An archery bow comprises a stabilizer mounting facility. A bow element for the archery bow comprises a body. The body comprises a first mounting facility. The first mounting facility is configured for connection to the stabilizer mounting facility. The body comprises a second mounting facility. The second mounting facility is configured for connection to a bow stabilizer. The body includes an accelerometer. The bow element comprises a processor. The processor is connected to the accelerometer. The processor is configured to receive three-dimensional acceleration information from the accelerometer. The processor is operable to generate sampled information based on the three-dimensional acceleration information. The bow element comprises a transmitter. The transmitter is connected to the processor. The transmitter is operable to transmit the sampled information.

In some embodiments, an archery bow comprises a riser comprising a first rail and a second rail. An accessory is supported by the riser. The accessory extends through the first rail and contacts the second rail. A fastener contacts the riser and the accessory. The fastener comprises a central axis that does not intersect the accessory.

A bow (e.g., compound bow, cross bow, etc.) that includes a cable splitter. The cable splitter is easy to install in that it does not require access to the yoke ends of the bow string. The cable splitter is self-anchoring to the cable. In addition, the cable splitter eliminates the need for a separate saddle and separate section of cable. The cable splitter also allows for tuning for cam lean by adding or removing twist in the yoke ends.

Systems and techniques for facilitating archery implemented in conjunction with a bow mountable laser-based speed measurement instrument or a speed sensor bar as well as a bow movement sensor system which may be affixed to any of the available mounting positions on a conventional bow.

An archery limb adjustment system and method for archery bows are disclosed herein. The archery limb adjustment system, in an embodiment, includes an archery limb holder configured to be coupled to an archery bow, a pivot member configured to be coupled to the archery bow, and an archery limb adjuster operatively coupled to the archery limb holder. The archery limb adjuster is configured to receive an input. As a result of the input, the archery limb holder is configured to pivot relative to the archery bow.

An archery bow and method are disclosed herein. The archery bow, in an embodiment, includes a first limb, a second limb, and a draw cord coupled to the first and second limbs. The archery bow also includes a first cord coupled to the first limb, a second cord coupled to the second limb, and a driver operatively coupled to an energy source. The driver is configured to manipulate the first and second cords to change a tension in the draw cord.

In some embodiments, an archery bow comprises a riser and a bushing attached to the riser. In some embodiments, the bushing comprises a flange and a tubular shaft. In some embodiments, the tubular shaft comprises an external helical thread and an internal helical thread. In some embodiments, the flange comprises a front portion and a rear portion, the rear portion comprising a rear surface in contact with the riser. In some embodiments, the front portion comprises a recessed portion and a contacting ring. In some embodiments, a diameter of the contacting ring is greater than a distance across the external helical thread.

In some embodiments, an archery bow comprises a riser, a limb member and a support member. The limb member is supported by the riser at a first location. The limb member supports an axle at a second location. The support member is supported by the riser and arranged to support the limb member. The support member contacts the limb member at a contact location. The contact location is oriented between the first location and the second location along the length of the limb member.

A tension amplifying assembly and method are disclosed herein. The tension amplifying assembly, in an embodiment, includes a plurality of connection points or connection members configured to be coupled to a structure of an archery bow. Each of the connection members is configured to movably couple one of the limbs to the structure so that each of the limbs is movable from a first position relative to the structure to a second position relative to the structure. The tension amplifying assembly also includes a plurality of piston-cylinder assemblies, at least one reservoir tillable with a fluid, at least one valve, and a switch device configured to be operatively coupled to the at least one valve. The connection members are configured to cause the limbs to move from the first positions to the second positions in response to an operation of the switch device, and the movements cause the tension in the bow string to increase.

Embodiments of the present disclosure provide a bow and a method for reducing torque. An exemplary bow includes a riser having a pair of limbs having a string assembly operably coupled to each one of the pair of limbs, the riser with the pair of limbs operable to maintain a tension in the string assembly. The bow further includes a handle, the handle having a ball joint maintained in the handle operable to rotate relative to the handle, wherein the handle is rotatably affixed to the riser at the ball joint free floating bow including a riser having two ends, and a pair of limbs, each extending from one end of the riser.