An archery bow is provided including limbs and at least one power cable disposed in a track of a cam rotatably mounted to a limb. The power cable is anchored to the cams with a fastener having a shaft registered in a hole defined by a landing surface of the cam so that a power cable is trapped in a cable capture void between a head of the fastener and the landing surface. The fastener can include a radius between a fastener axis and an outer edge of the head. A separation distance can be defined between the head and the track, with a ratio of the separation distance to the radius being less than 1:1. The separation distance can be less than a diameter of the power cable. A related method of use is provided.

A crossbow de-tensioning apparatus includes, in an embodiment, a de-tensioning device configured to be coupled to a crossbow. The de-tensioning apparatus also includes at least one hook operatively coupled to the de-tensioning device. The at least one hook is configured to be hooked onto a bowstring of the crossbow.

A crossbow de-tensioning apparatus includes, in an embodiment, a de-tensioning device configured to be coupled to a crossbow. The de-tensioning apparatus also includes at least one hook operatively coupled to the de-tensioning device. The at least one hook is configured to be hooked onto a bowstring of the crossbow.

The disclosed technology includes a semi-automatic crossbow having a stock, a plurality of limbs, a drawstring, a bolt feeder, a barrel, a draw assembly, and a release. The draw assembly can be configured to automatically move the drawstring to a cocked position and the release can include a trigger and be configured to release the drawstring when the trigger is actuated. The disclosed technology can further include a truck configured to engage the drawstring and a bolt such that the bolt can be propelled forward by the truck when the drawstring is released by the release.

The disclosed technology includes a semi-automatic crossbow having a stock, a plurality of limbs, a drawstring, a bolt feeder, a barrel, a draw assembly, and a release. The draw assembly can be configured to automatically move the drawstring to a cocked position and the release can include a trigger and be configured to release the drawstring when the trigger is actuated. The disclosed technology can further include a truck configured to engage the drawstring and a bolt such that the bolt can be propelled forward by the truck when the drawstring is released by the release.

A cam assembly for an archery bow is provided. The cam assembly includes a cam body and an anchoring lug. The cam body defines a pivot axis and a groove circumferentially routed at least partially around the pivot axis. The anchoring lug is coupled with the cam body and includes a force sensor. The anchoring lug is offset from the pivot axis and is configured to facilitate attachment of a bow cord thereto. The force sensor is configured to facilitate detection of a tension on the bow cord as a function of a force imparted to the force sensor from the bow cord. An archery bow is also provided.

Stocks for aimable devices are provided. In one aspect, stock has a body mechanically associated with the aimable device and movable to determine an aiming axis of the aimable device, a shoulder mount positioned proximate to one end of the body, a firing grip positioned apart from the shoulder mount along a length of the body; a support leg having a mounting end pivotably mounted to the body between the firing grip and an end of the body opposite from the shoulder mount and having a foot end movable between a first range of positions and a second range of positions and a receiver located between the mounting of the support leg to the body and the firing grip and adapted to releasably hold the support leg in the first range of positions wherein the at least one support leg provides a grippable forestock.

Stocks for aimable devices are provided. In one aspect, stock has a body mechanically associated with the aimable device and movable to determine an aiming axis of the aimable device, a shoulder mount positioned proximate to one end of the body, a firing grip positioned apart from the shoulder mount along a length of the body; a support leg having a mounting end pivotably mounted to the body between the firing grip and an end of the body opposite from the shoulder mount and having a foot end movable between a first range of positions and a second range of positions and a receiver located between the mounting of the support leg to the body and the firing grip and adapted to releasably hold the support leg in the first range of positions wherein the at least one support leg provides a grippable forestock.

An arrow feeding device for a crossbow includes a magazine mounted to the flight groove of the crossbow. A storage space is formed through the magazine so as to accommodate multiple arrows therein. A retainer is located in the storage space, and resiliently normally presses the arrows in the storage space so that the users shoots the arrows one by one. The retainer is a resilient and an elongate part, an elongate plate cooperated with a spring, or a block cooperated with multiple springs. The retainer can be pulled or pivoted upward to allow the arrows to be fed into the storage space.

A crossbow string cocking device preferably includes a housing, a first reel, a second reel, a ratchet device, a rotary spring, a driven shaft, a drive shaft and a string pull device. The housing preferably includes a main body housing, a first end cover and a second end cover. The ratchet device is retained in a first end of the main body housing. A drive gear is rotatably retained on the drive shaft. The first reel and a ratchet gear of the ratchet device are retained on a first end of the driven shaft. A driven gear, the rotary spring and the second reel are retained on a second end of the driven shaft. The string pull device includes a ribbon and at least one string hook. A first end of the ribbon is retained on the first reel. A second end of the ribbon is retained the second reel.