An electrically driven machine gun can include a drive motor, a feeder delinker, a clutch, and a motor control unit. The drive motor is configured to rotate a rotor of the gun when receiving power. The feeder delinker is configured to provide ammunition cartridges to the rotor while being rotated. The rotor fires the ammunition cartridges while receiving them from the feeder delinker and being rotated by the drive motor. The clutch is configured to selectively engage the rotor and the feeder delinker while actuated. The motor control unit is configured to receive input from a user and provide power to the drive motor as a function of the input received from the user and to actuate the clutch while providing power to the drive motor. The motor control unit includes a battery to eliminate the necessity of an external power supply.

A stationary target shooting system includes a main body having a horizontal member, a vertical member, and a base. The horizontal member is coupled to a first end of the vertical member. The base is coupled to a second end of the vertical member. At least one paper target holder is disposed on the horizontal member. At least one non-paper target holder depends from the horizontal member. The stationary target shooting system is portable and can be easily broken down and reassembled for use on a variety of surfaces. The stationary target shooting system may be adapted for target shooting with both firearms and archery.

A bolt for a firearm having a rotatable head and carrier body has a twisted polygonal keyed interface between the head and carrier body. A neck extending rearward from the head presents the keyed interface with a corresponding bore within the carrier body. This construction reduces torque moments between the head and carrier body as compared to prior art bolts. Camming loads on the neck may be constructed with inverses to create space for tolerance and lubricant.

A bolt for a firearm having a rotatable head and carrier body has a twisted polygonal keyed interface between the head and carrier body. A neck extending rearward from the head presents the keyed interface with a corresponding bore within the carrier body. This construction reduces torque moments between the head and carrier body as compared to prior art bolts. Camming loads on the neck may be constructed with inverses to create space for tolerance and lubricant.

A safing sector assembly includes a safing sector frame securable to a minigun main housing, a top cover hingedly attached to the frame, and a safing gate hingedly attached to the top cover. The frame includes an aft camming portion of an elliptical cam track of the minigun on an underside thereof. The top cover is rotatable, while the frame is secured to the main housing, between a closed position and an open position. The safing gate includes a forward camming portion of the elliptical cam track on an underside thereof and is rotatable between an armed position and a safe position. The safing gate is only rotatable to the armed position while the top cover is closed. The safing gate latches the top cover closed, so the top cover can only be opened while the safing gate is in the safe position.

A safing sector assembly includes a safing sector frame securable to a minigun main housing, a top cover hingedly attached to the frame, and a safing gate hingedly attached to the top cover. The frame includes an aft camming portion of an elliptical cam track of the minigun on an underside thereof. The top cover is rotatable, while the frame is secured to the main housing, between a closed position and an open position. The safing gate includes a forward camming portion of the elliptical cam track on an underside thereof and is rotatable between an armed position and a safe position. The safing gate is only rotatable to the armed position while the top cover is closed. The safing gate latches the top cover closed, so the top cover can only be opened while the safing gate is in the safe position.

An assembly for quickly attaching and detaching the guide bar to and from the rotor housing of a minigun is provided. The assembly comprises a guide bar and a rotor housing. The guide bar includes a front end having a pinhole extending through the front end and a rear end having a locking cam. The rotor housing includes a recessed channel configured to receive the locking cam and a spring-loaded lock pin assembly configured to secure the front end of the guide bar. The guide bar is secured to the rotor housing when the locking cam is inserted into the recessed channel and the spring-loaded lock pin assembly secures the front end of the guide bar. The assembly allows the guide bar to quickly be attached and detached from the rotor housing without the need for tools. The rotor housing may be designed without a yoke to reduce weight.

An assembly for quickly attaching and detaching the guide bar to and from the rotor housing of a minigun is provided. The assembly comprises a guide bar and a rotor housing. The guide bar includes a front end having a pinhole extending through the front end and a rear end having a locking cam. The rotor housing includes a recessed channel configured to receive the locking cam and a spring-loaded lock pin assembly configured to secure the front end of the guide bar. The guide bar is secured to the rotor housing when the locking cam is inserted into the recessed channel and the spring-loaded lock pin assembly secures the front end of the guide bar. The assembly allows the guide bar to quickly be attached and detached from the rotor housing without the need for tools. The rotor housing may be designed without a yoke to reduce weight.