Files
Bubberstation/code/modules/atmospherics/environmental/LINDA_turf_tile.dm

449 lines
14 KiB
Plaintext

/turf
var/pressure_difference = 0
var/pressure_direction = 0
var/list/atmos_adjacent_turfs = list()
var/atmos_supeconductivity = 0
/turf/assume_air(datum/gas_mixture/giver) //use this for machines to adjust air
qdel(giver)
return 0
/turf/return_air()
//Create gas mixture to hold data for passing
var/datum/gas_mixture/GM = new
GM.copy_from_turf(src)
return GM
/turf/remove_air(amount)
var/datum/gas_mixture/GM = return_air()
GM.remove(amount)
return GM
/turf/simulated
var/datum/excited_group/excited_group
var/excited = 0
var/recently_active = 0
var/datum/gas_mixture/air
var/archived_cycle = 0
var/current_cycle = 0
var/obj/effect/hotspot/active_hotspot
var/temperature_archived //USED ONLY FOR SOLIDS
var/atmos_overlay_types = list() //gas IDs of current active overlays
/turf/simulated/New()
..()
levelupdate()
if(smooth)
smooth_icon(src)
visibilityChanged()
if(!blocks_air)
air = new
air.copy_from_turf(src)
/turf/simulated/Destroy()
visibilityChanged()
if(active_hotspot)
qdel(active_hotspot)
return ..()
/turf/simulated/assume_air(datum/gas_mixture/giver)
if(!giver)
return 0
var/datum/gas_mixture/receiver = air
if(istype(receiver))
air.merge(giver)
update_visuals()
return 1
else return ..()
/turf/simulated/proc/copy_air_with_tile(turf/simulated/T)
if(istype(T) && T.air && air)
air.copy_from(T.air)
/turf/simulated/proc/copy_air(datum/gas_mixture/copy)
if(air && copy)
air.copy_from(copy)
/turf/simulated/return_air()
if(air)
return air
else
return ..()
/turf/simulated/remove_air(amount as num)
if(air)
var/datum/gas_mixture/removed = null
removed = air.remove(amount)
update_visuals()
return removed
else
return ..()
/turf/simulated/proc/mimic_temperature_solid(turf/model, conduction_coefficient)
var/delta_temperature = (temperature_archived - model.temperature)
if((heat_capacity > 0) && (abs(delta_temperature) > MINIMUM_TEMPERATURE_DELTA_TO_CONSIDER))
var/heat = conduction_coefficient*delta_temperature* \
(heat_capacity*model.heat_capacity/(heat_capacity+model.heat_capacity))
temperature -= heat/heat_capacity
/turf/simulated/proc/share_temperature_mutual_solid(turf/simulated/sharer, conduction_coefficient)
var/delta_temperature = (temperature_archived - sharer.temperature_archived)
if(abs(delta_temperature) > MINIMUM_TEMPERATURE_DELTA_TO_CONSIDER && heat_capacity && sharer.heat_capacity)
var/heat = conduction_coefficient*delta_temperature* \
(heat_capacity*sharer.heat_capacity/(heat_capacity+sharer.heat_capacity))
temperature -= heat/heat_capacity
sharer.temperature += heat/sharer.heat_capacity
/turf/simulated/proc/process_cell(fire_count)
if(archived_cycle < fire_count) //archive self if not already done
archive()
current_cycle = fire_count
var/remove = 1 //set by non simulated turfs who are sharing with this turf
//cache for sanic speed
var/list/adjacent_turfs = atmos_adjacent_turfs
var/datum/excited_group/our_excited_group = excited_group
var/adjacent_turfs_length = adjacent_turfs.len
for(var/t in adjacent_turfs)
var/turf/enemy_tile = t
if(istype(enemy_tile,/turf/simulated))
var/turf/simulated/enemy_simulated = enemy_tile
if(fire_count > enemy_simulated.current_cycle)
enemy_simulated.archive()
/******************* GROUP HANDLING START *****************************************************************/
if(enemy_simulated.excited)
//cache for sanic speed
var/datum/excited_group/enemy_excited_group = enemy_simulated.excited_group
if(our_excited_group)
if(enemy_excited_group)
if(our_excited_group != enemy_excited_group)
//combine groups (this also handles updating the excited_group var of all involved turfs)
our_excited_group.merge_groups(enemy_excited_group)
our_excited_group = excited_group //update our cache
share_air(enemy_simulated, fire_count, adjacent_turfs_length) //share
else
if((recently_active == 1 && enemy_simulated.recently_active == 1) || air.compare(enemy_simulated.air))
our_excited_group.add_turf(enemy_simulated) //add enemy to our group
share_air(enemy_simulated, fire_count, adjacent_turfs_length) //share
else
if(enemy_excited_group)
if((recently_active == 1 && enemy_simulated.recently_active == 1) || air.compare(enemy_simulated.air))
enemy_excited_group.add_turf(src) //join self to enemy group
our_excited_group = excited_group //update our cache
share_air(enemy_simulated, fire_count, adjacent_turfs_length) //share
else
if((recently_active == 1 && enemy_simulated.recently_active == 1) || air.compare(enemy_simulated.air))
var/datum/excited_group/EG = new //generate new group
EG.add_turf(src)
EG.add_turf(enemy_simulated)
our_excited_group = excited_group //update our cache
share_air(enemy_simulated, fire_count, adjacent_turfs_length) //share
else
if(air.compare(enemy_simulated.air)) //compare if
SSair.add_to_active(enemy_simulated) //excite enemy
if(our_excited_group)
excited_group.add_turf(enemy_simulated) //add enemy to group
else
var/datum/excited_group/EG = new //generate new group
EG.add_turf(src)
EG.add_turf(enemy_simulated)
our_excited_group = excited_group //update our cache
share_air(enemy_simulated, fire_count, adjacent_turfs_length) //share
/******************* GROUP HANDLING FINISH *********************************************************************/
else
if(air.check_turf(enemy_tile, adjacent_turfs_length))
var/difference = air.mimic(enemy_tile, adjacent_turfs_length)
if(difference)
if(difference > 0)
consider_pressure_difference(enemy_tile, difference)
else
enemy_tile.consider_pressure_difference(src, -difference)
remove = 0
if(our_excited_group)
last_share_check()
air.react()
update_visuals()
if(air.temperature > FIRE_MINIMUM_TEMPERATURE_TO_EXIST)
hotspot_expose(air.temperature, CELL_VOLUME)
for(var/atom/movable/item in src)
item.temperature_expose(air, air.temperature, CELL_VOLUME)
temperature_expose(air, air.temperature, CELL_VOLUME)
if(air.temperature > MINIMUM_TEMPERATURE_START_SUPERCONDUCTION)
if(consider_superconductivity(starting = 1))
remove = 0
if(!our_excited_group && remove == 1)
SSair.remove_from_active(src)
/turf/simulated/temperature_expose()
if(temperature > heat_capacity)
to_be_destroyed = 1
/turf/simulated/proc/archive()
if(air) //For open space like floors
air.archive()
temperature_archived = temperature
archived_cycle = SSair.times_fired
/turf/simulated/proc/update_visuals()
var/list/new_overlay_types = tile_graphic()
for(var/overlay in atmos_overlay_types-new_overlay_types) //doesn't remove overlays that would only be added
overlays -= overlay
atmos_overlay_types -= overlay
for(var/overlay in new_overlay_types-atmos_overlay_types) //doesn't add overlays that already exist
overlays += overlay
atmos_overlay_types = new_overlay_types
/turf/simulated/proc/tile_graphic()
. = new /list
var/list/gases = air.gases
for(var/id in gases)
var/gas = gases[id]
if(gas[GAS_META][META_GAS_OVERLAY] && gas[MOLES] > gas[GAS_META][META_GAS_MOLES_VISIBLE])
. += gas[GAS_META][META_GAS_OVERLAY]
/turf/simulated/proc/share_air(turf/simulated/T, fire_count, adjacent_turfs_length)
if(T.current_cycle < fire_count)
var/difference
difference = air.share(T.air, adjacent_turfs_length)
if(difference)
if(difference > 0)
consider_pressure_difference(T, difference)
else
T.consider_pressure_difference(src, -difference)
last_share_check()
/turf/proc/consider_pressure_difference(turf/simulated/T, difference)
SSair.high_pressure_delta |= src
if(difference > pressure_difference)
pressure_direction = get_dir(src, T)
pressure_difference = difference
/turf/simulated/proc/last_share_check()
if(air.last_share > MINIMUM_AIR_TO_SUSPEND)
excited_group.reset_cooldowns()
/turf/proc/high_pressure_movements()
for(var/atom/movable/M in src)
M.experience_pressure_difference(pressure_difference, pressure_direction)
/atom/movable/var/pressure_resistance = 5
/atom/movable/var/last_high_pressure_movement_air_cycle = 0
/atom/movable/proc/experience_pressure_difference(pressure_difference, direction)
set waitfor = 0
. = 0
if(!anchored && !pulledby)
. = 1
if(pressure_difference > pressure_resistance && last_high_pressure_movement_air_cycle < SSair.times_fired)
last_high_pressure_movement_air_cycle = SSair.times_fired
step(src, direction)
/datum/excited_group
var/list/turf_list = list()
var/breakdown_cooldown = 0
/datum/excited_group/New()
SSair.excited_groups += src
/datum/excited_group/proc/add_turf(turf/simulated/T)
turf_list += T
T.excited_group = src
T.recently_active = 1
reset_cooldowns()
/datum/excited_group/proc/merge_groups(datum/excited_group/E)
if(turf_list.len > E.turf_list.len)
SSair.excited_groups -= E
for(var/turf/simulated/T in E.turf_list)
T.excited_group = src
turf_list += T
reset_cooldowns()
else
SSair.excited_groups -= src
for(var/turf/simulated/T in turf_list)
T.excited_group = E
E.turf_list += T
E.reset_cooldowns()
/datum/excited_group/proc/reset_cooldowns()
breakdown_cooldown = 0
/datum/excited_group/proc/self_breakdown()
var/datum/gas_mixture/A = new
var/list/A_gases = A.gases
for(var/turf/simulated/T in turf_list)
A.merge(T.air)
for(var/turf/simulated/T in turf_list)
var/T_gases = T.air.gases
for(var/id in T_gases)
T_gases[id][MOLES] = A_gases[id][MOLES]/turf_list.len
T.update_visuals()
/datum/excited_group/proc/dismantle()
for(var/turf/simulated/T in turf_list)
T.excited = 0
T.recently_active = 0
T.excited_group = null
SSair.active_turfs -= T
garbage_collect()
/datum/excited_group/proc/garbage_collect()
for(var/turf/simulated/T in turf_list)
T.excited_group = null
turf_list.Cut()
SSair.excited_groups -= src
/turf/simulated/proc/super_conduct()
var/conductivity_directions = 0
if(blocks_air)
//Does not participate in air exchange, so will conduct heat across all four borders at this time
conductivity_directions = NORTH|SOUTH|EAST|WEST
if(archived_cycle < SSair.times_fired)
archive()
else
//Does particate in air exchange so only consider directions not considered during process_cell()
for(var/direction in cardinal)
var/turf/T = get_step(src, direction)
if(!(T in atmos_adjacent_turfs) && !(atmos_supeconductivity & direction))
conductivity_directions += direction
if(conductivity_directions>0)
//Conduct with tiles around me
for(var/direction in cardinal)
if(conductivity_directions & direction)
var/turf/neighbor = get_step(src,direction)
if(!neighbor.thermal_conductivity)
continue
if(istype(neighbor, /turf/simulated)) //anything under this subtype will share in the exchange
var/turf/simulated/T = neighbor
if(T.archived_cycle < SSair.times_fired)
T.archive()
if(T.air)
if(air) //Both tiles are open
air.temperature_share(T.air, WINDOW_HEAT_TRANSFER_COEFFICIENT)
else //Solid but neighbor is open
T.air.temperature_turf_share(src, T.thermal_conductivity)
SSair.add_to_active(T, 0)
else
if(air) //Open but neighbor is solid
air.temperature_turf_share(T, T.thermal_conductivity)
else //Both tiles are solid
share_temperature_mutual_solid(T, T.thermal_conductivity)
T.temperature_expose(null, T.temperature, null)
T.consider_superconductivity()
else
if(air) //Open
air.temperature_mimic(neighbor, neighbor.thermal_conductivity)
else
mimic_temperature_solid(neighbor, neighbor.thermal_conductivity)
radiate_to_spess()
//Conduct with air on my tile if I have it
if(air)
air.temperature_turf_share(src, thermal_conductivity)
//Make sure still hot enough to continue conducting heat
if(air.temperature < MINIMUM_TEMPERATURE_FOR_SUPERCONDUCTION)
SSair.active_super_conductivity -= src
return 0
else
if(temperature < MINIMUM_TEMPERATURE_FOR_SUPERCONDUCTION)
SSair.active_super_conductivity -= src
return 0
/turf/simulated/proc/consider_superconductivity(starting)
if(!thermal_conductivity)
return 0
if(air)
if(air.temperature < (starting?MINIMUM_TEMPERATURE_START_SUPERCONDUCTION:MINIMUM_TEMPERATURE_FOR_SUPERCONDUCTION))
return 0
if(air.heat_capacity() < M_CELL_WITH_RATIO) // Was: MOLES_CELLSTANDARD*0.1*0.05 Since there are no variables here we can make this a constant.
return 0
else
if(temperature < (starting?MINIMUM_TEMPERATURE_START_SUPERCONDUCTION:MINIMUM_TEMPERATURE_FOR_SUPERCONDUCTION))
return 0
SSair.active_super_conductivity |= src
return 1
/turf/simulated/proc/radiate_to_spess() //Radiate excess tile heat to space
if(temperature > T0C) //Considering 0 degC as te break even point for radiation in and out
var/delta_temperature = (temperature_archived - 2.7) //hardcoded space temperature
if((heat_capacity > 0) && (abs(delta_temperature) > MINIMUM_TEMPERATURE_DELTA_TO_CONSIDER))
var/heat = thermal_conductivity*delta_temperature* \
(heat_capacity*700000/(heat_capacity+700000)) //700000 is the heat_capacity from a space turf, hardcoded here
temperature -= heat/heat_capacity