mirror of
https://github.com/Bubberstation/Bubberstation.git
synced 2025-12-09 07:46:20 +00:00
80906f22a3
Recommended for #91048 to be merged first to limit availability of the gas. Adds a gas reaction that requires antinoblium. Causes other gases to get converted into antinoblium when above 20 Kelvin. Irradiates people upon skin contact. Hypernoblium halts entropy from increasing. To make antinoblium the opposite, it accelerates entropy as fast as it can by converting every other gas into antinoblium. This brings a unique way for antinoblium to interact with the atmospherics system. Due to the grey goo nature of the gas, people will panic if this gets leaked for whatever reason, which can bring some good quality roleplay moments as people desparately try to prevent the spread of the gas or prevent the gas spreading into their departments. 🆑 add: Antinoblium converts other gases into antinoblium when above 20 Kelvin. balance: Firelocks close when they detect antinoblium. balance: Antinoblium irradiates people upon skin contact. /🆑
275 lines
16 KiB
Plaintext
275 lines
16 KiB
Plaintext
//Defines used in atmos gas reactions. Used to be located in ..\modules\atmospherics\gasmixtures\reactions.dm, but were moved here because fusion added so fucking many.
|
|
|
|
// Atmos reaction priorities:
|
|
/// The prority used to indicate that a reaction should run immediately at the start of a reaction cycle. Currently used by a jumble of decomposition reactions and purgative reactions.
|
|
#define PRIORITY_PRE_FORMATION 1
|
|
/// The priority used for reactions that produce a useful or more advanced product. Goes after purgative reactions so that the purgers can be slightly more useful.
|
|
#define PRIORITY_FORMATION 2
|
|
/// The priority used for indicate that a reactions should run immediately before most forms of combustion. Used by two decomposition reactions and steam condensation.
|
|
#define PRIORITY_POST_FORMATION 3
|
|
/// The priority used to indicate that a reactions should run after all other types of reactions. Exclusively used for combustion reactions that produce fire or are freon.
|
|
#define PRIORITY_FIRE 4
|
|
|
|
/// An exponent used to make large volume gas mixtures significantly less likely to release rads. Used to prevent tritfires in distro from irradiating literally the entire station with no warning.
|
|
#define ATMOS_RADIATION_VOLUME_EXP 3
|
|
|
|
/// Maximum range a radiation pulse is allowed to be from a gas reaction.
|
|
#define GAS_REACTION_MAXIMUM_RADIATION_PULSE_RANGE 20
|
|
|
|
// Water Vapor:
|
|
/// The temperature required for water vapor to condense.
|
|
#define WATER_VAPOR_CONDENSATION_POINT (T20C + 10)
|
|
/// The temperature required for water vapor to condense as ice instead of water.
|
|
#define WATER_VAPOR_DEPOSITION_POINT 200
|
|
|
|
// Miaster:
|
|
/// The minimum temperature miasma begins being sterilized at.
|
|
#define MIASTER_STERILIZATION_TEMP (FIRE_MINIMUM_TEMPERATURE_TO_EXIST + 70)
|
|
/// The maximum ratio of water vapor to other gases miasma can be sterilized at.
|
|
#define MIASTER_STERILIZATION_MAX_HUMIDITY 0.1
|
|
/// The minimum amount of miasma that will be sterilized in a reaction tick.
|
|
#define MIASTER_STERILIZATION_RATE_BASE 20
|
|
/// The temperature required to sterilize an additional mole of miasma in a reaction tick.
|
|
#define MIASTER_STERILIZATION_RATE_SCALE 20
|
|
/// The amount of energy released when a mole of miasma is sterilized.
|
|
#define MIASTER_STERILIZATION_ENERGY 2e-3
|
|
|
|
// Fire:
|
|
|
|
// - General:
|
|
/// Amount of heat released per mole of burnt carbon into the tile
|
|
#define FIRE_CARBON_ENERGY_RELEASED 1e5
|
|
|
|
// - Plasma:
|
|
/// Minimum temperature to burn plasma
|
|
#define PLASMA_MINIMUM_BURN_TEMPERATURE FIRE_MINIMUM_TEMPERATURE_TO_EXIST
|
|
/// Upper temperature ceiling for plasmafire reaction calculations for fuel consumption
|
|
#define PLASMA_UPPER_TEMPERATURE (PLASMA_MINIMUM_BURN_TEMPERATURE + 1270)
|
|
/// The maximum and default amount of plasma consumed as oxydizer per mole of plasma burnt.
|
|
#define OXYGEN_BURN_RATIO_BASE 1.4
|
|
/// Multiplier for plasmafire with O2 moles * PLASMA_OXYGEN_FULLBURN for the maximum fuel consumption
|
|
#define PLASMA_OXYGEN_FULLBURN 10
|
|
/// The minimum ratio of oxygen to plasma necessary to start producing tritium.
|
|
#define SUPER_SATURATION_THRESHOLD 96
|
|
/// The divisor for the maximum plasma burn rate. (1/9 of the plasma can burn in one reaction tick.)
|
|
#define PLASMA_BURN_RATE_DELTA 9
|
|
/// Amount of heat released per mole of burnt plasma into the tile
|
|
#define FIRE_PLASMA_ENERGY_RELEASED 3e6
|
|
|
|
// - Hydrogen:
|
|
/// The minimum temperature hydrogen combusts at.
|
|
#define HYDROGEN_MINIMUM_BURN_TEMPERATURE FIRE_MINIMUM_TEMPERATURE_TO_EXIST
|
|
/// The amount of energy released by burning one mole of hydrogen.
|
|
#define FIRE_HYDROGEN_ENERGY_RELEASED 2.8e6
|
|
/// Multiplier for hydrogen fire with O2 moles * HYDROGEN_OXYGEN_FULLBURN for the maximum fuel consumption
|
|
#define HYDROGEN_OXYGEN_FULLBURN 10
|
|
/// The divisor for the maximum hydrogen burn rate. (1/2 of the hydrogen can burn in one reaction tick.)
|
|
#define FIRE_HYDROGEN_BURN_RATE_DELTA 2
|
|
|
|
// - Tritium:
|
|
/// The minimum temperature tritium combusts at.
|
|
#define TRITIUM_MINIMUM_BURN_TEMPERATURE FIRE_MINIMUM_TEMPERATURE_TO_EXIST
|
|
/// The amount of energy released by burning one mole of tritium.
|
|
#define FIRE_TRITIUM_ENERGY_RELEASED FIRE_HYDROGEN_ENERGY_RELEASED
|
|
/// Multiplier for TRITIUM fire with O2 moles * TRITIUM_OXYGEN_FULLBURN for the maximum fuel consumption
|
|
#define TRITIUM_OXYGEN_FULLBURN HYDROGEN_OXYGEN_FULLBURN
|
|
/// The divisor for the maximum tritium burn rate. (1/2 of the tritium can burn in one reaction tick.)
|
|
#define FIRE_TRITIUM_BURN_RATE_DELTA FIRE_HYDROGEN_BURN_RATE_DELTA
|
|
/// The minimum number of moles of trit that must be burnt for a tritium fire reaction to produce a radiation pulse. (0.01 moles trit or 10 moles oxygen to start producing rads.)
|
|
#define TRITIUM_RADIATION_MINIMUM_MOLES 0.1
|
|
/// The minimum released energy necessary for tritium to release radiation during combustion. (at a mix volume of [CELL_VOLUME]).
|
|
#define TRITIUM_RADIATION_RELEASE_THRESHOLD (FIRE_TRITIUM_ENERGY_RELEASED)
|
|
/// A scaling factor for the range of radiation pulses produced by tritium fires.
|
|
#define TRITIUM_RADIATION_RANGE_DIVISOR 0.5
|
|
/// The threshold of the tritium combustion's radiation. Lower values means it will be able to penetrate through more structures.
|
|
#define TRITIUM_RADIATION_THRESHOLD 0.3
|
|
|
|
// - Freon:
|
|
/// The maximum temperature freon can combust at.
|
|
#define FREON_MAXIMUM_BURN_TEMPERATURE 283
|
|
///Minimum temperature allowed for the burn to go at max speed, we would have negative pressure otherwise
|
|
#define FREON_LOWER_TEMPERATURE 60
|
|
///Terminal temperature after which we stop the reaction
|
|
#define FREON_TERMINAL_TEMPERATURE 20
|
|
/// Multiplier for freonfire with O2 moles * FREON_OXYGEN_FULLBURN for the maximum fuel consumption
|
|
#define FREON_OXYGEN_FULLBURN 10
|
|
/// The maximum fraction of the freon in a mix that can combust each reaction tick.
|
|
#define FREON_BURN_RATE_DELTA 4
|
|
/// The amount of heat absorbed per mole of freon burnt.
|
|
#define FIRE_FREON_ENERGY_CONSUMED 3e5
|
|
/// The maximum temperature at which freon combustion can form hot ice.
|
|
#define HOT_ICE_FORMATION_MAXIMUM_TEMPERATURE 160
|
|
/// The minimum temperature at which freon combustion can form hot ice.
|
|
#define HOT_ICE_FORMATION_MINIMUM_TEMPERATURE 120
|
|
/// The chance for hot ice to form when freon reacts on a turf.
|
|
#define HOT_ICE_FORMATION_PROB 2
|
|
|
|
// N2O:
|
|
/// The minimum temperature N2O can form from nitrogen and oxygen in the presence of BZ at.
|
|
#define N2O_FORMATION_MIN_TEMPERATURE 200
|
|
/// The maximum temperature N2O can form from nitrogen and oxygen in the presence of BZ at.
|
|
#define N2O_FORMATION_MAX_TEMPERATURE 250
|
|
/// The amount of energy released when a mole of N2O forms from nitrogen and oxygen in the presence of BZ.
|
|
#define N2O_FORMATION_ENERGY 10000
|
|
|
|
/// The minimum temperature N2O can decompose at.
|
|
#define N2O_DECOMPOSITION_MIN_TEMPERATURE 1400
|
|
/// The maximum temperature N2O can decompose at.
|
|
#define N2O_DECOMPOSITION_MAX_TEMPERATURE 100000
|
|
/// The maximum portion of the N2O that can decompose each reaction tick. (50%)
|
|
#define N2O_DECOMPOSITION_RATE_DIVISOR 2
|
|
/// One root of the parabola used to scale N2O decomposition rates.
|
|
#define N2O_DECOMPOSITION_MIN_SCALE_TEMP 0
|
|
/// The other root of the parabola used to scale N2O decomposition rates.
|
|
#define N2O_DECOMPOSITION_MAX_SCALE_TEMP 100000
|
|
/// The divisor used to normalize the N2O decomp scaling parabola. Basically the value of the apex/nadir of (x - [N2O_DECOMPOSITION_MIN_SCALE_TEMP]) * (x - [N2O_DECOMPOSITION_MAX_SCALE_TEMP]).
|
|
#define N2O_DECOMPOSITION_SCALE_DIVISOR ((-1/4) * ((N2O_DECOMPOSITION_MAX_SCALE_TEMP - N2O_DECOMPOSITION_MIN_SCALE_TEMP)**2))
|
|
/// The amount of energy released when one mole of N2O decomposes into nitrogen and oxygen.
|
|
#define N2O_DECOMPOSITION_ENERGY 200000
|
|
|
|
// BZ:
|
|
/// The maximum temperature BZ can form at. Deliberately set lower than the minimum burn temperature for most combustible gases in an attempt to prevent long fuse singlecaps.
|
|
#define BZ_FORMATION_MAX_TEMPERATURE (FIRE_MINIMUM_TEMPERATURE_TO_EXIST - 60) // Yes, someone used this as a bomb timer. I hate players.
|
|
/// The amount of energy 1 mole of BZ forming from N2O and plasma releases.
|
|
#define BZ_FORMATION_ENERGY 80000
|
|
|
|
// Pluoxium:
|
|
/// The minimum temperature pluoxium can form from carbon dioxide, oxygen, and tritium at.
|
|
#define PLUOXIUM_FORMATION_MIN_TEMP 50
|
|
/// The maximum temperature pluoxium can form from carbon dioxide, oxygen, and tritium at.
|
|
#define PLUOXIUM_FORMATION_MAX_TEMP T0C
|
|
/// The maximum amount of pluoxium that can form from carbon dioxide, oxygen, and tritium per reaction tick.
|
|
#define PLUOXIUM_FORMATION_MAX_RATE 5
|
|
/// The amount of energy one mole of pluoxium forming from carbon dioxide, oxygen, and tritium releases.
|
|
#define PLUOXIUM_FORMATION_ENERGY 250
|
|
|
|
// Nitrium:
|
|
/// The minimum temperature necessary for nitrium to form from tritium, nitrogen, and BZ.
|
|
#define NITRIUM_FORMATION_MIN_TEMP 1500
|
|
/// A scaling divisor for the rate of nitrium formation relative to mix temperature.
|
|
#define NITRIUM_FORMATION_TEMP_DIVISOR (FIRE_MINIMUM_TEMPERATURE_TO_EXIST * 8)
|
|
/// The amount of thermal energy consumed when a mole of nitrium is formed from tritium, nitrogen, and BZ.
|
|
#define NITRIUM_FORMATION_ENERGY 100000
|
|
|
|
/// The maximum temperature nitrium can decompose into nitrogen and hydrogen at.
|
|
#define NITRIUM_DECOMPOSITION_MAX_TEMP (T0C + 70) //Pretty warm, explicitly not fire temps. Time bombs are cool, but not that cool. If it makes you feel any better it's close.
|
|
/// A scaling divisor for the rate of nitrium decomposition relative to mix temperature.
|
|
#define NITRIUM_DECOMPOSITION_TEMP_DIVISOR (FIRE_MINIMUM_TEMPERATURE_TO_EXIST * 8)
|
|
/// The amount of energy released when a mole of nitrium decomposes into nitrogen and hydrogen.
|
|
#define NITRIUM_DECOMPOSITION_ENERGY 30000
|
|
|
|
// Freon:
|
|
/// The minimum temperature freon can form from plasma, CO2, and BZ at.
|
|
#define FREON_FORMATION_MIN_TEMPERATURE (FIRE_MINIMUM_TEMPERATURE_TO_EXIST + 100)
|
|
/// The amount of energy 2.5 moles of freon forming from plasma, CO2, and BZ consumes.
|
|
#define FREON_FORMATION_ENERGY 100
|
|
|
|
// H-Nob:
|
|
/// The maximum temperature hyper-noblium can form from tritium and nitrogen at.
|
|
#define NOBLIUM_FORMATION_MIN_TEMP TCMB
|
|
/// The maximum temperature hyper-noblium can form from tritium and nitrogen at.
|
|
#define NOBLIUM_FORMATION_MAX_TEMP 15
|
|
/// The amount of energy a single mole of hyper-noblium forming from tritium and nitrogen releases.
|
|
#define NOBLIUM_FORMATION_ENERGY 2e7
|
|
|
|
/// The number of moles of hyper-noblium required to prevent reactions.
|
|
#define REACTION_OPPRESSION_THRESHOLD 5
|
|
/// Minimum temperature required for hypernoblium to prevent reactions.
|
|
#define REACTION_OPPRESSION_MIN_TEMP 20
|
|
|
|
// Halon:
|
|
/// Energy released per mole of BZ consumed during halon formation.
|
|
#define HALON_FORMATION_ENERGY 91232.1
|
|
|
|
/// How much energy a mole of halon combusting consumes.
|
|
#define HALON_COMBUSTION_ENERGY 2500
|
|
/// The minimum temperature required for halon to combust.
|
|
#define HALON_COMBUSTION_MIN_TEMPERATURE (T0C + 70)
|
|
/// The temperature scale for halon combustion reaction rate.
|
|
#define HALON_COMBUSTION_TEMPERATURE_SCALE (FIRE_MINIMUM_TEMPERATURE_TO_EXIST * 10)
|
|
/// Amount of halon required to be consumed in order to release resin. This is always possible as long as there's enough gas.
|
|
#define HALON_COMBUSTION_MINIMUM_RESIN_MOLES (0.99 * HALON_COMBUSTION_MIN_TEMPERATURE / HALON_COMBUSTION_TEMPERATURE_SCALE)
|
|
/// The volume of the resin foam fluid when halon combusts, in turfs.
|
|
#define HALON_COMBUSTION_RESIN_VOLUME 1
|
|
|
|
// Healium:
|
|
/// The minimum temperature healium can form from BZ and freon at.
|
|
#define HEALIUM_FORMATION_MIN_TEMP 25
|
|
/// The maximum temperature healium can form from BZ and freon at.
|
|
#define HEALIUM_FORMATION_MAX_TEMP 300
|
|
/// The amount of energy three moles of healium forming from BZ and freon releases.
|
|
#define HEALIUM_FORMATION_ENERGY 9000
|
|
|
|
// Zauker:
|
|
/// The minimum temperature zauker can form from hyper-noblium and nitrium at.
|
|
#define ZAUKER_FORMATION_MIN_TEMPERATURE 50000
|
|
/// The maximum temperature zauker can form from hyper-noblium and nitrium at.
|
|
#define ZAUKER_FORMATION_MAX_TEMPERATURE 75000
|
|
/// The temperature scaling factor for zauker formation. At most this many moles of zauker can form per reaction tick per kelvin.
|
|
#define ZAUKER_FORMATION_TEMPERATURE_SCALE 5e-6
|
|
/// The amount of energy half a mole of zauker forming from hypernoblium and nitrium consumes.
|
|
#define ZAUKER_FORMATION_ENERGY 5000
|
|
|
|
/// The maximum number of moles of zauker that can decompose per reaction tick.
|
|
#define ZAUKER_DECOMPOSITION_MAX_RATE 20
|
|
/// The amount of energy a mole of zauker decomposing in the presence of nitrogen releases.
|
|
#define ZAUKER_DECOMPOSITION_ENERGY 460
|
|
|
|
// Proto-Nitrate:
|
|
/// The minimum temperature proto-nitrate can form from pluoxium and hydrogen at.
|
|
#define PN_FORMATION_MIN_TEMPERATURE 5000
|
|
/// The maximum temperature proto-nitrate can form from pluoxium and hydrogen at.
|
|
#define PN_FORMATION_MAX_TEMPERATURE 10000
|
|
/// The temperature scaling factor for proto-nitrate formation. At most this many moles of zauker can form per reaction tick per kelvin.
|
|
#define PN_FORMATION_TEMPERATURE_SCALE 5e-3
|
|
/// The amount of energy 2.2 moles of proto-nitrate forming from pluoxium and hydrogen releases.
|
|
#define PN_FORMATION_ENERGY 650
|
|
|
|
/// The amount of hydrogen necessary for proto-nitrate to start converting it to more proto-nitrate.
|
|
#define PN_HYDROGEN_CONVERSION_THRESHOLD 150
|
|
/// The maximum number of moles of hydrogen that can be converted into proto-nitrate in a single reaction tick.
|
|
#define PN_HYDROGEN_CONVERSION_MAX_RATE 5
|
|
/// The amount of energy converting a mole of hydrogen into half a mole of proto-nitrate consumes.
|
|
#define PN_HYDROGEN_CONVERSION_ENERGY 2500
|
|
|
|
/// The minimum temperature proto-nitrate can convert tritium to hydrogen at.
|
|
#define PN_TRITIUM_CONVERSION_MIN_TEMP 150
|
|
/// The maximum temperature proto-nitrate can convert tritium to hydrogen at.
|
|
#define PN_TRITIUM_CONVERSION_MAX_TEMP 340
|
|
/// The amount of energy proto-nitrate converting a mole of tritium into hydrogen releases.
|
|
#define PN_TRITIUM_CONVERSION_ENERGY 10000
|
|
/// The minimum released energy necessary for proto-nitrate to release radiation when converting tritium. (With a reaction vessel volume of [CELL_VOLUME])
|
|
#define PN_TRITIUM_CONVERSION_RAD_RELEASE_THRESHOLD 10000
|
|
/// A scaling factor for the range of the radiation pulses generated when proto-nitrate converts tritium to hydrogen.
|
|
#define PN_TRITIUM_RAD_RANGE_DIVISOR 0.5
|
|
/// The threshold of the radiation pulse released when proto-nitrate converts tritium into hydrogen. Lower values means it will be able to penetrate through more structures.
|
|
#define PN_TRITIUM_RAD_THRESHOLD 0.3
|
|
|
|
/// The minimum temperature proto-nitrate can break BZ down at.
|
|
#define PN_BZASE_MIN_TEMP 260
|
|
/// The maximum temperature proto-nitrate can break BZ down at.
|
|
#define PN_BZASE_MAX_TEMP 280
|
|
/// The amount of energy proto-nitrate breaking down a mole of BZ releases.
|
|
#define PN_BZASE_ENERGY 60000
|
|
/// The minimum released energy necessary for proto-nitrate to release rads when breaking down BZ (at a mix volume of [CELL_VOLUME]).
|
|
#define PN_BZASE_RAD_RELEASE_THRESHOLD 60000
|
|
/// A scaling factor for the range of the radiation pulses generated when proto-nitrate breaks down BZ.
|
|
#define PN_BZASE_RAD_RANGE_DIVISOR 1.5
|
|
/// The threshold of the radiation pulse released when proto-nitrate breaks down BZ. Lower values means it will be able to penetrate through more structures.
|
|
#define PN_BZASE_RAD_THRESHOLD 0.3
|
|
/// A scaling factor for the nuclear particle production generated when proto-nitrate breaks down BZ.
|
|
#define PN_BZASE_NUCLEAR_PARTICLE_DIVISOR 5
|
|
/// The maximum amount of nuclear particles that can be produced from proto-nitrate breaking down BZ.
|
|
#define PN_BZASE_NUCLEAR_PARTICLE_MAXIMUM 6
|
|
/// How much radiation in consumed amount does a nuclear particle take from radiation when proto-nitrate breaks down BZ.
|
|
#define PN_BZASE_NUCLEAR_PARTICLE_RADIATION_ENERGY_CONVERSION 2.5
|
|
|
|
// Antinoblium:
|
|
/// The divisor for the maximum antinoblium conversion rate. (1/90 of the antinoblium converts other gases to antinoblium in one reaction tick.)
|
|
#define ANTINOBLIUM_CONVERSION_DIVISOR 90
|
|
|
|
// Electrolysis:
|
|
// Electrolysis arguments:
|
|
/// Supermatter power argument.
|
|
#define ELECTROLYSIS_ARGUMENT_SUPERMATTER_POWER "electrolyzer_supermatter_power"
|