Example #1
0
void board_up( map &m, const tripoint &start, const tripoint &end )
{
    std::vector<tripoint> furnitures1;
    std::vector<tripoint> furnitures2;
    std::vector<tripoint> boardables;
    tripoint p;
    p.z = m.get_abs_sub().z;
    int &x = p.x;
    int &y = p.y;
    int &z = p.z;
    for( x = start.x; x < end.x; x++ ) {
        for( y = start.y; y < end.y; y++ ) {
            bool must_board_around = false;
            const ter_id t = m.ter( x, y );
            if( t == t_window_domestic || t == t_window || t == t_window_no_curtains ) {
                // Windows are always to the outside and must be boarded
                must_board_around = true;
                m.ter_set( p, t_window_boarded );
            } else if( t == t_door_c || t == t_door_locked || t == t_door_c_peep ) {
                // Only board up doors that lead to the outside
                if( m.is_outside( tripoint( x + 1, y, z ) ) ||
                    m.is_outside( tripoint( x - 1, y, z ) ) ||
                    m.is_outside( tripoint( x, y + 1, z ) ) ||
                    m.is_outside( tripoint( x, y - 1, z ) ) ) {
                    m.ter_set( p, t_door_boarded );
                    must_board_around = true;
                } else {
                    // internal doors are opened instead
                    m.ter_set( p, t_door_o );
                }
            }
            if( must_board_around ) {
                // Board up the surroundings of the door/window
                add_boardable( m, tripoint( x + 1, y, z ), boardables );
                add_boardable( m, tripoint( x - 1, y, z ), boardables );
                add_boardable( m, tripoint( x, y + 1, z ), boardables );
                add_boardable( m, tripoint( x, y - 1, z ), boardables );
                add_boardable( m, tripoint( x + 1, y + 1, z ), boardables );
                add_boardable( m, tripoint( x - 1, y + 1, z ), boardables );
                add_boardable( m, tripoint( x + 1, y - 1, z ), boardables );
                add_boardable( m, tripoint( x - 1, y - 1, z ), boardables );
            }
        }
    }
    // Find all furniture that can be used to board up some place
    for( x = start.x; x < end.x; x++ ) {
        for( y = start.y; y < end.y; y++ ) {
            if( std::find( boardables.begin(), boardables.end(), p ) != boardables.end() ) {
                continue;
            }
            if( !m.has_furn( p ) ) {
                continue;
            }
            // If the furniture is movable and the character can move it, use it to barricade
            // g->u is workable here as NPCs by definition are not starting the game.  (Let's hope.)
            ///\EFFECT_STR determines what furniture might be used as a starting area barricade
            if( m.furn_at( p ).move_str_req > 0 && m.furn_at( p ).move_str_req < g->u.get_str() ) {
                if( m.furn_at( p ).movecost == 0 ) {
                    // Obstacles are better, prefer them
                    furnitures1.push_back( p );
                } else {
                    furnitures2.push_back( p );
                }
            }
        }
    }
    while( ( !furnitures1.empty() || !furnitures2.empty() ) && !boardables.empty() ) {
        const tripoint fp = random_entry_removed( furnitures1.empty() ? furnitures2 : furnitures1 );
        const tripoint bp = random_entry_removed( boardables );
        m.furn_set( bp, m.furn( fp ) );
        m.furn_set( fp, f_null );
        auto destination_items = m.i_at( bp );
        for( auto moved_item : m.i_at( fp ) ) {
            destination_items.push_back( moved_item );
        }
        m.i_clear( fp );
    }
}
Example #2
0
void board_up( map &m, int sx, int sy, int dx, int dy )
{
    std::vector<point> furnitures1;
    std::vector<point> furnitures2;
    std::vector<point> boardables;
    for( int x = sx; x < sx + dx; x++ ) {
        for( int y = sy; y < sy + dy; y++ ) {
            bool must_board_around = false;
            const ter_id t = m.ter( x, y );
            if( t == t_window_domestic || t == t_window ) {
                // Windows are always to the outside and must be boarded
                must_board_around = true;
                m.ter_set( x, y, t_window_boarded );
            } else if( t == t_door_c || t == t_door_locked || t == t_door_c_peep ) {
                // Only board up doors that lead to the outside
                if( m.is_outside( x + 1, y ) || m.is_outside( x - 1, y ) ||
                    m.is_outside( x, y + 1 ) || m.is_outside( x, y - 1 ) ) {
                    m.ter_set( x, y, t_door_boarded );
                    must_board_around = true;
                } else {
                    // internal doors are opened instead
                    m.ter_set( x, y, t_door_o );
                }
            }
            if( must_board_around ) {
                // Board up the surroundings of the door/window
                add_boardable( m, point( x + 1, y ), boardables );
                add_boardable( m, point( x - 1, y ), boardables );
                add_boardable( m, point( x, y + 1 ), boardables );
                add_boardable( m, point( x, y - 1 ), boardables );
                add_boardable( m, point( x + 1, y + 1 ), boardables );
                add_boardable( m, point( x - 1, y + 1 ), boardables );
                add_boardable( m, point( x + 1, y - 1 ), boardables );
                add_boardable( m, point( x - 1, y - 1 ), boardables );
            }
        }
    }
    // Find all furniture that can be used to board up some place
    for( int x = sx; x < sx + dx; x++ ) {
        for( int y = sy; y < sy + dy; y++ ) {
            if( std::find( boardables.begin(), boardables.end(), point( x, y ) ) != boardables.end() ) {
                continue;
            }
            if( !m.has_furn( x, y ) ) {
                continue;
            }
            // If the furniture is movable and the character can move it, use it to barricade
            // g->u is workable here as NPCs by definition are not starting the game.  (Let's hope.)
            if( (m.furn_at( x, y ).move_str_req > 0) && (m.furn_at( x, y ).move_str_req < g->u.get_str() )) {
                if( m.furn_at( x, y ).movecost == 0 ) {
                    // Obstacles are better, prefer them
                    furnitures1.push_back( point( x, y ) );
                } else {
                    furnitures2.push_back( point( x, y ) );
                }
            }
        }
    }
    while( ( !furnitures1.empty() || !furnitures2.empty() ) && !boardables.empty() ) {
        const point fp = furnitures1.empty() ?
            get_random_from_vec( furnitures2 ) : get_random_from_vec( furnitures1 );
        const point bp = get_random_from_vec( boardables );
        m.furn_set( bp.x, bp.y, m.furn( fp.x, fp.y ) );
        m.furn_set( fp.x, fp.y, f_null );
        auto destination_items = m.i_at(bp.x, bp.y);
        for( auto moved_item : m.i_at(fp.x, fp.y) ) {
            destination_items.push_back( moved_item );
        }
        m.i_clear( fp.x, fp.y );
    }
}