Electronic fire control system and methods of operating the same

1. A method of operating a fire control system, the method comprising:

charging a capacitor bank with electric charge until a stored voltage satisfies a voltage threshold, wherein the capacitor bank includes a plurality of capacitors that are connected in parallel;

transmitting a first signal indicating a charge status of the capacitor bank to an electronic flip-flop in response to a determination that the stored voltage satisfies the voltage threshold;

identifying a trigger break through real time analysis of an output generated by a trigger sensor of the fire control system, wherein the identifying the trigger break is based on the output indicating that trigger movement exceeds a displacement threshold;

transmitting a second signal to the electronic flip-flop in response to the identifying the trigger break; and

transmitting a third signal based on the first signal and the second signal, wherein the third signal causes:

modification of the capacitor bank such that a first subset of the plurality of capacitors is connected in series with a second subset of the plurality of capacitors, and

discharge of the electric charge from the capacitor bank, wherein the electric charge is directed through a solenoid of an actuator mechanism to cause successive displacement of the actuator mechanism, a sear, and a firing pin that strikes a cartridge primer cap so as to produce combustion, and wherein the combustion results in propulsion of a projectile through a barrel.

2. A method of operating a fire control system, the method comprising:

charging a capacitor bank with electric charge, wherein the capacitor bank includes a plurality of capacitors;

identifying a trigger break through an analysis of an output generated by a trigger sensor of the fire control system;

transmitting a signal in response to the identifying the trigger break, wherein the signal causes:

discharge of the electric charge from the capacitor bank such that electric charge is directed at an actuator mechanism to cause displacement of the actuator mechanism, wherein the displacement of the actuator mechanism results in propulsion of a projectile through a barrel; and

stacking, based on the signal, the capacitor bank such that a first subset of the plurality of capacitors is connected in series with a second subset of the plurality of capacitors.

3. The method of claim 2 , wherein the plurality of capacitors are connected in parallel while the charging occurs, wherein the capacitor bank is associated with a first stored voltage when the plurality of capacitors are connected in parallel, and wherein the capacitor bank is associated with a second stored voltage that is approximately twice the first stored voltage when the first subset is connected in series with the second subset.

4. The method of claim 2 , wherein the identifying the trigger break is in response to the output indicating that trigger movement exceeds a displacement threshold.

5. The method of claim 2 , further comprising:

identifying a user presence event based on an analysis of a second output produced by a presence sensor, wherein the transmitting the signal is based on the user presence event.

6. The method of claim 5 , further comprising:

transmitting a second signal in response to the user presence event to cause the fire control system to enter an armed state, wherein the fire control system is capable of firing projectiles while in the armed state, and wherein the transmitting the signal is further based on the second signal.

7. The method of claim 2 further comprising:

determining that the capacitor bank is charged based on a stored voltage satisfying a voltage threshold; and

transmitting, based on the stored voltage satisfying the voltage threshold, a second signal indicating that the capacitor bank is charged.

8. The method of claim 2 , further comprising:

transmitting a second signal to reset the fire control system to cause the fire control system to be capable of firing an additional projectile.

9. A method of operating a fire control system, the method comprising:

charging a capacitor bank with electric charge, wherein the capacitor bank includes a plurality of capacitors;

identifying a trigger break through an analysis of an output generated by a trigger sensor of the fire control system; and

in response to the identifying the trigger break, directing electric current to an actuator mechanism from a source separate from the capacitor bank to cause displacement of the actuator mechanism, wherein the displacement of the actuator mechanism is based on the electric current, and wherein the displacement of the actuator mechanism results in propulsion of a projectile through a barrel.

10. A method of operating a fire control system, the method comprising:

charging a capacitor bank with electric charge, wherein the capacitor bank includes a plurality of capacitors;

identifying a trigger break through an analysis of an output generated by a trigger sensor of the fire control system;

in response to the identifying the trigger break, transmitting a first signal that causes discharge of the electric charge from the capacitor bank such that electric charge is directed at an actuator mechanism to cause displacement of the actuator mechanism, wherein the displacement of the actuator mechanism results in propulsion of a projectile through a barrel;

determining, based on the discharge of the electric charge from the capacitor bank, that the capacitor bank has discharged at least a threshold amount of electric charge; and

in response to the determining that the capacitor bank has discharged at least the threshold amount of electric charge, transmitting a second signal to reset the fire control system to cause the fire control system to be capable of firing an additional projectile.

11. The method of claim 10 , further comprising:

determining that the capacitor bank has discharged at least the threshold amount of electric charge within a predetermined period of time following the transmitting the signal, wherein the transmitting the second signal is further in response to the determining that the capacitor bank has discharged at least the threshold amount of electric charge within the predetermined period of time.

12. A method of operating a fire control system, the method comprising:

charging a capacitor bank with electric charge, wherein the capacitor bank includes a plurality of capacitors;

identifying a trigger break through an analysis of an output generated by a trigger sensor of the fire control system;

in response to the identifying the trigger break, transmitting a first signal that causes discharge of the electric charge from the capacitor bank such that electric charge is directed at an actuator mechanism to cause displacement of the actuator mechanism, wherein the displacement of the actuator mechanism results in propulsion of a projectile through a barrel;

determining, based on a second output of an accelerometer, that the fire control system has undergone a recoil event associated with the propulsion of the projectile; and

in response to the determining that the fire control system has undergone the recoil event, transmitting a second signal to reset the fire control system to cause the fire control system to be capable of firing an additional projectile.

13. The method of claim 12 , further comprising:

determining that the recoil event has occurred within a predetermined period of time following the transmitting the signal, wherein the transmitting the second signal is further in response to the determining that the recoil event has occurred within the predetermined period of time.

14. A method of operating a fire control system, the method comprising:

charging a capacitor bank with electric charge, wherein the capacitor bank includes a plurality of capacitors;

identifying a trigger break through an analysis of an output generated by a trigger sensor of the fire control system;

transmitting a first signal in response to the identifying the trigger break, wherein the signal causes:

discharge of the electric charge from the capacitor bank such that electric charge is directed at an actuator mechanism to cause displacement of the actuator mechanism, wherein the displacement of the actuator mechanism results in propulsion of a projectile through a barrel;

recharging, based on the discharge of the electric charge from the capacitor bank, the capacitor bank while the plurality of capacitors are connected in parallel; and

transmitting a second signal to cause the fire control system to enter a disarmed state, wherein the fire control system is incapable of firing projectiles while in the disarmed state.

15. The method of claim 14 , further comprising:

dissipating, in response to the second signal, the electric charge from the capacitor bank so as to reduce a stored voltage of the capacitor bank.

16. The method of claim 14 , further comprising:

connecting, in response to the second signal, the plurality of capacitors in parallel so as to reduce a stored voltage of the capacitor bank.

17. A method of operating a fire control system, the method comprising:

charging a capacitor bank with electric charge, wherein the capacitor bank includes a plurality of capacitors;

identifying a trigger break through an analysis of an output generated by a trigger sensor of the fire control system; and

in response to the identifying the trigger break,

encrypting a signal using an encryption key so as to produce an encrypted version of the signal; and

transmitting the encrypted version of the signal to cause discharge of the electric charge from the capacitor bank such that electric charge is directed at an actuator mechanism to cause displacement of the actuator mechanism, wherein the displacement of the actuator mechanism results in propulsion of a projectile through a barrel.