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Ported C++mos from yogs (help me)

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This commit is contained in:
Putnam
2020-05-11 15:44:26 -07:00
parent e1d113b970
commit e8d7da56f4
97 changed files with 678 additions and 1037 deletions
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code/modules/integrated_electronics/subtypes/atmospherics.dm
+22 -23
View File
@@ -125,12 +125,12 @@
return
// Negative Kelvin temperatures should never happen and if they do, normalize them
if(source_air.temperature < TCMB)
source_air.temperature = TCMB
if(source_air.return_temperature() < TCMB)
source_air.set_temperature(TCMB)
var/pressure_delta = target_pressure - target_air.return_pressure()
if(pressure_delta > 0.1)
var/transfer_moles = (pressure_delta*target_air.volume/(source_air.temperature * R_IDEAL_GAS_EQUATION))*PUMP_EFFICIENCY
var/transfer_moles = (pressure_delta*target_air.return_volume()/(source_air.return_temperature() * R_IDEAL_GAS_EQUATION))*PUMP_EFFICIENCY
var/datum/gas_mixture/removed = source_air.remove(transfer_moles)
target_air.merge(removed)
@@ -171,14 +171,14 @@
return
// Negative Kelvin temperatures should never happen and if they do, normalize them
if(source_air.temperature < TCMB)
source_air.temperature = TCMB
if(source_air.return_temperature() < TCMB)
source_air.set_temperature(TCMB)
if((source_air.return_pressure() < 0.01) || (target_air.return_pressure() >= PUMP_MAX_PRESSURE))
return
//The second part of the min caps the pressure built by the volume pumps to the max pump pressure
var/transfer_ratio = min(transfer_rate,target_air.volume*PUMP_MAX_PRESSURE/source_air.return_pressure())/source_air.volume
var/transfer_ratio = min(transfer_rate,target_air.return_volume()*PUMP_MAX_PRESSURE/source_air.return_pressure())/source_air.return_volume()
var/datum/gas_mixture/removed = source_air.remove_ratio(transfer_ratio * PUMP_EFFICIENCY)
@@ -351,10 +351,10 @@ obj/item/integrated_circuit/atmospherics/connector/portableConnectorReturnAir()
var/transfer_moles
//Negative Kelvins are an anomaly and should be normalized if encountered
if(source_air.temperature < TCMB)
source_air.temperature = TCMB
if(source_air.return_temperature(TCMB))
source_air.set_temperature(TCMB)
transfer_moles = (pressure_delta*contaminated_air.volume/(source_air.temperature * R_IDEAL_GAS_EQUATION))*PUMP_EFFICIENCY
transfer_moles = (pressure_delta*contaminated_air.return_volume()/(source_air.return_temperature() * R_IDEAL_GAS_EQUATION))*PUMP_EFFICIENCY
//If there is nothing to transfer, just return
if(transfer_moles <= 0)
@@ -368,16 +368,15 @@ obj/item/integrated_circuit/atmospherics/connector/portableConnectorReturnAir()
//This is the gas that will be moved from source to filtered
var/datum/gas_mixture/filtered_out = new
for(var/filtered_gas in removed.gases)
for(var/filtered_gas in removed.get_gases())
//Get the name of the gas and see if it is in the list
if(GLOB.meta_gas_names[filtered_gas] in wanted)
//The gas that is put in all the filtered out gases
filtered_out.temperature = removed.temperature
filtered_out.gases[filtered_gas] = removed.gases[filtered_gas]
filtered_out.set_temperature(removed.return_temperature())
filtered_out.set_moles(filtered_gas, removed.get_moles(filtered_gas))
//The filtered out gas is entirely removed from the currently filtered gases
removed.gases[filtered_gas] = 0
GAS_GARBAGE_COLLECT(removed.gases)
removed.set_moles(filtered_gas, 0)
//Check if the pressure is high enough to put stuff in filtered, or else just put it back in the source
var/datum/gas_mixture/target = (filtered_air.return_pressure() < target_pressure ? filtered_air : source_air)
@@ -444,7 +443,7 @@ obj/item/integrated_circuit/atmospherics/connector/portableConnectorReturnAir()
var/gas_percentage = round(max(min(get_pin_data(IC_INPUT, 4),100),0) / 100)
//Basically: number of moles = percentage of pressure filled up * efficiency coefficient * (pressure from both gases * volume of output) / (R * Temperature)
var/transfer_moles = (get_pin_data(IC_INPUT, 5) / max(1,output_gases.return_pressure())) * PUMP_EFFICIENCY * (source_1_gases.return_pressure() * gas_percentage + source_2_gases.return_pressure() * (1 - gas_percentage)) * output_gases.volume/ (R_IDEAL_GAS_EQUATION * max(output_gases.temperature,TCMB))
var/transfer_moles = (get_pin_data(IC_INPUT, 5) / max(1,output_gases.return_pressure())) * PUMP_EFFICIENCY * (source_1_gases.return_pressure() * gas_percentage + source_2_gases.return_pressure() * (1 - gas_percentage)) * output_gases.return_volume()/ (R_IDEAL_GAS_EQUATION * max(output_gases.return_temperature(),TCMB))
if(transfer_moles <= 0)
@@ -544,10 +543,10 @@ obj/item/integrated_circuit/atmospherics/connector/portableConnectorReturnAir()
push_data()
//Cool the tank if the power is on and the temp is above
if(!power_draw_idle || air_contents.temperature < temperature)
if(!power_draw_idle || air_contents.return_temperature() < temperature)
return
air_contents.temperature = max(73.15,air_contents.temperature - (air_contents.temperature - temperature) * heater_coefficient)
air_contents.set_temperature(max(73.15,air_contents.return_temperature() - (air_contents.return_temperature() - temperature) * heater_coefficient))
// - heater tank - // **works**
@@ -574,10 +573,10 @@ obj/item/integrated_circuit/atmospherics/connector/portableConnectorReturnAir()
push_data()
//Heat the tank if the power is on or its temperature is below what is set
if(!power_draw_idle || air_contents.temperature > temperature)
if(!power_draw_idle || air_contents.return_temperature() > temperature)
return
air_contents.temperature = min(573.15,air_contents.temperature + (temperature - air_contents.temperature) * heater_coefficient)
air_contents.set_temperature(min(573.15,air_contents.return_temperature() + (temperature - air_contents.return_temperature()) * heater_coefficient))
// - atmospheric cooler - // **works**
@@ -621,11 +620,11 @@ obj/item/integrated_circuit/atmospherics/connector/portableConnectorReturnAir()
return
var/datum/gas_mixture/turf_air = current_turf.return_air()
if(!power_draw_idle || turf_air.temperature < temperature)
if(!power_draw_idle || turf_air.return_temperature() < temperature)
return
//Cool the gas
turf_air.temperature = max(243.15,turf_air.temperature - (turf_air.temperature - temperature) * heater_coefficient)
turf_air.set_temperature(max(243.15,turf_air.return_temperature() - (turf_air.return_temperature() - temperature) * heater_coefficient))
// - atmospheric heater - // **works**
@@ -650,11 +649,11 @@ obj/item/integrated_circuit/atmospherics/connector/portableConnectorReturnAir()
return
var/datum/gas_mixture/turf_air = current_turf.return_air()
if(!power_draw_idle || turf_air.temperature > temperature)
if(!power_draw_idle || turf_air.return_temperature() > temperature)
return
//Heat the gas
turf_air.temperature = min(323.15,turf_air.temperature + (temperature - turf_air.temperature) * heater_coefficient)
turf_air.set_temperature(min(323.15,turf_air.return_temperature() + (temperature - turf_air.return_temperature()) * heater_coefficient))
// - tank slot - // **works**
code/modules/integrated_electronics/subtypes/input.dm
+3 -4
View File
@@ -1162,12 +1162,11 @@
activate_pin(3)
return
var/list/gases = air_contents.gases
var/list/gas_names = list()
var/list/gas_amounts = list()
for(var/id in gases)
for(var/id in air_contents.get_gases())
var/name = GLOB.meta_gas_names[id]
var/amt = round(gases[id], 0.001)
var/amt = round(air_contents.get_moles(id), 0.001)
gas_names.Add(name)
gas_amounts.Add(amt)
@@ -1175,7 +1174,7 @@
set_pin_data(IC_OUTPUT, 2, gas_amounts)
set_pin_data(IC_OUTPUT, 3, round(air_contents.total_moles(), 0.001))
set_pin_data(IC_OUTPUT, 4, round(air_contents.return_pressure(), 0.001))
set_pin_data(IC_OUTPUT, 5, round(air_contents.temperature, 0.001))
set_pin_data(IC_OUTPUT, 5, round(air_contents.return_temperature(), 0.001))
set_pin_data(IC_OUTPUT, 6, round(air_contents.return_volume(), 0.001))
push_data()
activate_pin(2)