A sighting device for a bow which attaches to a release mechanism being used with said bow. The sighting device includes a sighting assembly, a positioning-and-orienting arm with multiple degrees of freedom, and a mounting clamp. The sighting assembly includes an annular plate, a sight eyepiece, and a support arm. The sight eyepiece is oriented normal to the annular plate and is positioned within a lateral boundary that is defined as an extension of an inner wall of the annular plate. The support arm is swivelably and adjacently connected to the annular plate and holds the sight eyepiece in place. A first end of the positioning-and-orienting arm is adjacently attached to the annular plate and a second of the positioning-and-orienting arm is attached to the mounting clamp. The mounting clamp is attached to the release mechanism, thus positioning the sighting assembly directly in front of the user's eye.

A sighting device for a bow which attaches to a release mechanism being used with said bow. The sighting device includes a sighting assembly, a positioning-and-orienting arm with multiple degrees of freedom, and a mounting clamp. The sighting assembly includes an annular plate, a sight eyepiece, and a support arm. The sight eyepiece is oriented normal to the annular plate and is positioned within a lateral boundary that is defined as an extension of an inner wall of the annular plate. The support arm is swivelably and adjacently connected to the annular plate and holds the sight eyepiece in place. A first end of the positioning-and-orienting arm is adjacently attached to the annular plate and a second of the positioning-and-orienting arm is attached to the mounting clamp. The mounting clamp is attached to the release mechanism, thus positioning the sighting assembly directly in front of the user's eye.

A range finder assembly comprising one or more sight pin leads having a light emitting end and a light receiver end, one or more PCBs, a range finder assembly, one or more LEDs, a power supply, a device application and an optical coupling assembly. The one or more PCBs comprises one or more processors and a memory. The one or more processors are configured for executing the device application. The device application is configured for interpreting a range signal from the range finder assembly and generating a range display signal. The one or more LEDs generate light signals. The one or more LEDs are selectively routed into the light receiver end of the one or more sight pin leads using the optical coupling assembly. The light emitting end connect to one or more display pins within bow sight.

A range finder assembly comprising one or more sight pin leads having a light emitting end and a light receiver end, one or more PCBs, a range finder assembly, one or more LEDs, a power supply, a device application and an optical coupling assembly. The one or more PCBs comprises one or more processors and a memory. The one or more processors are configured for executing the device application. The device application is configured for interpreting a range signal from the range finder assembly and generating a range display signal. The one or more LEDs generate light signals. The one or more LEDs are selectively routed into the light receiver end of the one or more sight pin leads using the optical coupling assembly. The light emitting end connect to one or more display pins within bow sight.

An archery extension bar that attenuates vibration transmitted to a fixing portion due to vibration caused by restoration of a bow part after shooting of an arrow. The archery extension bar (3) includes: a support portion (9) having a predetermined length; a fixing portion (10), which is located on one end side of the support portion (9) in a longitudinal direction, and is configured to be fixed to a bow part (1); and a mounting portion (11), which is located on another end side of the support portion, and is configured to allow a sight (5) to be mounted thereto. The support portion has a small vertical sectional area portion (13), which has a vertical sectional area smaller than a vertical sectional area of the fixing portion and extends over an entire range or a part of a range of the support portion in the longitudinal direction.

An archery mounting assembly and method are disclosed herein. The archery mounting assembly, in an embodiment, includes a mount device having a mount portion configured to be engaged with a body of an archery weapon. The mount device also has a first interface that extends at least partially along an adjustment axis. The archery mounting assembly further includes an accessory support, which includes a support portion configured to support an archery accessory and a second interface configured to be movably coupled to the first interface of the mount device.

An aiming device for bow and arrow with distance measurement and electronic reticle is disclosed, including an assembly for fixing and moving bow and arrow, a mounting seat for distance measuring and aiming module, a laser rangefinder module, an electronic reticle display screen, a level meter and a processing module. The assembly connects to the mounting seat via a connecting base. The laser rangefinder module, the electronic reticle display screen and the level meter are disposed on the mounting seat. The processing module is embedded in the mounting seat. The assembly fixes and moves bow and arrow; the laser rangefinder module measures distance between an shooting point and an aiming point; the processing module adjusts the aiming point according to the distance and shooting angle of the arrow; the electronic reticle display screen displays the aiming point, the distance, and an included angle between the target and the level meter.

An aiming device for bow and arrow with distance measurement and electronic reticle is disclosed, including an assembly for fixing and moving bow and arrow, a mounting seat for distance measuring and aiming module, a laser rangefinder module, an electronic reticle display screen, a level meter and a processing module. The assembly connects to the mounting seat via a connecting base. The laser rangefinder module, the electronic reticle display screen and the level meter are disposed on the mounting seat. The processing module is embedded in the mounting seat. The assembly fixes and moves bow and arrow; the laser rangefinder module measures distance between an shooting point and an aiming point; the processing module adjusts the aiming point according to the distance and shooting angle of the arrow; the electronic reticle display screen displays the aiming point, the distance, and an included angle between the target and the level meter.

An elevation assembly for an archery sight includes a rail adapted for connection with a bow and having a plurality of spaced teeth extending from a surface thereof. An elevation block is mounted on the rail for reciprocal sliding movement between the ends of the rail. A pinion wheel is connected with the elevation block. The wheel includes a plurality of teeth which are configured to mesh with the pinion teeth of the rail. A knob is connected with the pinion wheel. Rotation of the knob rotates the pinion wheel to displace the wheel and the elevation block along the longitudinal axis of the rail for precise elevation adjustment of the archery sight. Pressing the knob along an axis normal to the rail longitudinal axis moves the pinion wheel along the normal axis away from the rail axis to disengage the pinion wheel teeth from the rail teeth and allow the elevation block to slide freely along the rail for quick course elevation adjustment of the sight.

An elevation assembly for an archery sight includes a rail adapted for connection with a bow and having a plurality of spaced teeth extending from a surface thereof. An elevation block is mounted on the rail for reciprocal sliding movement between the ends of the rail. A pinion wheel is connected with the elevation block. The wheel includes a plurality of teeth which are configured to mesh with the pinion teeth of the rail. A knob is connected with the pinion wheel. Rotation of the knob rotates the pinion wheel to displace the wheel and the elevation block along the longitudinal axis of the rail for precise elevation adjustment of the archery sight. Pressing the knob along an axis normal to the rail longitudinal axis moves the pinion wheel along the normal axis away from the rail axis to disengage the pinion wheel teeth from the rail teeth and allow the elevation block to slide freely along the rail for quick course elevation adjustment of the sight.