(_("saving keybindings failed: %s"), err.what());
} catch(std::string &err) {
popup(_("saving keybindings failed: %s"), err.c_str());
}
} else if(changed) {
inp_mngr.action_contexts.swap(old_action_contexts);
}
werase(w_help);
wrefresh(w_help);
delwin(w_help);
}
SICALLBACK ToonixLighter_Term( CRef& in_ctxt )
{
Context ctxt(in_ctxt);
CleanUpLighterUserData(ctxt);
return CStatus::OK;
}
int worldfactory::show_worldgen_tab_modselection(WINDOW *win, WORLDPTR world)
{
// Use active_mod_order of the world,
// saves us from writting 'world->active_mod_order' all the time.
std::vector<std::string> &active_mod_order = world->active_mod_order;
{
std::vector<std::string> tmp_mod_order;
// clear active_mod_order and re-add all the mods, his ensures
// that changes (like changing depencies) get updated
tmp_mod_order.swap(active_mod_order);
for(size_t i = 0; i < tmp_mod_order.size(); i++) {
mman_ui->try_add(tmp_mod_order[i], active_mod_order);
}
}
const int iOffsetX = (TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0;
const int iOffsetY = (TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0;
// lots of small windows so that each section can be drawn to independently of the others as necessary
WINDOW *w_header1, *w_header2, *w_shift, *w_list, *w_active, *w_description;
w_header1 = newwin(1, FULL_SCREEN_WIDTH / 2 - 5, 3 + iOffsetY, 1 + iOffsetX);
w_header2 = newwin(1, FULL_SCREEN_WIDTH / 2 - 4, 3 + iOffsetY,
FULL_SCREEN_WIDTH / 2 + 3 + iOffsetX);
w_shift = newwin(13, 5, 3 + iOffsetY, FULL_SCREEN_WIDTH / 2 - 3 + iOffsetX);
w_list = newwin(11, FULL_SCREEN_WIDTH / 2 - 4, 5 + iOffsetY, iOffsetX);
w_active = newwin(11, FULL_SCREEN_WIDTH / 2 - 4, 5 + iOffsetY,
FULL_SCREEN_WIDTH / 2 + 2 + iOffsetX);
w_description = newwin(4, FULL_SCREEN_WIDTH - 2, 19 + iOffsetY, 1 + iOffsetX);
draw_modselection_borders(win);
std::vector<std::string> headers;
headers.push_back(_("Mod List"));
headers.push_back(_("Mod Load Order"));
std::vector<WINDOW *> header_windows;
header_windows.push_back(w_header1);
header_windows.push_back(w_header2);
int tab_output = 0;
int last_active_header = 0;
size_t active_header = 0;
size_t useable_mod_count = mman_ui->usable_mods.size();
int startsel[2] = {0, 0};
int cursel[2] = {0, 0};
bool redraw_headers = true;
bool redraw_shift = true;
bool redraw_description = true;
bool redraw_list = true;
bool redraw_active = true;
bool selection_changed = false;
input_context ctxt("MODMANAGER_DIALOG");
ctxt.register_cardinal();
ctxt.register_action("HELP_KEYBINDINGS");
ctxt.register_action("QUIT");
ctxt.register_action("NEXT_TAB");
ctxt.register_action("PREV_TAB");
ctxt.register_action("CONFIRM");
ctxt.register_action("ADD_MOD");
ctxt.register_action("REMOVE_MOD");
ctxt.register_action("SAVE_DEFAULT_MODS");
while (tab_output == 0) {
if (redraw_headers) {
for (size_t i = 0; i < headers.size(); ++i) {
werase(header_windows[i]);
const int header_x = (getmaxx(header_windows[i]) - headers[i].size()) / 2;
mvwprintz(header_windows[i], 0, header_x , c_cyan, "%s", headers[i].c_str());
if (active_header == i) {
mvwputch(header_windows[i], 0, header_x - 3, c_red, '<');
mvwputch(header_windows[i], 0, header_x + headers[i].size() + 2, c_red, '>');
}
wrefresh(header_windows[i]);
}
redraw_list = true;
redraw_active = true;
redraw_shift = true;
redraw_headers = false;
}
if (selection_changed) {
if (active_header == 0) {
redraw_list = true;
}
if (active_header == 1) {
redraw_shift = true;
redraw_active = true;
}
selection_changed = false;
redraw_description = true;
}
if (redraw_description) {
werase(w_description);
MOD_INFORMATION *selmod = NULL;
if (mman_ui->usable_mods.empty()) {
// Do nothing, leave selmod == NULL
} else if (active_header == 0) {
selmod = mman->mod_map[mman_ui->usable_mods[cursel[0]]];
} else if (!active_mod_order.empty()) {
selmod = mman->mod_map[active_mod_order[cursel[1]]];
}
if (selmod != NULL) {
fold_and_print(w_description, 0, 1, getmaxx(w_description) - 1,
c_white, mman_ui->get_information(selmod));
}
redraw_description = false;
wrefresh(w_description);
}
if (redraw_list) {
werase(w_list);
calcStartPos(startsel[0], cursel[0], getmaxy(w_list), useable_mod_count);
if (useable_mod_count == 0) {
center_print(w_list, 0, c_red, _("--NO AVAILABLE MODS--"));
} else {
std::stringstream list_output;
for (size_t i = startsel[0], c = 0; i < useable_mod_count && c < getmaxy(w_list); ++i, ++c) {
if ((ssize_t)i != cursel[0]) {
list_output << std::string(3, ' ');
} else {
if (active_header == 0) {
list_output << "<color_yellow>";
} else {
list_output << "<color_blue>";
}
list_output << ">></color> ";
}
list_output << mman->mod_map[mman_ui->usable_mods[i]]->name << "\n";
}
fold_and_print(w_list, 0, 1, getmaxx(w_list) - 1, c_white, list_output.str());
}
draw_scrollbar(w_list, cursel[0], getmaxy(w_list), useable_mod_count, 0, 0);
wrefresh(w_list);
}
if (redraw_active) {
werase(w_active);
const int active_count = active_mod_order.size();
calcStartPos(startsel[1], cursel[1], getmaxy(w_active), active_count);
if (active_count == 0) {
center_print(w_active, 0, c_red, _("--NO ACTIVE MODS--"));
} else {
std::stringstream list_output;
for (int i = startsel[1], c = 0; i < active_count && c < getmaxy(w_active); ++i, ++c) {
if (i != cursel[1]) {
list_output << std::string(3, ' ');
} else {
if (active_header == 1) {
list_output << "<color_yellow>";
} else {
list_output << "<color_blue>";
}
list_output << ">></color> ";
}
list_output << mman->mod_map[active_mod_order[i]]->name << "\n";
}
fold_and_print(w_active, 0, 1, getmaxx(w_active) - 1, c_white, list_output.str());
}
draw_scrollbar(w_active, cursel[1], getmaxy(w_active), active_count, 0, 0);
wrefresh(w_active);
}
if (redraw_shift) {
werase(w_shift);
if (active_header == 1) {
std::stringstream shift_display;
// get shift information for whatever is visible in the active list
for (size_t i = startsel[1], c = 0; i < active_mod_order.size() && c < getmaxy(w_active); ++i, ++c) {
if (mman_ui->can_shift_up(i, active_mod_order)) {
shift_display << "<color_blue>+</color> ";
} else {
shift_display << "<color_dkgray>+</color> ";
}
if (mman_ui->can_shift_down(i, active_mod_order)) {
shift_display << "<color_blue>-</color>";
} else {
shift_display << "<color_dkgray>-</color>";
}
shift_display << "\n";
}
fold_and_print(w_shift, 2, 1, getmaxx(w_shift), c_white, shift_display.str());
}
redraw_shift = false;
wrefresh(w_shift);
}
refresh();
last_active_header = active_header;
const int next_header = (active_header == 1) ? 0 : 1;
const int prev_header = (active_header == 0) ? 1 : 0;
int selection = (active_header == 0) ? cursel[0] : cursel[1];
int last_selection = selection;
unsigned int next_selection = selection + 1;
int prev_selection = selection - 1;
if (active_header == 0) {
next_selection = (next_selection >= useable_mod_count) ? 0 : next_selection;
prev_selection = (prev_selection < 0) ? useable_mod_count - 1 : prev_selection;
} else {
next_selection = (next_selection >= active_mod_order.size()) ? 0 : next_selection;
prev_selection = (prev_selection < 0) ? active_mod_order.size() - 1 : prev_selection;
}
const std::string action = ctxt.handle_input();
if (action == "DOWN") {
selection = next_selection;
} else if (action == "UP") {
selection = prev_selection;
} else if (action == "RIGHT") {
active_header = next_header;
} else if (action == "LEFT") {
active_header = prev_header;
} else if (action == "CONFIRM") {
if (active_header == 0 && !mman_ui->usable_mods.empty()) {
// try-add
mman_ui->try_add(mman_ui->usable_mods[cursel[0]], active_mod_order);
redraw_active = true;
redraw_shift = true;
} else if (active_header == 1 && !active_mod_order.empty()) {
// try-rem
mman_ui->try_rem(cursel[1], active_mod_order);
redraw_active = true;
redraw_shift = true;
if (active_mod_order.empty()) {
// switch back to other list, we can't change
// anything in the empty active mods list.
active_header = 0;
}
}
} else if (action == "ADD_MOD") {
if (active_header == 1 && active_mod_order.size() > 1) {
mman_ui->try_shift('+', cursel[1], active_mod_order);
redraw_active = true;
redraw_shift = true;
}
} else if (action == "REMOVE_MOD") {
if (active_header == 1 && active_mod_order.size() > 1) {
mman_ui->try_shift('-', cursel[1], active_mod_order);
redraw_active = true;
redraw_shift = true;
}
} else if (action == "NEXT_TAB") {
tab_output = 1;
} else if (action == "PREV_TAB") {
tab_output = -1;
} else if (action == "SAVE_DEFAULT_MODS") {
if(mman->set_default_mods(active_mod_order)) {
popup(_("Saved list of active mods as default"));
draw_modselection_borders(win);
redraw_headers = true;
}
} else if (action == "QUIT") {
tab_output = -999;
}
// RESOLVE INPUTS
if (last_active_header != (ssize_t)active_header) {
redraw_headers = true;
redraw_shift = true;
redraw_description = true;
}
if (last_selection != selection) {
if (active_header == 0) {
redraw_list = true;
cursel[0] = selection;
} else {
redraw_active = true;
redraw_shift = true;
cursel[1] = selection;
}
redraw_description = true;
}
if (active_mod_order.empty()) {
redraw_active = true;
cursel[1] = 0;
}
if (active_header == 1) {
if (active_mod_order.empty()) {
cursel[1] = 0;
} else {
if (cursel[1] < 0) {
cursel[1] = 0;
} else if (cursel[1] >= (ssize_t)active_mod_order.size()) {
cursel[1] = active_mod_order.size() - 1;
}
}
}
// end RESOLVE INPUTS
}
werase(w_header1);
werase(w_header2);
werase(w_shift);
werase(w_list);
werase(w_active);
werase(w_description);
delwin(w_header1);
delwin(w_header2);
delwin(w_shift);
delwin(w_list);
delwin(w_active);
delwin(w_description);
return tab_output;
}
void safemode::show( const std::string &custom_name_in, bool is_safemode_in )
{
auto global_rules_old = global_rules;
auto character_rules_old = character_rules;
const int header_height = 4;
const int content_height = FULL_SCREEN_HEIGHT - 2 - header_height;
const int offset_x = ( TERMX > FULL_SCREEN_WIDTH ) ? ( TERMX - FULL_SCREEN_WIDTH ) / 2 : 0;
const int offset_y = ( TERMY > FULL_SCREEN_HEIGHT ) ? ( TERMY - FULL_SCREEN_HEIGHT ) / 2 : 0;
enum Columns : int {
COLUMN_RULE,
COLUMN_ATTITUDE,
COLUMN_PROXIMITY,
COLUMN_WHITE_BLACKLIST,
};
std::map<int, int> column_pos;
column_pos[COLUMN_RULE] = 4;
column_pos[COLUMN_ATTITUDE] = 48;
column_pos[COLUMN_PROXIMITY] = 59;
column_pos[COLUMN_WHITE_BLACKLIST] = 66;
const int num_columns = column_pos.size();
catacurses::window w_help = catacurses::newwin( ( FULL_SCREEN_HEIGHT / 2 ) - 2,
FULL_SCREEN_WIDTH * 3 / 4, 7 + offset_y + ( FULL_SCREEN_HEIGHT / 2 ) / 2, offset_x + 19 / 2 );
catacurses::window w_border = catacurses::newwin( FULL_SCREEN_HEIGHT, FULL_SCREEN_WIDTH,
offset_y, offset_x );
catacurses::window w_header = catacurses::newwin( header_height, FULL_SCREEN_WIDTH - 2,
1 + offset_y, 1 + offset_x );
catacurses::window w = catacurses::newwin( content_height, FULL_SCREEN_WIDTH - 2,
header_height + 1 + offset_y, 1 + offset_x );
draw_border( w_border, BORDER_COLOR, custom_name_in );
mvwputch( w_border, 3, 0, c_light_gray, LINE_XXXO ); // |-
mvwputch( w_border, 3, 79, c_light_gray, LINE_XOXX ); // -|
for( auto &column : column_pos ) {
mvwputch( w_border, FULL_SCREEN_HEIGHT - 1, column.second + 1, c_light_gray,
LINE_XXOX ); // _|_
}
wrefresh( w_border );
static const std::vector<std::string> hotkeys = {{
_( "<A>dd" ), _( "<R>emove" ), _( "<C>opy" ), _( "<M>ove" ),
_( "<E>nable" ), _( "<D>isable" ), _( "<T>est" )
}
};
int tmpx = 0;
for( auto &hotkey : hotkeys ) {
tmpx += shortcut_print( w_header, 0, tmpx, c_white, c_light_green, hotkey ) + 2;
}
tmpx = 0;
tmpx += shortcut_print( w_header, 1, tmpx, c_white, c_light_green, _( "<+-> Move up/down" ) ) + 2;
tmpx += shortcut_print( w_header, 1, tmpx, c_white, c_light_green, _( "<Enter>-Edit" ) ) + 2;
shortcut_print( w_header, 1, tmpx, c_white, c_light_green, _( "<Tab>-Switch Page" ) );
for( int i = 0; i < 78; i++ ) {
mvwputch( w_header, 2, i, c_light_gray, LINE_OXOX ); // Draw line under header
}
for( auto &pos : column_pos ) {
mvwputch( w_header, 2, pos.second, c_light_gray, LINE_OXXX );
mvwputch( w_header, 3, pos.second, c_light_gray, LINE_XOXO );
}
mvwprintz( w_header, 3, 1, c_white, "#" );
mvwprintz( w_header, 3, column_pos[COLUMN_RULE] + 4, c_white, _( "Rules" ) );
mvwprintz( w_header, 3, column_pos[COLUMN_ATTITUDE] + 2, c_white, _( "Attitude" ) );
mvwprintz( w_header, 3, column_pos[COLUMN_PROXIMITY] + 2, c_white, _( "Dist" ) );
mvwprintz( w_header, 3, column_pos[COLUMN_WHITE_BLACKLIST] + 2, c_white, _( "B/W" ) );
wrefresh( w_header );
int tab = GLOBAL_TAB;
int line = 0;
int column = 0;
int start_pos = 0;
bool changes_made = false;
input_context ctxt( "SAFEMODE" );
ctxt.register_cardinal();
ctxt.register_action( "CONFIRM" );
ctxt.register_action( "QUIT" );
ctxt.register_action( "NEXT_TAB" );
ctxt.register_action( "PREV_TAB" );
ctxt.register_action( "ADD_DEFAULT_RULESET" );
ctxt.register_action( "ADD_RULE" );
ctxt.register_action( "REMOVE_RULE" );
ctxt.register_action( "COPY_RULE" );
ctxt.register_action( "ENABLE_RULE" );
ctxt.register_action( "DISABLE_RULE" );
ctxt.register_action( "MOVE_RULE_UP" );
ctxt.register_action( "MOVE_RULE_DOWN" );
ctxt.register_action( "TEST_RULE" );
ctxt.register_action( "HELP_KEYBINDINGS" );
if( is_safemode_in ) {
ctxt.register_action( "SWITCH_SAFEMODE_OPTION" );
ctxt.register_action( "SWAP_RULE_GLOBAL_CHAR" );
}
while( true ) {
int locx = 17;
locx += shortcut_print( w_header, 2, locx, c_white,
( tab == GLOBAL_TAB ) ? hilite( c_white ) : c_white, _( "[<Global>]" ) ) + 1;
shortcut_print( w_header, 2, locx, c_white,
( tab == CHARACTER_TAB ) ? hilite( c_white ) : c_white, _( "[<Character>]" ) );
locx = 55;
mvwprintz( w_header, 0, locx, c_white, _( "Safe Mode enabled:" ) );
locx += shortcut_print( w_header, 1, locx,
( ( get_option<bool>( "SAFEMODE" ) ) ? c_light_green : c_light_red ), c_white,
( ( get_option<bool>( "SAFEMODE" ) ) ? _( "True" ) : _( "False" ) ) );
locx += shortcut_print( w_header, 1, locx, c_white, c_light_green, " " );
locx += shortcut_print( w_header, 1, locx, c_white, c_light_green, _( "<S>witch" ) );
shortcut_print( w_header, 1, locx, c_white, c_light_green, " " );
wrefresh( w_header );
// Clear the lines
for( int i = 0; i < content_height; i++ ) {
for( int j = 0; j < 79; j++ ) {
mvwputch( w, i, j, c_black, ' ' );
}
for( auto &pos : column_pos ) {
mvwputch( w, i, pos.second, c_light_gray, LINE_XOXO );
}
}
auto ¤t_tab = ( tab == GLOBAL_TAB ) ? global_rules : character_rules;
if( tab == CHARACTER_TAB && g->u.name.empty() ) {
character_rules.clear();
mvwprintz( w, 8, 15, c_white, _( "Please load a character first to use this page!" ) );
} else if( empty() ) {
mvwprintz( w, 8, 15, c_white, _( "Safe Mode manager currently inactive." ) );
mvwprintz( w, 9, 15, c_white, _( "Default rules are used. Add a rule to activate." ) );
mvwprintz( w, 10, 15, c_white, _( "Press ~ to add a default ruleset to get started." ) );
}
draw_scrollbar( w_border, line, content_height, current_tab.size(), 5 );
wrefresh( w_border );
calcStartPos( start_pos, line, content_height, current_tab.size() );
// display safe mode
for( int i = start_pos; i < static_cast<int>( current_tab.size() ); i++ ) {
if( i >= start_pos &&
i < start_pos + std::min( content_height, static_cast<int>( current_tab.size() ) ) ) {
auto rule = current_tab[i];
nc_color line_color = ( rule.active ) ? c_white : c_light_gray;
mvwprintz( w, i - start_pos, 1, line_color, "%d", i + 1 );
mvwprintz( w, i - start_pos, 5, c_yellow, ( line == i ) ? ">> " : " " );
auto draw_column = [&]( Columns column_in, const std::string & text_in ) {
mvwprintz( w, i - start_pos, column_pos[column_in] + 2,
( line == i && column == column_in ) ? hilite( line_color ) : line_color,
text_in
);
};
draw_column( COLUMN_RULE, ( rule.rule.empty() ) ? _( "<empty rule>" ) : rule.rule );
draw_column( COLUMN_ATTITUDE, Creature::get_attitude_ui_data( rule.attitude ).first );
draw_column( COLUMN_PROXIMITY, ( !rule.whitelist ) ? to_string( rule.proximity ) : "---" );
draw_column( COLUMN_WHITE_BLACKLIST, ( rule.whitelist ) ? _( "Whitelist" ) : _( "Blacklist" ) );
}
}
wrefresh( w );
const std::string action = ctxt.handle_input();
if( action == "NEXT_TAB" ) {
tab++;
if( tab >= MAX_TAB ) {
tab = 0;
line = 0;
}
} else if( action == "PREV_TAB" ) {
tab--;
if( tab < 0 ) {
tab = MAX_TAB - 1;
line = 0;
}
} else if( action == "QUIT" ) {
break;
} else if( tab == CHARACTER_TAB && g->u.name.empty() ) {
//Only allow loaded games to use the char sheet
} else if( action == "DOWN" ) {
line++;
if( line >= static_cast<int>( current_tab.size() ) ) {
line = 0;
}
} else if( action == "UP" ) {
line--;
if( line < 0 ) {
line = current_tab.size() - 1;
}
} else if( action == "ADD_DEFAULT_RULESET" ) {
changes_made = true;
current_tab.push_back( rules_class( "*", true, false, Creature::A_HOSTILE, 0 ) );
line = current_tab.size() - 1;
} else if( action == "ADD_RULE" ) {
changes_made = true;
current_tab.push_back( rules_class( "", true, false, Creature::A_HOSTILE,
get_option<int>( "SAFEMODEPROXIMITY" ) ) );
line = current_tab.size() - 1;
} else if( action == "REMOVE_RULE" && !current_tab.empty() ) {
changes_made = true;
current_tab.erase( current_tab.begin() + line );
if( line > static_cast<int>( current_tab.size() ) - 1 ) {
line--;
}
if( line < 0 ) {
line = 0;
}
} else if( action == "COPY_RULE" && !current_tab.empty() ) {
changes_made = true;
current_tab.push_back( current_tab[line] );
line = current_tab.size() - 1;
} else if( action == "SWAP_RULE_GLOBAL_CHAR" && !current_tab.empty() ) {
if( ( tab == GLOBAL_TAB && !g->u.name.empty() ) || tab == CHARACTER_TAB ) {
changes_made = true;
//copy over
auto &temp_rules_from = ( tab == GLOBAL_TAB ) ? global_rules : character_rules;
auto &temp_rules_to = ( tab == GLOBAL_TAB ) ? character_rules : global_rules;
temp_rules_to.push_back( temp_rules_from[line] );
//remove old
temp_rules_from.erase( temp_rules_from.begin() + line );
line = temp_rules_from.size() - 1;
tab = ( tab == GLOBAL_TAB ) ? CHARACTER_TAB : GLOBAL_TAB;
}
} else if( action == "CONFIRM" && !current_tab.empty() ) {
changes_made = true;
if( column == COLUMN_RULE ) {
fold_and_print( w_help, 1, 1, 999, c_white,
_(
"* is used as a Wildcard. A few Examples:\n"
"\n"
"human matches every NPC\n"
"zombie matches the monster name exactly\n"
"acidic zo* matches monsters beginning with 'acidic zo'\n"
"*mbie matches monsters ending with 'mbie'\n"
"*cid*zo*ie multiple * are allowed\n"
"AcI*zO*iE case insensitive search" )
);
draw_border( w_help );
wrefresh( w_help );
current_tab[line].rule = wildcard_trim_rule( string_input_popup()
.title( _( "Safe Mode Rule:" ) )
.width( 30 )
.text( current_tab[line].rule )
.query_string() );
} else if( column == COLUMN_WHITE_BLACKLIST ) {
current_tab[line].whitelist = !current_tab[line].whitelist;
} else if( column == COLUMN_ATTITUDE ) {
auto &attitude = current_tab[line].attitude;
switch( attitude ) {
case Creature::A_HOSTILE:
attitude = Creature::A_NEUTRAL;
break;
case Creature::A_NEUTRAL:
attitude = Creature::A_FRIENDLY;
break;
case Creature::A_FRIENDLY:
attitude = Creature::A_ANY;
break;
case Creature::A_ANY:
attitude = Creature::A_HOSTILE;
}
} else if( column == COLUMN_PROXIMITY && !current_tab[line].whitelist ) {
const auto text = string_input_popup()
.title( _( "Proximity Distance (0=max view distance)" ) )
.width( 4 )
.text( to_string( current_tab[line].proximity ) )
.description( _( "Option: " ) + to_string( get_option<int>( "SAFEMODEPROXIMITY" ) ) +
" " + get_options().get_option( "SAFEMODEPROXIMITY" ).getDefaultText() )
.max_length( 3 )
.only_digits( true )
.query_string();
if( text.empty() ) {
current_tab[line].proximity = get_option<int>( "SAFEMODEPROXIMITY" );
} else {
//Let the options class handle the validity of the new value
auto temp_option = get_options().get_option( "SAFEMODEPROXIMITY" );
temp_option.setValue( text );
current_tab[line].proximity = atoi( temp_option.getValue().c_str() );
}
}
} else if( action == "ENABLE_RULE" && !current_tab.empty() ) {
changes_made = true;
current_tab[line].active = true;
} else if( action == "DISABLE_RULE" && !current_tab.empty() ) {
changes_made = true;
current_tab[line].active = false;
} else if( action == "LEFT" ) {
column--;
if( column < 0 ) {
column = num_columns - 1;
}
} else if( action == "RIGHT" ) {
column++;
if( column >= num_columns ) {
column = 0;
}
} else if( action == "MOVE_RULE_UP" && !current_tab.empty() ) {
changes_made = true;
if( line < static_cast<int>( current_tab.size() ) - 1 ) {
std::swap( current_tab[line], current_tab[line + 1] );
line++;
column = 0;
}
} else if( action == "MOVE_RULE_DOWN" && !current_tab.empty() ) {
changes_made = true;
if( line > 0 ) {
std::swap( current_tab[line], current_tab[line - 1] );
line--;
column = 0;
}
} else if( action == "TEST_RULE" && !current_tab.empty() ) {
test_pattern( tab, line );
} else if( action == "SWITCH_SAFEMODE_OPTION" ) {
get_options().get_option( "SAFEMODE" ).setNext();
get_options().save();
}
}
if( !changes_made ) {
return;
}
if( query_yn( _( "Save changes?" ) ) ) {
if( is_safemode_in ) {
save_global();
if( !g->u.name.empty() ) {
save_character();
}
} else {
create_rules();
}
} else {
global_rules = global_rules_old;
character_rules = character_rules_old;
}
}
// Update =============================================================================
CStatus gStretchOp2Multi_Update( CRef& in_ctxt )
{
OperatorContext ctxt( in_ctxt );
// User Datas ------------------------------------
CValue::siPtrType pUserData = ctxt.GetUserData();
OpUserData* pOpState = (OpUserData*)pUserData;
if ( pOpState == NULL || pOpState->index >= 2)
{
// First time called
pOpState = new OpUserData();
ctxt.PutUserData( (CValue::siPtrType)pOpState );
// Inputs ---------------------------------------
KinematicState kRoot(ctxt.GetInputValue(0));
KinematicState kCtrl(ctxt.GetInputValue(1));
CTransformation tRoot(kRoot.GetTransform());
CTransformation tCtrl(kCtrl.GetTransform());
CVector3 vRoot = tRoot.GetTranslation();
CVector3 vCtrl = tCtrl.GetTranslation();
CMatrix4 mRoot = tRoot.GetMatrix4();
CMatrix4 mRootNeg;
mRootNeg.Invert(mRoot);
double dRestLength = ctxt.GetParameterValue(L"restlength");
double dScale = ctxt.GetParameterValue(L"scale");
double dSoftness = ctxt.GetParameterValue(L"soft");
double dMaxStretch = ctxt.GetParameterValue(L"maxstretch");
// Distance with MaxStretch ---------------------
dRestLength = dRestLength * dScale - .00001;
CVector3 vDistance;
vDistance.MulByMatrix4(vCtrl, mRootNeg);
double dDistance = vDistance.GetLength();
double dDistance2 = dDistance;
if (dDistance > (dRestLength * dMaxStretch))
{
vDistance.NormalizeInPlace();
vDistance.ScaleInPlace(dRestLength * dMaxStretch);
dDistance = dRestLength * dMaxStretch;
}
Application app;
app.LogMessage(L"dist : "+CString(dDistance));
app.LogMessage(L"dist2 : "+CString(dDistance2));
// Adapt Softness value to chain length --------
dSoftness = dSoftness * dRestLength *.1;
// Stretch and softness ------------------------
/// We use the real distance from root to controler to calculate the softness
/// This way we have softness working even when there is no stretch
double dStretch = dDistance/dRestLength;
if (dStretch < 1)
dStretch = 1;
double da = dRestLength - dSoftness;
if (dSoftness > 0 && dDistance2 > da)
{
double newlen = dSoftness*(1.0 - exp(-(dDistance2 -da)/dSoftness)) + da;
dStretch = dDistance / newlen;
}
double dScaleX = dStretch * dScale;
app.LogMessage(L"scalex : "+CString(dScaleX));
// Effector Position ----------------------------
CTransformation t;
vDistance.MulByMatrix4(vDistance, mRoot);
t.SetTranslation(vDistance);
pOpState->index = 0;
pOpState->t = t;
pOpState->dLength0 = dScaleX;
}
// Outputs -------------------------------------
CRef outputPortRef=ctxt.GetOutputPort();
OutputPort OutPort(outputPortRef);
// Effector Transform
if (OutPort.GetIndex() == 2)
{
KinematicState kOut = ctxt.GetOutputTarget();
kOut.PutTransform(pOpState->t);
}
// Bone 0 Length
else if (OutPort.GetIndex() == 3)
{
OutPort.PutValue(pOpState->dLength0);
}
pOpState->index += 1;
return CStatus::OK;
}
// Update =================================================================================
CStatus gStretchOp2_Update( CRef& in_ctxt )
{
OperatorContext ctxt( in_ctxt );
// User Datas ------------------------------------
CValue::siPtrType pUserData = ctxt.GetUserData();
OpUserData* pOpState = (OpUserData*)pUserData;
if ( pOpState == NULL || pOpState->index >= 4)
{
// First time called
pOpState = new OpUserData();
ctxt.PutUserData( (CValue::siPtrType)pOpState );
// Inputs ---------------------------------------
KinematicState kRoot(ctxt.GetInputValue(0));
KinematicState kCtrl(ctxt.GetInputValue(1));
CTransformation tRoot(kRoot.GetTransform());
CTransformation tCtrl(kCtrl.GetTransform());
CVector3 vRoot = tRoot.GetTranslation();
CVector3 vCtrl = tCtrl.GetTranslation();
CMatrix4 mRoot = tRoot.GetMatrix4();
CMatrix4 mRootNeg;
mRootNeg.Invert(mRoot);
double dRest0 = ctxt.GetParameterValue(L"rest0");
double dRest1 = ctxt.GetParameterValue(L"rest1");
double dPrefRot = ctxt.GetParameterValue(L"prefrot");
double dScale0 = ctxt.GetParameterValue(L"scale0");
double dScale1 = ctxt.GetParameterValue(L"scale1");
double dSoftness = ctxt.GetParameterValue(L"soft");
double dMaxStretch = ctxt.GetParameterValue(L"maxstretch");
double dSlide = ctxt.GetParameterValue(L"slide");
double dReverse = ctxt.GetParameterValue(L"reverse");
// Distance with MaxStretch ---------------------
double dRestLength = dRest0 * dScale0 + dRest1 * dScale1;
CVector3 vDistance;
vDistance.MulByMatrix4(vCtrl, mRootNeg);
double dDistance = vDistance.GetLength();
double dDistance2 = dDistance;
if (dDistance > (dRestLength * dMaxStretch))
{
vDistance.NormalizeInPlace();
vDistance.ScaleInPlace(dRestLength * dMaxStretch);
dDistance = dRestLength * dMaxStretch;
}
// Adapt Softness value to chain length --------
dSoftness *= dRestLength*.1;
// Stretch and softness ------------------------
/// We use the real distance from root to controler to calculate the softness
/// This way we have softness working even when there is no stretch
double dStretch = dDistance/dRestLength;
if (dStretch < 1)
dStretch = 1;
double da = dRestLength - dSoftness;
if (dSoftness > 0 && dDistance2 > da)
{
double newlen = dSoftness*(1.0 - exp(-(dDistance2 -da)/dSoftness)) + da;
dStretch = dDistance / newlen;
}
double dLength0 = dRest0 * dStretch * dScale0;
double dLength1 = dRest1 * dStretch * dScale1;
// Reverse -------------------------------------
double d = dDistance/(dLength0 + dLength1);
double dScale;
if (dReverse < 0.5)
dScale = 1-(dReverse*2 * (1-d));
else
dScale = 1-((1-dReverse)*2 * (1-d));
dLength0 *= dScale;
dLength1 *= dScale;
dPrefRot = -(dReverse-0.5) * 2 * dPrefRot;
// Slide ---------------------------------------
double dAdd;
if (dSlide < .5)
dAdd = (dLength0 * (dSlide*2)) - (dLength0);
else
dAdd = (dLength1 * (dSlide*2)) - (dLength1);
dLength0 += dAdd;
dLength1 -= dAdd;
// Effector Position ----------------------------
CTransformation t;
vDistance.MulByMatrix4(vDistance, mRoot);
t.SetTranslation(vDistance);
pOpState->index = 0;
pOpState->t = t;
pOpState->dLength0 = dLength0;
pOpState->dLength1 = dLength1;
pOpState->dPrefRot = dPrefRot;
}
// Outputs -------------------------------------
CRef outputPortRef=ctxt.GetOutputPort();
OutputPort OutPort(outputPortRef);
// Effector Transform
if (OutPort.GetIndex() == 2)
{
KinematicState kOut = ctxt.GetOutputTarget();
kOut.PutTransform(pOpState->t);
}
// Bone 0 Length
else if (OutPort.GetIndex() == 3)
{
OutPort.PutValue(pOpState->dLength0);
}
// Bone 1 Length
else if (OutPort.GetIndex() == 4)
{
OutPort.PutValue(pOpState->dLength1);
}
// Bone 1 PrefRot
else if (OutPort.GetIndex() == 5)
{
OutPort.PutValue(pOpState->dPrefRot);
}
pOpState->index += 1;
return CStatus::OK;
}
// Pick up items at (pos).
void Pickup::pick_up( const tripoint &p, int min )
{
int cargo_part = -1;
const optional_vpart_position vp = g->m.veh_at( p );
vehicle *const veh = veh_pointer_or_null( vp );
bool from_vehicle = false;
if( min != -1 ) {
veh_interact_results get_items_from = ITEMS_FROM_GROUND;
if( veh != nullptr ) {
get_items_from = veh->interact_with( p, vp->part_index() );
}
switch( get_items_from ) {
case DONE:
return;
case ITEMS_FROM_CARGO: {
const cata::optional<vpart_reference> carg = vp.part_with_feature( "CARGO", false );
cargo_part = carg ? carg->part_index() : -1;
from_vehicle = cargo_part >= 0;
break;
}
case ITEMS_FROM_GROUND:
// Nothing to change, default is to pick from ground anyway.
if( g->m.has_flag( "SEALED", p ) ) {
return;
}
break;
}
}
if( !from_vehicle ) {
bool isEmpty = ( g->m.i_at( p ).empty() );
// Hide the pickup window if this is a toilet and there's nothing here
// but water.
if( ( !isEmpty ) && g->m.furn( p ) == f_toilet ) {
isEmpty = true;
for( const item &maybe_water : g->m.i_at( p ) ) {
if( maybe_water.typeId() != "water" ) {
isEmpty = false;
break;
}
}
}
if( isEmpty && ( min != -1 || !get_option<bool>( "AUTO_PICKUP_ADJACENT" ) ) ) {
return;
}
}
// which items are we grabbing?
std::vector<item> here;
if( from_vehicle ) {
auto vehitems = veh->get_items( cargo_part );
here.resize( vehitems.size() );
std::copy( vehitems.begin(), vehitems.end(), here.begin() );
} else {
auto mapitems = g->m.i_at( p );
here.resize( mapitems.size() );
std::copy( mapitems.begin(), mapitems.end(), here.begin() );
}
if( min == -1 ) {
// Recursively pick up adjacent items if that option is on.
if( get_option<bool>( "AUTO_PICKUP_ADJACENT" ) && g->u.pos() == p ) {
//Autopickup adjacent
direction adjacentDir[8] = {NORTH, NORTHEAST, EAST, SOUTHEAST, SOUTH, SOUTHWEST, WEST, NORTHWEST};
for( auto &elem : adjacentDir ) {
tripoint apos = tripoint( direction_XY( elem ), 0 );
apos += p;
pick_up( apos, min );
}
}
// Bail out if this square cannot be auto-picked-up
if( g->check_zone( zone_type_id( "NO_AUTO_PICKUP" ), p ) ) {
return;
} else if( g->m.has_flag( "SEALED", p ) ) {
return;
}
}
// Not many items, just grab them
if( static_cast<int>( here.size() ) <= min && min != -1 ) {
g->u.assign_activity( activity_id( "ACT_PICKUP" ) );
g->u.activity.placement = p - g->u.pos();
g->u.activity.values.push_back( from_vehicle );
// Only one item means index is 0.
g->u.activity.values.push_back( 0 );
// auto-pickup means pick up all.
g->u.activity.values.push_back( 0 );
return;
}
std::vector<std::list<item_idx>> stacked_here;
for( size_t i = 0; i < here.size(); i++ ) {
item &it = here[i];
bool found_stack = false;
for( auto &stack : stacked_here ) {
if( stack.begin()->_item.stacks_with( it ) ) {
item_idx el = { it, i };
stack.push_back( el );
found_stack = true;
break;
}
}
if( !found_stack ) {
std::list<item_idx> newstack;
newstack.push_back( { it, i } );
stacked_here.push_back( newstack );
}
}
std::reverse( stacked_here.begin(), stacked_here.end() );
if( min != -1 ) { // don't bother if we're just autopickuping
g->temp_exit_fullscreen();
}
// Otherwise, we have Autopickup, 2 or more items and should list them, etc.
int maxmaxitems = TERMY;
int itemsH = std::min( 25, TERMY / 2 );
int pickupBorderRows = 3;
// The pickup list may consume the entire terminal, minus space needed for its
// header/footer and the item info window.
int minleftover = itemsH + pickupBorderRows;
if( maxmaxitems > TERMY - minleftover ) {
maxmaxitems = TERMY - minleftover;
}
const int minmaxitems = 9;
std::vector<pickup_count> getitem( stacked_here.size() );
int maxitems = stacked_here.size();
maxitems = ( maxitems < minmaxitems ? minmaxitems : ( maxitems > maxmaxitems ? maxmaxitems :
maxitems ) );
int itemcount = 0;
if( min == -1 ) { //Auto Pickup, select matching items
if( !select_autopickup_items( stacked_here, getitem ) ) {
// If we didn't find anything, bail out now.
return;
}
} else {
int pickupH = maxitems + pickupBorderRows;
int pickupW = 44;
int itemsW = pickupW;
catacurses::window w_pickup = catacurses::newwin( pickupH, pickupW, 0, 0 );
catacurses::window w_item_info = catacurses::newwin( TERMY - pickupH,
pickupW, pickupH, 0 );
std::string action;
long raw_input_char = ' ';
input_context ctxt( "PICKUP" );
ctxt.register_action( "UP" );
ctxt.register_action( "DOWN" );
ctxt.register_action( "RIGHT" );
ctxt.register_action( "LEFT" );
ctxt.register_action( "NEXT_TAB", _( "Next page" ) );
ctxt.register_action( "PREV_TAB", _( "Previous page" ) );
ctxt.register_action( "SCROLL_UP" );
ctxt.register_action( "SCROLL_DOWN" );
ctxt.register_action( "CONFIRM" );
ctxt.register_action( "SELECT_ALL" );
ctxt.register_action( "QUIT", _( "Cancel" ) );
ctxt.register_action( "ANY_INPUT" );
ctxt.register_action( "HELP_KEYBINDINGS" );
ctxt.register_action( "FILTER" );
#if defined(__ANDROID__)
ctxt.allow_text_entry = true; // allow user to specify pickup amount
#endif
int start = 0;
int cur_it = 0;
bool update = true;
mvwprintw( w_pickup, 0, 0, _( "PICK" ) );
int selected = 0;
int iScrollPos = 0;
std::string filter;
std::string new_filter;
std::vector<int> matches;//Indexes of items that match the filter
bool filter_changed = true;
if( g->was_fullscreen ) {
g->draw_ter();
}
// Now print the two lists; those on the ground and about to be added to inv
// Continue until we hit return or space
do {
const std::string pickup_chars =
ctxt.get_available_single_char_hotkeys( "abcdefghijklmnopqrstuvwxyzABCDEFGHIJKLMNOPQRSTUVWXYZ:;" );
int idx = -1;
for( int i = 1; i < pickupH; i++ ) {
mvwprintw( w_pickup, i, 0,
" " );
}
if( action == "ANY_INPUT" &&
raw_input_char >= '0' && raw_input_char <= '9' ) {
int raw_input_char_value = static_cast<char>( raw_input_char ) - '0';
itemcount *= 10;
itemcount += raw_input_char_value;
if( itemcount < 0 ) {
itemcount = 0;
}
} else if( action == "SCROLL_UP" ) {
iScrollPos--;
} else if( action == "SCROLL_DOWN" ) {
iScrollPos++;
} else if( action == "PREV_TAB" ) {
if( start > 0 ) {
start -= maxitems;
} else {
start = static_cast<int>( ( matches.size() - 1 ) / maxitems ) * maxitems;
}
selected = start;
mvwprintw( w_pickup, maxitems + 2, 0, " " );
} else if( action == "NEXT_TAB" ) {
if( start + maxitems < static_cast<int>( matches.size() ) ) {
start += maxitems;
} else {
start = 0;
}
iScrollPos = 0;
selected = start;
mvwprintw( w_pickup, maxitems + 2, pickupH, " " );
} else if( action == "UP" ) {
selected--;
iScrollPos = 0;
if( selected < 0 ) {
selected = matches.size() - 1;
start = static_cast<int>( matches.size() / maxitems ) * maxitems;
if( start >= static_cast<int>( matches.size() ) ) {
start -= maxitems;
}
} else if( selected < start ) {
start -= maxitems;
}
} else if( action == "DOWN" ) {
selected++;
iScrollPos = 0;
if( selected >= static_cast<int>( matches.size() ) ) {
selected = 0;
start = 0;
} else if( selected >= start + maxitems ) {
start += maxitems;
}
} else if( selected >= 0 && selected < static_cast<int>( matches.size() ) &&
( ( action == "RIGHT" && !getitem[matches[selected]].pick ) ||
( action == "LEFT" && getitem[matches[selected]].pick ) ) ) {
idx = selected;
} else if( action == "FILTER" ) {
new_filter = filter;
string_input_popup popup;
popup
.title( _( "Set filter" ) )
.width( 30 )
.edit( new_filter );
if( !popup.canceled() ) {
filter_changed = true;
} else {
wrefresh( g->w_terrain );
g->draw_panels();
}
} else if( action == "ANY_INPUT" && raw_input_char == '`' ) {
std::string ext = string_input_popup()
.title( _( "Enter 2 letters (case sensitive):" ) )
.width( 3 )
.max_length( 2 )
.query_string();
if( ext.size() == 2 ) {
int p1 = pickup_chars.find( ext.at( 0 ) );
int p2 = pickup_chars.find( ext.at( 1 ) );
if( p1 != -1 && p2 != -1 ) {
idx = pickup_chars.size() + ( p1 * pickup_chars.size() ) + p2;
}
}
} else if( action == "ANY_INPUT" ) {
idx = ( raw_input_char <= 127 ) ? pickup_chars.find( raw_input_char ) : -1;
iScrollPos = 0;
}
if( idx >= 0 && idx < static_cast<int>( matches.size() ) ) {
size_t true_idx = matches[idx];
if( itemcount != 0 || getitem[true_idx].count == 0 ) {
item &temp = stacked_here[true_idx].begin()->_item;
int amount_available = temp.count_by_charges() ? temp.charges : stacked_here[true_idx].size();
if( itemcount >= amount_available ) {
itemcount = 0;
}
getitem[true_idx].count = itemcount;
itemcount = 0;
}
// Note: this might not change the value of getitem[idx] at all!
getitem[true_idx].pick = ( action == "RIGHT" ? true :
( action == "LEFT" ? false :
!getitem[true_idx].pick ) );
if( action != "RIGHT" && action != "LEFT" ) {
selected = idx;
start = static_cast<int>( idx / maxitems ) * maxitems;
}
if( !getitem[true_idx].pick ) {
getitem[true_idx].count = 0;
}
update = true;
}
if( filter_changed ) {
matches.clear();
while( matches.empty() ) {
auto filter_func = item_filter_from_string( new_filter );
for( size_t index = 0; index < stacked_here.size(); index++ ) {
if( filter_func( stacked_here[index].begin()->_item ) ) {
matches.push_back( index );
}
}
if( matches.empty() ) {
popup( _( "Your filter returned no results" ) );
wrefresh( g->w_terrain );
g->draw_panels();
// The filter must have results, or simply be emptied or canceled,
// as this screen can't be reached without there being
// items available
string_input_popup popup;
popup
.title( _( "Set filter" ) )
.width( 30 )
.edit( new_filter );
if( popup.canceled() ) {
new_filter = filter;
filter_changed = false;
}
}
}
if( filter_changed ) {
filter = new_filter;
filter_changed = false;
selected = 0;
start = 0;
iScrollPos = 0;
}
wrefresh( g->w_terrain );
g->draw_panels();
}
item &selected_item = stacked_here[matches[selected]].begin()->_item;
werase( w_item_info );
if( selected >= 0 && selected <= static_cast<int>( stacked_here.size() ) - 1 ) {
std::vector<iteminfo> vThisItem;
std::vector<iteminfo> vDummy;
selected_item.info( true, vThisItem );
draw_item_info( w_item_info, "", "", vThisItem, vDummy, iScrollPos, true, true );
}
draw_custom_border( w_item_info, 0 );
mvwprintw( w_item_info, 0, 2, "< " );
trim_and_print( w_item_info, 0, 4, itemsW - 8, c_white, "%s >",
selected_item.display_name() );
wrefresh( w_item_info );
if( action == "SELECT_ALL" ) {
int count = 0;
for( auto i : matches ) {
if( getitem[i].pick ) {
count++;
}
getitem[i].pick = true;
}
if( count == static_cast<int>( stacked_here.size() ) ) {
for( size_t i = 0; i < stacked_here.size(); i++ ) {
getitem[i].pick = false;
}
}
update = true;
}
for( cur_it = start; cur_it < start + maxitems; cur_it++ ) {
mvwprintw( w_pickup, 1 + ( cur_it % maxitems ), 0,
" " );
if( cur_it < static_cast<int>( matches.size() ) ) {
int true_it = matches[cur_it];
item &this_item = stacked_here[ true_it ].begin()->_item;
nc_color icolor = this_item.color_in_inventory();
if( cur_it == selected ) {
icolor = hilite( c_white );
}
if( cur_it < static_cast<int>( pickup_chars.size() ) ) {
mvwputch( w_pickup, 1 + ( cur_it % maxitems ), 0, icolor,
static_cast<char>( pickup_chars[cur_it] ) );
} else if( cur_it < static_cast<int>( pickup_chars.size() ) + static_cast<int>
( pickup_chars.size() ) *
static_cast<int>( pickup_chars.size() ) ) {
int p = cur_it - pickup_chars.size();
int p1 = p / pickup_chars.size();
int p2 = p % pickup_chars.size();
mvwprintz( w_pickup, 1 + ( cur_it % maxitems ), 0, icolor, "`%c%c",
static_cast<char>( pickup_chars[p1] ), static_cast<char>( pickup_chars[p2] ) );
} else {
mvwputch( w_pickup, 1 + ( cur_it % maxitems ), 0, icolor, ' ' );
}
if( getitem[true_it].pick ) {
if( getitem[true_it].count == 0 ) {
wprintz( w_pickup, c_light_blue, " + " );
} else {
wprintz( w_pickup, c_light_blue, " # " );
}
} else {
wprintw( w_pickup, " - " );
}
std::string item_name;
if( stacked_here[true_it].begin()->_item.ammo_type() == "money" ) {
//Count charges
// TODO: transition to the item_location system used for the inventory
unsigned long charges_total = 0;
for( const auto &item : stacked_here[true_it] ) {
charges_total += item._item.charges;
}
//Picking up none or all the cards in a stack
if( !getitem[true_it].pick || getitem[true_it].count == 0 ) {
item_name = stacked_here[true_it].begin()->_item.display_money( stacked_here[true_it].size(),
charges_total );
} else {
unsigned long charges = 0;
int c = getitem[true_it].count;
for( auto it = stacked_here[true_it].begin(); it != stacked_here[true_it].end() &&
c > 0; ++it, --c ) {
charges += it->_item.charges;
}
item_name = string_format( _( "%s of %s" ),
stacked_here[true_it].begin()->_item.display_money( getitem[true_it].count, charges ),
format_money( charges_total ) );
}
} else {
item_name = this_item.display_name( stacked_here[true_it].size() );
}
if( stacked_here[true_it].size() > 1 ) {
item_name = string_format( "%d %s", stacked_here[true_it].size(), item_name );
}
if( get_option<bool>( "ITEM_SYMBOLS" ) ) {
item_name = string_format( "%s %s", this_item.symbol(), item_name );
}
trim_and_print( w_pickup, 1 + ( cur_it % maxitems ), 6, pickupW - 4, icolor,
item_name );
}
}
mvwprintw( w_pickup, maxitems + 1, 0, _( "[%s] Unmark" ),
ctxt.get_desc( "LEFT", 1 ) );
center_print( w_pickup, maxitems + 1, c_light_gray, string_format( _( "[%s] Help" ),
ctxt.get_desc( "HELP_KEYBINDINGS", 1 ) ) );
right_print( w_pickup, maxitems + 1, 0, c_light_gray, string_format( _( "[%s] Mark" ),
ctxt.get_desc( "RIGHT", 1 ) ) );
mvwprintw( w_pickup, maxitems + 2, 0, _( "[%s] Prev" ),
ctxt.get_desc( "PREV_TAB", 1 ) );
center_print( w_pickup, maxitems + 2, c_light_gray, string_format( _( "[%s] All" ),
ctxt.get_desc( "SELECT_ALL", 1 ) ) );
right_print( w_pickup, maxitems + 2, 0, c_light_gray, string_format( _( "[%s] Next" ),
ctxt.get_desc( "NEXT_TAB", 1 ) ) );
if( update ) { // Update weight & volume information
update = false;
for( int i = 9; i < pickupW; ++i ) {
mvwaddch( w_pickup, 0, i, ' ' );
}
units::mass weight_picked_up = 0_gram;
units::volume volume_picked_up = 0_ml;
for( size_t i = 0; i < getitem.size(); i++ ) {
if( getitem[i].pick ) {
item temp = stacked_here[i].begin()->_item;
if( temp.count_by_charges() && getitem[i].count < temp.charges && getitem[i].count != 0 ) {
temp.charges = getitem[i].count;
}
int num_picked = std::min( stacked_here[i].size(),
getitem[i].count == 0 ? stacked_here[i].size() : getitem[i].count );
weight_picked_up += temp.weight() * num_picked;
volume_picked_up += temp.volume() * num_picked;
}
}
auto weight_predict = g->u.weight_carried() + weight_picked_up;
auto volume_predict = g->u.volume_carried() + volume_picked_up;
mvwprintz( w_pickup, 0, 5, weight_predict > g->u.weight_capacity() ? c_red : c_white,
_( "Wgt %.1f" ), round_up( convert_weight( weight_predict ), 1 ) );
wprintz( w_pickup, c_white, "/%.1f", round_up( convert_weight( g->u.weight_capacity() ), 1 ) );
std::string fmted_volume_predict = format_volume( volume_predict );
mvwprintz( w_pickup, 0, 18, volume_predict > g->u.volume_capacity() ? c_red : c_white,
_( "Vol %s" ), fmted_volume_predict );
std::string fmted_volume_capacity = format_volume( g->u.volume_capacity() );
wprintz( w_pickup, c_white, "/%s", fmted_volume_capacity );
}
wrefresh( w_pickup );
action = ctxt.handle_input();
raw_input_char = ctxt.get_raw_input().get_first_input();
} while( action != "QUIT" && action != "CONFIRM" );
bool item_selected = false;
// Check if we have selected an item.
for( auto selection : getitem ) {
if( selection.pick ) {
item_selected = true;
}
}
if( action != "CONFIRM" || !item_selected ) {
w_pickup = catacurses::window();
w_item_info = catacurses::window();
add_msg( _( "Never mind." ) );
g->reenter_fullscreen();
g->refresh_all();
return;
}
}
// At this point we've selected our items, register an activity to pick them up.
g->u.assign_activity( activity_id( "ACT_PICKUP" ) );
g->u.activity.placement = p - g->u.pos();
g->u.activity.values.push_back( from_vehicle );
if( min == -1 ) {
// Auto pickup will need to auto resume since there can be several of them on the stack.
g->u.activity.auto_resume = true;
}
std::vector<std::pair<int, int>> pick_values;
for( size_t i = 0; i < stacked_here.size(); i++ ) {
const auto &selection = getitem[i];
if( !selection.pick ) {
continue;
}
const auto &stack = stacked_here[i];
// Note: items can be both charged and stacked
// For robustness, let's assume they can be both in the same stack
bool pick_all = selection.count == 0;
size_t count = selection.count;
for( const item_idx &it : stack ) {
if( !pick_all && count == 0 ) {
break;
}
if( it._item.count_by_charges() ) {
size_t num_picked = std::min( static_cast<size_t>( it._item.charges ), count );
pick_values.push_back( { static_cast<int>( it.idx ), static_cast<int>( num_picked ) } );
count -= num_picked;
} else {
size_t num_picked = 1;
pick_values.push_back( { static_cast<int>( it.idx ), 0 } );
count -= num_picked;
}
}
}
// The pickup activity picks up items last-to-first from its values list, so make sure the
// higher indices are at the end.
std::sort( pick_values.begin(), pick_values.end() );
for( auto &it : pick_values ) {
g->u.activity.values.push_back( it.first );
g->u.activity.values.push_back( it.second );
}
g->reenter_fullscreen();
}
void TestIt(long p, long r, long c, long _k, long w,
long L, Vec<long>& mvec,
Vec<long>& gens, Vec<long>& ords, long useCache)
{
if (lsize(mvec)<1) { // use default values
mvec.SetLength(3); gens.SetLength(3); ords.SetLength(3);
mvec[0] = 7; mvec[1] = 3; mvec[2] = 221;
gens[0] = 3979; gens[1] = 3095; gens[2] = 3760;
ords[0] = 6; ords[1] = 2; ords[2] = -8;
}
if (!noPrint)
cout << "*** TestIt"
<< (dry? " (dry run):" : ":")
<< " p=" << p
<< ", r=" << r
<< ", c=" << c
<< ", k=" << _k
<< ", w=" << w
<< ", L=" << L
<< ", mvec=" << mvec << ", "
<< ", useCache = " << useCache
<< endl;
setTimersOn();
setDryRun(false); // Need to get a "real context" to test ThinEvalMap
// mvec is supposed to include the prime-power factorization of m
long nfactors = mvec.length();
for (long i = 0; i < nfactors; i++)
for (long j = i+1; j < nfactors; j++)
assert(GCD(mvec[i], mvec[j]) == 1);
// multiply all the prime powers to get m itself
long m = computeProd(mvec);
assert(GCD(p, m) == 1);
// build a context with these generators and orders
vector<long> gens1, ords1;
convert(gens1, gens);
convert(ords1, ords);
FHEcontext context(m, p, r, gens1, ords1);
buildModChain(context, L, c);
if (!noPrint) {
context.zMStar.printout(); // print structure of Zm* /(p) to cout
cout << endl;
}
long d = context.zMStar.getOrdP();
long phim = context.zMStar.getPhiM();
long nslots = phim/d;
setDryRun(dry); // Now we can set the dry-run flag if desired
FHESecKey secretKey(context);
const FHEPubKey& publicKey = secretKey;
secretKey.GenSecKey(w); // A Hamming-weight-w secret key
addSome1DMatrices(secretKey); // compute key-switching matrices that we need
addFrbMatrices(secretKey); // compute key-switching matrices that we need
// GG defines the plaintext space Z_p[X]/GG(X)
ZZX GG;
GG = context.alMod.getFactorsOverZZ()[0];
EncryptedArray ea(context, GG);
zz_p::init(context.alMod.getPPowR());
Vec<zz_p> val0(INIT_SIZE, nslots);
for (auto& x: val0)
random(x);
vector<ZZX> val1;
val1.resize(nslots);
for (long i = 0; i < nslots; i++) {
val1[i] = conv<ZZX>(conv<ZZ>(rep(val0[i])));
}
Ctxt ctxt(publicKey);
ea.encrypt(ctxt, publicKey, val1);
resetAllTimers();
FHE_NTIMER_START(ALL);
// Compute homomorphically the transformation that takes the
// coefficients packed in the slots and produces the polynomial
// corresponding to cube
if (!noPrint) CheckCtxt(ctxt, "init");
if (!noPrint) cout << "build ThinEvalMap\n";
ThinEvalMap map(ea, /*minimal=*/false, mvec,
/*invert=*/false, /*build_cache=*/false);
// compute the transformation to apply
if (!noPrint) cout << "apply ThinEvalMap\n";
if (useCache) map.upgrade();
map.apply(ctxt); // apply the transformation to ctxt
if (!noPrint) CheckCtxt(ctxt, "ThinEvalMap");
if (!noPrint) cout << "check results\n";
if (!noPrint) cout << "build ThinEvalMap\n";
ThinEvalMap imap(ea, /*minimal=*/false, mvec,
/*invert=*/true, /*build_cache=*/false);
// compute the transformation to apply
if (!noPrint) cout << "apply ThinEvalMap\n";
if (useCache) imap.upgrade();
imap.apply(ctxt); // apply the transformation to ctxt
if (!noPrint) {
CheckCtxt(ctxt, "ThinEvalMap");
cout << "check results\n";
}
#if 1
/* create dirty version of ctxt */
Vec<zz_pX> dirty_val0;
dirty_val0.SetLength(nslots);
for (long i = 0; i < nslots; i++) {
random(dirty_val0[i], d);
SetCoeff(dirty_val0[i], 0, val0[i]);
}
vector<ZZX> dirty_val1;
dirty_val1.resize(nslots);
for (long i = 0; i < nslots; i++) {
dirty_val1[i] = conv<ZZX>(dirty_val0[i]);
}
Ctxt dirty_ctxt(publicKey);
ea.encrypt(dirty_ctxt, publicKey, dirty_val1);
EvalMap dirty_map(ea, /*minimal=*/false, mvec,
/*invert=*/false, /*build_cache=*/false);
dirty_map.apply(dirty_ctxt);
imap.apply(dirty_ctxt);
#endif
vector<ZZX> val2;
ea.decrypt(ctxt, secretKey, val2);
if (val1 == val2)
cout << "ThinEvalMap: GOOD\n";
else
cout << "ThinEvalMap: BAD\n";
#if 1
vector<ZZX> dirty_val2;
ea.decrypt(dirty_ctxt, secretKey, dirty_val2);
if (val1 == dirty_val2)
cout << "ThinEvalMap: GOOD\n";
else
cout << "ThinEvalMap: BAD\n";
#endif
FHE_NTIMER_STOP(ALL);
if (!noPrint) {
cout << "\n*********\n";
printAllTimers();
cout << endl;
}
}
void Messages::display_messages()
{
WINDOW_PTR w_ptr {newwin(
FULL_SCREEN_HEIGHT, FULL_SCREEN_WIDTH,
(TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0,
(TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0)};
WINDOW *const w = w_ptr.get();
input_context ctxt("MESSAGE_LOG");
ctxt.register_action("UP", _("Scroll up"));
ctxt.register_action("DOWN", _("Scroll down"));
ctxt.register_action("QUIT");
ctxt.register_action("HELP_KEYBINDINGS");
int offset = 0;
const int maxlength = FULL_SCREEN_WIDTH - 2 - 1;
const int bottom = FULL_SCREEN_HEIGHT - 2;
const int msg_count = size();
for (;;) {
werase(w);
draw_border(w);
mvwprintz(w, bottom + 1, 32, c_red, _("Press %s to return"), ctxt.get_desc("QUIT").c_str());
draw_scrollbar(w, offset, bottom, msg_count, 1);
int line = 1;
int lasttime = -1;
for( int i = offset; i < msg_count; ++i ) {
if (line > bottom) {
break;
}
const game_message &m = player_messages.impl_->history(i);
const nc_color col = msgtype_to_color( m.type, false );
const calendar timepassed = calendar::turn - m.timestamp_in_turns;
if (timepassed.get_turn() > lasttime) {
mvwprintz(w, line++, 3, c_ltblue, _("%s ago:"),
timepassed.textify_period().c_str());
lasttime = timepassed.get_turn();
}
nc_color col_out = col;
for( const std::string &folded : foldstring(m.get_with_count(), maxlength) ) {
if (line > bottom) {
break;
}
print_colored_text( w, line++, 1, col_out, col, folded );
}
}
if (offset + 1 < msg_count) {
mvwprintz(w, bottom + 1, 5, c_magenta, "vvv");
}
if (offset > 0) {
mvwprintz(w, bottom + 1, maxlength - 3, c_magenta, "^^^");
}
wrefresh(w);
const std::string &action = ctxt.handle_input();
if (action == "DOWN" && offset + 1 < msg_count) {
offset++;
} else if (action == "UP" && offset > 0) {
offset--;
} else if (action == "QUIT") {
break;
}
}
player_messages.impl_->curmes = calendar::turn.get_turn();
}
// TODO: Shunt redundant drawing code elsewhere
std::vector<point> game::target(int &x, int &y, int lowx, int lowy, int hix,
int hiy, std::vector <monster> t, int &target,
item *relevent)
{
std::vector<point> ret;
int tarx, tary, junk, tart;
int range=(hix-u.posx);
// First, decide on a target among the monsters, if there are any in range
if (!t.empty()) {
// Check for previous target
if (target == -1) {
// If no previous target, target the closest there is
double closest = -1;
double dist;
for (int i = 0; i < t.size(); i++) {
dist = rl_dist(t[i].posx(), t[i].posy(), u.posx, u.posy);
if (closest < 0 || dist < closest) {
closest = dist;
target = i;
}
}
}
x = t[target].posx();
y = t[target].posy();
} else
target = -1; // No monsters in range, don't use target, reset to -1
bool sideStyle = use_narrow_sidebar();
int height = 13;
int width = getmaxx(w_messages);
int top = sideStyle ? getbegy(w_messages) : (getbegy(w_minimap) + getmaxy(w_minimap));
int left = getbegx(w_messages);
WINDOW* w_target = newwin(height, width, top, left);
draw_border(w_target);
mvwprintz(w_target, 0, 2, c_white, "< ");
if (!relevent) { // currently targetting vehicle to refill with fuel
wprintz(w_target, c_red, _("Select a vehicle"));
} else {
if (relevent == &u.weapon && relevent->is_gun()) {
wprintz(w_target, c_red, _("Firing %s (%d)"), // - %s (%d)",
u.weapon.tname().c_str(),// u.weapon.curammo->name.c_str(),
u.weapon.charges);
} else {
wprintz(w_target, c_red, _("Throwing %s"), relevent->tname().c_str());
}
}
wprintz(w_target, c_white, " >");
/* Annoying clutter @ 2 3 4. */
int text_y = getmaxy(w_target) - 4;
if (is_mouse_enabled()) {
--text_y;
}
mvwprintz(w_target, text_y++, 1, c_white,
_("Move cursor to target with directional keys"));
if (relevent) {
mvwprintz(w_target, text_y++, 1, c_white,
_("'<' '>' Cycle targets; 'f' or '.' to fire"));
mvwprintz(w_target, text_y++, 1, c_white,
_("'0' target self; '*' toggle snap-to-target"));
}
if (is_mouse_enabled()) {
mvwprintz(w_target, text_y++, 1, c_white,
_("Mouse: LMB: Target, Wheel: Cycle, RMB: Fire"));
}
wrefresh(w_target);
bool snap_to_target = OPTIONS["SNAP_TO_TARGET"];
do {
if (m.sees(u.posx, u.posy, x, y, -1, tart))
ret = line_to(u.posx, u.posy, x, y, tart);
else
ret = line_to(u.posx, u.posy, x, y, 0);
if(trigdist && trig_dist(u.posx,u.posy, x,y) > range) {
bool cont=true;
int cx=x;
int cy=y;
for (int i = 0; i < ret.size() && cont; i++) {
if(trig_dist(u.posx,u.posy, ret[i].x, ret[i].y) > range) {
ret.resize(i);
cont=false;
} else {
cx=0+ret[i].x; cy=0+ret[i].y;
}
}
x=cx;y=cy;
}
point center;
if (snap_to_target)
center = point(x, y);
else
center = point(u.posx + u.view_offset_x, u.posy + u.view_offset_y);
// Clear the target window.
for (int i = 1; i < getmaxy(w_target) - 5; i++) {
for (int j = 1; j < getmaxx(w_target) - 2; j++)
mvwputch(w_target, i, j, c_white, ' ');
}
/* Start drawing w_terrain things -- possibly move out to centralized draw_terrain_window function as they all should be roughly similar*/
m.build_map_cache(); // part of the SDLTILES drawing code
m.draw(w_terrain, center); // embedded in SDL drawing code
// Draw the Monsters
for (int i = 0; i < num_zombies(); i++) {
if (u_see(&(zombie(i)))) {
zombie(i).draw(w_terrain, center.x, center.y, false);
}
}
// Draw the NPCs
for (int i = 0; i < active_npc.size(); i++) {
if (u_see(active_npc[i]->posx, active_npc[i]->posy))
active_npc[i]->draw(w_terrain, center.x, center.y, false);
}
if (x != u.posx || y != u.posy) {
// Draw the player
int atx = POSX + u.posx - center.x, aty = POSY + u.posy - center.y;
if (atx >= 0 && atx < TERRAIN_WINDOW_WIDTH && aty >= 0 && aty < TERRAIN_WINDOW_HEIGHT)
mvwputch(w_terrain, aty, atx, u.color(), '@');
// Only draw a highlighted trajectory if we can see the endpoint.
// Provides feedback to the player, and avoids leaking information about tiles they can't see.
draw_line(x, y, center, ret);
/*
if (u_see( x, y)) {
for (int i = 0; i < ret.size(); i++) {
int mondex = mon_at(ret[i].x, ret[i].y),
npcdex = npc_at(ret[i].x, ret[i].y);
// NPCs and monsters get drawn with inverted colors
if (mondex != -1 && u_see(&(zombie(mondex))))
zombie(mondex).draw(w_terrain, center.x, center.y, true);
else if (npcdex != -1)
active_npc[npcdex]->draw(w_terrain, center.x, center.y, true);
else
m.drawsq(w_terrain, u, ret[i].x, ret[i].y, true,true,center.x, center.y);
}
}
//*/
// Print to target window
if (!relevent) {
// currently targetting vehicle to refill with fuel
vehicle *veh = m.veh_at(x, y);
if (veh) {
mvwprintw(w_target, 1, 1, _("There is a %s"),
veh->name.c_str());
}
} else if (relevent == &u.weapon && relevent->is_gun()) {
// firing a gun
mvwprintw(w_target, 1, 1, _("Range: %d"),
rl_dist(u.posx, u.posy, x, y));
// get the current weapon mode or mods
std::string mode = "";
if (u.weapon.mode == "MODE_BURST") {
mode = _("Burst");
} else {
item* gunmod = u.weapon.active_gunmod();
if (gunmod != NULL) {
mode = gunmod->type->name;
}
}
if (mode != "") {
mvwprintw(w_target, 1, 14, _("Firing mode: %s"),
mode.c_str());
}
} else {
// throwing something
mvwprintw(w_target, 1, 1, _("Range: %d"),
rl_dist(u.posx, u.posy, x, y));
}
const int zid = mon_at(x, y);
if (zid == -1) {
if (snap_to_target)
mvwputch(w_terrain, POSY, POSX, c_red, '*');
else
mvwputch(w_terrain, POSY + y - center.y, POSX + x - center.x, c_red, '*');
} else {
if (u_see(&(zombie(zid)))) {
zombie(zid).print_info(w_target,2);
}
}
}
wrefresh(w_target);
wrefresh(w_terrain);
wrefresh(w_status);
refresh();
input_context ctxt("TARGET");
// "ANY_INPUT" should be added before any real help strings
// Or strings will be writen on window border.
ctxt.register_action("ANY_INPUT");
ctxt.register_directions();
ctxt.register_action("COORDINATE");
ctxt.register_action("SELECT");
ctxt.register_action("FIRE");
ctxt.register_action("NEXT_TARGET");
ctxt.register_action("PREV_TARGET");
ctxt.register_action("WAIT");
ctxt.register_action("CENTER");
ctxt.register_action("TOGGLE_SNAP_TO_TARGET");
ctxt.register_action("HELP_KEYBINDINGS");
ctxt.register_action("QUIT");
const std::string& action = ctxt.handle_input();
tarx = 0; tary = 0;
// Our coordinates will either be determined by coordinate input(mouse),
// by a direction key, or by the previous value.
if (action == "SELECT" && ctxt.get_coordinates(g->w_terrain, tarx, tary)) {
if (!OPTIONS["USE_TILES"] && snap_to_target) {
// Snap to target doesn't currently work with tiles.
tarx += x - u.posx;
tary += y - u.posy;
}
tarx -= x;
tary -= y;
} else {
ctxt.get_direction(tarx, tary, action);
if(tarx == -2) {
tarx = 0;
tary = 0;
}
}
/* More drawing to terrain */
if (tarx != 0 || tary != 0) {
int mondex = mon_at(x, y), npcdex = npc_at(x, y);
if (mondex != -1 && u_see(&(zombie(mondex))))
zombie(mondex).draw(w_terrain, center.x, center.y, false);
else if (npcdex != -1)
active_npc[npcdex]->draw(w_terrain, center.x, center.y, false);
else if (m.sees(u.posx, u.posy, x, y, -1, junk))
m.drawsq(w_terrain, u, x, y, false, true, center.x, center.y);
else
mvwputch(w_terrain, POSY, POSX, c_black, 'X');
x += tarx;
y += tary;
if (x < lowx)
x = lowx;
else if (x > hix)
x = hix;
if (y < lowy)
y = lowy;
else if (y > hiy)
y = hiy;
} else if ((action == "PREV_TARGET") && (target != -1)) {
target--;
if (target == -1) target = t.size() - 1;
x = t[target].posx();
y = t[target].posy();
} else if ((action == "NEXT_TARGET") && (target != -1)) {
target++;
if (target == t.size()) target = 0;
x = t[target].posx();
y = t[target].posy();
} else if (action == "WAIT" || action == "FIRE") {
for (int i = 0; i < t.size(); i++) {
if (t[i].posx() == x && t[i].posy() == y)
target = i;
}
if (u.posx == x && u.posy == y)
ret.clear();
break;
} else if (action == "CENTER") {
x = u.posx;
y = u.posy;
ret.clear();
} else if (action == "TOGGLE_SNAP_TO_TARGET")
snap_to_target = !snap_to_target;
else if (action == "QUIT") { // return empty vector (cancel)
ret.clear();
break;
}
} while (true);
return ret;
}
void Messages::display_messages()
{
catacurses::window w = catacurses::newwin(
FULL_SCREEN_HEIGHT, FULL_SCREEN_WIDTH,
( TERMY > FULL_SCREEN_HEIGHT ) ? ( TERMY - FULL_SCREEN_HEIGHT ) / 2 : 0,
( TERMX > FULL_SCREEN_WIDTH ) ? ( TERMX - FULL_SCREEN_WIDTH ) / 2 : 0 );
input_context ctxt( "MESSAGE_LOG" );
ctxt.register_action( "UP", _( "Scroll up" ) );
ctxt.register_action( "DOWN", _( "Scroll down" ) );
ctxt.register_action( "QUIT" );
ctxt.register_action( "HELP_KEYBINDINGS" );
/* Right-Aligning Time Epochs For Readability
* ==========================================
* Given display_messages(); right-aligns epochs, we must declare one quick variable first:
* max_padlength refers to the length of the LONGEST possible unit of time returned by to_string_clipped() any language has to offer.
* This variable is, for now, set to '10', which seems most reasonable.
*
* The reason right-aligned epochs don't use a "shortened version" (e.g. only showing the first letter) boils down to:
* 1. The first letter of every time unit being unique is a property that might not carry across to other languages.
* 2. Languages where displayed characters change depending on the characters preceding/following it will become unclear.
* 3. Some polymorphic languages might not be able to appropriately convey meaning with one character (FRS is not a linguist- correct her on this if needed.)
*
* This right padlength is then incorporated into a so-called 'epoch_format' which, in turn, will be used to format the correct epoch.
* If an external language introduces time units longer than 10 characters in size, consider altering these variables.
* The game (likely) shan't segfault, though the text may appear a bit messed up if these variables aren't set properly.
*/
const int max_padlength = 10;
/* Dealing With Screen Extremities
* ===============================
* 'maxlength' corresponds to the most extreme length a log message may be before foldstring() wraps it around to two or more lines.
* The numbers subtracted from FULL_SCREEN_WIDTH are - in order:
* '-2' the characters reserved for the borders of the box, both on the left and right side.
* '-1' the leftmost guide character that's drawn on screen.
* '-4' the padded three-digit number each epoch starts with.
* '-max_padlength' the characters of space that are allocated to time units (e.g. "years", "minutes", etc.)
*
* 'bottom' works much like 'maxlength', but instead it refers to the amount of lines that the message box may hold.
*/
const int maxlength = FULL_SCREEN_WIDTH - 2 - 1 - 4 - max_padlength;
const int bottom = FULL_SCREEN_HEIGHT - 2;
const int msg_count = size();
/* Dealing With Scroll Direction
* =============================
* Much like how the sidebar can have variable scroll direction, so will the message box.
* To properly differentiate the two methods of displaying text, we will label them NEWEST-TOP, and OLDEST-TOP. This labeling should be self explanatory.
*
* Note that 'offset' tracks only our current position in the list; it shan't at all affect the manner in which the messages are drawn.
* Messages are always drawn top-to-bottom. If NEWEST-TOP is used, then the top line (line=1) corresponds to the newest message. The one further down the second-newest, etc.
* If the OLDEST-TOP method is used, then the top line (line=1) corresponds to the oldest message, and the bottom one to the newest.
* The 'for (;;)' block below is nearly completely method-agnostic, save for the `player_messages.impl_->history(i)` call.
*
* In case of NEWEST-TOP, the 'i' variable easily enough corresponds to the newest message.
* In case of OLDEST-TOP, the 'i' variable must be flipped- meaning the highest value of 'i' returns the result for the lowest value of 'i', etc.
* To achieve this, the 'flip_message' variable is set to either the value of 'msg_count', or '0'. This variable is then subtracted from 'i' in each call to player_messages.impl_->history();
*
* 'offset' refers to the corresponding message that will be displayed at the very TOP of the message box window.
* NEWEST-TOP: 'offset' starts simply at '0' - the very top of the window.
* OLDEST-TOP: 'offset' is set to the maximum value it could possibly be. That is- 'msg_count-bottom'. This way, the screen starts with the scrollbar all the way down.
* 'retrieve_history' refers to the line that should be displayed- this is either 'i' if it's NEWEST-TOP, or a flipped version of 'i' if it's OLDEST-TOP.
*/
int offset = log_from_top ? 0 : ( msg_count - bottom );
const int flip = log_from_top ? 0 : msg_count - 1;
for( ;; ) {
werase( w );
draw_border( w );
mvwprintz( w, bottom + 1, 32, c_red, _( "Press %s to return" ), ctxt.get_desc( "QUIT" ).c_str() );
draw_scrollbar( w, offset, bottom, msg_count, 1, 0, c_white, true );
int line = 1;
int lasttime = -1;
for( int i = offset; i < msg_count; ++i ) {
const int retrieve_history = abs( i - flip );
if( line > bottom ) {
break;
// This statement makes it so that no non-existent messages are printed (which usually results in a segfault)
} else if( retrieve_history >= msg_count ) {
continue;
}
const game_message &m = player_messages.impl_->history( retrieve_history );
const calendar timepassed = calendar::turn - m.timestamp_in_turns;
std::string long_ago = to_string_clipped( time_duration::from_turns( timepassed ) );
nc_color col = msgtype_to_color( m.type, false );
// Here we separate the unit and amount from one another so that they can be properly padded when they're drawn on the screen.
// Note that the very first character of 'unit' is often a space (except for languages where the time unit directly follows the number.)
const auto amount_len = long_ago.find_first_not_of( "0123456789" );
std::string amount = long_ago.substr( 0, amount_len );
std::string unit = long_ago.substr( amount_len );
if( timepassed.get_turn() != lasttime ) {
right_print( w, line, 2, c_light_blue, string_format( _( "%-3s%-10s" ), amount.c_str(),
unit.c_str() ) );
lasttime = timepassed.get_turn();
}
nc_color col_out = col;
for( const std::string &folded : foldstring( m.get_with_count(), maxlength ) ) {
if( line > bottom ) {
break;
}
print_colored_text( w, line, 2, col_out, col, folded );
// So-called special "markers"- alternating '=' and '-'s at the edges of te message window so players can properly make sense of which message belongs to which time interval.
// The '+offset%4' in the calculation makes it so that the markings scroll along with the messages.
// On lines divisible by 4, draw a dark gray '-' at both horizontal extremes of the window.
if( ( line + offset % 4 ) % 4 == 0 ) {
mvwprintz( w, line, 1, c_dark_gray, "-" );
mvwprintz( w, line, FULL_SCREEN_WIDTH - 2, c_dark_gray, "-" );
// On lines divisible by 2 (but not 4), draw a light gray '=' at the horizontal extremes of the window.
} else if( ( line + offset % 4 ) % 2 == 0 ) {
mvwprintz( w, line, 1, c_light_gray, "=" );
mvwprintz( w, line, FULL_SCREEN_WIDTH - 2, c_light_gray, "=" );
}
// Only now are we done with this line:
line++;
}
}
if( offset < msg_count - bottom ) {
mvwprintz( w, bottom + 1, 5, c_magenta, "vvv" );
}
if( offset > 0 ) {
mvwprintz( w, bottom + 1, FULL_SCREEN_WIDTH - 8, c_magenta, "^^^" );
}
wrefresh( w );
const std::string &action = ctxt.handle_input();
if( action == "DOWN" && offset < msg_count - bottom ) {
offset++;
} else if( action == "UP" && offset > 0 ) {
offset--;
} else if( action == "QUIT" ) {
break;
}
}
player_messages.impl_->curmes = calendar::turn.get_turn();
}
WORLDPTR worldfactory::pick_world( bool show_prompt )
{
std::map<std::string, WORLDPTR> worlds = get_all_worlds();
std::vector<std::string> world_names = all_worldnames;
// Filter out special worlds (TUTORIAL | DEFENSE) from world_names.
for (std::vector<std::string>::iterator it = world_names.begin(); it != world_names.end();) {
if (*it == "TUTORIAL" || *it == "DEFENSE") {
it = world_names.erase(it);
} else {
++it;
}
}
// If there is only one world to pick from, autoreturn it.
if (world_names.size() == 1) {
return worlds[world_names[0]];
}
// If there are no worlds to pick from, immediately try to make one.
else if (world_names.empty()) {
return make_new_world( show_prompt );
}
// If we're skipping prompts, just return the first one.
else if( !show_prompt ) {
return worlds[world_names[0]];
}
const int iTooltipHeight = 3;
const int iContentHeight = FULL_SCREEN_HEIGHT - 3 - iTooltipHeight;
const unsigned int num_pages = world_names.size() / iContentHeight + 1; // at least 1 page
const int iOffsetX = (TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0;
const int iOffsetY = (TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0;
std::map<int, bool> mapLines;
mapLines[3] = true;
std::map<int, std::vector<std::string> > world_pages;
unsigned int worldnum = 0;
for (size_t i = 0; i < num_pages; ++i) {
for (int j = 0; j < iContentHeight && worldnum < world_names.size(); ++j) {
world_pages[i].push_back(world_names[worldnum++]);
}
}
unsigned int sel = 0, selpage = 0;
WINDOW *w_worlds_border = newwin(FULL_SCREEN_HEIGHT, FULL_SCREEN_WIDTH, iOffsetY, iOffsetX);
WINDOW *w_worlds_tooltip = newwin(iTooltipHeight, FULL_SCREEN_WIDTH - 2, 1 + iOffsetY,
1 + iOffsetX);
WINDOW *w_worlds_header = newwin(1, FULL_SCREEN_WIDTH - 2, 1 + iTooltipHeight + iOffsetY,
1 + iOffsetX);
WINDOW *w_worlds = newwin(iContentHeight, FULL_SCREEN_WIDTH - 2,
iTooltipHeight + 2 + iOffsetY, 1 + iOffsetX);
draw_border(w_worlds_border);
mvwputch(w_worlds_border, 4, 0, BORDER_COLOR, LINE_XXXO); // |-
mvwputch(w_worlds_border, 4, FULL_SCREEN_WIDTH - 1, BORDER_COLOR, LINE_XOXX); // -|
for (std::map<int, bool>::iterator iter = mapLines.begin(); iter != mapLines.end(); ++iter) {
mvwputch(w_worlds_border, FULL_SCREEN_HEIGHT - 1, iter->first + 1, BORDER_COLOR, LINE_XXOX); // _|_
}
center_print(w_worlds_border, 0, c_ltred, _(" WORLD SELECTION "));
wrefresh(w_worlds_border);
for (int i = 0; i < 78; i++) {
if (mapLines[i]) {
mvwputch(w_worlds_header, 0, i, BORDER_COLOR, LINE_OXXX);
} else {
mvwputch(w_worlds_header, 0, i, BORDER_COLOR, LINE_OXOX); // Draw header line
}
}
wrefresh(w_worlds_header);
input_context ctxt("PICK_WORLD_DIALOG");
ctxt.register_updown();
ctxt.register_action("HELP_KEYBINDINGS");
ctxt.register_action("QUIT");
ctxt.register_action("NEXT_TAB");
ctxt.register_action("PREV_TAB");
ctxt.register_action("CONFIRM");
std::stringstream sTemp;
while(true) {
//Clear the lines
for (int i = 0; i < iContentHeight; i++) {
for (int j = 0; j < 79; j++) {
if (mapLines[j]) {
mvwputch(w_worlds, i, j, BORDER_COLOR, LINE_XOXO);
} else {
mvwputch(w_worlds, i, j, c_black, ' ');
}
if (i < iTooltipHeight) {
mvwputch(w_worlds_tooltip, i, j, c_black, ' ');
}
}
}
//Draw World Names
for (size_t i = 0; i < world_pages[selpage].size(); ++i) {
sTemp.str("");
sTemp << i + 1;
mvwprintz(w_worlds, i, 0, c_white, "%s", sTemp.str().c_str());
mvwprintz(w_worlds, i, 4, c_white, "");
if (i == sel) {
wprintz(w_worlds, c_yellow, ">> ");
} else {
wprintz(w_worlds, c_yellow, " ");
}
wprintz(w_worlds, c_white, "%s (%i)", (world_pages[selpage])[i].c_str(),
world_generator->all_worlds[((world_pages[selpage])[i])]->world_saves.size());
}
//Draw Tabs
mvwprintz(w_worlds_header, 0, 7, c_white, "");
for (size_t i = 0; i < num_pages; ++i) {
nc_color tabcolor = (selpage == i) ? hilite(c_white) : c_white;
if (!world_pages[i].empty()) { //skip empty pages
wprintz(w_worlds_header, c_white, "[");
wprintz(w_worlds_header, tabcolor, _("Page %d"), i + 1);
wprintz(w_worlds_header, c_white, "]");
wputch(w_worlds_header, BORDER_COLOR, LINE_OXOX);
}
}
wrefresh(w_worlds_header);
fold_and_print(w_worlds_tooltip, 0, 0, 78, c_white, _("Pick a world to enter game"));
wrefresh(w_worlds_tooltip);
wrefresh(w_worlds);
const std::string action = ctxt.handle_input();
if (action == "QUIT") {
break;
} else if (!world_pages[selpage].empty() && action == "DOWN") {
sel++;
if (sel >= world_pages[selpage].size()) {
sel = 0;
}
} else if (!world_pages[selpage].empty() && action == "UP") {
if (sel == 0) {
sel = world_pages[selpage].size() - 1;
} else {
sel--;
}
} else if (action == "NEXT_TAB") {
sel = 0;
do { //skip empty pages
selpage++;
if (selpage >= world_pages.size()) {
selpage = 0;
}
} while(world_pages[selpage].empty());
} else if (action == "PREV_TAB") {
sel = 0;
do { //skip empty pages
if (selpage != 0) {
selpage--;
} else {
selpage = world_pages.size() - 1;
}
} while(world_pages[selpage].empty());
} else if (action == "CONFIRM") {
// we are wanting to get out of this by confirmation, so ask if we want to load the level [y/n prompt] and if yes exit
if (query_yn(_("Do you want to start the game in world [%s]?"),
world_pages[selpage][sel].c_str())) {
werase(w_worlds);
werase(w_worlds_border);
werase(w_worlds_header);
werase(w_worlds_tooltip);
return all_worlds[world_pages[selpage][sel]];//sel + selpage * iContentHeight;
}
}
}
werase(w_worlds);
werase(w_worlds_border);
werase(w_worlds_header);
werase(w_worlds_tooltip);
return NULL;
}
// Testing the I/O of the important classes of the library
// (context, keys, ciphertexts).
int main(int argc, char *argv[])
{
ArgMapping amap;
long r=1;
long p=2;
long c = 2;
long w = 64;
long L = 5;
amap.arg("p", p, "plaintext base");
amap.arg("r", r, "lifting");
amap.arg("c", c, "number of columns in the key-switching matrices");
amap.parse(argc, argv);
long ptxtSpace = power_long(p,r);
FHEcontext* contexts[N_TESTS];
FHESecKey* sKeys[N_TESTS];
Ctxt* ctxts[N_TESTS];
EncryptedArray* eas[N_TESTS];
vector<ZZX> ptxts[N_TESTS];
// first loop: generate stuff and write it to cout
// open file for writing
{fstream keyFile("iotest.txt", fstream::out|fstream::trunc);
assert(keyFile.is_open());
for (long i=0; i<N_TESTS; i++) {
long m = ms[i][1];
cout << "Testing IO: m="<<m<<", p^r="<<p<<"^"<<r<<endl;
if (i==N_TESTS-1) { // test bootstrapping data I/O
Vec<long> mvec(INIT_SIZE,2);
mvec[0] = ms[i][4]; mvec[1] = ms[i][5];
vector<long> gens(2);
gens[0] = ms[i][6]; gens[1] = ms[i][7];
vector<long> ords(2);
ords[0] = ms[i][8]; ords[1] = ms[i][9];
contexts[i] = new FHEcontext(m, p, r, gens, ords);
buildModChain(*contexts[i], L, c); // Set the modulus chain
contexts[i]->makeBootstrappable(mvec);
}
else {
contexts[i] = new FHEcontext(m, p, r);
buildModChain(*contexts[i], L, c); // Set the modulus chain
}
// Output the FHEcontext to file
writeContextBase(keyFile, *contexts[i]);
keyFile << *contexts[i] << endl;
sKeys[i] = new FHESecKey(*contexts[i]);
const FHEPubKey& publicKey = *sKeys[i];
sKeys[i]->GenSecKey(w,ptxtSpace); // A Hamming-weight-w secret key
addSome1DMatrices(*sKeys[i]);// compute key-switching matrices that we need
eas[i] = new EncryptedArray(*contexts[i]);
long nslots = eas[i]->size();
// Output the secret key to file, twice. Below we will have two copies
// of most things.
keyFile << *sKeys[i] << endl;;
keyFile << *sKeys[i] << endl;;
vector<ZZX> b;
long p2r = eas[i]->getContext().alMod.getPPowR();
ZZX poly = RandPoly(0,to_ZZ(p2r)); // choose a random constant polynomial
eas[i]->decode(ptxts[i], poly);
ctxts[i] = new Ctxt(publicKey);
eas[i]->encrypt(*ctxts[i], publicKey, ptxts[i]);
eas[i]->decrypt(*ctxts[i], *sKeys[i], b);
assert(ptxts[i].size() == b.size());
for (long j = 0; j < nslots; j++) assert (ptxts[i][j] == b[j]);
// output the plaintext
keyFile << "[ ";
for (long j = 0; j < nslots; j++) keyFile << ptxts[i][j] << " ";
keyFile << "]\n";
eas[i]->encode(poly,ptxts[i]);
keyFile << poly << endl;
// Output the ciphertext to file
keyFile << *ctxts[i] << endl;
keyFile << *ctxts[i] << endl;
cerr << "okay " << i << endl;
}
keyFile.close();}
cerr << "so far, so good\n";
// second loop: read from input and repeat the computation
// open file for read
{fstream keyFile("iotest.txt", fstream::in);
for (long i=0; i<N_TESTS; i++) {
// Read context from file
unsigned long m1, p1, r1;
vector<long> gens, ords;
readContextBase(keyFile, m1, p1, r1, gens, ords);
FHEcontext tmpContext(m1, p1, r1, gens, ords);
keyFile >> tmpContext;
assert (*contexts[i] == tmpContext);
cerr << i << ": context matches input\n";
// We define some things below wrt *contexts[i], not tmpContext.
// This is because the various operator== methods check equality of
// references, not equality of the referenced FHEcontext objects.
FHEcontext& context = *contexts[i];
FHESecKey secretKey(context);
FHESecKey secretKey2(tmpContext);
const FHEPubKey& publicKey = secretKey;
const FHEPubKey& publicKey2 = secretKey2;
keyFile >> secretKey;
keyFile >> secretKey2;
assert(secretKey == *sKeys[i]);
cerr << " secret key matches input\n";
EncryptedArray ea(context);
EncryptedArray ea2(tmpContext);
long nslots = ea.size();
// Read the plaintext from file
vector<ZZX> a;
a.resize(nslots);
assert(nslots == (long)ptxts[i].size());
seekPastChar(keyFile, '['); // defined in NumbTh.cpp
for (long j = 0; j < nslots; j++) {
keyFile >> a[j];
assert(a[j] == ptxts[i][j]);
}
seekPastChar(keyFile, ']');
cerr << " ptxt matches input\n";
// Read the encoded plaintext from file
ZZX poly1, poly2;
keyFile >> poly1;
eas[i]->encode(poly2,a);
assert(poly1 == poly2);
cerr << " eas[i].encode(a)==poly1 okay\n";
ea.encode(poly2,a);
assert(poly1 == poly2);
cerr << " ea.encode(a)==poly1 okay\n";
ea2.encode(poly2,a);
assert(poly1 == poly2);
cerr << " ea2.encode(a)==poly1 okay\n";
eas[i]->decode(a,poly1);
assert(nslots == (long)a.size());
for (long j = 0; j < nslots; j++) assert(a[j] == ptxts[i][j]);
cerr << " eas[i].decode(poly1)==ptxts[i] okay\n";
ea.decode(a,poly1);
assert(nslots == (long)a.size());
for (long j = 0; j < nslots; j++) assert(a[j] == ptxts[i][j]);
cerr << " ea.decode(poly1)==ptxts[i] okay\n";
ea2.decode(a,poly1);
assert(nslots == (long)a.size());
for (long j = 0; j < nslots; j++) assert(a[j] == ptxts[i][j]);
cerr << " ea2.decode(poly1)==ptxts[i] okay\n";
// Read ciperhtext from file
Ctxt ctxt(publicKey);
Ctxt ctxt2(publicKey2);
keyFile >> ctxt;
keyFile >> ctxt2;
assert(ctxts[i]->equalsTo(ctxt,/*comparePkeys=*/false));
cerr << " ctxt matches input\n";
sKeys[i]->Decrypt(poly2,*ctxts[i]);
assert(poly1 == poly2);
cerr << " sKeys[i]->decrypt(*ctxts[i]) == poly1 okay\n";
secretKey.Decrypt(poly2,*ctxts[i]);
assert(poly1 == poly2);
cerr << " secretKey.decrypt(*ctxts[i]) == poly1 okay\n";
secretKey.Decrypt(poly2,ctxt);
assert(poly1 == poly2);
cerr << " secretKey.decrypt(ctxt) == poly1 okay\n";
secretKey2.Decrypt(poly2,ctxt2);
assert(poly1 == poly2);
cerr << " secretKey2.decrypt(ctxt2) == poly1 okay\n";
eas[i]->decrypt(ctxt, *sKeys[i], a);
assert(nslots == (long)a.size());
for (long j = 0; j < nslots; j++) assert(a[j] == ptxts[i][j]);
cerr << " eas[i].decrypt(ctxt, *sKeys[i])==ptxts[i] okay\n";
ea.decrypt(ctxt, secretKey, a);
assert(nslots == (long)a.size());
for (long j = 0; j < nslots; j++) assert(a[j] == ptxts[i][j]);
cerr << " ea.decrypt(ctxt, secretKey)==ptxts[i] okay\n";
ea2.decrypt(ctxt2, secretKey2, a);
assert(nslots == (long)a.size());
for (long j = 0; j < nslots; j++) assert(a[j] == ptxts[i][j]);
cerr << " ea2.decrypt(ctxt2, secretKey2)==ptxts[i] okay\n";
cerr << "test "<<i<<" okay\n\n";
}}
unlink("iotest.txt"); // clean up before exiting
}
int worldfactory::show_worldgen_tab_options(WINDOW *win, WORLDPTR world)
{
const int iTooltipHeight = 1;
const int iContentHeight = FULL_SCREEN_HEIGHT - 3 - iTooltipHeight;
const int iOffsetX = (TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0;
const int iOffsetY = (TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0;
WINDOW *w_options = newwin(iContentHeight, FULL_SCREEN_WIDTH - 2, iTooltipHeight + 2 + iOffsetY,
1 + iOffsetX);
std::stringstream sTemp;
std::map<int, bool> mapLines;
mapLines[3] = true;
mapLines[60] = true;
// only populate once
if (world->world_options.empty()) {
for (std::map<std::string, cOpt>::iterator it = OPTIONS.begin(); it != OPTIONS.end(); ++it) {
if (it->second.getPage() == "world_default") {
world->world_options[it->first] = it->second;
}
}
}
std::vector<std::string> keys;
for (std::map<std::string, cOpt>::iterator it = world->world_options.begin();
it != world->world_options.end(); ++it) {
keys.push_back(it->first);
}
for (std::map<int, bool>::iterator mLine = mapLines.begin(); mLine != mapLines.end(); ++mLine) {
if (mLine->second) {
mvwputch(win, 2, mLine->first + 1, BORDER_COLOR, LINE_OXXX); // -.-
mvwputch(win, FULL_SCREEN_HEIGHT - 1, mLine->first + 1, BORDER_COLOR, LINE_XXOX); // _|_
}
}
wrefresh(win);
refresh();
input_context ctxt("WORLDGEN_OPTION_DIALOG");
ctxt.register_cardinal();
ctxt.register_action("HELP_KEYBINDINGS");
ctxt.register_action("QUIT");
ctxt.register_action("NEXT_TAB");
ctxt.register_action("PREV_TAB");
unsigned int sel = 0;
unsigned int curoption = 0;
do {
for (int i = 0; i < iContentHeight; i++) {
for (int j = 0; j < 79; j++) {
if (mapLines[j]) {
mvwputch(w_options, i, j, BORDER_COLOR, LINE_XOXO);
} else {
mvwputch(w_options, i, j, c_black, ' ');
}
}
}
curoption = 0;
for (std::map<std::string, cOpt>::iterator it = world->world_options.begin();
it != world->world_options.end(); ++it) {
nc_color cLineColor = c_ltgreen;
sTemp.str("");
sTemp << curoption + 1;
mvwprintz(w_options, curoption , 0, c_white, "%s", sTemp.str().c_str());
mvwprintz(w_options, curoption , 4, c_white, "");
if (sel == curoption) {
wprintz(w_options, c_yellow, ">> ");
} else {
wprintz(w_options, c_yellow, " ");
}
wprintz(w_options, c_white, "%s", (it->second.getMenuText()).c_str());
if (it->second.getValue() == "False") {
cLineColor = c_ltred;
}
mvwprintz(w_options, curoption, 62, (sel == curoption) ? hilite(cLineColor) : cLineColor, "%s",
(it->second.getValueName()).c_str());
++curoption;
}
wrefresh(w_options);
refresh();
const std::string action = ctxt.handle_input();
if (action == "DOWN") {
sel++;
if (sel >= world->world_options.size()) {
sel = 0;
}
} else if (action == "UP") {
if (sel == 0) {
sel = world->world_options.size() - 1;
} else {
sel--;
}
} else if (!world->world_options.empty() && action == "LEFT") {
world->world_options[keys[sel]].setPrev();
} else if (!world->world_options.empty() && action == "RIGHT") {
world->world_options[keys[sel]].setNext();
} else if (action == "PREV_TAB") {
werase(w_options);
delwin(w_options);
return -1;
} else if (action == "NEXT_TAB") {
werase(w_options);
delwin(w_options);
return 1;
} else if (action == "QUIT") {
return -999;
}
} while (true);
return 0;
}
void player::power_bionics()
{
std::vector <bionic *> passive;
std::vector <bionic *> active;
for (std::vector<bionic>::iterator it = my_bionics.begin();
it != my_bionics.end(); ++it) {
if (!bionics[it->id]->activated) {
passive.push_back(&*it);
} else {
active.push_back(&*it);
}
}
// maximal number of rows in both columns
const int bionic_count = std::max(passive.size(), active.size());
int TITLE_HEIGHT = 2;
int DESCRIPTION_HEIGHT = 5;
// Main window
/** Total required height is:
* top frame line: + 1
* height of title window: + TITLE_HEIGHT
* line after the title: + 1
* line with active/passive bionic captions: + 1
* height of the biggest list of active/passive bionics: + bionic_count
* line before bionic description: + 1
* height of description window: + DESCRIPTION_HEIGHT
* bottom frame line: + 1
* TOTAL: TITLE_HEIGHT + bionic_count + DESCRIPTION_HEIGHT + 5
*/
int HEIGHT = std::min(TERMY, std::max(FULL_SCREEN_HEIGHT,
TITLE_HEIGHT + bionic_count + DESCRIPTION_HEIGHT + 5));
int WIDTH = FULL_SCREEN_WIDTH + (TERMX - FULL_SCREEN_WIDTH) / 2;
int START_X = (TERMX - WIDTH) / 2;
int START_Y = (TERMY - HEIGHT) / 2;
WINDOW *wBio = newwin(HEIGHT, WIDTH, START_Y, START_X);
// Description window @ the bottom of the bio window
int DESCRIPTION_START_Y = START_Y + HEIGHT - DESCRIPTION_HEIGHT - 1;
int DESCRIPTION_LINE_Y = DESCRIPTION_START_Y - START_Y - 1;
WINDOW *w_description = newwin(DESCRIPTION_HEIGHT, WIDTH - 2,
DESCRIPTION_START_Y, START_X + 1);
// Title window
int TITLE_START_Y = START_Y + 1;
int HEADER_LINE_Y = TITLE_HEIGHT + 1; // + lines with text in titlebar, local
WINDOW *w_title = newwin(TITLE_HEIGHT, WIDTH - 2, TITLE_START_Y, START_X + 1);
int scroll_position = 0;
int second_column = 32 + (TERMX - FULL_SCREEN_WIDTH) /
4; // X-coordinate of the list of active bionics
input_context ctxt("BIONICS");
ctxt.register_updown();
ctxt.register_action("ANY_INPUT");
ctxt.register_action("TOOGLE_EXAMINE");
ctxt.register_action("REASSIGN");
ctxt.register_action("REMOVE");
ctxt.register_action("HELP_KEYBINDINGS");
bool redraw = true;
std::string menu_mode = "activating";
while(true) {
// offset for display: bionic with index i is drawn at y=list_start_y+i
// drawing the bionics starts with bionic[scroll_position]
const int list_start_y = HEADER_LINE_Y + 2 - scroll_position;
int max_scroll_position = HEADER_LINE_Y + 2 + bionic_count -
((menu_mode == "examining") ? DESCRIPTION_LINE_Y : (HEIGHT - 1));
if(redraw) {
redraw = false;
werase(wBio);
draw_border(wBio);
// Draw line under title
mvwhline(wBio, HEADER_LINE_Y, 1, LINE_OXOX, WIDTH - 2);
// Draw symbols to connect additional lines to border
mvwputch(wBio, HEADER_LINE_Y, 0, BORDER_COLOR, LINE_XXXO); // |-
mvwputch(wBio, HEADER_LINE_Y, WIDTH - 1, BORDER_COLOR, LINE_XOXX); // -|
// Captions
mvwprintz(wBio, HEADER_LINE_Y + 1, 2, c_ltblue, _("Passive:"));
mvwprintz(wBio, HEADER_LINE_Y + 1, second_column, c_ltblue, _("Active:"));
draw_exam_window(wBio, DESCRIPTION_LINE_Y, menu_mode == "examining");
nc_color type;
if (passive.empty()) {
mvwprintz(wBio, list_start_y, 2, c_ltgray, _("None"));
} else {
for (size_t i = scroll_position; i < passive.size(); i++) {
if (list_start_y + static_cast<int>(i) ==
(menu_mode == "examining" ? DESCRIPTION_LINE_Y : HEIGHT - 1)) {
break;
}
if (bionics[passive[i]->id]->power_source) {
type = c_ltcyan;
} else {
type = c_cyan;
}
mvwprintz(wBio, list_start_y + i, 2, type, "%c %s", passive[i]->invlet,
bionics[passive[i]->id]->name.c_str());
}
}
if (active.empty()) {
mvwprintz(wBio, list_start_y, second_column, c_ltgray, _("None"));
} else {
for (size_t i = scroll_position; i < active.size(); i++) {
if (list_start_y + static_cast<int>(i) ==
(menu_mode == "examining" ? DESCRIPTION_LINE_Y : HEIGHT - 1)) {
break;
}
if (active[i]->powered && !bionics[active[i]->id]->power_source) {
type = c_red;
} else if (bionics[active[i]->id]->power_source && !active[i]->powered) {
type = c_ltcyan;
} else if (bionics[active[i]->id]->power_source && active[i]->powered) {
type = c_ltgreen;
} else {
type = c_ltred;
}
mvwputch(wBio, list_start_y + i, second_column, type, active[i]->invlet);
mvwprintz(wBio, list_start_y + i, second_column + 2, type,
(active[i]->powered ? _("%s - ON") : _("%s - %d PU / %d turns")),
bionics[active[i]->id]->name.c_str(),
bionics[active[i]->id]->power_cost,
bionics[active[i]->id]->charge_time);
}
}
// Scrollbar
if(scroll_position > 0) {
mvwputch(wBio, HEADER_LINE_Y + 2, 0, c_ltgreen, '^');
}
if(scroll_position < max_scroll_position && max_scroll_position > 0) {
mvwputch(wBio, (menu_mode == "examining" ? DESCRIPTION_LINE_Y : HEIGHT - 1) - 1,
0, c_ltgreen, 'v');
}
}
wrefresh(wBio);
show_bionics_titlebar(w_title, this, menu_mode);
const std::string action = ctxt.handle_input();
const long ch = ctxt.get_raw_input().get_first_input();
bionic *tmp = NULL;
if (menu_mode == "reassigning") {
menu_mode = "activating";
tmp = bionic_by_invlet(ch);
if(tmp == 0) {
// Selected an non-existing bionic (or escape, or ...)
continue;
}
redraw = true;
const char newch = popup_getkey(_("%s; enter new letter."),
bionics[tmp->id]->name.c_str());
wrefresh(wBio);
if(newch == ch || newch == ' ' || newch == KEY_ESCAPE) {
continue;
}
bionic *otmp = bionic_by_invlet(newch);
// if there is already a bionic with the new invlet, the invlet
// is considered valid.
if(otmp == 0 && inv_chars.find(newch) == std::string::npos) {
// TODO separate list of letters for bionics
popup(_("%c is not a valid inventory letter."), newch);
continue;
}
if(otmp != 0) {
std::swap(tmp->invlet, otmp->invlet);
} else {
tmp->invlet = newch;
}
// TODO: show a message like when reassigning a key to an item?
} else if (action == "DOWN") {
if(scroll_position < max_scroll_position) {
scroll_position++;
redraw = true;
}
} else if (action == "UP") {
if(scroll_position > 0) {
scroll_position--;
redraw = true;
}
} else if (action == "REASSIGN") {
menu_mode = "reassigning";
} else if (action == "TOOGLE_EXAMINE") { // switches between activation and examination
menu_mode = menu_mode == "activating" ? "examining" : "activating";
werase(w_description);
draw_exam_window(wBio, DESCRIPTION_LINE_Y, false);
redraw = true;
} else if (action == "REMOVE") {
menu_mode = "removing";
redraw = true;
} else if (action == "HELP_KEYBINDINGS") {
redraw = true;
} else {
tmp = bionic_by_invlet(ch);
if(tmp == 0) {
// entered a key that is not mapped to any bionic,
// -> leave screen
break;
}
const std::string &bio_id = tmp->id;
const bionic_data &bio_data = *bionics[bio_id];
if (menu_mode == "removing") {
uninstall_bionic(bio_id);
break;
}
if (menu_mode == "activating") {
if (bio_data.activated) {
itype_id weapon_id = weapon.type->id;
int b = tmp - &my_bionics[0];
if (tmp->powered) {
tmp->powered = false;
add_msg(m_neutral, _("%s powered off."), bio_data.name.c_str());
deactivate_bionic(b);
} else if (power_level >= bio_data.power_cost ||
(weapon_id == "bio_claws_weapon" && bio_id == "bio_claws_weapon") ||
(weapon_id == "bio_blade_weapon" && bio_id == "bio_blade_weapon")) {
// this will clear the bionics menu for targeting purposes
werase(wBio);
wrefresh(wBio);
delwin(w_title);
delwin(w_description);
delwin(wBio);
g->draw();
activate_bionic(b);
if (bio_id == "bio_cqb") {
pick_style();
}
} else {
popup( _( "You don't have enough power to activate the %s." ), bio_data.name.c_str() );
redraw = true;
continue;
}
// Action done, leave screen
break;
} else {
popup(_("\
You can not activate %s! To read a description of \
%s, press '!', then '%c'."), bio_data.name.c_str(), bio_data.name.c_str(), tmp->invlet);
redraw = true;
}
}
if (menu_mode == "examining") { // Describing bionics, not activating them!
draw_exam_window(wBio, DESCRIPTION_LINE_Y, true);
// Clear the lines first
werase(w_description);
fold_and_print(w_description, 0, 0, WIDTH - 2, c_ltblue, bio_data.description);
wrefresh(w_description);
}
}
}
//if we activated a bionic, already killed the windows
if(!(menu_mode == "activating")) {
werase(wBio);
wrefresh(wBio);
delwin(w_title);
delwin(w_description);
delwin(wBio);
}
}
void safemode::test_pattern( const int tab_in, const int row_in )
{
std::vector<std::string> creature_list;
auto &temp_rules = ( tab_in == GLOBAL_TAB ) ? global_rules : character_rules;
if( temp_rules[row_in].rule.empty() ) {
return;
}
if( g->u.name.empty() ) {
popup( _( "No monsters loaded. Please start a game first." ) );
return;
}
//Loop through all monster mtypes
for( const auto &mtype : MonsterGenerator::generator().get_all_mtypes() ) {
std::string creature_name = mtype.nname();
if( wildcard_match( creature_name, temp_rules[row_in].rule ) ) {
creature_list.push_back( creature_name );
}
}
const int offset_x = 15 + ( ( TERMX > FULL_SCREEN_WIDTH ) ? ( TERMX - FULL_SCREEN_WIDTH ) / 2 : 0 );
const int offset_y = 5 + ( ( TERMY > FULL_SCREEN_HEIGHT ) ? ( TERMY - FULL_SCREEN_HEIGHT ) / 2 :
0 );
int start_pos = 0;
const int content_height = FULL_SCREEN_HEIGHT - 8;
const int content_width = FULL_SCREEN_WIDTH - 30;
const catacurses::window w_test_rule_border = catacurses::newwin( content_height + 2, content_width,
offset_y, offset_x );
const catacurses::window w_test_rule_content = catacurses::newwin( content_height,
content_width - 2,
1 + offset_y, 1 + offset_x );
int nmatch = creature_list.size();
const std::string buf = string_format( ngettext( "%1$d monster matches: %2$s",
"%1$d monsters match: %2$s",
nmatch ), nmatch, temp_rules[row_in].rule.c_str() );
draw_border( w_test_rule_border, BORDER_COLOR, buf, hilite( c_white ) );
center_print( w_test_rule_border, content_height + 1, red_background( c_white ),
_( "Lists monsters regardless of their attitude." ) );
wrefresh( w_test_rule_border );
int line = 0;
input_context ctxt( "SAFEMODE_TEST" );
ctxt.register_updown();
ctxt.register_action( "QUIT" );
while( true ) {
// Clear the lines
for( int i = 0; i < content_height; i++ ) {
for( int j = 0; j < 79; j++ ) {
mvwputch( w_test_rule_content, i, j, c_black, ' ' );
}
}
calcStartPos( start_pos, line, content_height, creature_list.size() );
// display safe mode
for( int i = start_pos; i < static_cast<int>( creature_list.size() ); i++ ) {
if( i >= start_pos &&
i < start_pos + std::min( content_height, static_cast<int>( creature_list.size() ) ) ) {
nc_color line_color = c_white;
mvwprintz( w_test_rule_content, i - start_pos, 0, line_color, "%d", i + 1 );
mvwprintz( w_test_rule_content, i - start_pos, 4, line_color, "" );
wprintz( w_test_rule_content, c_yellow, ( line == i ) ? ">> " : " " );
wprintz( w_test_rule_content, ( line == i ) ? hilite( line_color ) : line_color,
creature_list[i] );
}
}
wrefresh( w_test_rule_content );
const std::string action = ctxt.handle_input();
if( action == "DOWN" ) {
line++;
if( line >= static_cast<int>( creature_list.size() ) ) {
line = 0;
}
} else if( action == "UP" ) {
line--;
if( line < 0 ) {
line = creature_list.size() - 1;
}
} else {
break;
}
}
}
void testCtxt(long m, long p, long widthBound, long L, long r)
{
if (!noPrint)
cout << "@testCtxt(m="<<m<<",p="<<p<<",depth="<<widthBound<< ",r="<<r<<")";
FHEcontext context(m,p,r);
EncryptedArray ea(context); // Use G(X)=X for this ea object
// Some arbitrary initial plaintext array
vector<long> in(ea.size());
for (long i=0; i<ea.size(); i++) in[i] = i % p;
// Setup generator-descriptors for the PAlgebra generators
Vec<GenDescriptor> vec(INIT_SIZE, ea.dimension());
for (long i=0; i<ea.dimension(); i++)
vec[i] = GenDescriptor(/*order=*/ea.sizeOfDimension(i),
/*good=*/ ea.nativeDimension(i), /*genIdx=*/i);
// Some default for the width-bound, if not provided
if (widthBound<=0) widthBound = 1+log2((double)ea.size());
// Get the generator-tree structures and the corresponding hypercube
GeneratorTrees trees;
long cost = trees.buildOptimalTrees(vec, widthBound);
if (!noPrint) {
context.zMStar.printout();
cout << ": trees=" << trees << endl;
cout << " cost =" << cost << endl;
}
// Vec<long> dims;
// trees.getCubeDims(dims);
// CubeSignature sig(dims);
// 1/2 prime per level should be more or less enough, here we use 1 per layer
if (L<=0) L = (1+trees.numLayers())*context.BPL();
buildModChain(context, /*nLevels=*/L, /*nDigits=*/3);
if (!noPrint) cout << "**Using "<<L<<" and "
<< context.ctxtPrimes.card() << " Ctxt-primes\n";
// Generate a sk/pk pair
FHESecKey secretKey(context);
const FHEPubKey& publicKey = secretKey;
secretKey.GenSecKey(); // A +-1/0 secret key
Ctxt ctxt(publicKey);
for (long cnt=0; cnt<3; cnt++) {
resetAllTimers();
// Choose a random permutation
Permut pi;
randomPerm(pi, trees.getSize());
// Build a permutation network for pi
PermNetwork net;
net.buildNetwork(pi, trees);
// make sure we have the key-switching matrices needed for this network
addMatrices4Network(secretKey, net);
// Apply the permutation pi to the plaintext
vector<long> out1(ea.size());
vector<long> out2(ea.size());
applyPermToVec(out1, in, pi); // direct application
// Encrypt plaintext array, then apply permutation network to ciphertext
ea.encrypt(ctxt, publicKey, in);
if (!noPrint)
cout << " ** applying permutation network to ciphertext... " << flush;
double t = GetTime();
net.applyToCtxt(ctxt, ea); // applying permutation netwrok
t = GetTime() -t;
if (!noPrint)
cout << "done in " << t << " seconds" << endl;
ea.decrypt(ctxt, secretKey, out2);
if (out1==out2) cout << "GOOD\n";
else {
cout << "************ BAD\n";
}
// printAllTimers();
}
}
void test_pattern(int iCurrentPage, int iCurrentLine)
{
std::vector<std::string> vMatchingItems;
std::string sItemName = "";
if (vAutoPickupRules[iCurrentPage][iCurrentLine].sRule == "") {
return;
}
//Loop through all itemfactory items
//TODO: somehow generate damaged, fitting or container items
for (std::vector<std::string>::iterator it = standard_itype_ids.begin();
it != standard_itype_ids.end(); ++it) {
sItemName = item_controller->find_template(*it)->nname(1);
if (vAutoPickupRules[iCurrentPage][iCurrentLine].bActive &&
auto_pickup_match(sItemName, vAutoPickupRules[iCurrentPage][iCurrentLine].sRule)) {
vMatchingItems.push_back(sItemName);
}
}
const int iOffsetX = 15 + ((TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0);
const int iOffsetY = 5 + ((TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0);
int iStartPos = 0;
const int iContentHeight = FULL_SCREEN_HEIGHT - 8;
const int iContentWidth = FULL_SCREEN_WIDTH - 30;
std::stringstream sTemp;
WINDOW *w_test_rule_border = newwin(iContentHeight + 2, iContentWidth, iOffsetY, iOffsetX);
WINDOW *w_test_rule_content = newwin(iContentHeight, iContentWidth - 2, 1 + iOffsetY, 1 + iOffsetX);
draw_border(w_test_rule_border);
int nmatch = vMatchingItems.size();
std::string buf = string_format(ngettext("%1$d item matches: %2$s", "%1$d items match: %2$s",
nmatch), nmatch, vAutoPickupRules[iCurrentPage][iCurrentLine].sRule.c_str());
mvwprintz(w_test_rule_border, 0, iContentWidth / 2 - utf8_width(buf.c_str()) / 2, hilite(c_white),
"%s", buf.c_str());
mvwprintz(w_test_rule_border, iContentHeight + 1, 1, red_background(c_white),
_("Won't display damaged, fits and can/bottle items"));
wrefresh(w_test_rule_border);
iCurrentLine = 0;
input_context ctxt("AUTO_PICKUP_TEST");
ctxt.register_updown();
ctxt.register_action("QUIT");
while(true) {
// Clear the lines
for (int i = 0; i < iContentHeight; i++) {
for (int j = 0; j < 79; j++) {
mvwputch(w_test_rule_content, i, j, c_black, ' ');
}
}
calcStartPos(iStartPos, iCurrentLine, iContentHeight, vMatchingItems.size());
// display auto pickup
for (int i = iStartPos; i < vMatchingItems.size(); i++) {
if (i >= iStartPos &&
i < iStartPos + ((iContentHeight > vMatchingItems.size()) ? vMatchingItems.size() :
iContentHeight)) {
nc_color cLineColor = c_white;
sTemp.str("");
sTemp << i + 1;
mvwprintz(w_test_rule_content, i - iStartPos, 0, cLineColor, "%s", sTemp.str().c_str());
mvwprintz(w_test_rule_content, i - iStartPos, 4, cLineColor, "");
if (iCurrentLine == i) {
wprintz(w_test_rule_content, c_yellow, ">> ");
} else {
wprintz(w_test_rule_content, c_yellow, " ");
}
wprintz(w_test_rule_content, (iCurrentLine == i) ? hilite(cLineColor) : cLineColor,
vMatchingItems[i].c_str());
}
}
wrefresh(w_test_rule_content);
const std::string action = ctxt.handle_input();
if (action == "DOWN") {
iCurrentLine++;
if (iCurrentLine >= vMatchingItems.size()) {
iCurrentLine = 0;
}
} else if (action == "UP") {
iCurrentLine--;
if (iCurrentLine < 0) {
iCurrentLine = vMatchingItems.size() - 1;
}
} else {
break;
}
}
werase(w_test_rule_border);
werase(w_test_rule_content);
}
void color_manager::show_gui()
{
const int iHeaderHeight = 4;
const int iContentHeight = FULL_SCREEN_HEIGHT - 2 - iHeaderHeight;
const int iOffsetX = (TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0;
const int iOffsetY = (TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0;
std::vector<int> vLines;
vLines.push_back(-1);
vLines.push_back(48);
const int iTotalCols = vLines.size();
WINDOW *w_colors_help = newwin((FULL_SCREEN_HEIGHT / 2) - 2, FULL_SCREEN_WIDTH * 3 / 4,
7 + iOffsetY + (FULL_SCREEN_HEIGHT / 2) / 2, iOffsetX + 19 / 2);
WINDOW_PTR w_colors_helpptr( w_colors_help );
WINDOW *w_colors_border = newwin(FULL_SCREEN_HEIGHT, FULL_SCREEN_WIDTH, iOffsetY, iOffsetX);
WINDOW_PTR w_colors_borderptr( w_colors_border );
WINDOW *w_colors_header = newwin(iHeaderHeight, FULL_SCREEN_WIDTH - 2, 1 + iOffsetY,
1 + iOffsetX);
WINDOW_PTR w_colors_headerptr( w_colors_header );
WINDOW *w_colors = newwin(iContentHeight, FULL_SCREEN_WIDTH - 2, iHeaderHeight + 1 + iOffsetY,
1 + iOffsetX);
WINDOW_PTR w_colorsptr( w_colors );
draw_border(w_colors_border);
mvwputch(w_colors_border, 3, 0, c_ltgray, LINE_XXXO); // |-
mvwputch(w_colors_border, 3, 79, c_ltgray, LINE_XOXX); // -|
for (int i = 0; i < 78; i++) {
mvwputch(w_colors_header, 2, i, c_ltgray, LINE_OXOX); // Draw line under header
}
for( auto &iCol : vLines ) {
if ( iCol > -1 ) {
mvwputch(w_colors_border, FULL_SCREEN_HEIGHT - 1, iCol + 1, c_ltgray, LINE_XXOX); // _|_
mvwputch(w_colors_header, 2, iCol, c_ltgray, LINE_OXXX);
mvwputch(w_colors_header, 3, iCol, c_ltgray, LINE_XOXO);
}
}
mvwprintz(w_colors_border, 0, 32, c_ltred, _(" COLOR MANAGER "));
wrefresh(w_colors_border);
int tmpx = 0;
tmpx += shortcut_print(w_colors_header, 0, tmpx, c_white, c_ltgreen, _("<R>emove custom color")) + 2;
tmpx += shortcut_print(w_colors_header, 0, tmpx, c_white, c_ltgreen, _("<Arrow Keys> To navigate")) + 2;
tmpx += shortcut_print(w_colors_header, 0, tmpx, c_white, c_ltgreen, _("<Enter>-Edit")) + 2;
shortcut_print(w_colors_header, 0, tmpx, c_white, c_ltgreen, _("Load <T>emplate"));
mvwprintz(w_colors_header, 1, 0, c_white, _("Some color changes may require a restart."));
mvwprintz(w_colors_header, 3, 3, c_white, _("Colorname"));
mvwprintz(w_colors_header, 3, 21, c_white, _("Normal"));
mvwprintz(w_colors_header, 3, 52, c_white, _("Invert"));
wrefresh(w_colors_header);
int iCurrentLine = 0;
int iCurrentCol = 1;
int iStartPos = 0;
const int iMaxColors = color_array.size();
bool bStuffChanged = false;
input_context ctxt("COLORS");
ctxt.register_cardinal();
ctxt.register_action("CONFIRM");
ctxt.register_action("QUIT");
ctxt.register_action("REMOVE_CUSTOM");
ctxt.register_action("LOAD_TEMPLATE");
ctxt.register_action("HELP_KEYBINDINGS");
std::map<std::string, color_struct> name_color_map;
for( const auto &pr : name_map ) {
name_color_map[pr.first] = color_array[pr.second];
}
while(true) {
// Clear all lines
for (int i = 0; i < iContentHeight; i++) {
for (int j = 0; j < 79; j++) {
mvwputch(w_colors, i, j, c_black, ' ');
for( auto &iCol : vLines ) {
if ( iCol == j ) {
mvwputch(w_colors, i, j, c_ltgray, LINE_XOXO);
}
}
}
}
calcStartPos(iStartPos, iCurrentLine, iContentHeight, iMaxColors);
//Draw Scrollbar
draw_scrollbar(w_colors_border, iCurrentLine, iContentHeight, iMaxColors, 5);
auto iter = name_color_map.begin();
std::advance( iter, iStartPos );
std::string sActive = "";
// display colormanager
for (int i=iStartPos; iter != name_color_map.end(); ++iter, ++i) {
if (i >= iStartPos && i < iStartPos + ((iContentHeight > iMaxColors) ? iMaxColors : iContentHeight)) {
auto &entry = iter->second;
if (iCurrentLine == i) {
sActive = iter->first;
mvwprintz(w_colors, i - iStartPos, vLines[iCurrentCol-1] + 2, c_yellow, ">");
}
mvwprintz(w_colors, i - iStartPos, 3, c_white, iter->first.c_str()); //colorname
mvwprintz(w_colors, i - iStartPos, 21, entry.color, _("default")); //default color
if ( !entry.name_custom.empty() ) {
mvwprintz(w_colors, i - iStartPos, 30, name_color_map[entry.name_custom].color, entry.name_custom.c_str()); //custom color
}
mvwprintz(w_colors, i - iStartPos, 52, entry.invert, _("default")); //invert default color
if ( !entry.name_invert_custom.empty() ) {
mvwprintz(w_colors, i - iStartPos, 61, name_color_map[entry.name_invert_custom].color, entry.name_invert_custom.c_str()); //invert custom color
}
}
}
wrefresh(w_colors);
const std::string action = ctxt.handle_input();
if (action == "QUIT") {
break;
} else if (action == "UP") {
iCurrentLine--;
if (iCurrentLine < 0) {
iCurrentLine = iMaxColors - 1;
}
} else if (action == "DOWN") {
iCurrentLine++;
if (iCurrentLine >= (int)iMaxColors) {
iCurrentLine = 0;
}
} else if (action == "LEFT") {
iCurrentCol--;
if (iCurrentCol < 1) {
iCurrentCol = iTotalCols;
}
} else if (action == "RIGHT") {
iCurrentCol++;
if (iCurrentCol > iTotalCols) {
iCurrentCol = 1;
}
} else if (action == "REMOVE_CUSTOM") {
auto &entry = name_color_map[sActive];
if ( iCurrentCol == 1 && !entry.name_custom.empty() ) {
bStuffChanged = true;
entry.name_custom = "";
} else if ( iCurrentCol == 2 && !entry.name_invert_custom.empty() ) {
bStuffChanged = true;
entry.name_invert_custom = "";
}
finalize(); // Need to recalculate caches
} else if (action == "LOAD_TEMPLATE") {
auto vFiles = get_files_from_path(".json", FILENAMES["color_templates"], false, true);
if ( vFiles.size() > 0 ) {
uimenu ui_templates;
ui_templates.w_y = iHeaderHeight + 1 + iOffsetY;
ui_templates.w_height = 18;
ui_templates.return_invalid = true;
ui_templates.text = _("Color templates:");
for ( const auto& filename : vFiles ) {
ui_templates.addentry( filename.substr(filename.find_last_of("/") + 1) );
}
ui_templates.addentry(std::string(_("Cancel")));
ui_templates.query();
if ( (size_t)ui_templates.ret < vFiles.size() ) {
bStuffChanged = true;
clear();
load_default();
load_custom(vFiles[ui_templates.ret]);
name_color_map.clear();
for( const auto &pr : name_map ) {
name_color_map[pr.first] = color_array[pr.second];
}
}
}
finalize(); // Need to recalculate caches
} else if (action == "CONFIRM") {
uimenu ui_colors;
ui_colors.w_y = iHeaderHeight + 1 + iOffsetY;
ui_colors.w_height = 18;
ui_colors.return_invalid = true;
std::string sColorType = _("Normal");
std::string sSelected = name_color_map[sActive].name_custom;
if ( iCurrentCol == 2 ) {
sColorType = _("Invert");
sSelected = name_color_map[sActive].name_invert_custom;
}
ui_colors.text = string_format( _("Custom %s color:"), sColorType.c_str() );
int i = 0;
for ( auto &iter : name_color_map ) {
std::string sColor = iter.first;
std::string sType = _("default");
std::string name_custom = "";
if ( sSelected == sColor ) {
ui_colors.selected = i;
}
if ( !iter.second.name_custom.empty() ) {
name_custom = " <color_" + iter.second.name_custom + ">" + iter.second.name_custom + "</color>";
}
ui_colors.addentry(string_format( "%-17s <color_%s>%s</color>%s", iter.first.c_str(), sColor.c_str(), sType.c_str(), name_custom.c_str() ) );
i++;
}
ui_colors.addentry(std::string(_("Cancel")));
ui_colors.query();
if ( (size_t)ui_colors.ret < name_color_map.size() ) {
bStuffChanged = true;
iter = name_color_map.begin();
std::advance( iter, ui_colors.ret );
auto &entry = name_color_map[sActive];
if ( iCurrentCol == 1 ) {
entry.name_custom = iter->first;
} else if ( iCurrentCol == 2 ) {
entry.name_invert_custom = iter->first;
}
}
finalize(); // Need to recalculate caches
}
}
if( bStuffChanged && query_yn(_("Save changes?") ) ) {
for( const auto &pr : name_color_map ) {
color_id id = name_to_id( pr.first );
color_array[id].name_custom = pr.second.name_custom;
color_array[id].name_invert_custom = pr.second.name_invert_custom;
}
finalize();
save_custom();
clear();
load_default();
load_custom();
}
}
void player::power_mutations()
{
if( !is_player() ) {
// TODO: Implement NPCs activating muts
return;
}
std::vector <std::string> passive;
std::vector <std::string> active;
for( auto &mut : my_mutations ) {
if (!mutation_branch::get( mut.first ).activated) {
passive.push_back(mut.first);
} else {
active.push_back(mut.first);
}
// New mutations are initialized with no key at all, so we have to do this here.
if( mut.second.key == ' ' ) {
for( const auto &letter : mutation_chars ) {
if( trait_by_invlet( letter ).empty() ) {
mut.second.key = letter;
break;
}
}
}
}
// maximal number of rows in both columns
const int mutations_count = std::max(passive.size(), active.size());
int TITLE_HEIGHT = 2;
int DESCRIPTION_HEIGHT = 5;
// Main window
/** Total required height is:
* top frame line: + 1
* height of title window: + TITLE_HEIGHT
* line after the title: + 1
* line with active/passive mutation captions: + 1
* height of the biggest list of active/passive mutations: + mutations_count
* line before mutation description: + 1
* height of description window: + DESCRIPTION_HEIGHT
* bottom frame line: + 1
* TOTAL: TITLE_HEIGHT + mutations_count + DESCRIPTION_HEIGHT + 5
*/
int HEIGHT = std::min(TERMY, std::max(FULL_SCREEN_HEIGHT,
TITLE_HEIGHT + mutations_count + DESCRIPTION_HEIGHT + 5));
int WIDTH = FULL_SCREEN_WIDTH + (TERMX - FULL_SCREEN_WIDTH) / 2;
int START_X = (TERMX - WIDTH) / 2;
int START_Y = (TERMY - HEIGHT) / 2;
WINDOW *wBio = newwin(HEIGHT, WIDTH, START_Y, START_X);
// Description window @ the bottom of the bio window
int DESCRIPTION_START_Y = START_Y + HEIGHT - DESCRIPTION_HEIGHT - 1;
int DESCRIPTION_LINE_Y = DESCRIPTION_START_Y - START_Y - 1;
WINDOW *w_description = newwin(DESCRIPTION_HEIGHT, WIDTH - 2,
DESCRIPTION_START_Y, START_X + 1);
// Title window
int TITLE_START_Y = START_Y + 1;
int HEADER_LINE_Y = TITLE_HEIGHT + 1; // + lines with text in titlebar, local
WINDOW *w_title = newwin(TITLE_HEIGHT, WIDTH - 2, TITLE_START_Y, START_X + 1);
int scroll_position = 0;
int second_column = 32 + (TERMX - FULL_SCREEN_WIDTH) /
4; // X-coordinate of the list of active mutations
input_context ctxt("MUTATIONS");
ctxt.register_updown();
ctxt.register_action("ANY_INPUT");
ctxt.register_action("TOGGLE_EXAMINE");
ctxt.register_action("REASSIGN");
ctxt.register_action("HELP_KEYBINDINGS");
bool redraw = true;
std::string menu_mode = "activating";
while(true) {
// offset for display: mutation with index i is drawn at y=list_start_y+i
// drawing the mutation starts with mutation[scroll_position]
const int list_start_y = HEADER_LINE_Y + 2 - scroll_position;
int max_scroll_position = HEADER_LINE_Y + 2 + mutations_count -
((menu_mode == "examining") ? DESCRIPTION_LINE_Y : (HEIGHT - 1));
if(redraw) {
redraw = false;
werase(wBio);
draw_border(wBio);
// Draw line under title
mvwhline(wBio, HEADER_LINE_Y, 1, LINE_OXOX, WIDTH - 2);
// Draw symbols to connect additional lines to border
mvwputch(wBio, HEADER_LINE_Y, 0, BORDER_COLOR, LINE_XXXO); // |-
mvwputch(wBio, HEADER_LINE_Y, WIDTH - 1, BORDER_COLOR, LINE_XOXX); // -|
// Captions
mvwprintz(wBio, HEADER_LINE_Y + 1, 2, c_ltblue, _("Passive:"));
mvwprintz(wBio, HEADER_LINE_Y + 1, second_column, c_ltblue, _("Active:"));
draw_exam_window(wBio, DESCRIPTION_LINE_Y, menu_mode == "examining");
nc_color type;
if (passive.empty()) {
mvwprintz(wBio, list_start_y, 2, c_ltgray, _("None"));
} else {
for (size_t i = scroll_position; i < passive.size(); i++) {
const auto &md = mutation_branch::get( passive[i] );
const auto &td = my_mutations[passive[i]];
if (list_start_y + static_cast<int>(i) ==
(menu_mode == "examining" ? DESCRIPTION_LINE_Y : HEIGHT - 1)) {
break;
}
type = c_cyan;
mvwprintz(wBio, list_start_y + i, 2, type, "%c %s", td.key, md.name.c_str());
}
}
if (active.empty()) {
mvwprintz(wBio, list_start_y, second_column, c_ltgray, _("None"));
} else {
for (size_t i = scroll_position; i < active.size(); i++) {
const auto &md = mutation_branch::get( active[i] );
const auto &td = my_mutations[active[i]];
if (list_start_y + static_cast<int>(i) ==
(menu_mode == "examining" ? DESCRIPTION_LINE_Y : HEIGHT - 1)) {
break;
}
if (!td.powered) {
type = c_red;
}else if (td.powered) {
type = c_ltgreen;
} else {
type = c_ltred;
}
// TODO: track resource(s) used and specify
mvwputch( wBio, list_start_y + i, second_column, type, td.key );
std::stringstream mut_desc;
mut_desc << md.name;
if ( md.cost > 0 && md.cooldown > 0 ) {
mut_desc << string_format( _(" - %d RU / %d turns"),
md.cost, md.cooldown );
} else if ( md.cost > 0 ) {
mut_desc << string_format( _(" - %d RU"), md.cost );
} else if ( md.cooldown > 0 ) {
mut_desc << string_format( _(" - %d turns"), md.cooldown );
}
if ( td.powered ) {
mut_desc << _(" - Active");
}
mvwprintz( wBio, list_start_y + i, second_column + 2, type,
mut_desc.str().c_str() );
}
}
// Scrollbar
if(scroll_position > 0) {
mvwputch(wBio, HEADER_LINE_Y + 2, 0, c_ltgreen, '^');
}
if(scroll_position < max_scroll_position && max_scroll_position > 0) {
mvwputch(wBio, (menu_mode == "examining" ? DESCRIPTION_LINE_Y : HEIGHT - 1) - 1,
0, c_ltgreen, 'v');
}
}
wrefresh(wBio);
show_mutations_titlebar(w_title, this, menu_mode);
const std::string action = ctxt.handle_input();
const long ch = ctxt.get_raw_input().get_first_input();
if (menu_mode == "reassigning") {
menu_mode = "activating";
const auto mut_id = trait_by_invlet( ch );
if( mut_id.empty() ) {
// Selected an non-existing mutation (or escape, or ...)
continue;
}
redraw = true;
const long newch = popup_getkey(_("%s; enter new letter."),
mutation_branch::get_name( mut_id ).c_str());
wrefresh(wBio);
if(newch == ch || newch == ' ' || newch == KEY_ESCAPE) {
continue;
}
if( !mutation_chars.valid( newch ) ) {
popup( _("Invalid mutation letter. Only those characters are valid:\n\n%s"),
mutation_chars.get_allowed_chars().c_str() );
continue;
}
const auto other_mut_id = trait_by_invlet( newch );
if( !other_mut_id.empty() ) {
std::swap(my_mutations[mut_id].key, my_mutations[other_mut_id].key);
} else {
my_mutations[mut_id].key = newch;
}
// TODO: show a message like when reassigning a key to an item?
} else if (action == "DOWN") {
if(scroll_position < max_scroll_position) {
scroll_position++;
redraw = true;
}
} else if (action == "UP") {
if(scroll_position > 0) {
scroll_position--;
redraw = true;
}
} else if (action == "REASSIGN") {
menu_mode = "reassigning";
} else if (action == "TOGGLE_EXAMINE") { // switches between activation and examination
menu_mode = menu_mode == "activating" ? "examining" : "activating";
werase(w_description);
draw_exam_window(wBio, DESCRIPTION_LINE_Y, false);
redraw = true;
}else if (action == "HELP_KEYBINDINGS") {
redraw = true;
} else {
const auto mut_id = trait_by_invlet( ch );
if( mut_id.empty() ) {
// entered a key that is not mapped to any mutation,
// -> leave screen
break;
}
const auto &mut_data = mutation_branch::get( mut_id );
if (menu_mode == "activating") {
if (mut_data.activated) {
if (my_mutations[mut_id].powered) {
add_msg_if_player(m_neutral, _("You stop using your %s."), mut_data.name.c_str());
deactivate_mutation( mut_id );
delwin(w_title);
delwin(w_description);
delwin(wBio);
// Action done, leave screen
break;
} else if( (!mut_data.hunger || get_hunger() <= 400) &&
(!mut_data.thirst || get_thirst() <= 400) &&
(!mut_data.fatigue || get_fatigue() <= 400) ) {
// this will clear the mutations menu for targeting purposes
werase(wBio);
wrefresh(wBio);
delwin(w_title);
delwin(w_description);
delwin(wBio);
g->draw();
add_msg_if_player( m_neutral, _("You activate your %s."), mut_data.name.c_str() );
activate_mutation( mut_id );
// Action done, leave screen
break;
} else {
popup( _( "You don't have enough in you to activate your %s!" ), mut_data.name.c_str() );
redraw = true;
continue;
}
} else {
popup(_("\
You cannot activate %s! To read a description of \
%s, press '!', then '%c'."), mut_data.name.c_str(), mut_data.name.c_str(),
my_mutations[mut_id].key );
redraw = true;
}
}
if (menu_mode == "examining") { // Describing mutations, not activating them!
draw_exam_window(wBio, DESCRIPTION_LINE_Y, true);
// Clear the lines first
werase(w_description);
fold_and_print(w_description, 0, 0, WIDTH - 2, c_ltblue, mut_data.description);
wrefresh(w_description);
}
}
}
//if we activated a mutation, already killed the windows
if(!(menu_mode == "activating")) {
werase(wBio);
wrefresh(wBio);
delwin(w_title);
delwin(w_description);
delwin(wBio);
}
}
const recipe *select_crafting_recipe( int &batch_size )
{
if( normalized_names.empty() ) {
translate_all();
}
const int headHeight = 3;
const int subHeadHeight = 2;
const int freeWidth = TERMX - FULL_SCREEN_WIDTH;
bool isWide = ( TERMX > FULL_SCREEN_WIDTH && freeWidth > 15 );
const int width = isWide ? ( freeWidth > FULL_SCREEN_WIDTH ? FULL_SCREEN_WIDTH * 2 : TERMX ) :
FULL_SCREEN_WIDTH;
const int wStart = ( TERMX - width ) / 2;
const int tailHeight = isWide ? 3 : 4;
const int dataLines = TERMY - ( headHeight + subHeadHeight ) - tailHeight;
const int dataHalfLines = dataLines / 2;
const int dataHeight = TERMY - ( headHeight + subHeadHeight );
const int infoWidth = width - FULL_SCREEN_WIDTH - 1;
const recipe *last_recipe = nullptr;
WINDOW *w_head = newwin( headHeight, width, 0, wStart );
WINDOW_PTR w_head_ptr( w_head );
WINDOW *w_subhead = newwin( subHeadHeight, width, 3, wStart );
WINDOW_PTR w_subhead_ptr( w_subhead );
WINDOW *w_data = newwin( dataHeight, width, headHeight + subHeadHeight, wStart );
WINDOW_PTR w_data_ptr( w_data );
int item_info_x = infoWidth;
int item_info_y = dataHeight - 3;
int item_info_width = wStart + width - infoWidth;
int item_info_height = headHeight + subHeadHeight;
if( !isWide ) {
item_info_x = 1;
item_info_y = 1;
item_info_width = 1;
item_info_height = 1;
}
WINDOW *w_iteminfo = newwin( item_info_y, item_info_x, item_info_height, item_info_width );
WINDOW_PTR w_iteminfo_ptr( w_iteminfo );
list_circularizer<std::string> tab( craft_cat_list );
list_circularizer<std::string> subtab( craft_subcat_list[tab.cur()] );
std::vector<const recipe *> current;
std::vector<bool> available;
const int componentPrintHeight = dataHeight - tailHeight - 1;
//preserves component color printout between mode rotations
nc_color rotated_color = c_white;
int previous_item_line = -1;
std::string previous_tab = "";
std::string previous_subtab = "";
item tmp;
int line = 0, ypos, scroll_pos = 0;
bool redraw = true;
bool keepline = false;
bool done = false;
bool batch = false;
int batch_line = 0;
int display_mode = 0;
const recipe *chosen = NULL;
std::vector<iteminfo> thisItem, dummy;
input_context ctxt( "CRAFTING" );
ctxt.register_cardinal();
ctxt.register_action( "QUIT" );
ctxt.register_action( "CONFIRM" );
ctxt.register_action( "CYCLE_MODE" );
ctxt.register_action( "SCROLL_UP" );
ctxt.register_action( "SCROLL_DOWN" );
ctxt.register_action( "PREV_TAB" );
ctxt.register_action( "NEXT_TAB" );
ctxt.register_action( "FILTER" );
ctxt.register_action( "RESET_FILTER" );
ctxt.register_action( "HELP_RECIPE" );
ctxt.register_action( "HELP_KEYBINDINGS" );
ctxt.register_action( "CYCLE_BATCH" );
const inventory &crafting_inv = g->u.crafting_inventory();
const std::vector<npc *> helpers = g->u.get_crafting_helpers();
std::string filterstring = "";
const auto &available_recipes = g->u.get_available_recipes( crafting_inv, &helpers );
std::map<const recipe *, bool> availability_cache;
do {
if( redraw ) {
// When we switch tabs, redraw the header
redraw = false;
if( ! keepline ) {
line = 0;
} else {
keepline = false;
}
if( display_mode > 2 ) {
display_mode = 2;
}
TAB_MODE m = ( batch ) ? BATCH : ( filterstring == "" ) ? NORMAL : FILTERED;
draw_recipe_tabs( w_head, tab.cur(), m );
draw_recipe_subtabs( w_subhead, tab.cur(), subtab.cur(), m );
available.clear();
if( batch ) {
current.clear();
for( int i = 1; i <= 20; i++ ) {
current.push_back( chosen );
available.push_back( chosen->requirements().can_make_with_inventory( crafting_inv, i ) );
}
} else {
if( filterstring.empty() ) {
current = available_recipes.in_category( tab.cur(), subtab.cur() != "CSC_ALL" ? subtab.cur() : "" );
} else {
auto qry = trim( filterstring );
if( qry.size() > 2 && qry[1] == ':' ) {
switch( qry[0] ) {
case 't':
current = available_recipes.search( qry.substr( 2 ), recipe_subset::search_type::tool );
break;
case 'c':
current = available_recipes.search( qry.substr( 2 ), recipe_subset::search_type::component );
break;
case 's':
current = available_recipes.search( qry.substr( 2 ), recipe_subset::search_type::skill );
break;
case 'q':
current = available_recipes.search( qry.substr( 2 ), recipe_subset::search_type::quality );
break;
case 'Q':
current = available_recipes.search( qry.substr( 2 ), recipe_subset::search_type::quality_result );
break;
default:
current.clear();
}
} else {
current = available_recipes.search( qry );
}
}
available.reserve( current.size() );
// cache recipe availability on first display
for( const auto e : current ) {
if( !availability_cache.count( e ) ) {
availability_cache.emplace( e, e->requirements().can_make_with_inventory( crafting_inv ) );
}
}
std::stable_sort( current.begin(), current.end(), []( const recipe * a, const recipe * b ) {
return b->difficulty < a->difficulty;
} );
std::stable_sort( current.begin(), current.end(), [&]( const recipe * a, const recipe * b ) {
return availability_cache[a] && !availability_cache[b];
} );
std::transform( current.begin(), current.end(),
std::back_inserter( available ), [&]( const recipe * e ) {
return availability_cache[e];
} );
}
// current/available have been rebuilt, make sure our cursor is still in range
if( current.empty() ) {
line = 0;
} else {
line = std::min( line, ( int )current.size() - 1 );
}
}
// Clear the screen of recipe data, and draw it anew
werase( w_data );
if( isWide ) {
werase( w_iteminfo );
}
if( isWide ) {
mvwprintz( w_data, dataLines + 1, 5, c_white,
_( "Press <ENTER> to attempt to craft object." ) );
wprintz( w_data, c_white, " " );
if( filterstring != "" ) {
wprintz( w_data, c_white, _( "[E]: Describe, [F]ind, [R]eset, [m]ode, %s [?] keybindings" ),
( batch ) ? _( "cancel [b]atch" ) : _( "[b]atch" ) );
} else {
wprintz( w_data, c_white, _( "[E]: Describe, [F]ind, [m]ode, %s [?] keybindings" ),
( batch ) ? _( "cancel [b]atch" ) : _( "[b]atch" ) );
}
} else {
if( filterstring != "" ) {
mvwprintz( w_data, dataLines + 1, 5, c_white,
_( "[E]: Describe, [F]ind, [R]eset, [m]ode, [b]atch [?] keybindings" ) );
} else {
mvwprintz( w_data, dataLines + 1, 5, c_white,
_( "[E]: Describe, [F]ind, [m]ode, [b]atch [?] keybindings" ) );
}
mvwprintz( w_data, dataLines + 2, 5, c_white,
_( "Press <ENTER> to attempt to craft object." ) );
}
// Draw borders
for( int i = 1; i < width - 1; ++i ) { // _
mvwputch( w_data, dataHeight - 1, i, BORDER_COLOR, LINE_OXOX );
}
for( int i = 0; i < dataHeight - 1; ++i ) { // |
mvwputch( w_data, i, 0, BORDER_COLOR, LINE_XOXO );
mvwputch( w_data, i, width - 1, BORDER_COLOR, LINE_XOXO );
}
mvwputch( w_data, dataHeight - 1, 0, BORDER_COLOR, LINE_XXOO ); // _|
mvwputch( w_data, dataHeight - 1, width - 1, BORDER_COLOR, LINE_XOOX ); // |_
int recmin = 0, recmax = current.size();
if( recmax > dataLines ) {
if( line <= recmin + dataHalfLines ) {
for( int i = recmin; i < recmin + dataLines; ++i ) {
std::string tmp_name = item::nname( current[i]->result );
if( batch ) {
tmp_name = string_format( _( "%2dx %s" ), i + 1, tmp_name.c_str() );
}
mvwprintz( w_data, i - recmin, 2, c_dkgray, "" ); // Clear the line
if( i == line ) {
mvwprintz( w_data, i - recmin, 2, ( available[i] ? h_white : h_dkgray ),
utf8_truncate( tmp_name, 28 ).c_str() );
} else {
mvwprintz( w_data, i - recmin, 2, ( available[i] ? c_white : c_dkgray ),
utf8_truncate( tmp_name, 28 ).c_str() );
}
}
} else if( line >= recmax - dataHalfLines ) {
for( int i = recmax - dataLines; i < recmax; ++i ) {
std::string tmp_name = item::nname( current[i]->result );
if( batch ) {
tmp_name = string_format( _( "%2dx %s" ), i + 1, tmp_name.c_str() );
}
mvwprintz( w_data, dataLines + i - recmax, 2, c_ltgray, "" ); // Clear the line
if( i == line ) {
mvwprintz( w_data, dataLines + i - recmax, 2,
( available[i] ? h_white : h_dkgray ),
utf8_truncate( tmp_name, 28 ).c_str() );
} else {
mvwprintz( w_data, dataLines + i - recmax, 2,
( available[i] ? c_white : c_dkgray ),
utf8_truncate( tmp_name, 28 ).c_str() );
}
}
} else {
for( int i = line - dataHalfLines; i < line - dataHalfLines + dataLines; ++i ) {
std::string tmp_name = item::nname( current[i]->result );
if( batch ) {
tmp_name = string_format( _( "%2dx %s" ), i + 1, tmp_name.c_str() );
}
mvwprintz( w_data, dataHalfLines + i - line, 2, c_ltgray, "" ); // Clear the line
if( i == line ) {
mvwprintz( w_data, dataHalfLines + i - line, 2,
( available[i] ? h_white : h_dkgray ),
utf8_truncate( tmp_name, 28 ).c_str() );
} else {
mvwprintz( w_data, dataHalfLines + i - line, 2,
( available[i] ? c_white : c_dkgray ),
utf8_truncate( tmp_name, 28 ).c_str() );
}
}
}
} else {
for( size_t i = 0; i < current.size() && i < ( size_t )dataHeight + 1; ++i ) {
std::string tmp_name = item::nname( current[i]->result );
if( batch ) {
tmp_name = string_format( _( "%2dx %s" ), ( int )i + 1, tmp_name.c_str() );
}
if( ( int )i == line ) {
mvwprintz( w_data, i, 2, ( available[i] ? h_white : h_dkgray ),
utf8_truncate( tmp_name, 28 ).c_str() );
} else {
mvwprintz( w_data, i, 2, ( available[i] ? c_white : c_dkgray ),
utf8_truncate( tmp_name, 28 ).c_str() );
}
}
}
if( !current.empty() ) {
int pane = FULL_SCREEN_WIDTH - 30 - 1;
int count = batch ? line + 1 : 1; // batch size
nc_color col = available[ line ] ? c_white : c_ltgray;
const auto &req = current[ line ]->requirements();
draw_can_craft_indicator( w_head, 0, *current[line] );
wrefresh( w_head );
ypos = 0;
std::vector<std::string> component_print_buffer;
auto tools = req.get_folded_tools_list( pane, col, crafting_inv, count );
auto comps = req.get_folded_components_list( pane, col, crafting_inv, count );
component_print_buffer.insert( component_print_buffer.end(), tools.begin(), tools.end() );
component_print_buffer.insert( component_print_buffer.end(), comps.begin(), comps.end() );
if( !g->u.knows_recipe( current[line] ) ) {
component_print_buffer.push_back( _( "Recipe not memorized yet" ) );
}
//handle positioning of component list if it needed to be scrolled
int componentPrintOffset = 0;
if( display_mode > 2 ) {
componentPrintOffset = ( display_mode - 2 ) * componentPrintHeight;
}
if( component_print_buffer.size() < static_cast<size_t>( componentPrintOffset ) ) {
componentPrintOffset = 0;
if( previous_tab != tab.cur() || previous_subtab != subtab.cur() || previous_item_line != line ) {
display_mode = 2;
} else {
display_mode = 0;
}
}
//only used to preserve mode position on components when
//moving to another item and the view is already scrolled
previous_tab = tab.cur();
previous_subtab = subtab.cur();
previous_item_line = line;
if( display_mode == 0 ) {
mvwprintz( w_data, ypos++, 30, col, _( "Skills used: %s" ),
( !current[line]->skill_used ? _( "N/A" ) :
current[line]->skill_used.obj().name().c_str() ) );
mvwprintz( w_data, ypos++, 30, col, _( "Required skills: %s" ),
( current[line]->required_skills_string().c_str() ) );
mvwprintz( w_data, ypos++, 30, col, _( "Difficulty: %d" ),
current[ line ]->difficulty );
if( !current[line]->skill_used ) {
mvwprintz( w_data, ypos++, 30, col, _( "Your skill level: N/A" ) );
} else {
mvwprintz( w_data, ypos++, 30, col, _( "Your skill level: %d" ),
// Macs don't seem to like passing this as a class, so force it to int
( int )g->u.get_skill_level( current[line]->skill_used ) );
}
ypos += current[line]->print_time( w_data, ypos, 30, pane, col, count );
mvwprintz( w_data, ypos++, 30, col, _( "Dark craftable? %s" ),
current[line]->has_flag( "BLIND_EASY" ) ? _( "Easy" ) :
current[line]->has_flag( "BLIND_HARD" ) ? _( "Hard" ) :
_( "Impossible" ) );
ypos += current[line]->print_items( w_data, ypos, 30, col, ( batch ) ? line + 1 : 1 );
}
//color needs to be preserved in case part of the previous page was cut off
nc_color stored_color = col;
if( display_mode > 2 ) {
stored_color = rotated_color;
} else {
rotated_color = col;
}
int components_printed = 0;
for( size_t i = static_cast<size_t>( componentPrintOffset );
i < component_print_buffer.size(); i++ ) {
if( ypos >= componentPrintHeight ) {
break;
}
components_printed++;
print_colored_text( w_data, ypos++, 30, stored_color, col, component_print_buffer[i] );
}
if( ypos >= componentPrintHeight &&
component_print_buffer.size() > static_cast<size_t>( components_printed ) ) {
mvwprintz( w_data, ypos++, 30, col, _( "v (more)" ) );
rotated_color = stored_color;
}
if( isWide ) {
if( last_recipe != current[line] ) {
last_recipe = current[line];
tmp = current[line]->create_result();
tmp.info( true, thisItem );
}
draw_item_info( w_iteminfo, tmp.tname(), tmp.type_name(), thisItem, dummy,
scroll_pos, true, true, true, false, true );
}
}
draw_scrollbar( w_data, line, dataLines, recmax, 0 );
wrefresh( w_data );
if( isWide ) {
wrefresh( w_iteminfo );
}
const std::string action = ctxt.handle_input();
if( action == "CYCLE_MODE" ) {
display_mode = display_mode + 1;
if( display_mode <= 0 ) {
display_mode = 0;
}
} else if( action == "LEFT" ) {
subtab.prev();
redraw = true;
} else if( action == "SCROLL_UP" ) {
scroll_pos--;
} else if( action == "SCROLL_DOWN" ) {
scroll_pos++;
} else if( action == "PREV_TAB" ) {
tab.prev();
subtab = list_circularizer<std::string>( craft_subcat_list[tab.cur()] );//default ALL
redraw = true;
} else if( action == "RIGHT" ) {
subtab.next();
redraw = true;
} else if( action == "NEXT_TAB" ) {
tab.next();
subtab = list_circularizer<std::string>( craft_subcat_list[tab.cur()] );//default ALL
redraw = true;
} else if( action == "DOWN" ) {
line++;
} else if( action == "UP" ) {
line--;
} else if( action == "CONFIRM" ) {
if( available.empty() || !available[line] ) {
popup( _( "You can't do that!" ) );
} else if( !current[line]->check_eligible_containers_for_crafting( ( batch ) ? line + 1 : 1 ) ) {
; // popup is already inside check
} else {
chosen = current[line];
batch_size = ( batch ) ? line + 1 : 1;
done = true;
}
} else if( action == "HELP_RECIPE" ) {
if( current.empty() ) {
popup( _( "Nothing selected!" ) );
redraw = true;
continue;
}
tmp = current[line]->create_result();
full_screen_popup( "%s\n%s", tmp.type_name( 1 ).c_str(), tmp.info( true ).c_str() );
redraw = true;
keepline = true;
} else if( action == "FILTER" ) {
filterstring = string_input_popup( _( "Search:" ), 85, filterstring,
_( "Special prefixes for requirements:\n"
" [t] search tools\n"
" [c] search components\n"
" [q] search qualities\n"
" [s] search skills\n"
"Special prefixes for results:\n"
" [Q] search qualities\n"
"Examples:\n"
" t:soldering iron\n"
" c:two by four\n"
" q:metal sawing\n"
" s:cooking\n"
" Q:fine bolt turning"
) );
redraw = true;
} else if( action == "QUIT" ) {
chosen = nullptr;
done = true;
} else if( action == "RESET_FILTER" ) {
filterstring = "";
redraw = true;
} else if( action == "CYCLE_BATCH" ) {
if( current.empty() ) {
popup( _( "Nothing selected!" ) );
redraw = true;
continue;
}
batch = !batch;
if( batch ) {
batch_line = line;
chosen = current[batch_line];
} else {
line = batch_line;
keepline = true;
}
redraw = true;
}
if( line < 0 ) {
line = current.size() - 1;
} else if( line >= ( int )current.size() ) {
line = 0;
}
} while( !done );
return chosen;
}
robot_finds_kitten::robot_finds_kitten( const catacurses::window &w )
{
#ifdef __ANDROID__
input_context ctxt( "IUSE_SOFTWARE_KITTEN" );
#endif
ret = false;
char ktile[83] =
"0123456789abcdefghijklmnopqrstuvwxyzABCDEFGHIJKLMNOPQRSTUVWXYZ!#&()*+./:;=?![]{|}y";
int used_messages[MAXMESSAGES];
rfkLINES = 20;
rfkCOLS = 60;
const int numbogus = 20;
nummessages = 201;
empty.x = -1;
empty.y = -1;
empty.color = nc_color();
empty.character = ' ';
for( int c = 0; c < rfkCOLS; c++ ) {
for( int c2 = 0; c2 < rfkLINES; c2++ ) {
rfkscreen[c][c2] = EMPTY;
}
}
/* Create an array to ensure we don't get duplicate messages. */
for( int c = 0; c < nummessages; c++ ) {
used_messages[c] = 0;
bogus_messages[c] = 0;
bogus[c] = empty;
}
/* Now we initialize the various game OBJECTs.
* Assign a position to the player. */
robot.x = rand() % rfkCOLS;
robot.y = rand() % ( rfkLINES - 3 ) + 3;
robot.character = '#';
robot.color = c_white;
rfkscreen[robot.x][robot.y] = ROBOT;
/* Assign the kitten a unique position. */
do {
kitten.x = rand() % rfkCOLS;
kitten.y = rand() % ( rfkLINES - 3 ) + 3;
} while( rfkscreen[kitten.x][kitten.y] != EMPTY );
/* Assign the kitten a character and a color. */
do {
kitten.character = ktile[rand() % 82];
} while( kitten.character == '#' || kitten.character == ' ' );
do {
kitten.color = all_colors.get_random();
} while( kitten.color == c_black );
rfkscreen[kitten.x][kitten.y] = KITTEN;
/* Now, initialize non-kitten OBJECTs. */
for( int c = 0; c < numbogus; c++ ) {
/* Assign a unique position. */
do {
bogus[c].x = rand() % rfkCOLS;
bogus[c].y = ( rand() % ( rfkLINES - 3 ) ) + 3;
} while( rfkscreen[bogus[c].x][bogus[c].y] != EMPTY );
rfkscreen[bogus[c].x][bogus[c].y] = c + 2;
/* Assign a character. */
do {
bogus[c].character = ktile[rand() % 82];
} while( bogus[c].character == '#' || bogus[c].character == ' ' );
do {
bogus[c].color = all_colors.get_random();
} while( bogus[c].color == c_black );
/* Assign a unique message. */
int index = 0;
do {
index = rand() % nummessages;
} while( used_messages[index] != 0 );
bogus_messages[c] = index;
used_messages[index] = 1;
}
instructions( w );
werase( w );
mvwprintz( w, 0, 0, c_white, _( "robotfindskitten v22July2008 - press q to quit." ) );
for( int c = 0; c < rfkCOLS; c++ ) {
mvwputch( w, 2, c, BORDER_COLOR, '_' );
}
wmove( w, kitten.y, kitten.x );
draw_kitten( w );
for( int c = 0; c < numbogus; c++ ) {
mvwputch( w, bogus[c].y, bogus[c].x, bogus[c].color, bogus[c].character );
}
wmove( w, robot.y, robot.x );
draw_robot( w );
int old_x = robot.x;
int old_y = robot.y;
wrefresh( w );
/* Now the fun begins. */
int input = inp_mngr.get_input_event().get_first_input(); // @todo: use input context
while( input != 'q' && input != 'Q' && input != KEY_ESCAPE ) {
process_input( input, w );
if( ret ) {
break;
}
/* Redraw robot, where available */
if( !( old_x == robot.x && old_y == robot.y ) ) {
wmove( w, old_y, old_x );
wputch( w, c_white, ' ' );
wmove( w, robot.y, robot.x );
draw_robot( w );
rfkscreen[old_x][old_y] = EMPTY;
rfkscreen[robot.x][robot.y] = ROBOT;
old_x = robot.x;
old_y = robot.y;
}
wrefresh( w );
// TODO: use input context / rewrite loop so this is only called at one place
input = inp_mngr.get_input_event().get_first_input();
}
}
//--------------------------------------------------------------------------------------------
bool tile_dictionary_load_vfs( const char * filename, tile_dictionary_t * pdict, int max_dict_size )
{
/// @author ZZ
/// @details This function loads fan types for the terrain
Uint32 cnt, entry, vertices, commandsize;
int fantype_count, fantype_offset, fantype;
int command_count, command;
int definition_count;
int itmp;
float ftmp;
if ( NULL == pdict ) return false;
// "delete" the old list
*pdict = tile_dictionary_t();
if ( !VALID_CSTR( filename ) ) return false;
// handle default parameters
if ( max_dict_size < 0 )
{
max_dict_size = MAP_FAN_TYPE_MAX;
}
// Try to open a context.
ReadContext ctxt(filename);
if (!ctxt.ensureOpen()) {
Log::get().error("unable to load tile definitions file `%s`\n", filename);
return false;
}
fantype_count = vfs_get_next_int(ctxt);
fantype_offset = 2 * std::pow( 2.0f, std::floor( std::log( fantype_count ) / std::log( 2.0f ) ) );
definition_count = 2 * fantype_offset;
if ( definition_count > MAP_FAN_TYPE_MAX )
{
Log::get().error( "%s - tile dictionary has too many tile definitions (%d/%d).\n", __FUNCTION__, definition_count, MAP_FAN_TYPE_MAX );
return false;
}
else if ( definition_count > max_dict_size )
{
Log::get().error( "%s - the number of tile difinitions has exceeded the requested number (%d/%d).\n", __FUNCTION__, definition_count, max_dict_size );
return false;
}
pdict->offset = fantype_offset;
pdict->def_count = definition_count;
for ( fantype = 0; fantype < fantype_count; fantype++ )
{
tile_definition_t& pdef_sml = pdict->def_lst[fantype];
tile_definition_t& pdef_big = pdict->def_lst[fantype + fantype_offset];
vertices = vfs_get_next_int(ctxt);
pdef_sml.numvertices = vertices;
pdef_big.numvertices = vertices; // Dupe
for ( cnt = 0; cnt < vertices; cnt++ )
{
itmp = vfs_get_next_int(ctxt);
pdef_sml.ref[cnt] = itmp;
pdef_sml.grid_ix[cnt] = itmp & 3;
pdef_sml.grid_iy[cnt] = ( itmp >> 2 ) & 3;
ftmp = vfs_get_next_float(ctxt);
pdef_sml.u[cnt] = ftmp;
ftmp = vfs_get_next_float(ctxt);
pdef_sml.v[cnt] = ftmp;
// Dupe
pdef_big.ref[cnt] = pdef_sml.ref[cnt];
pdef_big.grid_ix[cnt] = pdef_sml.grid_ix[cnt];
pdef_big.grid_iy[cnt] = pdef_sml.grid_iy[cnt];
pdef_big.u[cnt] = pdef_sml.u[cnt];
pdef_big.v[cnt] = pdef_sml.v[cnt];
}
command_count = vfs_get_next_int(ctxt);
pdef_sml.command_count = command_count;
pdef_big.command_count = command_count; // Dupe
for ( entry = 0, command = 0; command < command_count; command++ )
{
commandsize = vfs_get_next_int(ctxt);
pdef_sml.command_entries[command] = commandsize;
pdef_big.command_entries[command] = commandsize; // Dupe
for ( cnt = 0; cnt < commandsize; cnt++ )
{
itmp = vfs_get_next_int(ctxt);
pdef_sml.command_verts[entry] = itmp;
pdef_big.command_verts[entry] = itmp; // Dupe
entry++;
}
}
}
pdict->loaded = true;
tile_dictionary_finalize( pdict );
return true;
}
void faction_manager::display() const
{
std::vector<const faction *> valfac; // Factions that we know of.
for( const faction &elem : factions ) {
if( elem.known_by_u ) {
valfac.push_back( &elem );
}
}
if( valfac.empty() ) { // We don't know of any factions!
popup( _( "You don't know of any factions. Press Spacebar..." ) );
return;
}
catacurses::window w_list = catacurses::newwin( FULL_SCREEN_HEIGHT, FULL_SCREEN_WIDTH,
( ( TERMY > FULL_SCREEN_HEIGHT ) ? ( TERMY - FULL_SCREEN_HEIGHT ) / 2 : 0 ),
( TERMX > FULL_SCREEN_WIDTH ) ? ( TERMX - FULL_SCREEN_WIDTH ) / 2 : 0 );
catacurses::window w_info = catacurses::newwin( FULL_SCREEN_HEIGHT - 2,
FULL_SCREEN_WIDTH - 1 - MAX_FAC_NAME_SIZE,
1 + ( ( TERMY > FULL_SCREEN_HEIGHT ) ? ( TERMY - FULL_SCREEN_HEIGHT ) / 2 : 0 ),
MAX_FAC_NAME_SIZE + ( ( TERMX > FULL_SCREEN_WIDTH ) ? ( TERMX - FULL_SCREEN_WIDTH ) / 2 : 0 ) );
const int maxlength = FULL_SCREEN_WIDTH - 1 - MAX_FAC_NAME_SIZE;
size_t sel = 0;
bool redraw = true;
input_context ctxt( "FACTIONS" );
ctxt.register_action( "UP", _( "Move cursor up" ) );
ctxt.register_action( "DOWN", _( "Move cursor down" ) );
ctxt.register_action( "QUIT" );
ctxt.register_action( "HELP_KEYBINDINGS" );
while( true ) {
const faction &cur_frac = *valfac[sel];
if( redraw ) {
werase( w_list );
draw_border( w_list );
mvwprintz( w_list, 1, 1, c_white, _( "FACTIONS:" ) );
for( size_t i = 0; i < valfac.size(); i++ ) {
nc_color col = ( i == sel ? h_white : c_white );
mvwprintz( w_list, i + 2, 1, col, _( valfac[i]->name.c_str() ) );
}
wrefresh( w_list );
werase( w_info );
mvwprintz( w_info, 0, 0, c_white, _( "Ranking: %s" ),
fac_ranking_text( cur_frac.likes_u ) );
mvwprintz( w_info, 1, 0, c_white, _( "Respect: %s" ),
fac_respect_text( cur_frac.respects_u ) );
mvwprintz( w_info, 2, 0, c_white, _( "Wealth: %s" ), fac_wealth_text( cur_frac.wealth,
cur_frac.size ) );
mvwprintz( w_info, 3, 0, c_white, _( "Food Supply: %s" ),
fac_food_supply_text( cur_frac.food_supply, cur_frac.size ) );
mvwprintz( w_info, 4, 0, c_white, _( "Combat Ability: %s" ),
fac_combat_ability_text( cur_frac.combat_ability ) );
fold_and_print( w_info, 6, 0, maxlength, c_white, cur_frac.describe() );
wrefresh( w_info );
redraw = false;
}
const std::string action = ctxt.handle_input();
if( action == "DOWN" ) {
mvwprintz( w_list, sel + 2, 1, c_white, cur_frac.name );
sel = ( sel + 1 ) % valfac.size();
redraw = true;
} else if( action == "UP" ) {
mvwprintz( w_list, sel + 2, 1, c_white, cur_frac.name );
sel = ( sel + valfac.size() - 1 ) % valfac.size();
redraw = true;
} else if( action == "HELP_KEYBINDINGS" ) {
redraw = true;
} else if( action == "QUIT" ) {
break;
} else if( action == "CONFIRM" ) {
break;
}
}
}
int worldfactory::show_worldgen_tab_confirm(WINDOW *win, WORLDPTR world)
{
const int iTooltipHeight = 1;
const int iContentHeight = FULL_SCREEN_HEIGHT - 3 - iTooltipHeight;
const int iOffsetX = (TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0;
const int iOffsetY = (TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0;
WINDOW *w_confirmation = newwin(iContentHeight, FULL_SCREEN_WIDTH - 2,
iTooltipHeight + 2 + iOffsetY, 1 + iOffsetX);
unsigned namebar_y = 1;
unsigned namebar_x = 3 + utf8_width(_("World Name:"));
int line = 1;
bool noname = false;
input_context ctxt("WORLDGEN_CONFIRM_DIALOG");
// Disabled because it conflicts with the "pick random world name" option,
// feel free to enable it and change its keybinding in keybindings.json
// ctxt.register_action("HELP_KEYBINDINGS");
ctxt.register_action("QUIT");
ctxt.register_action("ANY_INPUT");
ctxt.register_action("NEXT_TAB");
ctxt.register_action("PREV_TAB");
ctxt.register_action("PICK_RANDOM_WORLDNAME");
std::string worldname = world->world_name;
do {
mvwprintz(w_confirmation, namebar_y, 2, c_white, _("World Name:"));
mvwprintz(w_confirmation, namebar_y, namebar_x, c_ltgray, "______________________________");
fold_and_print(w_confirmation, 3, 2, 76, c_ltgray,
_("Press <color_yellow>?</color> to pick a random name for your world."));
fold_and_print(w_confirmation, FULL_SCREEN_HEIGHT / 2 - 2, 2, 76, c_ltgray, _("\
Press <color_yellow>></color> when you are satisfied with the world as it is and are ready \
to continue, or <color_yellow><</color> to go back and review your world."));
if (!noname) {
mvwprintz(w_confirmation, namebar_y, namebar_x, c_ltgray, "%s", worldname.c_str());
if (line == 1) {
wprintz(w_confirmation, h_ltgray, "_");
}
}
if (noname) {
mvwprintz(w_confirmation, namebar_y, namebar_x, c_ltgray, "______________________________");
noname = false;
}
wrefresh(win);
wrefresh(w_confirmation);
refresh();
const std::string action = ctxt.handle_input();
if (action == "NEXT_TAB") {
if (worldname.empty()) {
mvwprintz(w_confirmation, namebar_y, namebar_x, h_ltgray, _("______NO NAME ENTERED!!!!_____"));
noname = true;
wrefresh(w_confirmation);
if (!query_yn(_("Are you SURE you're finished? World name will be randomly generated."))) {
continue;
} else {
world->world_name = pick_random_name();
if (!valid_worldname(world->world_name)) {
continue;
}
return 1;
}
} else if (query_yn(_("Are you SURE you're finished?")) && valid_worldname(worldname)) {
world->world_name = worldname;
werase(w_confirmation);
delwin(w_confirmation);
return 1;
} else {
continue;
}
} else if (action == "PREV_TAB") {
world->world_name = worldname;
werase(w_confirmation);
delwin(w_confirmation);
return -1;
} else if (action == "PICK_RANDOM_WORLDNAME") {
mvwprintz(w_confirmation, namebar_y, namebar_x, c_ltgray, "______________________________");
world->world_name = worldname = pick_random_name();
} else if (action == "QUIT") {
world->world_name =
worldname; // cache the current worldname just in case they say No to the exit query
return -999;
} else if (action == "ANY_INPUT") {
const long ch = ctxt.get_raw_input().get_first_input();
switch (line) {
case 1:
if (ch == KEY_BACKSPACE || ch == 127) {
if (!worldname.empty()) {
//erase utf8 character TODO: make a function
while(!worldname.empty() &&
((unsigned char)worldname[worldname.size() - 1]) >= 128 &&
((unsigned char)worldname[(int)worldname.size() - 1]) <= 191) {
worldname.erase(worldname.size() - 1);
}
worldname.erase(worldname.size() - 1);
mvwprintz(w_confirmation, namebar_y, namebar_x, c_ltgray,
"______________________________ ");
mvwprintz(w_confirmation, namebar_y, namebar_x, c_ltgray,
"%s", worldname.c_str());
wprintz(w_confirmation, h_ltgray, "_");
}
} else if (is_char_allowed(ch) && utf8_width(worldname.c_str()) < 30) {
worldname.push_back(ch);
} else if(ch == KEY_F(2)) {
std::string tmp = get_input_string_from_file();
int tmplen = utf8_width(tmp.c_str());
if(tmplen > 0 && tmplen + utf8_width(worldname.c_str()) < 30) {
worldname.append(tmp);
}
}
//experimental unicode input
else if(ch > 127) {
std::string tmp = utf32_to_utf8(ch);
int tmplen = utf8_width(tmp.c_str());
if(tmplen > 0 && tmplen + utf8_width(worldname.c_str()) < 30) {
worldname.append(tmp);
}
}
break;
}
}
} while (true);
return 0;
}
void auto_pickup::show( const std::string &custom_name, bool is_autopickup )
{
save_reset_changes(false);
const int iHeaderHeight = 4;
const int iContentHeight = FULL_SCREEN_HEIGHT - 2 - iHeaderHeight;
const int iOffsetX = (TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0;
const int iOffsetY = (TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0;
std::map<int, bool> mapLines;
mapLines[4] = true;
mapLines[50] = true;
mapLines[54] = true;
const int iTotalCols = mapLines.size() - 1;
WINDOW *w_help = newwin((FULL_SCREEN_HEIGHT / 2) - 2, FULL_SCREEN_WIDTH * 3 / 4,
7 + iOffsetY + (FULL_SCREEN_HEIGHT / 2) / 2, iOffsetX + 19 / 2);
WINDOW_PTR w_helpptr( w_help );
WINDOW *w_border = newwin(FULL_SCREEN_HEIGHT, FULL_SCREEN_WIDTH, iOffsetY, iOffsetX);
WINDOW_PTR w_borderptr( w_border );
WINDOW *w_header = newwin(iHeaderHeight, FULL_SCREEN_WIDTH - 2, 1 + iOffsetY,
1 + iOffsetX);
WINDOW_PTR w_headerptr( w_header );
WINDOW *w = newwin(iContentHeight, FULL_SCREEN_WIDTH - 2, iHeaderHeight + 1 + iOffsetY,
1 + iOffsetX);
WINDOW_PTR wptr( w );
draw_border(w_border);
mvwputch(w_border, 3, 0, c_ltgray, LINE_XXXO); // |-
mvwputch(w_border, 3, 79, c_ltgray, LINE_XOXX); // -|
for( auto &mapLine : mapLines ) {
mvwputch( w_border, FULL_SCREEN_HEIGHT - 1, mapLine.first + 1, c_ltgray,
LINE_XXOX ); // _|_
}
mvwprintz(w_border, 0, 29, c_ltred, custom_name.c_str() );
wrefresh(w_border);
int tmpx = 0;
tmpx += shortcut_print(w_header, 0, tmpx, c_white, c_ltgreen, _("<A>dd")) + 2;
tmpx += shortcut_print(w_header, 0, tmpx, c_white, c_ltgreen, _("<R>emove")) + 2;
tmpx += shortcut_print(w_header, 0, tmpx, c_white, c_ltgreen, _("<C>opy")) + 2;
tmpx += shortcut_print(w_header, 0, tmpx, c_white, c_ltgreen, _("<M>ove")) + 2;
tmpx += shortcut_print(w_header, 0, tmpx, c_white, c_ltgreen, _("<E>nable")) + 2;
tmpx += shortcut_print(w_header, 0, tmpx, c_white, c_ltgreen, _("<D>isable")) + 2;
shortcut_print(w_header, 0, tmpx, c_white, c_ltgreen, _("<T>est"));
tmpx = 0;
tmpx += shortcut_print(w_header, 1, tmpx, c_white, c_ltgreen,
_("<+-> Move up/down")) + 2;
tmpx += shortcut_print(w_header, 1, tmpx, c_white, c_ltgreen, _("<Enter>-Edit")) + 2;
shortcut_print(w_header, 1, tmpx, c_white, c_ltgreen, _("<Tab>-Switch Page"));
for (int i = 0; i < 78; i++) {
if (mapLines[i]) {
mvwputch(w_header, 2, i, c_ltgray, LINE_OXXX);
mvwputch(w_header, 3, i, c_ltgray, LINE_XOXO);
} else {
mvwputch(w_header, 2, i, c_ltgray, LINE_OXOX); // Draw line under header
}
}
mvwprintz(w_header, 3, 1, c_white, "#");
mvwprintz(w_header, 3, 8, c_white, _("Rules"));
mvwprintz(w_header, 3, 51, c_white, _("I/E"));
wrefresh(w_header);
int iCurrentPage = 1;
int iCurrentLine = 0;
int iCurrentCol = 1;
int iStartPos = 0;
bool bStuffChanged = false;
input_context ctxt("AUTO_PICKUP");
ctxt.register_cardinal();
ctxt.register_action("CONFIRM");
ctxt.register_action("QUIT");
ctxt.register_action("NEXT_TAB");
ctxt.register_action("PREV_TAB");
ctxt.register_action("ADD_RULE");
ctxt.register_action("REMOVE_RULE");
ctxt.register_action("COPY_RULE");
ctxt.register_action("ENABLE_RULE");
ctxt.register_action("DISABLE_RULE");
ctxt.register_action("MOVE_RULE_UP");
ctxt.register_action("MOVE_RULE_DOWN");
ctxt.register_action("TEST_RULE");
ctxt.register_action("HELP_KEYBINDINGS");
if( is_autopickup ) {
ctxt.register_action("SWITCH_AUTO_PICKUP_OPTION");
ctxt.register_action("SWAP_RULE_GLOBAL_CHAR");
}
std::ostringstream sTemp;
while(true) {
int locx = 17;
locx += shortcut_print(w_header, 2, locx, c_white,
(iCurrentPage == 1) ? hilite(c_white) : c_white, _("[<Global>]")) + 1;
shortcut_print(w_header, 2, locx, c_white,
(iCurrentPage == 2) ? hilite(c_white) : c_white, _("[<Character>]"));
locx = 55;
mvwprintz(w_header, 0, locx, c_white, _("Auto pickup enabled:"));
locx += shortcut_print(w_header, 1, locx,
((OPTIONS["AUTO_PICKUP"]) ? c_ltgreen : c_ltred), c_white,
((OPTIONS["AUTO_PICKUP"]) ? _("True") : _("False")));
locx += shortcut_print(w_header, 1, locx, c_white, c_ltgreen, " ");
locx += shortcut_print(w_header, 1, locx, c_white, c_ltgreen, _("<S>witch"));
shortcut_print(w_header, 1, locx, c_white, c_ltgreen, " ");
wrefresh(w_header);
// Clear the lines
for (int i = 0; i < iContentHeight; i++) {
for (int j = 0; j < 79; j++) {
if (mapLines[j]) {
mvwputch(w, i, j, c_ltgray, LINE_XOXO);
} else {
mvwputch(w, i, j, c_black, ' ');
}
}
}
const bool currentPageNonEmpty = !vRules[iCurrentPage].empty();
if (iCurrentPage == 2 && g->u.name == "") {
vRules[2].clear();
mvwprintz(w, 8, 15, c_white,
_("Please load a character first to use this page!"));
}
draw_scrollbar(w_border, iCurrentLine, iContentHeight,
vRules[iCurrentPage].size(), 5);
wrefresh(w_border);
calcStartPos(iStartPos, iCurrentLine, iContentHeight,
vRules[iCurrentPage].size());
// display auto pickup
for (int i = iStartPos; i < (int)vRules[iCurrentPage].size(); i++) {
if (i >= iStartPos &&
i < iStartPos + ((iContentHeight > (int)vRules[iCurrentPage].size()) ?
(int)vRules[iCurrentPage].size() : iContentHeight)) {
nc_color cLineColor = (vRules[iCurrentPage][i].bActive) ?
c_white : c_ltgray;
sTemp.str("");
sTemp << i + 1;
mvwprintz(w, i - iStartPos, 1, cLineColor, "%s", sTemp.str().c_str());
mvwprintz(w, i - iStartPos, 5, cLineColor, "");
if (iCurrentLine == i) {
wprintz(w, c_yellow, ">> ");
} else {
wprintz(w, c_yellow, " ");
}
wprintz(w, (iCurrentLine == i &&
iCurrentCol == 1) ? hilite(cLineColor) : cLineColor, "%s",
((vRules[iCurrentPage][i].sRule == "") ? _("<empty rule>") :
vRules[iCurrentPage][i].sRule).c_str());
mvwprintz(w, i - iStartPos, 52, (iCurrentLine == i &&
iCurrentCol == 2) ? hilite(cLineColor) : cLineColor, "%s",
((vRules[iCurrentPage][i].bExclude) ? rm_prefix(_("<Exclude>E")).c_str() : rm_prefix(
_("<Include>I")).c_str()));
}
}
wrefresh(w);
const std::string action = ctxt.handle_input();
if (action == "NEXT_TAB") {
iCurrentPage++;
if (iCurrentPage > 2) {
iCurrentPage = 1;
iCurrentLine = 0;
}
} else if (action == "PREV_TAB") {
iCurrentPage--;
if (iCurrentPage < 1) {
iCurrentPage = 2;
iCurrentLine = 0;
}
} else if (action == "QUIT") {
break;
} else if (iCurrentPage == 2 && g->u.name.empty()) {
//Only allow loaded games to use the char sheet
} else if (action == "DOWN") {
iCurrentLine++;
iCurrentCol = 1;
if (iCurrentLine >= (int)vRules[iCurrentPage].size()) {
iCurrentLine = 0;
}
} else if (action == "UP") {
iCurrentLine--;
iCurrentCol = 1;
if (iCurrentLine < 0) {
iCurrentLine = vRules[iCurrentPage].size() - 1;
}
} else if (action == "ADD_RULE") {
bStuffChanged = true;
vRules[iCurrentPage].push_back(cRules("", true, false));
iCurrentLine = vRules[iCurrentPage].size() - 1;
} else if (action == "REMOVE_RULE" && currentPageNonEmpty) {
bStuffChanged = true;
vRules[iCurrentPage].erase(vRules[iCurrentPage].begin() + iCurrentLine);
if (iCurrentLine > (int)vRules[iCurrentPage].size() - 1) {
iCurrentLine--;
}
if(iCurrentLine < 0){
iCurrentLine = 0;
}
} else if (action == "COPY_RULE" && currentPageNonEmpty) {
bStuffChanged = true;
vRules[iCurrentPage].push_back(cRules(
vRules[iCurrentPage][iCurrentLine].sRule,
vRules[iCurrentPage][iCurrentLine].bActive,
vRules[iCurrentPage][iCurrentLine].bExclude));
iCurrentLine = vRules[iCurrentPage].size() - 1;
} else if (action == "SWAP_RULE_GLOBAL_CHAR" && currentPageNonEmpty) {
if ((iCurrentPage == 1 && g->u.name != "") || iCurrentPage == 2) {
bStuffChanged = true;
//copy over
vRules[(iCurrentPage == 1) ? 2 : 1].push_back(cRules(
vRules[iCurrentPage][iCurrentLine].sRule,
vRules[iCurrentPage][iCurrentLine].bActive,
vRules[iCurrentPage][iCurrentLine].bExclude));
//remove old
vRules[iCurrentPage].erase(vRules[iCurrentPage].begin() + iCurrentLine);
iCurrentLine = vRules[(iCurrentPage == 1) ? 2 : 1].size() - 1;
iCurrentPage = (iCurrentPage == 1) ? 2 : 1;
}
} else if (action == "CONFIRM" && currentPageNonEmpty) {
bStuffChanged = true;
if (iCurrentCol == 1) {
fold_and_print(w_help, 1, 1, 999, c_white,
_(
"* is used as a Wildcard. A few Examples:\n"
"\n"
"wooden arrow matches the itemname exactly\n"
"wooden ar* matches items beginning with wood ar\n"
"*rrow matches items ending with rrow\n"
"*avy fle*fi*arrow multiple * are allowed\n"
"heAVY*woOD*arrOW case insensitive search\n"
"")
);
draw_border(w_help);
wrefresh(w_help);
vRules[iCurrentPage][iCurrentLine].sRule = trim_rule(string_input_popup(_("Pickup Rule:"),
30, vRules[iCurrentPage][iCurrentLine].sRule));
} else if (iCurrentCol == 2) {
vRules[iCurrentPage][iCurrentLine].bExclude =
!vRules[iCurrentPage][iCurrentLine].bExclude;
}
} else if (action == "ENABLE_RULE" && currentPageNonEmpty) {
bStuffChanged = true;
vRules[iCurrentPage][iCurrentLine].bActive = true;
} else if (action == "DISABLE_RULE" && currentPageNonEmpty) {
bStuffChanged = true;
vRules[iCurrentPage][iCurrentLine].bActive = false;
} else if (action == "LEFT") {
iCurrentCol--;
if (iCurrentCol < 1) {
iCurrentCol = iTotalCols;
}
} else if (action == "RIGHT") {
iCurrentCol++;
if (iCurrentCol > iTotalCols) {
iCurrentCol = 1;
}
} else if (action == "MOVE_RULE_UP" && currentPageNonEmpty) {
bStuffChanged = true;
if (iCurrentLine < (int)vRules[iCurrentPage].size() - 1) {
std::swap(vRules[iCurrentPage][iCurrentLine],
vRules[iCurrentPage][iCurrentLine + 1]);
iCurrentLine++;
iCurrentCol = 1;
}
} else if (action == "MOVE_RULE_DOWN" && currentPageNonEmpty) {
bStuffChanged = true;
if (iCurrentLine > 0) {
std::swap(vRules[iCurrentPage][iCurrentLine],
vRules[iCurrentPage][iCurrentLine - 1]);
iCurrentLine--;
iCurrentCol = 1;
}
} else if (action == "TEST_RULE" && currentPageNonEmpty) {
test_pattern(iCurrentPage, iCurrentLine);
} else if (action == "SWITCH_OPTION") {
// @todo Now that NPCs use this function, it could be used for them too
OPTIONS["AUTO_PICKUP"].setNext();
get_options().save();
}
}
if( !bStuffChanged ) {
return;
}
if( query_yn( _("Save changes?") ) ) {
// NPC pickup rules don't need to be saved explicitly
if( is_autopickup ) {
save( false );
if( g->u.name != "" ) {
save(true);
}
} else {
merge_vector();
create_rules();
}
} else {
save_reset_changes( true );
}
}
void Messages::display_messages()
{
WINDOW *w = newwin(FULL_SCREEN_HEIGHT, FULL_SCREEN_WIDTH,
(TERMY > FULL_SCREEN_HEIGHT) ? (TERMY - FULL_SCREEN_HEIGHT) / 2 : 0,
(TERMX > FULL_SCREEN_WIDTH) ? (TERMX - FULL_SCREEN_WIDTH) / 2 : 0);
size_t offset = 0;
const int maxlength = FULL_SCREEN_WIDTH - 2 - 1;
const int bottom = FULL_SCREEN_HEIGHT - 2;
input_context ctxt("MESSAGE_LOG");
ctxt.register_action("UP", _("Scroll up"));
ctxt.register_action("DOWN", _("Scroll down"));
ctxt.register_action("QUIT");
ctxt.register_action("HELP_KEYBINDINGS");
while(true) {
werase(w);
draw_border(w);
mvwprintz(w, FULL_SCREEN_HEIGHT - 1, 32, c_red, _("Press %s to return"),
ctxt.get_desc("QUIT").c_str());
draw_scrollbar(w, offset, FULL_SCREEN_HEIGHT - 2, size(), 1);
int line = 1;
int lasttime = -1;
for (size_t i = offset; i < size() && line <= bottom; i++) {
const game_message &m = player_messages.messages[size() - i - 1];
const std::string mstr = m.get_with_count();
const nc_color col = m.get_color();
calendar timepassed = calendar::turn - m.turn;
if (int(timepassed) > lasttime) {
mvwprintz(w, line, 3, c_ltblue, _("%s ago:"),
timepassed.textify_period().c_str());
line++;
lasttime = int(timepassed);
}
std::vector<std::string> folded = foldstring(mstr, maxlength);
for (size_t j = 0; j < folded.size() && line <= bottom; j++, line++) {
mvwprintz(w, line, 1, col, "%s", folded[j].c_str());
}
}
if (offset + 1 < size()) {
mvwprintz(w, FULL_SCREEN_HEIGHT - 1, 5, c_magenta, "vvv");
}
if (offset > 0) {
mvwprintz(w, FULL_SCREEN_HEIGHT - 1, FULL_SCREEN_WIDTH - 6, c_magenta, "^^^");
}
wrefresh(w);
const std::string action = ctxt.handle_input();
if (action == "DOWN" && offset + 1 < size()) {
offset++;
} else if (action == "UP" && offset > 0) {
offset--;
} else if (action == "QUIT") {
break;
}
}
player_messages.curmes = int(calendar::turn);
werase(w);
delwin(w);
}
