A cable slide structure of a crossbow, wherein the crossbow contains a crossbow body, a bow limb assembly, two pulley assemblies, a bowstring, two auxiliary strings, and a cable slide. The crossbow body includes a holder and a slot, and the bow limb assembly is fixed on the crossbow body. The two pulley assemblies are connected to two edges of the bow limb assembly, and two ends of the bowstring are connected with the two pulley assemblies. Each of the two auxiliary strings includes a first connection segment formed on a first end thereof, and each of the two auxiliary strings includes a second connection segment formed on a second end thereof. Two first connection segments of the two auxiliary strings are connected with the two pulley assemblies. The cable slide is slidably received in the slot and includes two opposite first fixing portions and two opposite second fixing portions.

A crossbow includes a frame that has a front end and a stock at a rear end. A projectile moves along a projectile axis that extends between the rear end and the front end during firing. The crossbow includes a power source that is configured to fire the projectile. The crossbow includes a latch that is movable between the rear end and the front end of the frame. The latch has a main body that defines a nock aperture aligned with the projectile axis and configured to receive a portion of the projectile therein. The crossbow includes a projectile guide connected to the main body of the latch and positioned adjacent the projectile axis. The projectile guide is configured to interface with the projectile when the projectile is in a misaligned rotational position, and be positioned between portions of the projectile when the projectile is in an aligned rotational position.

A projectile launcher including a frame having a grip and defining a projectile axis, a drawstring hub rotatable mounted to the frame and defining a central axis perpendicular to the projectile axis and positioned a fixed distance from the projectile axis, a drawstring being attached to the drawstring hub so that movement of the drawstring results in the rotation of the drawstring hub about the central axis, a limb coupled to the frame and extending along a vertical limb plane, and a power cable coupled to the limb and the drawstring hub so that rotation of the drawstring hub about the central axis draws the limb closer to the central axis.

In some embodiments, a crossbow cocking device comprises a rope and a hook engaged with the rope. The hook defines a longitudinal axis and comprises a valley, a surface of the valley oriented at a non-orthogonal angle to the longitudinal axis.

A projectile launching device includes self-timing without cam lean. The projectile launching device may include a rail, a riser, two energy storing components, (such as two limbs), two cams, a launch string, and at least one cable. The ends of the launch string are attached to the two cams. Opposing ends of first and second cables may be coupled to the rail or riser. A mid-portion of the first and second cables are slideably engaged with the first and second cams, respectively. Alternatively, a single cable may replace the first and second cables. The two cams are preferably built as mirror images of each other at a centerline of the rail. The two cams include a launch string track, having identical, but mirrored, upper and lower cable tracks.

A crossbow is configured to shoot a projectile. The crossbow includes a frame having a stock positioned at a rear end, the frame defining a horizontal projectile plane at a top side in which a projectile axis is positioned. The projectile moves within the horizontal projectile plane and along the projectile axis during firing and arming of the crossbow, and the projectile is fired from a front end of the frame. The crossbow further includes a drawstring hub connectable to ends of a drawstring. Rotation of the drawstring hub in at least one direction is powered, such as by a force applied by flexed limbs. The crossbow further includes drawstring guides attached to the frame for guiding the drawstring across the projectile axis between the ends of the drawstring. The first and second drawstring guides each include a pulley wheel, wherein the drawstring is guided at least partially around each pulley wheel. A further aspect is a crossbow having a frame comprised of a first frame portion and a second frame portion that are detachably coupled to one another via a fastening mechanism.

A crossbow including a riser, a limb coupled to the riser, and a cam assembly rotatably coupled to the limb about an axis of rotation. The cam assembly including a string guide defining a plane of rotation of the cam assembly about the axis of rotation and structured to support a drawstring, a drawstring attachment point structured to engage the drawstring, a power cable journal extending away from the plane of rotation along the axis of rotation and structured to support a power cable, and a power cable attachment point structured to engage the power cable. The power cable journal is shaped to displace the power cable away from the plane of rotation as the crossbow is drawn from a released configuration to a drawn configuration to provide a gap sized to permit the drawstring attachment point and the power cable attachment point to pass between the power cable and the plane of rotation.

An archery limb control system, method and bow are described herein. The archery limb control system, in an embodiment, includes an energy resource, a plurality of flexible lines, and a driver. The driver includes a support coupled to the flexible lines and a gear coupled to the support.

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.