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simfab.cc
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/*
* Fabrikfunktionen und Fabrikbau
*
* Hansjörg Malthaner
*
*
* 25.03.00 Anpassung der Lagerkapazitäten: min. 5 normale Lieferungen
* sollten an Lager gehalten werden.
*/
#include <math.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include "simdebug.h"
#include "display/simimg.h"
#include "simcolor.h"
#include "boden/grund.h"
#include "boden/boden.h"
#include "boden/fundament.h"
#include "simfab.h"
#include "simcity.h"
#include "simhalt.h"
#include "simware.h"
#include "simworld.h"
#include "descriptor/building_desc.h"
#include "descriptor/goods_desc.h"
#include "descriptor/sound_desc.h"
#include "player/simplay.h"
#include "simintr.h"
#include "obj/wolke.h"
#include "obj/gebaeude.h"
#include "obj/field.h"
#include "obj/leitung2.h"
#include "dataobj/settings.h"
#include "dataobj/environment.h"
#include "dataobj/translator.h"
#include "dataobj/loadsave.h"
#include "descriptor/factory_desc.h"
#include "bauer/hausbauer.h"
#include "bauer/goods_manager.h"
#include "bauer/fabrikbauer.h"
#include "gui/fabrik_info.h"
#include "utils/simrandom.h"
#include "utils/cbuffer_t.h"
#include "gui/simwin.h"
#include "display/simgraph.h"
// Fabrik_t
static const int FAB_MAX_INPUT = 15000;
// Half a display unit (0.5).
static const sint64 FAB_DISPLAY_UNIT_HALF = ((sint64)1 << (fabrik_t::precision_bits + DEFAULT_PRODUCTION_FACTOR_BITS - 1));
// Half a production factor unit (0.5).
static const sint32 FAB_PRODFACT_UNIT_HALF = ((sint32)1 << (DEFAULT_PRODUCTION_FACTOR_BITS - 1));
karte_ptr_t fabrik_t::welt;
/**
* Convert internal values to displayed values
*/
sint64 convert_goods(sint64 value) { return ((value + FAB_DISPLAY_UNIT_HALF) >> (fabrik_t::precision_bits + DEFAULT_PRODUCTION_FACTOR_BITS) ); }
sint64 convert_power(sint64 value) { return ( value >> POWER_TO_MW ); }
sint64 convert_boost(sint64 value) { return ( (value * 100 + (DEFAULT_PRODUCTION_FACTOR>>1)) >> DEFAULT_PRODUCTION_FACTOR_BITS ); }
/**
* Ordering based on relative distance to a fixed point `origin'.
*/
class RelativeDistanceOrdering
{
private:
const koord m_origin;
public:
RelativeDistanceOrdering(const koord& origin)
: m_origin(origin)
{ /* nothing */ }
/**
* Returns true if `a' is closer to the origin than `b', otherwise false.
*/
bool operator()(const koord& a, const koord& b) const
{
return koord_distance(m_origin, a) < koord_distance(m_origin, b);
}
};
/**
* Produce a scaled production amount from a production amount and work factor.
*/
sint32 work_scale_production(sint64 prod, sint64 work){
// compute scaled production, rounding up
return ((prod * work) + (1 << WORK_BITS) - 1) >> WORK_BITS;
}
/**
* Produce a work factor from a production amount and scaled production amount.
*/
sint32 work_from_production(sint64 prod, sint64 scaled){
// compute work, rounding up
return prod ? ((scaled << WORK_BITS) + prod - 1) / prod : 0;
}
void ware_production_t::init_stats()
{
for( int m=0; m<MAX_MONTH; ++m ) {
for( int s=0; s<MAX_FAB_GOODS_STAT; ++s ) {
statistics[m][s] = 0;
}
}
weighted_sum_storage = 0;
}
void ware_production_t::roll_stats(uint32 factor, sint64 aggregate_weight)
{
// calculate weighted average storage first
if( aggregate_weight>0 ) {
set_stat( weighted_sum_storage / aggregate_weight, FAB_GOODS_STORAGE );
}
for( int s=0; s<MAX_FAB_GOODS_STAT; ++s ) {
for( int m=MAX_MONTH-1; m>0; --m ) {
statistics[m][s] = statistics[m-1][s];
}
if( s==FAB_GOODS_TRANSIT ) {
// keep the current amount in transit
statistics[0][s] = statistics[1][s];
}
else {
statistics[0][s] = 0;
}
}
weighted_sum_storage = 0;
// restore current storage level
set_stat( (sint64)menge * (sint64)factor, FAB_GOODS_STORAGE );
}
void ware_production_t::rdwr(loadsave_t *file)
{
if( file->is_loading() ) {
init_stats();
}
// we use a temporary variable to save/load old data correctly
sint64 statistics_buf[MAX_MONTH][MAX_FAB_GOODS_STAT];
memcpy( statistics_buf, statistics, sizeof(statistics_buf) );
if( file->is_saving() && file->get_version() <= 120000 ) {
for( int m=0; m<MAX_MONTH; ++m ) {
statistics_buf[m][0] = (statistics[m][FAB_GOODS_STORAGE] >> DEFAULT_PRODUCTION_FACTOR_BITS);
statistics_buf[m][2] = (statistics[m][2] >> DEFAULT_PRODUCTION_FACTOR_BITS);
}
}
if( file->get_version()>112000 ) {
for( int s=0; s<MAX_FAB_GOODS_STAT; ++s ) {
for( int m=0; m<MAX_MONTH; ++m ) {
file->rdwr_longlong( statistics_buf[m][s] );
}
}
file->rdwr_longlong( weighted_sum_storage );
}
else if( file->get_version()>=110005 ) {
// save/load statistics
for( int s=0; s<3; ++s ) {
for( int m=0; m<MAX_MONTH; ++m ) {
file->rdwr_longlong( statistics_buf[m][s] );
}
}
file->rdwr_longlong( weighted_sum_storage );
}
if( file->is_loading() ) {
memcpy( statistics, statistics_buf, sizeof(statistics_buf) );
// Apply correction for output production graphs which have had their precision changed for factory normalization.
// Also apply a fix for corrupted in-transit values caused by a logical error.
if(file->get_version() <= 120000){
for( int m=0; m<MAX_MONTH; ++m ) {
statistics[m][0] = (statistics[m][FAB_GOODS_STORAGE] & 0xffffffff) << DEFAULT_PRODUCTION_FACTOR_BITS;
statistics[m][2] = (statistics[m][2] & 0xffffffff) << DEFAULT_PRODUCTION_FACTOR_BITS;
}
}
// recalc transit always on load
statistics[0][FAB_GOODS_TRANSIT] = 0;
}
}
void ware_production_t::book_weighted_sum_storage(uint32 factor, sint64 delta_time)
{
const sint64 amount = (sint64)menge * (sint64)factor;
weighted_sum_storage += amount * delta_time;
set_stat( amount, FAB_GOODS_STORAGE );
}
sint32 ware_production_t::get_work_factor(){
// the minimum amount of output product for rampdown to occur
const sint32 prod_scale_limit = min_shipment * OUTPUT_SCALE_RAMPDOWN_MULTIPLYER;
// only ramp down if greater than minimum
if( menge <= prod_scale_limit ){
// full production (1.0)
return 1 << WORK_BITS;
}
// compute desired work factor
sint32 ramp_fact = (sint32)(((sint64)(max - menge) << WORK_BITS) / (sint64)(max - prod_scale_limit));
// apply work factor minimum limit
if( ramp_fact < WORK_SCALE_MINIMUM_FRACTION ){
ramp_fact = WORK_SCALE_MINIMUM_FRACTION;
}
return ramp_fact;
}
void fabrik_t::arrival_statistics_t::init()
{
for( uint32 s=0; s<SLOT_COUNT; ++s ) {
slots[s] = 0;
}
current_slot = 0;
active_slots = 0;
aggregate_arrival = 0;
scaled_demand = 0;
}
void fabrik_t::arrival_statistics_t::rdwr(loadsave_t *file)
{
if( file->get_version()>=110005 ) {
if( file->is_loading() ) {
aggregate_arrival = 0;
for( uint32 s=0; s<SLOT_COUNT; ++s ) {
file->rdwr_short( slots[s] );
aggregate_arrival += slots[s];
}
scaled_demand = 0;
}
else {
for( uint32 s=0; s<SLOT_COUNT; ++s ) {
file->rdwr_short( slots[s] );
}
}
file->rdwr_short( current_slot );
file->rdwr_short( active_slots );
}
else if( file->is_loading() ) {
init();
}
}
sint32 fabrik_t::arrival_statistics_t::advance_slot()
{
sint32 result = 0;
// advance to the next slot
++current_slot;
if( current_slot>=SLOT_COUNT ) {
current_slot = 0;
}
// handle expiration of past arrivals and reset slot to 0
if( slots[current_slot]>0 ) {
aggregate_arrival -= slots[current_slot];
slots[current_slot] = 0;
if( aggregate_arrival==0 ) {
// reset slot count to 0 as all previous arrivals have expired
active_slots = 0;
}
result |= ARRIVALS_CHANGED;
}
// count the number of slots covered since aggregate arrival last increased from 0 to +ve
if( active_slots>0 && active_slots<SLOT_COUNT ) {
++active_slots;
result |= ACTIVE_SLOTS_INCREASED;
}
return result;
}
void fabrik_t::arrival_statistics_t::book_arrival(const uint16 amount)
{
if( aggregate_arrival==0 ) {
// new arrival after complete inactivity -> start counting slots
active_slots = 1;
}
// increment current slot and aggregate arrival
slots[current_slot] += amount;
aggregate_arrival += amount;
}
void fabrik_t::update_transit( const ware_t *ware, bool add )
{
if( ware->index > goods_manager_t::INDEX_NONE ) {
// only for freights
fabrik_t *fab = get_fab( ware->get_zielpos() );
if( fab ) {
fab->update_transit_intern( ware, add );
}
}
}
void fabrik_t::apply_transit( const ware_t *ware )
{
if( ware->index > goods_manager_t::INDEX_NONE ) {
// only for freights
fabrik_t *fab = get_fab( ware->get_zielpos() );
if( fab ) {
for( uint32 input = 0; input < fab->input.get_count(); input++ ){
ware_production_t& w = fab->input[input];
if( w.get_typ()->get_index() == ware->index ) {
// It is now in transit.
w.book_stat((sint64)ware->menge, FAB_GOODS_TRANSIT );
// If using JIT2, must decrement demand buffers, activating if required.
if( welt->get_settings().get_just_in_time() >= 2 ){
const uint32 prod_factor = fab->desc->get_supplier(input)->get_consumption();
const sint32 prod_delta = (sint32)((((sint64)(ware->menge) << (DEFAULT_PRODUCTION_FACTOR_BITS + precision_bits)) + (sint64)(prod_factor - 1)) / (sint64)prod_factor);
const sint32 demand = w.demand_buffer;
w.demand_buffer -= prod_delta;
if( demand >= w.max && w.demand_buffer < w.max ) {
fab->inactive_demands --;
}
}
// ours is on its way, no need to handle the other
return;
}
}
}
}
}
// just for simplicity ...
void fabrik_t::update_transit_intern( const ware_t *ware, bool add )
{
FOR( array_tpl<ware_production_t>, &w, input ) {
if( w.get_typ()->get_index() == ware->index ) {
w.book_stat(add ? (sint64)ware->menge : -(sint64)ware->menge, FAB_GOODS_TRANSIT );
return;
}
}
}
void fabrik_t::init_stats()
{
for( int m=0; m<MAX_MONTH; ++m ) {
for( int s=0; s<MAX_FAB_STAT; ++s ) {
statistics[m][s] = 0;
}
}
weighted_sum_production = 0;
weighted_sum_boost_electric = 0;
weighted_sum_boost_pax = 0;
weighted_sum_boost_mail = 0;
weighted_sum_power = 0;
aggregate_weight = 0;
}
void fabrik_t::book_weighted_sums(sint64 delta_time)
{
aggregate_weight += delta_time;
// storage level of input/output stores
for( uint32 in = 0; in < input.get_count(); in++ ){
input[in].book_weighted_sum_storage(desc->get_supplier(in)->get_consumption(), delta_time);
}
for( uint32 out = 0; out < output.get_count(); out++ ){
output[out].book_weighted_sum_storage(desc->get_product(out)->get_factor(), delta_time);
}
// production level
const sint32 current_prod = get_current_production();
weighted_sum_production += current_prod * delta_time;
set_stat( current_prod, FAB_PRODUCTION );
// electricity, pax and mail boosts
weighted_sum_boost_electric += prodfactor_electric * delta_time;
set_stat( prodfactor_electric, FAB_BOOST_ELECTRIC );
weighted_sum_boost_pax += prodfactor_pax * delta_time;
weighted_sum_boost_mail += prodfactor_mail * delta_time;
// power produced or consumed
sint64 power;
if( desc->is_electricity_producer() ) {
power = ((sint64)get_power_supply() * (sint64)get_power_consumption()) >> leitung_t::FRACTION_PRECISION;
}
else {
power = -(((sint64)get_power_demand() * (sint64)get_power_satisfaction() + (((sint64)1 << leitung_t::FRACTION_PRECISION) - 1)) >> leitung_t::FRACTION_PRECISION);
}
weighted_sum_power += power * delta_time;
set_stat( power, FAB_POWER );
}
void fabrik_t::update_scaled_electric_demand()
{
if( desc->get_electric_demand()==65535 ) {
// demand not specified in pak, use old fixed demands
scaled_electric_demand = prodbase * PRODUCTION_DELTA_T;
if( desc->is_electricity_producer() ) {
scaled_electric_demand *= 4;
}
return;
}
const sint64 prod = desc->get_productivity();
scaled_electric_demand = (uint32)( (( (sint64)(desc->get_electric_demand()) * (sint64)prodbase + (prod >> 1) ) / prod) << POWER_TO_MW );
if( scaled_electric_demand == 0 ) {
prodfactor_electric = 0;
}
}
void fabrik_t::update_scaled_pax_demand()
{
// first, scaling based on current production base
const sint64 prod = desc->get_productivity();
const sint64 desc_pax_demand = ( desc->get_pax_demand()==65535 ? desc->get_pax_level() : desc->get_pax_demand() );
// formula : desc_pax_demand * (current_production_base / desc_production_base); (prod >> 1) is for rounding
const uint32 pax_demand = (uint32)( ( desc_pax_demand * (sint64)prodbase + (prod >> 1) ) / prod );
// then, scaling based on month length
scaled_pax_demand = (uint32)welt->scale_with_month_length(pax_demand);
if( scaled_pax_demand == 0 && desc_pax_demand > 0 ) {
scaled_pax_demand = 1; // since desc pax demand > 0 -> ensure no less than 1
}
// pax demand for fixed period length
arrival_stats_pax.set_scaled_demand( pax_demand );
}
void fabrik_t::update_scaled_mail_demand()
{
// first, scaling based on current production base
const sint64 prod = desc->get_productivity();
const sint64 desc_mail_demand = ( desc->get_mail_demand()==65535 ? (desc->get_pax_level()>>2) : desc->get_mail_demand() );
// formula : desc_mail_demand * (current_production_base / desc_production_base); (prod >> 1) is for rounding
const uint32 mail_demand = (uint32)( ( desc_mail_demand * (sint64)prodbase + (prod >> 1) ) / prod );
// then, scaling based on month length
scaled_mail_demand = (uint32)welt->scale_with_month_length(mail_demand);
if( scaled_mail_demand == 0 && desc_mail_demand > 0 ) {
scaled_mail_demand = 1; // since desc mail demand > 0 -> ensure no less than 1
}
// mail demand for fixed period length
arrival_stats_mail.set_scaled_demand( mail_demand );
}
void fabrik_t::update_prodfactor_pax()
{
// calculate pax boost based on arrival data and demand of the fixed-length period
const uint32 periods = welt->get_settings().get_factory_arrival_periods();
const uint32 slots = arrival_stats_pax.get_active_slots();
const uint32 pax_demand = ( periods==1 || slots*periods<=(uint32)SLOT_COUNT ?
arrival_stats_pax.get_scaled_demand() :
( slots==(uint32)SLOT_COUNT ?
arrival_stats_pax.get_scaled_demand() * periods :
(arrival_stats_pax.get_scaled_demand() * periods * slots) >> SLOT_BITS ) );
const uint32 pax_arrived = arrival_stats_pax.get_aggregate_arrival();
if( pax_demand==0 || pax_arrived==0 || desc->get_pax_boost()==0 ) {
prodfactor_pax = 0;
}
else if( pax_arrived>=pax_demand ) {
// maximum boost
prodfactor_pax = desc->get_pax_boost();
}
else {
// pro-rata boost : (pax_arrived / pax_demand) * desc_pax_boost; (pax_demand >> 1) is for rounding
prodfactor_pax = (sint32)( ( (sint64)pax_arrived * (sint64)(desc->get_pax_boost()) + (sint64)(pax_demand >> 1) ) / (sint64)pax_demand );
}
set_stat(prodfactor_pax, FAB_BOOST_PAX);
}
void fabrik_t::update_prodfactor_mail()
{
// calculate mail boost based on arrival data and demand of the fixed-length period
const uint32 periods = welt->get_settings().get_factory_arrival_periods();
const uint32 slots = arrival_stats_mail.get_active_slots();
const uint32 mail_demand = ( periods==1 || slots*periods<=(uint32)SLOT_COUNT ?
arrival_stats_mail.get_scaled_demand() :
( slots==(uint32)SLOT_COUNT ?
arrival_stats_mail.get_scaled_demand() * periods :
(arrival_stats_mail.get_scaled_demand() * periods * slots) >> SLOT_BITS ) );
const uint32 mail_arrived = arrival_stats_mail.get_aggregate_arrival();
if( mail_demand==0 || mail_arrived==0 || desc->get_mail_boost()==0 ) {
prodfactor_mail = 0;
}
else if( mail_arrived>=mail_demand ) {
// maximum boost
prodfactor_mail = desc->get_mail_boost();
}
else {
// pro-rata boost : (mail_arrived / mail_demand) * desc_mail_boost; (mail_demand >> 1) is for rounding
prodfactor_mail = (sint32)( ( (sint64)mail_arrived * (sint64)(desc->get_mail_boost()) + (sint64)(mail_demand >> 1) ) / (sint64)mail_demand );
}
set_stat(prodfactor_mail, FAB_BOOST_MAIL);
}
void fabrik_t::recalc_demands_at_target_cities()
{
if (!welt->get_settings().get_factory_enforce_demand()) {
// demand not enforced -> no splitting of demands
FOR(vector_tpl<stadt_t*>, const c, target_cities) {
c->access_target_factories_for_pax().update_factory( this, scaled_pax_demand << DEMAND_BITS);
c->access_target_factories_for_mail().update_factory(this, scaled_mail_demand << DEMAND_BITS);
}
return;
}
if (target_cities.empty()) {
// nothing to do
return;
}
else if( target_cities.get_count()==1 ) {
// only 1 target city -> no need to apportion pax/mail demand
target_cities[0]->access_target_factories_for_pax().update_factory(this, (scaled_pax_demand << DEMAND_BITS));
target_cities[0]->access_target_factories_for_mail().update_factory(this, (scaled_mail_demand << DEMAND_BITS));
}
else {
// more than 1 target cities -> need to apportion pax/mail demand among the cities
static vector_tpl<uint32> weights(8);
weights.clear();
uint32 sum_of_weights = 0;
// first, calculate the weights
for( uint32 c=0; c<target_cities.get_count(); ++c ) {
weights.append( weight_by_distance( target_cities[c]->get_einwohner(), shortest_distance( get_pos().get_2d(), target_cities[c]->get_center() ) ) );
sum_of_weights += weights[c];
}
// finally, apportion the pax/mail demand; formula : demand * (city_weight / aggregate_city_weight); (sum_of_weights >> 1) is for rounding
for( uint32 c=0; c<target_cities.get_count(); ++c ) {
const uint32 pax_amount = (uint32)(( (sint64)(scaled_pax_demand << DEMAND_BITS) * (sint64)weights[c] + (sint64)(sum_of_weights >> 1) ) / (sint64)sum_of_weights);
target_cities[c]->access_target_factories_for_pax().update_factory(this, pax_amount);
const uint32 mail_amount = (uint32)(( (sint64)(scaled_mail_demand << DEMAND_BITS) * (sint64)weights[c] + (sint64)(sum_of_weights >> 1) ) / (sint64)sum_of_weights);
target_cities[c]->access_target_factories_for_mail().update_factory(this, mail_amount);
}
}
}
void fabrik_t::recalc_storage_capacities()
{
if( desc->get_field_group() ) {
// with fields -> calculate based on capacities contributed by fields
const uint32 ware_types = input.get_count() + output.get_count();
if( ware_types>0 ) {
// calculate total storage capacity contributed by fields
const field_group_desc_t *const field_group = desc->get_field_group();
sint32 field_capacities = 0;
FOR(vector_tpl<field_data_t>, const& f, fields) {
field_capacities += field_group->get_field_class(f.field_class_index)->get_storage_capacity();
}
const sint32 share = (sint32)( ( (sint64)field_capacities << precision_bits ) / (sint64)ware_types );
// first, for input goods
FOR(array_tpl<ware_production_t>, & g, input) {
for( int b=0; b<desc->get_supplier_count(); ++b ) {
const factory_supplier_desc_t *const input = desc->get_supplier(b);
if (g.get_typ() == input->get_input_type()) {
// Inputs are now normalized to factory production.
uint32 prod_factor = input->get_consumption();
g.max = (sint32)((((sint64)((input->get_capacity() << precision_bits) + share) << DEFAULT_PRODUCTION_FACTOR_BITS) + (sint64)(prod_factor - 1)) / (sint64)prod_factor);
}
}
}
// then, for output goods
FOR(array_tpl<ware_production_t>, & g, output) {
for( uint b=0; b<desc->get_product_count(); ++b ) {
const factory_product_desc_t *const output = desc->get_product(b);
if (g.get_typ() == output->get_output_type()) {
// Outputs are now normalized to factory production.
uint32 prod_factor = output->get_factor();
g.max = (sint32)((((sint64)((output->get_capacity() << precision_bits) + share) << DEFAULT_PRODUCTION_FACTOR_BITS) + (sint64)(prod_factor - 1)) / (sint64)prod_factor);
}
}
}
}
}
else {
// without fields -> scaling based on prodbase
// first, for input goods
FOR(array_tpl<ware_production_t>, & g, input) {
for( int b=0; b<desc->get_supplier_count(); ++b ) {
const factory_supplier_desc_t *const input = desc->get_supplier(b);
if (g.get_typ() == input->get_input_type()) {
// Inputs are now normalized to factory production.
uint32 prod_factor = input->get_consumption();
g.max = (sint32)(((((sint64)input->get_capacity() * (sint64)prodbase) << (precision_bits + DEFAULT_PRODUCTION_FACTOR_BITS)) + (sint64)(prod_factor - 1)) / ((sint64)desc->get_productivity() * (sint64)prod_factor));
}
}
}
// then, for output goods
FOR(array_tpl<ware_production_t>, & g, output) {
for( uint b=0; b<desc->get_product_count(); ++b ) {
const factory_product_desc_t *const output = desc->get_product(b);
if (g.get_typ() == output->get_output_type()) {
// Outputs are now normalized to factory production.
uint32 prod_factor = output->get_factor();
g.max = (sint32)(((((sint64)output->get_capacity() * (sint64)prodbase) << (precision_bits + DEFAULT_PRODUCTION_FACTOR_BITS)) + (sint64)(prod_factor - 1)) / ((sint64)desc->get_productivity() * (sint64)prod_factor));
}
}
}
}
// Now that the maximum is known, work out the recommended shipment size for outputs in normalized units.
for( uint32 out = 0; out < output.get_count(); out++ ){
const uint32 prod_factor = desc->get_product(out)->get_factor();
// Determine the maximum number of whole units the out can store.
const uint32 unit_size = (uint32)(((sint64)output[out].max * (sint64)prod_factor) >> ( precision_bits + DEFAULT_PRODUCTION_FACTOR_BITS ));
// Determine the number of units to ship. Prefer 10 units although in future a more dynamic choice may be appropiate.
uint32 shipment_size;
// Maximum shipment size.
if( unit_size >= SHIPMENT_MAX_SIZE * SHIPMENT_NUM_MIN ) {
shipment_size = SHIPMENT_MAX_SIZE;
}
// Dynamic shipment size.
else if( unit_size > SHIPMENT_NUM_MIN ) {
shipment_size = unit_size / SHIPMENT_NUM_MIN;
}
// Minimum shipment size.
else {
shipment_size = 1;
}
// Now convert it into the prefered shipment size. Always round up to prevent "off by 1" error.
output[out].min_shipment = (sint32)((((sint64)shipment_size << (precision_bits + DEFAULT_PRODUCTION_FACTOR_BITS)) + (sint64)(prod_factor - 1)) / (sint64)prod_factor);
}
}
void fabrik_t::add_target_city(stadt_t *const city)
{
if( target_cities.append_unique(city) ) {
recalc_demands_at_target_cities();
}
}
void fabrik_t::remove_target_city(stadt_t *const city)
{
if( target_cities.is_contained(city) ) {
target_cities.remove(city);
city->access_target_factories_for_pax().remove_factory(this);
city->access_target_factories_for_mail().remove_factory(this);
recalc_demands_at_target_cities();
}
}
void fabrik_t::clear_target_cities()
{
FOR(vector_tpl<stadt_t*>, const c, target_cities) {
c->access_target_factories_for_pax().remove_factory(this);
c->access_target_factories_for_mail().remove_factory(this);
}
target_cities.clear();
}
void fabrik_t::set_base_production(sint32 p)
{
prodbase = p;
recalc_storage_capacities();
update_scaled_electric_demand();
update_scaled_pax_demand();
update_scaled_mail_demand();
update_prodfactor_pax();
update_prodfactor_mail();
recalc_demands_at_target_cities();
}
fabrik_t *fabrik_t::get_fab(const koord &pos)
{
const grund_t *gr = welt->lookup_kartenboden(pos);
if(gr) {
gebaeude_t *gb = gr->find<gebaeude_t>();
if(gb) {
return gb->get_fabrik();
}
}
return NULL;
}
void fabrik_t::link_halt(halthandle_t halt)
{
welt->access(pos.get_2d())->add_to_haltlist(halt);
}
void fabrik_t::unlink_halt(halthandle_t halt)
{
planquadrat_t *plan=welt->access(pos.get_2d());
if(plan) {
plan->remove_from_haltlist(halt);
}
}
void fabrik_t::add_lieferziel(koord ziel)
{
if( !lieferziele.is_contained(ziel) ) {
lieferziele.insert_ordered( ziel, RelativeDistanceOrdering(pos.get_2d()) );
// now tell factory too
fabrik_t * fab = fabrik_t::get_fab(ziel);
if (fab) {
fab->add_supplier(get_pos().get_2d());
}
}
}
void fabrik_t::rem_lieferziel(koord ziel)
{
lieferziele.remove(ziel);
}
fabrik_t::fabrik_t(loadsave_t* file)
{
owner = NULL;
prodfactor_electric = 0;
lieferziele_active_last_month = 0;
pos = koord3d::invalid;
rdwr(file);
if( desc == NULL ) {
dbg->warning( "fabrik_t::fabrik_t()", "No pak-file for factory at (%s) - will not be built!", pos_origin.get_str() );
return;
}
else if( !welt->is_within_limits(pos_origin.get_2d()) ) {
dbg->warning( "fabrik_t::fabrik_t()", "%s is not a valid position! (Will not be built!)", pos_origin.get_str() );
desc = NULL; // to get rid of this broken factory later...
}
else {
build(rotate, false, false);
// now get rid of construction image
for( sint16 y=0; y<desc->get_building()->get_y(rotate); y++ ) {
for( sint16 x=0; x<desc->get_building()->get_x(rotate); x++ ) {
gebaeude_t *gb = welt->lookup_kartenboden( pos_origin.get_2d()+koord(x,y) )->find<gebaeude_t>();
if( gb ) {
gb->add_alter(10000);
}
}
}
}
delta_sum = 0;
delta_menge = 0;
menge_remainder = 0;
total_input = total_transit = total_output = 0;
status = nothing;
currently_producing = false;
transformer = NULL;
last_sound_ms = welt->get_ticks();
}
fabrik_t::fabrik_t(koord3d pos_, player_t* owner, const factory_desc_t* factory_desc, sint32 initial_prod_base) :
desc(factory_desc),
pos(pos_)
{
this->pos.z = welt->max_hgt(pos.get_2d());
pos_origin = pos;
this->owner = owner;
prodfactor_electric = 0;
prodfactor_pax = 0;
prodfactor_mail = 0;
if (initial_prod_base < 0) {
prodbase = desc->get_productivity() + simrand(desc->get_range());
}
else {
prodbase = initial_prod_base;
}
delta_sum = 0;
delta_menge = 0;
menge_remainder = 0;
activity_count = 0;
currently_producing = false;
transformer = NULL;
total_input = total_transit = total_output = 0;
status = nothing;
lieferziele_active_last_month = 0;
// create input information
input.resize( factory_desc->get_supplier_count() );
for( int g=0; g<factory_desc->get_supplier_count(); ++g ) {
const factory_supplier_desc_t *const supp = factory_desc->get_supplier(g);
input[g].set_typ( supp->get_input_type() );
}
// create output information
output.resize( factory_desc->get_product_count() );
for( uint g=0; g<factory_desc->get_product_count(); ++g ) {
const factory_product_desc_t *const product = factory_desc->get_product(g);
output[g].set_typ( product->get_output_type() );
}
recalc_storage_capacities();
if( welt->get_settings().get_just_in_time() >= 2 ){
inactive_inputs = inactive_outputs = inactive_demands = 0;
if( input.empty() ){
// All sources start out with maximum product.
for( uint32 out = 0; out < output.get_count(); out++ ){
output[out].menge = output[out].max;
inactive_outputs ++;
}
}
else {
for( uint32 out = 0; out < output.get_count(); out++ ){
output[out].menge = 0;
}
// A consumer of sorts so output and input starts out empty but with a full demand buffer.
for( uint32 in = 0; in < input.get_count(); in++ ){
input[in].menge = 0;
input[in].demand_buffer = input[in].max;
inactive_inputs++;
inactive_demands++;
}
}
}
else {
if( input.empty() ) {
FOR( array_tpl<ware_production_t>, & g, output ) {
if( g.max > 0 ) {
// if source then start with full storage, so that AI will build line(s) immediately
g.menge = g.max - 1;
}
}
}
}
last_sound_ms = welt->get_ticks();
init_stats();
arrival_stats_pax.init();
arrival_stats_mail.init();
delta_slot = 0;
times_expanded = 0;
update_scaled_electric_demand();
update_scaled_pax_demand();
update_scaled_mail_demand();
}
fabrik_t::~fabrik_t()
{
while(!fields.empty()) {
planquadrat_t *plan = welt->access( fields.back().location );
// if destructor is called when world is destroyed, plan is already invalid
if (plan) {
grund_t *gr = plan->get_kartenboden();
if (field_t* f = gr->find<field_t>()) {
delete f; // implicitly removes the field from fields
plan->boden_ersetzen( gr, new boden_t(gr->get_pos(), slope_t::flat ) );
plan->get_kartenboden()->calc_image();
continue;
}
}
fields.pop_back();
}
// destroy chart window, if present
destroy_win((ptrdiff_t)this);
}
void fabrik_t::build(sint32 rotate, bool build_fields, bool force_initial_prodbase)
{
this->rotate = rotate;
pos_origin = welt->lookup_kartenboden(pos_origin.get_2d())->get_pos();
gebaeude_t *gb = hausbauer_t::build(owner, pos_origin, rotate, desc->get_building(), this);
pos = gb->get_pos();
pos_origin.z = pos.z;
if(desc->get_field_group()) {
// if there are fields
if( !fields.empty() ) {
for( uint16 i=0; i<fields.get_count(); i++ ) {
const koord k = fields[i].location;
grund_t *gr=welt->lookup_kartenboden(k);
if( gr->ist_natur() ) {
// first make foundation below
grund_t *gr2 = new fundament_t(gr->get_pos(), gr->get_grund_hang());
welt->access(k)->boden_ersetzen(gr, gr2);
gr2->obj_add( new field_t(gr2->get_pos(), owner, desc->get_field_group()->get_field_class( fields[i].field_class_index ), this ) );
}
else {
// there was already a building at this position => do not restore!
fields.remove_at(i);
i--;
}
}
}
else if( build_fields ) {
// make sure not to exceed initial prodbase too much
sint32 org_prodbase = prodbase;
// we will start with a minimum number and try to get closer to start_fields
const uint16 spawn_fields = desc->get_field_group()->get_min_fields() + simrand( desc->get_field_group()->get_start_fields()-desc->get_field_group()->get_min_fields() );
while( fields.get_count() < spawn_fields && add_random_field(10000u) ) {
if (fields.get_count() > desc->get_field_group()->get_min_fields() && prodbase >= 2*org_prodbase) {
// too much productivity, no more fields needed
break;
}
}
sint32 field_prod = prodbase - org_prodbase;
// adjust prodbase
if (force_initial_prodbase) {
set_base_production( max(field_prod, org_prodbase) );
}
}
}
else {
fields.clear();
}
/// Determine control logic
if( welt->get_settings().get_just_in_time() >= 2 ) {
// Does it both consume and produce?
if( !output.empty() && !input.empty() ) {
control_type = CL_FACT_MANY;
}
// Does it produce?
else if( !output.empty() ) {
control_type = CL_PROD_MANY;
}
// Does it consume?
else if( !input.empty() ) {
control_type = CL_CONS_MANY;
}
// No I/O?
else {
control_type = desc->is_electricity_producer() ? CL_ELEC_PROD : CL_NONE;
}
}
else{
// Classic logic.
if( !output.empty() && !input.empty() ) {
control_type = CL_FACT_CLASSIC;
}
else if( !output.empty() ) {
control_type = CL_PROD_CLASSIC;
}
else if( !input.empty() ) {
control_type = CL_CONS_CLASSIC;
}
else {
control_type = CL_ELEC_CLASSIC;
}
}
// Boost logic determines what factors boost factory production.
if( welt->get_settings().get_just_in_time() >= 2 ) {
if( !desc->is_electricity_producer() && desc->get_electric_demand() > 0 ) {
boost_type = BL_POWER;
}
else if( desc->get_pax_demand() || desc->get_mail_demand() ) {
boost_type = BL_PAXM;
}
else {
boost_type = BL_NONE;
}
}
else {
boost_type = BL_CLASSIC;
}
if( welt->get_settings().get_just_in_time() >= 2 ) {
if( input.empty() ) {
demand_type = DL_NONE;
}
else if( output.empty() ) {
demand_type = DL_ASYNC;
}
else {
demand_type = DL_SYNC;
}