A system for disabling or destroying an unmanned aerial vehicle (UAV) is provided. The system comprises an anti-UAV system and an anti-UAV computing platform. The anti-UAV system comprises: a plurality of laser devices configured to generate a plurality of laser beams at a plurality of different wavelengths; a coarse wavelength division multiplexing (CWDM) combiner configured to combine the plurality of laser beams from the plurality of laser devices into a combined laser beam; and a tracking device configured to detect a UAV. The anti-UAV computing platform is configured to: detect, using the tracking device, an object within range of the tracking device; and based on detecting the object, direct, using the anti-UAV system, the combined laser beam from the CWDM combiner onto the detected object.

A DE energy weapon and tracking system includes a passive millimeter wave (PmmW) imaging receiver on a common gimbaled telescope to sense natural electromagnetic radiation from a mmW scene. The PmmW imaging receiver operates in a portion of the electromagnetic spectrum distinct from the IR bands associated with thermal blooming or the HEL laser. In the case of a HPM source, the reflected energy is either in a different RF band and/or of diminished amplitude such as to not interfere with operation of the PmmW imaging receiver. Although lower resolution than traditional optical imaging, PmmW imaging provides a viable alternative for target tracking when the DE weapon is actively prosecuting the target and provides additional tracking information when the DE weapon is not engaged.

A non-injurious incapacitating device is provided that includes an exterior layer defining a contained volume. A primary effect is contained within the device that deploys to size at least 10 times that of the contained volume. A power supply and a sensor are provided. The sensor communicates a contact or proximity signal when the exterior layer contacts or is within an effective range of a target. A control circuit interconnects provides a triggering signal to the primary effect based on the contact or proximity signal. The device is provided in some embodiments as a system inclusive of a launcher. A method of non-injuriously incapacitating of a target individual is also provided in which a user directs a device into proximity of the target individual. The device deploys an expansive primary effect to non-injuriously incapacitate the target individual.

According to an aspect of the invention, there is provided a weapon system for use on a vehicle, comprising: a control system, the control system configured to, in response to a determination that a line-of-sight from the weapon system to a target of the weapon system is currently, or going to be obscured, trigger an alteration of a configuration of the vehicle such that the line-of-sight to the target is not obscured. Thus, the weapon system can ensure a line-of-sight of the target, allowing it to be successfully engaged.

A magazine for a conducted electrical weapon may include a bore configured to receive a cartridge. The bore may be sized and shaped to receive a cartridge having a specific cartridge type. A cartridge may comprise a cartridge identifier coupled to an outer surface of the cartridge. The cartridge identifier may include a physical property indicating a cartridge type of the cartridge. The cartridge identifier may allow the cartridge to be correctly received into the bore of the magazine.

A novel electroshock device is provided. The novel electroshock device includes a weapon body, a magazine, and at least one electroshock projectile which is used by being positioned into a magazine and ensures that a target is subjected to shock by being fired to the target, and which has no physical connection with the magazine or with a weapon body after being fired to the target.

A novel electroshock device is provided. The novel electroshock device includes a weapon body, a magazine, and at least one electroshock projectile which is used by being positioned into a magazine and ensures that a target is subjected to shock by being fired to the target, and which has no physical connection with the magazine or with a weapon body after being fired to the target.

A short-range conducted electrical weapon (“conducted electrical weapon”) may be configured to deploy electrodes having a minimum spacing when coupled to a target at short-range. The conducted electrical weapon may comprise a housing. The housing may comprise a target end opposite a grip end. The grip end may be configured to removably receive a cartridge. The cartridge may house two or more electrodes. The target end may comprise one or more activation buttons or terminals. In response to the activation buttons or terminals being activated, the electrodes may be launched from the cartridge in the grip end. The electrodes may be disposed in the cartridge at an obtuse angle relative to the placement of the opposite electrode. The obtuse angle may enable the electrodes to be deployed effectively at short range.

A conducted electrical weapon may include an interposer. The interposer may be disposed in a bay of the conducted electrical weapon or may be coupled to a magazine insertable within the bay of the conducted electrical weapon. The interposer may include a cartridge separator. The cartridge separator may logically or physically define a plurality of cartridge compartments. Each cartridge compartment may be configured to receive and align with a cartridge loaded into a magazine.

An Unmanned Aerial Vehicle is disclosed. The Unmanned Aerial Vehicle includes a body, rotors attached to the body, one or more sensors, and an electromagnetic pulse transmitter. The electromagnetic pulse transmitter is configured to transmit an EMP and the Unmanned Aerial Vehicle is configured to track a target Unmanned Aerial Vehicle using the one or more sensors and direct the electromagnetic pulse transmitter at the target Unmanned Aerial Vehicle to disrupt the target Unmanned Aerial Vehicle.