A smart gun communicating over a communication network. Wherein, the smart gun includes a triggering mechanism in order to lock/unlock the trigger for preventing/allow the gun to fire bullets, wherein the triggering mechanism is based on the information received from the GPS or the camera installed in the smart gun. Further, the safety system sends a message and/or GPS location of the smart gun over the communication network to the one or more concern authorities (i.e. law enforcement agency and/or the authorized user) in case the safety system detects any tamper to the safety gun.

A smart round of ammunition includes a casing, a primer disposed at a bottom portion of the casing, a projectile mounted at a top portion of the casing and a propellant disposed within an interior portion of the casing between the projectile and primer. The primer includes a piezo generator transducing a mechanical force received at a firing pin portion of the primer into a stored charge, a switch coupling and decoupling a spark gap between the stored charge and the propellant, and a wireless sensor activating the switch responsive to a digital signal received from a component external to the casing. The activation permits a discharge of the stored charge into the spark gap and therefore detonates the propellant.

A system includes and maintains a machine learning algorithm. The machine learning algorithm is trained to identify non-targets in an environment. The system receives an image of the environment, and identifies the non-targets in the image using the trained machine learning algorithm. The system then generates a firing cut out map for overlaying on the image of the environment based on the identified non-targets in the image of the environment.

A system and method for a programmable trigger device for a firearm, capable of situational awareness providing intelligent contextual data related to projectile management to a downstream firing device. In particular, a smart trigger system that evaluates targets in line-of-fire, estimated target age, estimated target distance, and other contextual data that is then passed along to a programmable device. The device, as provided by the consumer of this invention, may make the determination then whether to eject or prevent ejection of a bullet after the trigger is activated, firing an alternative shot based on environmental factors of which the device is aware, or other activations or deactivations as seen fit.

The present invention relates to a firearm safety control system. The system is primarily comprised of at least one camera, at least one image recognition software, at least one artificial intelligence software, and at least one disabling mechanism. Using the camera, the image recognition software detects and classifies a target. The artificial intelligence software then determines what lethality mode the target can be engaged at. If a user attempts to engage an area of the target not permitted by the current lethality mode, the firearm will become disabled and will not fire.

A location-based gun magazine has a housing having a plurality of locking apertures, a spring, a wireless receiver switching device, a battery, and an electromagnet locking mechanism. The electromagnet locking mechanism has a locking tab for engaging and locking with the plurality of locking apertures, the locking tab actuatable via the electromagnet, the electromagnet receiving a signal from the wireless receiver switching device. The wireless receiver switching device may have a radio receiver, a GPS chip, or other device for receiving location-based information.

A location-based gun magazine has a housing having a plurality of locking apertures, a spring, a wireless receiver switching device, a battery, and an electromagnet locking mechanism. The electromagnet locking mechanism has a locking tab for engaging and locking with the plurality of locking apertures, the locking tab actuatable via the electromagnet, the electromagnet receiving a signal from the wireless receiver switching device. The wireless receiver switching device may have a radio receiver, a GPS chip, or other device for receiving location-based information.

Implementations of firearm regulation systems may include a firearm safety system (FSS) configured to physically couple to a firearm. The FSS may include a locking mechanism configured to prevent the firearm from firing and a sensor configured to detect an environmental parameter. The firearm regulation system may also include a management system communicatively coupled to the FSS and a site safety system (SSS) communicatively coupled to the management system. The SSS may include one or more lockdown mechanisms.

Implementations of firearm regulation systems may include a firearm safety system (FSS) configured to physically couple to a firearm. The FSS may include a locking mechanism configured to prevent the firearm from firing and a sensor configured to detect an environmental parameter. The firearm regulation system may also include a management system communicatively coupled to the FSS and a site safety system (SSS) communicatively coupled to the management system. The SSS may include one or more lockdown mechanisms.

An electronic locking system is operable to prevent a firearm from firing. The firearm includes an operating mechanism. The electronic locking system includes a power source configured to store electrical energy used to operate the electronic locking system; and a power generation element configured to generate electrical energy as a result of an operation of the operating mechanism, wherein at least a portion of the electrical energy generated by the power generation element is received by the power source.