inline void proc_weather_sum( const weather_type wtype, weather_sum &data,
const time_point &t, const time_duration &tick_size )
{
switch( wtype ) {
case WEATHER_DRIZZLE:
data.rain_amount += 4 * to_turns<int>( tick_size );
break;
case WEATHER_RAINY:
case WEATHER_THUNDER:
case WEATHER_LIGHTNING:
data.rain_amount += 8 * to_turns<int>( tick_size );
break;
case WEATHER_ACID_DRIZZLE:
data.acid_amount += 4 * to_turns<int>( tick_size );
break;
case WEATHER_ACID_RAIN:
data.acid_amount += 8 * to_turns<int>( tick_size );
break;
default:
break;
}
// TODO: Change this sunlight "sampling" here into a proper interpolation
const float tick_sunlight = calendar( to_turn<int>( t ) ).sunlight() + weather_data(
wtype ).light_modifier;
data.sunlight += std::max<float>( 0.0f, to_turns<int>( tick_size ) * tick_sunlight );
}
void sounds::process_sounds()
{
std::vector<centroid> sound_clusters = cluster_sounds( recent_sounds );
const int weather_vol = weather_data( g->weather ).sound_attn;
for( const auto &this_centroid : sound_clusters ) {
// Since monsters don't go deaf ATM we can just use the weather modified volume
// If they later get physical effects from loud noises we'll have to change this
// to use the unmodified volume for those effects.
const int vol = this_centroid.volume - weather_vol;
const tripoint source = tripoint( this_centroid.x, this_centroid.y, this_centroid.z );
// --- Monster sound handling here ---
// Alert all hordes
if( vol > 20 && g->get_levz() == 0 ) {
int sig_power = ( ( vol > 140 ) ? 140 : vol );
// With this, volume 100 reaches 20 overmap tiles away.
sig_power /= 5;
const point abs_ms = g->m.getabs( source.x, source.y );
const point abs_sm = ms_to_sm_copy( abs_ms );
const tripoint target( abs_sm.x, abs_sm.y, source.z );
overmap_buffer.signal_hordes( target, sig_power );
}
// Alert all monsters (that can hear) to the sound.
for (int i = 0, numz = g->num_zombies(); i < numz; i++) {
monster &critter = g->zombie(i);
const int dist = rl_dist( source, critter.pos() );
if( vol * 2 > dist ) {
// Exclude monsters that certainly won't hear the sound
critter.hear_sound( source, vol, dist );
}
}
}
recent_sounds.clear();
}
inline void proc_weather_sum( const weather_type wtype, weather_sum &data,
const calendar &turn, const int tick_size )
{
switch( wtype ) {
case WEATHER_DRIZZLE:
data.rain_amount += 4 * tick_size;
break;
case WEATHER_RAINY:
case WEATHER_THUNDER:
case WEATHER_LIGHTNING:
data.rain_amount += 8 * tick_size;
break;
case WEATHER_ACID_DRIZZLE:
data.acid_amount += 4 * tick_size;
break;
case WEATHER_ACID_RAIN:
data.acid_amount += 8 * tick_size;
break;
default:
break;
}
// TODO: Change this calendar::sunlight "sampling" here into a proper interpolation
const float tick_sunlight = turn.sunlight() - weather_data( wtype ).light_modifier;
data.sunlight += std::max<float>( 0.0f, tick_size * tick_sunlight );
}
void LH_WeatherBrowserOpener::openBrowser(QString key,int flags,int value)
{
Q_UNUSED(key);
Q_UNUSED(flags);
Q_UNUSED(value);
bool ok;
weatherData weather_data(setup_json_weather_->value(), ok);
if( weather_data.url !="" )
QDesktopServices::openUrl( QUrl::fromUserInput(weather_data.url) );
}
void sounds::process_sounds()
{
std::vector<centroid> sound_clusters = cluster_sounds( recent_sounds );
const int weather_vol = weather_data(g->weather).sound_attn;
for( const auto &this_centroid : sound_clusters ) {
// Since monsters don't go deaf ATM we can just use the weather modified volume
// If they later get physical effects from loud noises we'll have to change this
// to use the unmodified volume for those effects.
const int vol = this_centroid.volume - weather_vol;
const tripoint source = tripoint( this_centroid.x, this_centroid.y, this_centroid.z );
// --- Monster sound handling here ---
// Alert all hordes
if( vol > 20 && g->get_levz() == 0 ) {
int sig_power = ((vol > 140) ? 140 : vol) - 20;
const point abs_ms = g->m.getabs( source.x, source.y );
const point abs_sm = overmapbuffer::ms_to_sm_copy( abs_ms );
const tripoint target( abs_sm.x, abs_sm.y, source.z );
overmap_buffer.signal_hordes( target, sig_power );
}
// Alert all monsters (that can hear) to the sound.
for (int i = 0, numz = g->num_zombies(); i < numz; i++) {
monster &critter = g->zombie(i);
// rl_dist() is faster than critter.has_flag() or critter.can_hear(), so we'll check it first.
int dist = rl_dist( source, critter.pos3() );
int vol_goodhearing = vol * 2 - dist;
if (vol_goodhearing > 0 && critter.can_hear()) {
const bool goodhearing = critter.has_flag(MF_GOODHEARING);
int volume = goodhearing ? vol_goodhearing : (vol - dist);
// Error is based on volume, louder sound = less error
if (volume > 0) {
int max_error = 0;
if (volume < 2) {
max_error = 10;
} else if (volume < 5) {
max_error = 5;
} else if (volume < 10) {
max_error = 3;
} else if (volume < 20) {
max_error = 1;
}
int target_x = source.x + rng(-max_error, max_error);
int target_y = source.y + rng(-max_error, max_error);
// target_z will require some special check due to soil muffling sounds
int wander_turns = volume * (goodhearing ? 6 : 1);
critter.wander_to( tripoint( target_x, target_y, source.z ), wander_turns);
critter.process_trigger(MTRIG_SOUND, volume);
}
}
}
}
recent_sounds.clear();
}
/**
* Generate textual weather forecast for the specified radio tower.
*/
std::string weather_forecast( point const &abs_sm_pos )
{
std::ostringstream weather_report;
// Local conditions
const auto cref = overmap_buffer.closest_city( tripoint( abs_sm_pos, 0 ) );
const std::string city_name = cref ? cref.city->name : std::string( _( "middle of nowhere" ) );
// Current time
weather_report << string_format(
_("The current time is %s Eastern Standard Time. At %s in %s, it was %s. The temperature was %s. "),
calendar::turn.print_time().c_str(), calendar::turn.print_time(true).c_str(),
city_name.c_str(),
weather_data(g->weather).name.c_str(), print_temperature(g->temperature).c_str()
);
//weather_report << ", the dewpoint ???, and the relative humidity ???. ";
//weather_report << "The wind was <direction> at ? mi/km an hour. ";
//weather_report << "The pressure was ??? in/mm and steady/rising/falling.";
// Regional conditions (simulated by choosing a random range containing the current conditions).
// Adjusted for weather volatility based on how many weather changes are coming up.
//weather_report << "Across <region>, skies ranged from <cloudiest> to <clearest>. ";
// TODO: Add fake reports for nearby cities
// TODO: weather forecast
// forecasting periods are divided into 12-hour periods, day (6-18) and night (19-5)
// Accumulate percentages for each period of various weather statistics, and report that
// (with fuzz) as the weather chances.
// int weather_proportions[NUM_WEATHER_TYPES] = {0};
double high = -100.0;
double low = 100.0;
point const abs_ms_pos = overmapbuffer::sm_to_ms_copy( abs_sm_pos );
// TODO wind direction and speed
int last_hour = calendar::turn - ( calendar::turn % HOURS(1) );
for(int d = 0; d < 6; d++) {
weather_type forecast = WEATHER_NULL;
for(calendar i(last_hour + 7200 * d); i < last_hour + 7200 * (d + 1); i += 600) {
w_point w = g->weather_gen->get_weather( abs_ms_pos, i );
forecast = std::max(forecast, g->weather_gen->get_weather_conditions(w));
high = std::max(high, w.temperature);
low = std::min(low, w.temperature);
}
std::string day;
bool started_at_night;
calendar c(last_hour + 7200 * d);
if(d == 0 && c.is_night()) {
day = _("Tonight");
started_at_night = true;
} else {
day = _("Today");
started_at_night = false;
}
if(d > 0 && ((started_at_night && !(d % 2)) || (!started_at_night && d % 2))) {
day = rmp_format(_("<Mon Night>%s Night"), c.day_of_week().c_str());
} else {
day = c.day_of_week();
}
weather_report << string_format(
_("%s... %s. Highs of %s. Lows of %s. "),
day.c_str(), weather_data(forecast).name.c_str(),
print_temperature(high).c_str(), print_temperature(low).c_str()
);
}
return weather_report.str();
}
void sounds::process_sound_markers( player *p )
{
bool is_deaf = p->is_deaf();
const float volume_multiplier = p->hearing_ability();
const int safe_volume = p->worn_with_flag("PARTIAL_DEAF") ? 100 : 9999;
const int weather_vol = weather_data( g->weather ).sound_attn;
for( const auto &sound_event_pair : sounds_since_last_turn ) {
const int volume = std::min(safe_volume, (int)(sound_event_pair.second.volume * volume_multiplier));
const std::string& sfx_id = sound_event_pair.second.id;
const std::string& sfx_variant = sound_event_pair.second.variant;
const int max_volume = std::max( volume, sound_event_pair.second.volume ); // For deafness checks
int dist = rl_dist( p->pos(), sound_event_pair.first );
bool ambient = sound_event_pair.second.ambient;
// Too far away, we didn't hear it!
if( dist > volume ) {
continue;
}
if( is_deaf ) {
// Has to be here as well to work for stacking deafness (loud noises prolong deafness)
if( !p->is_immune_effect( effect_deaf )
&& rng( ( max_volume - dist ) / 2, ( max_volume - dist ) ) >= 150 ) {
// Prolong deafness, but not as much as if it was freshly applied
int duration = std::min( 40, ( max_volume - dist - 130 ) / 8 );
p->add_effect( effect_deaf, duration );
if( !p->has_trait( "DEADENED" ) ) {
p->add_msg_if_player( m_bad, _( "Your eardrums suddenly ache!" ) );
if( p->get_pain() < 10 ) {
p->mod_pain( rng( 0, 2 ) );
}
}
}
// We're deaf, skip rest of processing.
continue;
}
// Player volume meter includes all sounds from their tile and adjacent tiles
// TODO: Add noises from vehicle player is in.
if( dist <= 1 ) {
p->volume = std::max( p->volume, volume );
}
// Check for deafness
if( !p->is_immune_effect( effect_deaf ) && rng((max_volume - dist) / 2, (max_volume - dist)) >= 150 ) {
int duration = (max_volume - dist - 130) / 4;
p->add_effect( effect_deaf, duration );
if( p->is_deaf() ) {
// Need to check for actual deafness
is_deaf = true;
sfx::do_hearing_loss( duration );
continue;
}
}
// At this point we are dealing with attention (as opposed to physical effects)
// so reduce volume by the amount of ambient noise from the weather.
const int mod_vol = ( sound_event_pair.second.volume - weather_vol ) * volume_multiplier;
// The noise was drowned out by the surroundings.
if( mod_vol - dist < 0 ) {
continue;
}
// See if we need to wake someone up
if( p->has_effect( effect_sleep ) ) {
if( ( !( p->has_trait( "HEAVYSLEEPER" ) ||
p->has_trait( "HEAVYSLEEPER2" ) ) && dice( 2, 15 ) < mod_vol - dist ) ||
( p->has_trait( "HEAVYSLEEPER" ) && dice( 3, 15 ) < mod_vol - dist ) ||
( p->has_trait( "HEAVYSLEEPER2" ) && dice( 6, 15 ) < mod_vol - dist ) ) {
//Not kidding about sleep-thru-firefight
p->wake_up();
add_msg( m_warning, _( "Something is making noise." ) );
} else {
continue;
}
}
const tripoint &pos = sound_event_pair.first;
const std::string &description = sound_event_pair.second.description;
if( !ambient && ( pos != p->pos() ) && !g->m.pl_sees( pos, dist ) ) {
if( p->activity.ignore_trivial != true ) {
std::string query;
if( description.empty() ) {
query = _( "Heard a noise!" );
} else {
query = string_format( _( "Heard %s!" ),
sound_event_pair.second.description.c_str() );
}
if( g->cancel_activity_or_ignore_query( query.c_str() ) ) {
p->activity.ignore_trivial = true;
for( auto activity : p->backlog ) {
activity.ignore_trivial = true;
}
}
}
}
// Only print a description if it exists
if( !description.empty() ) {
// If it came from us, don't print a direction
if( pos == p->pos() ) {
add_msg( _( "You hear %s" ), description.c_str() );
} else {
// Else print a direction as well
std::string direction = direction_name( direction_from( p->pos(), pos ) );
add_msg( m_warning, _( "From the %s you hear %s" ), direction.c_str(), description.c_str() );
}
}
// Play the sound effect, if any.
if( !sfx_id.empty() ) {
// for our sfx API, 100 is "normal" volume, so scale accordingly
int heard_volume = sfx::get_heard_volume( pos );
sfx::play_variant_sound( sfx_id, sfx_variant, heard_volume );
//add_msg("Playing sound effect %s, %s, %d", sfx_id.c_str(), sfx_variant.c_str(), heard_volume);
}
// If Z coord is different, draw even when you can see the source
const bool diff_z = pos.z != p->posz();
// Place footstep markers.
if( pos == p->pos() || p->sees( pos ) ) {
// If we are or can see the source, don't draw a marker.
continue;
}
int err_offset;
if( mod_vol / dist < 2 ) {
err_offset = 3;
} else if( mod_vol / dist < 3 ) {
err_offset = 2;
} else {
err_offset = 1;
}
// Enumerate the valid points the player *cannot* see.
// Unless the source is on a different z-level, then any point is fine
std::vector<tripoint> unseen_points;
tripoint newp = pos;
int &newx = newp.x;
int &newy = newp.y;
for( newx = pos.x - err_offset; newx <= pos.x + err_offset; newx++ ) {
for( newy = pos.y - err_offset; newy <= pos.y + err_offset; newy++ ) {
if( diff_z || !p->sees( newp ) ) {
unseen_points.emplace_back( newp );
}
}
}
// Then place the sound marker in a random one.
if( !unseen_points.empty() ) {
sound_markers.emplace( random_entry( unseen_points ),
sound_event_pair.second );
}
}
sounds_since_last_turn.clear();
}
// TODO Consider making this just clear the cache and dynamically fill it in as trans() is called
void map::build_transparency_cache( const int zlev )
{
auto &map_cache = get_cache( zlev );
auto &transparency_cache = map_cache.transparency_cache;
auto &outside_cache = map_cache.outside_cache;
if( !map_cache.transparency_cache_dirty ) {
return;
}
// Default to just barely not transparent.
std::uninitialized_fill_n(
&transparency_cache[0][0], MAPSIZE*SEEX * MAPSIZE*SEEY, LIGHT_TRANSPARENCY_OPEN_AIR);
// Traverse the submaps in order
for( int smx = 0; smx < my_MAPSIZE; ++smx ) {
for( int smy = 0; smy < my_MAPSIZE; ++smy ) {
auto const cur_submap = get_submap_at_grid( smx, smy, zlev );
for( int sx = 0; sx < SEEX; ++sx ) {
for( int sy = 0; sy < SEEY; ++sy ) {
const int x = sx + smx * SEEX;
const int y = sy + smy * SEEY;
auto &value = transparency_cache[x][y];
if( !(cur_submap->ter[sx][sy].obj().transparent &&
cur_submap->frn[sx][sy].obj().transparent) ) {
value = LIGHT_TRANSPARENCY_SOLID;
continue;
}
if( outside_cache[x][y] ) {
value *= weather_data(g->weather).sight_penalty;
}
for( auto const &fld : cur_submap->fld[sx][sy] ) {
const field_entry &cur = fld.second;
const field_id type = cur.getFieldType();
const int density = cur.getFieldDensity();
if( fieldlist[type].transparent[density - 1] ) {
continue;
}
// Fields are either transparent or not, however we want some to be translucent
switch (type) {
case fd_cigsmoke:
case fd_weedsmoke:
case fd_cracksmoke:
case fd_methsmoke:
case fd_relax_gas:
value *= 5;
break;
case fd_smoke:
case fd_incendiary:
case fd_toxic_gas:
case fd_tear_gas:
if (density == 3) {
value = LIGHT_TRANSPARENCY_SOLID;
} else if (density == 2) {
value *= 10;
}
break;
case fd_nuke_gas:
value *= 10;
break;
case fd_fire:
value *= 1.0 - ( density * 0.3 );
break;
default:
value = LIGHT_TRANSPARENCY_SOLID;
break;
}
// TODO: [lightmap] Have glass reduce light as well
}
}
}
}
}
map_cache.transparency_cache_dirty = false;
}
QString LH_WeatherText::getSelectedValueText()
{
bool ok;
weatherData weather_data(setup_json_weather_->value(), ok);
//return QString("%1:\r\n%2%5\r\n%3 (%4)").arg(weather_data.location.city, weather_data.condition.temp, weather_data.condition.text, weather_data.condition.code, weather_data.units.temperature);
QString selValue = valueTypes.at( setup_value_type_->value() );
QString valueText;
const int unit_none = 0;
const int unit_dist = 1;
const int unit_press = 2;
const int unit_speed = 3;
const int unit_temp = 4;
const int unit_perc = 5;
int units;
valueText = "<not implimented>";
if(selValue == "Location: City") {valueText = weather_data.location.city; units = unit_none;}
if(selValue == "Location: Region") {valueText = weather_data.location.region; units = unit_none;}
if(selValue == "Location: Country") {valueText = weather_data.location.country; units = unit_none;}
if(selValue == "Current Conditions: Description") {valueText = weather_data.condition.text; units = unit_none;}
if(selValue == "Current Conditions: Image Code") {valueText = weather_data.condition.code; units = unit_none;}
if(selValue == "Current Conditions: Temperature") {valueText = weather_data.condition.temp; units = unit_temp;}
if(selValue == "Current Conditions: Last Updated") {valueText = weather_data.condition.date; units = unit_none;}
if(selValue == "Wind: Chill") {valueText = weather_data.wind.chill; units = unit_temp;}
if(selValue == "Wind: Direction") {valueText = weather_data.wind.direction; units = unit_none;}
if(selValue == "Wind: Speed") {valueText = weather_data.wind.speed; units = unit_speed;}
if(selValue == "Atmosphere: Humidity") {valueText = weather_data.atmosphere.humidity; units = unit_perc;}
if(selValue == "Atmosphere: Visibility") {valueText = weather_data.atmosphere.visibility; units = unit_dist;}
if(selValue == "Atmosphere: Pressure") {valueText = weather_data.atmosphere.pressure; units = unit_press;}
if(selValue == "Atmosphere: Barometric Reading") {valueText = weather_data.atmosphere.barometricReading; units = unit_none;}
if(selValue == "Astronomy: Sunrise") {valueText = weather_data.astronomy.sunrise; units = unit_none;}
if(selValue == "Astronomy: Sunset") {valueText = weather_data.astronomy.sunset; units = unit_none;}
QRegExp rx("Forecast Day ([1-5])[^:]*: (.*)");
if(rx.indexIn(selValue) != -1)
{
int i = rx.cap(1).toInt()-1;
units = unit_none;
if(rx.cap(2) == "Day")
valueText = weather_data.forecast[i].day;
if(rx.cap(2) == "\"Today\"/\"Tonight\"" || rx.cap(2) == "\"Tomorrow\"")
valueText = weather_data.forecast[i].relativeDay;
if(rx.cap(2) == "Date")
valueText = weather_data.forecast[i].date;
if(rx.cap(2) == "Low") {
valueText = weather_data.forecast[i].low;
units = unit_temp;
}
if(rx.cap(2) == "High") {
valueText = weather_data.forecast[i].high;
units = unit_temp;
}
if(rx.cap(2) == "Description")
valueText = weather_data.forecast[i].text;
if(rx.cap(2) == "Image Code")
valueText = weather_data.forecast[i].code;
}
QString resultText = QString(valueText);
if (resultText=="") {
resultText = " ";
} else
if (setup_append_units_->value())
switch(units)
{
case unit_dist:
resultText = resultText + QString(weather_data.units.distance);
break;
case unit_press:
resultText = resultText + QString(weather_data.units.pressure);
break;
case unit_speed:
resultText = resultText + QString(weather_data.units.speed);
break;
case unit_temp:
resultText = resultText + QString(weather_data.units.temperature);
break;
case unit_perc:
resultText = resultText + "%";
break;
}
resultText = setup_pre_text_->value() + resultText + setup_post_text_->value();
return resultText;
}
