diff --git a/code/__DEFINES/reactions.dm b/code/__DEFINES/reactions.dm
index 686a7cf298e..6a6b6f18d56 100644
--- a/code/__DEFINES/reactions.dm
+++ b/code/__DEFINES/reactions.dm
@@ -80,9 +80,9 @@
 /// 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 1.5
-/// A scaling factor for the irradiation threshold of radiation pulses produced by tritium fires.
-#define TRITIUM_RADIATION_THRESHOLD_BASE 15
+#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.
@@ -235,9 +235,9 @@
 /// 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 1.5
-/// A scaling factor for the threshold of the radiation pulses generated when proto-nitrate converts tritium to hydrogen.
-#define PN_TRITIUM_RAD_THRESHOLD_BASE 15
+#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
@@ -249,8 +249,8 @@
 #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
-/// A scaling factor for the threshold of the radiation pulses generated when proto-nitrate breaks down BZ.
-#define PN_BZASE_RAD_THRESHOLD_BASE 15
+/// 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.
diff --git a/code/modules/atmospherics/gasmixtures/reactions.dm b/code/modules/atmospherics/gasmixtures/reactions.dm
index 058beafcecb..251991e4250 100644
--- a/code/modules/atmospherics/gasmixtures/reactions.dm
+++ b/code/modules/atmospherics/gasmixtures/reactions.dm
@@ -333,7 +333,7 @@
 
 	var/energy_released = FIRE_TRITIUM_ENERGY_RELEASED * burned_fuel
 	if(location && burned_fuel > TRITIUM_RADIATION_MINIMUM_MOLES && energy_released > TRITIUM_RADIATION_RELEASE_THRESHOLD * (air.volume / CELL_VOLUME) ** ATMOS_RADIATION_VOLUME_EXP && prob(10))
-		radiation_pulse(location, max_range = min(sqrt(burned_fuel) / TRITIUM_RADIATION_RANGE_DIVISOR, GAS_REACTION_MAXIMUM_RADIATION_PULSE_RANGE), threshold = TRITIUM_RADIATION_THRESHOLD_BASE * INVERSE(TRITIUM_RADIATION_THRESHOLD_BASE + burned_fuel))
+		radiation_pulse(location, max_range = min(sqrt(burned_fuel) / TRITIUM_RADIATION_RANGE_DIVISOR, GAS_REACTION_MAXIMUM_RADIATION_PULSE_RANGE), threshold = TRITIUM_RADIATION_THRESHOLD)
 
 	if(energy_released > 0)
 		var/new_heat_capacity = air.heat_capacity()
@@ -1082,7 +1082,7 @@
 	else if(isatom(holder))
 		location = holder
 	if (location && energy_released > PN_TRITIUM_CONVERSION_RAD_RELEASE_THRESHOLD * (air.volume / CELL_VOLUME) ** ATMOS_RADIATION_VOLUME_EXP)
-		radiation_pulse(location, max_range = min(sqrt(produced_amount) / PN_TRITIUM_RAD_RANGE_DIVISOR, GAS_REACTION_MAXIMUM_RADIATION_PULSE_RANGE), threshold = PN_TRITIUM_RAD_THRESHOLD_BASE * INVERSE(PN_TRITIUM_RAD_THRESHOLD_BASE + produced_amount))
+		radiation_pulse(location, max_range = min(sqrt(produced_amount) / PN_TRITIUM_RAD_RANGE_DIVISOR, GAS_REACTION_MAXIMUM_RADIATION_PULSE_RANGE), threshold = PN_TRITIUM_RAD_THRESHOLD)
 
 	if(energy_released)
 		var/new_heat_capacity = air.heat_capacity()
@@ -1138,7 +1138,7 @@
 		var/nuclear_particle_amount = min(round(consumed_amount / PN_BZASE_NUCLEAR_PARTICLE_DIVISOR), PN_BZASE_NUCLEAR_PARTICLE_MAXIMUM)
 		for(var/i in 1 to nuclear_particle_amount)
 			location.fire_nuclear_particle()
-		radiation_pulse(location, max_range = min(sqrt(consumed_amount - nuclear_particle_amount * PN_BZASE_NUCLEAR_PARTICLE_RADIATION_ENERGY_CONVERSION) / PN_BZASE_RAD_RANGE_DIVISOR, GAS_REACTION_MAXIMUM_RADIATION_PULSE_RANGE), threshold = PN_BZASE_RAD_THRESHOLD_BASE * INVERSE(PN_BZASE_RAD_THRESHOLD_BASE + consumed_amount - nuclear_particle_amount * PN_BZASE_NUCLEAR_PARTICLE_RADIATION_ENERGY_CONVERSION))
+		radiation_pulse(location, max_range = min(sqrt(consumed_amount - nuclear_particle_amount * PN_BZASE_NUCLEAR_PARTICLE_RADIATION_ENERGY_CONVERSION) / PN_BZASE_RAD_RANGE_DIVISOR, GAS_REACTION_MAXIMUM_RADIATION_PULSE_RANGE), threshold = PN_BZASE_RAD_THRESHOLD)
 		for(var/mob/living/carbon/L in location)
 			L.hallucination += consumed_amount