Electronically controlled recoil positioning (ECRP) system for firearms
View Patent ↗An Electronic Controlled Recoil Position (ECRP) unit is muzzle-mounted on a firearm and is designed for nearly real-time correction of the firearm's recoil. This correction can maintain a shooters aim on target or else nearly remove recoil for easier control of the firearm during full or semi-automatic fire. The ECRP unit is primarily designed as a cylindrical body that attaches to the muzzle of a firearm barrel via threaded or snap-on connection. The unit features an internal bore aligned with the barrel to allow projectiles to pass through unimpeded.
1 . An electronically controlled recoil positioning (ECRP) system for a firearm, comprising:
a cylindrical body configured to attach to a muzzle of a firearm barrel, the cylindrical body having a central bore aligned with the firearm barrel;
a plurality of variably-sized vents positioned around the cylindrical body, the plurality of variably-sized vents comprising at least one large vent, at least one medium vent, and at least one small vent arranged on each of a top side, a bottom side, a left side, and a right side of the cylindrical body;
a plurality of actuators, each actuator configured to selectively open and close a corresponding one of the plurality of variably-sized vents; and
a control system configured to selectively control each of the plurality of actuators based on detected recoil forces.
2 . The system of claim 1 , wherein the plurality of actuators comprise at least one of: axially sliding covers, hinged covers, or circumferentially sliding covers.
3 . The system of claim 2 , wherein the control system comprises a sensor array comprising at least one of: gyroscopic sensors, accelerometers, pressure sensors, or thermal sensors; and a processor configured to analyze data from the sensor array to determine which of the plurality of variably-sized vents to open or close.
4 . The system of claim 3 , wherein the processor executes an artificial intelligence algorithm that develops an individualized shooter profile based on historical shooting patterns.
5 . The system of claim 4 , further comprising a communication module configured to interface with at least one of: a barrel-mounted camera, a scope-mounted camera, a mobile device, or an electronic trigger system.
6 . The system of claim 1 , wherein the control system is configured to operate in a near-zero recoil mode that prioritizes minimizing muzzle movement during rapid fire sequences.
7 . An artificial intelligence-driven recoil control system for a firearm, comprising:
a muzzle-mounted unit comprising a plurality of independently controllable vents;
a sensor array configured to detect movement of the firearm during discharge;
processor executing an artificial intelligence subsystem configured to:
(a) analyze data from the sensor array to determine magnitude and direction of recoil forces;
(b) develop a shooter profile based on historical shooting patterns;
(c) predict recoil patterns based on the shooter profile and current conditions; and
(d) determine which of the plurality of independently controllable vents to open and close to counteract the recoil forces; and
a plurality of actuators configured to selectively open and close the plurality of independently controllable vents based on determinations from the artificial intelligence subsystem.
8 . The system of claim 7 , wherein the sensor array comprises at least one gyroscopic sensor configured to detect angular movement, at least one accelerometer configured to measure linear forces, and at least one pressure sensor configured to monitor gas pressure during discharge.
9 . The system of claim 8 , wherein the artificial intelligence subsystem comprises a machine learning algorithm configured to analyze shot placement data, a real-time analysis engine configured to process sensor data, and a predictive modeling system configured to anticipate muzzle movement based on historical data and current conditions.
10 . The system of claim 8 , further comprising an optical system integration module configured to communicate with at least one of a scope or a barrel-mounted camera to receive shot placement data; and wherein the artificial intelligence subsystem is further configured to correlate the shot placement data with recoil patterns detected by the sensor array.
11 . The system of claim 10 , wherein the artificial intelligence subsystem includes a selectable near-zero recoil mode that prioritizes minimizing perceived recoil during rapid fire sequences over precise target acquisition.
12 . The system of claim 7 , wherein the plurality of independently controllable vents are arranged symmetrically around the muzzle-mounted unit with at least three different vent sizes on each of a top side, a bottom side, a left side, and a right side of the muzzle-mounted unit.
13 . A method for dynamically controlling recoil in a firearm, comprising:
1. detecting, via a sensor array, discharge of the firearm;
2. analyzing, via a processor, movement data from the sensor array to determine recoil characteristics;
3. selecting a recoil compensation mode from at least a precision targeting mode and a near-zero recoil mode, wherein the near-zero recoil mode prioritizes minimizing muzzle movement during rapid fire sequences;
4. determining, based on the selected recoil compensation mode and the determined recoil characteristics, which of a plurality of variable-sized vents on a muzzle-mounted unit to actuate; and
5. selectively opening and closing one or more of the plurality of variable-sized vents to counteract detected recoil forces according to the selected recoil compensation mode.
14 . The method of claim 13 , wherein analyzing movement data comprises detecting initial vectors of barrel movement using gyroscopic sensors and accelerometers, comparing the detected vectors against a predicted model, and calculating an optimal vent configuration to counteract the detected movement.
15 . The method of claim 14 , further comprising receiving shot placement data from at least one of a barrel-mounted camera or a scope-mounted camera; and updating the shooter profile based on the shot placement data.
16 . The method of claim 15 , wherein the near-zero recoil mode comprises detecting a rapid fire sequence; and continuously adjusting vent openings to minimize muzzle movement throughout the rapid fire sequence.
17 . The method of claim 16 , further comprising after each discharge, comparing actual performance against predicted models; and updating control algorithms based on the comparison.
18 . The method of claim 13 , wherein determining which of the plurality of variable-sized vents to actuate comprises selecting larger vents for larger recoil corrections, selecting medium vents for medium adjustments, selecting smaller vents for fine-tuning or minor corrections, and selecting multiple vents of varying sizes for significant adjustments.