Systems, devices, and methods are provided, wherein a device is attachable to or integrated in a firearm and includes a plurality of sensors that are each configured to sense a respective attribute of the firearm or of an environment surrounding the firearm, and are further configured to provide corresponding signals based on sensing the respective attribute. The systems, devices, and methods may be configured to determine an event from among a plurality of events based on the corresponding signals provided by the plurality of sensors. Systems that include the device may record event data and transmit the event data to various user systems for situational awareness, record keeping, training, and other organizational or legal-process purposes.

Systems and methods for analyzing and categorizing firearm-related events are provided herein. A data collection device may be attached to a firearm. The data collection device may be outfitted with sensors to track the movements and forces of the firearm. The movement and force data may be analyzed to categorize the event. Machine learning techniques may be used to stores relationships between the data and the events. A profile for a user may be created that learns the firearm handling techniques of the user. The data collection device may interface with body cameras and other external equipment and may be used in law enforcement scenarios. The data collection device may also be used with civilians for shot analysis.

Systems and methods for analyzing and categorizing firearm-related events are provided herein. A data collection device may be attached to a firearm. The data collection device may be outfitted with sensors to track the movements and forces of the firearm. The movement and force data may be analyzed to categorize the event. Machine learning techniques may be used to stores relationships between the data and the events. A profile for a user may be created that learns the firearm handling techniques of the user. The data collection device may interface with body cameras and other external equipment and may be used in law enforcement scenarios. The data collection device may also be used with civilians for shot analysis.

The invention describes a system for or recording the usage of a firearm and helping a user during usage of the firearm using multiple sensors to gather various information. The system includes a plurality of sensors to record various usage and status data of the firearm. The system further includes a communication module communicatively coupled to the sensors. The communication module is further connected to a processor. The system further includes a memory, a clock chip and an information disseminating device that includes a communication port. The plurality of sensors are configured to gather various information about a firearm device that may be a pistol, a revolver, a gun, etc. after being attached to the firearm device. In addition to the operational information, some of the sensors out of the plurality of sensors may gather information about surrounding environment of the firearm like lighting conditions, wind flow etc. to help a user of the firearm device to use it efficiently.

The present disclosure provides a Bluetooth operated lock for a trigger or a sheath. It is designed to limit the users' access to the use of the firearm. The only way to release the lock is through a wireless signal from a cell phone or another remote device. The disclosure includes a band having a first end and a second end configured to form a continuous loop around a firearm handle inside or outside the trigger. The disclosure also includes a locking mechanism connecting the first end and the second end which is operable via a wireless signal. The disclosure additionally includes a blocking mechanism on the band and configured to block a depression of the trigger and operable via the locking mechanism. The disclosure further includes a safety button on the band configured to engage the blocking mechanism when depressed and released via the wireless signal.

A wireless camera network is disclosed. The wireless camera network includes a first camera and one or more other cameras. After an input is received by the first camera, the first camera records images or video, and the first camera wirelessly transmits a start signal to one or more other cameras to also start recording images or video and to also wirelessly transmit the start signal.

The projectile-launcher operation monitoring device includes at least one displacement-sensor and a processor coupled with the displacement-sensor. The displacement-sensor acquires measurements relating to the displacement of the projectile-launcher and to produce a sampled time signal of values relating to the displacement. The processor receives from the displacement-sensor the sampled time signal to determine projectile-launcher operation parameters therefrom, by employing a deep-learning system. The deep-learning system includes an encoder receiving sample-frames from the sampled time signal producing codes relating to the sample-frames. Each of the codes is a vector of values relating to the probabilities of features in the received sample-frames.

The projectile-launcher operation monitoring device includes at least one displacement-sensor and a processor coupled with the displacement-sensor. The displacement-sensor acquires measurements relating to the displacement of the projectile-launcher and to produce a sampled time signal of values relating to the displacement. The processor receives from the displacement-sensor the sampled time signal to determine projectile-launcher operation parameters therefrom, by employing a deep-learning system. The deep-learning system includes an encoder receiving sample-frames from the sampled time signal producing codes relating to the sample-frames. Each of the codes is a vector of values relating to the probabilities of features in the received sample-frames.

A mitigation control system is arranged in an environment containing an energetic material and includes an abnormal temperature sensor for detecting an abnormal temperature of the environment, a power source that is mechanically actuated by the abnormal temperature sensor when the abnormal temperature exceeds a predetermined abnormal temperature threshold, a mitigation controller that is actuated by the power source, and a plurality of local temperature sensors that are communicatively coupled to the mitigation controller and are arranged for detecting critical temperatures in specific regions of the environment. The mitigation controller executes a mitigation action when one of the critical temperatures exceeds a predetermined critical temperature threshold for the corresponding specific region.

A mitigation control system is arranged in an environment containing an energetic material and includes an abnormal temperature sensor for detecting an abnormal temperature of the environment, a power source that is mechanically actuated by the abnormal temperature sensor when the abnormal temperature exceeds a predetermined abnormal temperature threshold, a mitigation controller that is actuated by the power source, and a plurality of local temperature sensors that are communicatively coupled to the mitigation controller and are arranged for detecting critical temperatures in specific regions of the environment. The mitigation controller executes a mitigation action when one of the critical temperatures exceeds a predetermined critical temperature threshold for the corresponding specific region.