Abstract: A method includes defining a designation point on a target within a view area of a scope coupled to a firearm and determining an angular motion deviation of a muzzle of the firearm from the designation point. The method further includes initiating firing of the firearm when the angular motion deviation is below an acceptable level.

Abstract: In certain embodiments, a trigger assembly including a bi-stable switch system configured to selectively engage a portion of the sear in a first state and to transition from the first state to a second state to selectively disengage the portion of the sear in response to an electrical signal.

Abstract: A trigger assembly includes a plurality of components including a trigger shoe configured to disengage a firing mechanism in response to a force applied by a user. The trigger assembly further includes a first PCB having at least one optical sensor to receive light and a controller configured to determine a positional state of at least one of the trigger shoe and a selected one of the plurality of components in response to the light received by the at least one optical sensor.

Abstract: A precision guided firearm (PGF) includes a trigger assembly and an optical device coupled to the trigger assembly. The optical device includes an optical sensor configured to capture video of a view area and includes at least one motion sensor. The optical device is configured to process video frames of the video to determine a distance between an aim point of the PGF and a selected location on a target and to determine a trajectory of the aim point based on the video frames and motion data from the at least one motion sensor.

Abstract: A precision guided handgun includes a handgun and includes a sensor circuit coupled to the handgun and configured to capture optical data associated with a view area. The precision guided handgun further includes a controller coupled to the handgun and configured to process the optical data to detect a foreground object within the optical data. The controller automatically selects the foreground object as a target.

Abstract: A precision guided firearm (PGF) includes a trigger assembly and an optical device coupled to the trigger assembly. The optical device is to predict a time when an aim point of the PGF is less than a programmable threshold distance from a selected location on a target and to control the trigger assembly to discharge the PGF at the time.

Abstract: A method includes defining a designation point on a target within a view area of a scope coupled to a firearm and determining an angular motion deviation of a muzzle of the firearm from the designation point. The method further includes initiating firing of the firearm when the angular motion deviation is below an acceptable level.

Abstract: A precision guided firearm includes a sensor configured to capture data associated with at least one of a view area and a firearm. The precision guided firearm further includes a controller coupled to the sensor and configured to detect an aiming event. The controller is configured to automatically acquire a target location within location based on the orientation data in response to detecting the aiming event.

Abstract: A method includes receiving location data corresponding to a physical location of a user at a computing device and receiving prey data corresponding to a relative position of an animal at the computing device from a gun scope. The method further includes determining a location of the animal relative to the computing device based on the location data and the prey data.

Abstract: A trigger assembly includes a trigger shoe configured to disengage a sear to release a firing mechanism in response to force applied by a user. The trigger assembly further includes a blocking mechanism configured to selectively prevent the release of the firing mechanism in response to a control signal.

Abstract: A trigger assembly includes a plurality of components including a trigger shoe configured to disengage a firing mechanism in response to a force applied by a user. The trigger assembly further includes a first PCB having at least one optical sensor to receive light and a controller configured to determine a positional state of at least one of the trigger shoe and a selected one of the plurality of components in response to the light received by the at least one optical sensor.

Abstract: A rifle scope including a display, at least one optical sensor to capture video of a view area, and image processing circuitry coupled to the display and the at least one optical sensor. The image processing circuitry is configured to select visual elements within a sequence of frames of the video and to align the visual elements within adjacent frames of the sequence of frames to produce a video output corresponding to the view area that is stabilized relative to a target. The image processing circuit is configured to provide the video output to the display.

Abstract: A rifle scope includes an image sensor configured to capture visual data corresponding to a view area, a display, and a controller coupled to the display and the image sensor. The controller is configured to apply a first stabilization parameter to at least a portion of the visual data to produce a stabilized view, to provide the stabilized view and a reticle to the display, and to apply a second stabilization parameter to stabilize the reticle relative to the stabilized view in response to motion.

Abstract: An optical apparatus includes an optical sensor configured to capture a digital image of an animal within a view area, a processor coupled to the optical sensor, and a memory coupled to the processor. The memory is configured to store instructions that, when executed, cause the processor to determine a distance to the animal, determine edges of the animal, and calculate measurements of selected portions of the animal in response to determining the edges and the distance. The memory further stores instructions that, when executed, cause processor to automatically calculate a prey score for the animal in response to calculating the measurements.

Abstract: A rifle scope includes at least one optical sensor configured to capture optical data corresponding to at least one of a barrel of a firearm and an appendage coupled to the barrel. The rifle scope further includes a controller coupled to the at least one optical sensor and configured to determine an angular position of the barrel in response to capturing the optical data. The controller is configured to automatically determine an alignment of the rifle scope relative to the barrel in response to determining the angular position.

Abstract: A method includes determining a shot count within an optical device coupled to a firearm. The shot count corresponds to a number of shots taken using the firearm. The method further includes determining a muzzle velocity parameter from a life-cycle profile of the firearm based on the shot count as an input into a ballistics solution.

Abstract: A method includes receiving location data corresponding to a physical location of a user at a computing device and receiving prey data corresponding to a relative position of an animal at the computing device from a gun scope. The method further includes determining a location of the animal relative to the computing device based on the location data and the prey data.

Abstract: A trigger assembly includes a trigger shoe configured to disengage a sear to release a firing mechanism in response to force applied by a user. The trigger assembly further includes a blocking mechanism configured to selectively prevent the release of the firing mechanism in response to a control signal.

Abstract: A rifle scope includes at least one optical sensor configured to capture optical data corresponding to at least one of a barrel of a firearm and an appendage coupled to the barrel. The rifle scope further includes a controller coupled to the at least one optical sensor and configured to determine an angular position of the barrel in response to capturing the optical data. The controller is configured to automatically determine an alignment of the rifle scope relative to the barrel in response to determining the angular position.

Abstract: A method includes receiving location data corresponding to a physical location of a user at a computing device and receiving prey data corresponding to a relative position of an animal at the computing device from a gun scope. The method further includes determining a location of the animal relative to the computing device based on the location data and the prey data.