Abstract: A trailer alignment system is provided. The system comprises a sensor disposed within a housing. The system also comprises a processor configured to determine a location of a vehicle on a trailer based on data received from the sensor and in response to the vehicle location determination, the processor generates a notification. The system further comprises a notification element configured to display the generated notification to a driver of the vehicle.

Abstract: A coupler for coupling an output shaft of a servo to an auxiliary shaft, comprises an coupler body having a longitudinal axis extending from a first end to a second end. The coupler body comprises a first bore, configured to accept a portion of the auxiliary shaft, centered on the longitudinal axis and extending into the first end a first distance. The coupler also comprises a second bore centered on the longitudinal axis and extending into the second end a second distance. The coupler also comprises a first fastener disposed proximate the first end, wherein adjusting the first fastener deforms a cross sectional dimension of the first bore. The coupler also comprises a second fastener disposed proximate the second end, wherein adjusting the second fastener deforms a cross sectional dimension of the second bore. An inner surface of the second bore has a female spline configuration to accept and engage a portion of the output shaft of the servo.

Abstract: A clamping hub comprising a body. The clamping hub further comprising an accessory mount configured to mount an accessory to the clamping hub. The clamping hub also comprising an aperture, within the body, configured to receive a shaft. The clamping hub also comprising a clamp configured to secure the shaft in the aperture.

Abstract: An extrusion profile comprises a center aperture. The extrusion profile also comprises a peripheral aperture. The profile also comprises a first set of drill guides corresponding to a vertical center of the center aperture and a second set of drill guides corresponding to a horizontal center of the center aperture.

Abstract: A hobby servo block system for increasing the load-bearing capacity of a hobby servo motor is provided. The system includes a servo plate configured to receive a hobby servo motor. The system also includes a hub plate configured to couple to the servo plate such that the hub plate and the servo plate are substantially perpendicular. The system further includes a ball bearing plate configured to couple to the hub plate such that the ball bearing plate and the servo plate are substantially parallel.

Abstract: A non-transitory computer-readable storage medium having computer executable instructions that, when executed, cause a computing device to execute operations comprising transitioning a displayed user interface presented on a display of the computing device from a first control mode for controlling a moveable device, to a second control mode for controlling the moveable device is presented. The user interface comprises a control mode selector and a functionality limitation setting mechanism. The control mode selector is configured to display a plurality of control mode selector icons, each corresponding to one of a plurality of control modes. The plurality of control mode selector icons includes a first control mode selector icon, corresponding to the first control mode, and a second control mode selector icon, corresponding to the second control mode. The control mode selector is configured to receive a user input selection of the second control mode selector icon.

Abstract: Hobby servo blocks are provided. In certain circumstances, servo blocks may increase a servo's load-bearing capabilities by helping to isolate the lateral load from the servo spline and case. The extreme versatility of servo blocks allow users to create complex, extremely rigid, structures with ease using standard servos. The robust framework acts as a servo exoskeleton, greatly enhancing the mechanical loads the servo can withstand. Additionally, servo blocks may include a hub pattern that is repeated throughout the framework to allow endless attachment options.

Abstract: Multichannel device controllers are disclosed. In one embodiment, a multichannel device controller includes a plurality of user selectable control modes for controlling a multichannel device and a plurality of user configurable settings for adjusting parameters associated with the plurality of user selectable control modes. A touchscreen displays a user interface corresponding to a selected one of plurality of user selectable control modes and receives user input indicative of a command to send to the multichannel device. A processor generates the command to send to the multichannel device based at least in part on the user input and the plurality of user configurable settings.

Abstract: A linear actuator system is provided. The linear actuator system comprises a motor with an output shaft. The output shaft comprises splined features. The linear actuator system also comprises a lead nut with a threaded inner surface. The attachment mechanism has an inner surface configured to functionally engage the splined features. The attachment mechanism also has an outer surface comprising a first and second textured surface. The first textured surface is different from the second textured surface. The lead nut is configured to engage with one of the first and second textured surfaces.

Abstract: An aspect of the disclosure relates to a multichannel controller for controlling a target in a target system. In one embodiment, a multichannel controller is configured to control a target system and includes a user input interface that receives a user input for the multichannel controller, wherein the user input is a command to control one or more targets in the target system and a processor that generates the command to send to the one or more targets in the target system and a command translation unit that relays the command to the one or more targets, wherein the command comprises a motion sequence.

Abstract: A lead screw attachment mechanism for a linear actuator system is provided. The attachment mechanism comprises an attachment housing comprising a fixed cover configured to house the attachment mechanism. The attachment mechanism comprises a first coupling mechanism configured to couple the attachment mechanism to an output shaft of a motor and a second coupling mechanism configured to couple the attachment mechanism to a lead nut, wherein the lead nut is configured to move linearly along an axis defined by a length of the attachment mechanism. The attachment mechanism is configured to rotate about the axis, within the fixed cover.

Abstract: Hobby mechanical kits are provided. Kits illustratively include a hobby servo motor having a rotatable output shaft. The output shaft has gear teeth distributed around an outer diameter of the shaft. Certain embodiments of kits also include a hobby servo horn and a channel. The hobby servo horn has an inner diameter with gear teeth that correspond to the hobby servo output shaft gear teeth. The channel has a first panel, a second panel, and a third panel. The hobby servo horn and one of the panels of the channel include a star-shaped connection point.

Abstract: Variable autonomy level control systems are provided. A control system illustratively include an analog communications support component, a digital communications support component, a processing component, and a motor controller. The processing component synthesizes inputs received from the analog and the digital communications support components to generate an output. The motor controller utilizes the output from the processing component to generate a control signal for a motor. In certain embodiments, the input from the digital communications support component includes an indication of an autonomy level, and the processing component synthesizes the inputs by applying the autonomy level to the input received from the analog communications support component.

Abstract: A lead screw attachment mechanism for a linear actuator system is provided. The attachment mechanism comprises an attachment housing comprising a fixed cover configured to house the attachment mechanism. The attachment mechanism comprises a first coupling mechanism configured to couple the attachment mechanism to an output shaft of a motor and a second coupling mechanism configured to couple the attachment mechanism to a lead nut, wherein the lead nut is configured to move linearly along an axis defined by a length of the attachment mechanism. The attachment mechanism is configured to rotate about the axis, within the fixed cover.

Abstract: Hobby servo motor linear actuator systems are provided. In certain circumstances, a linear actuator system includes a lead screw attachment mechanism and a lead nut. The lead screw attachment mechanism is configured to be rotatably connected to an output shaft of a hobby servo motor assembly. The lead nut is configured to move linearly along the lead screw attachment mechanism as it is rotated. The system is optionally either open-looped or closed-loop. The lead screw attachment mechanism has an outer surface that can include multiple different types of threads such as, but not limited to, gear teeth and screw threads. The hobby servo motor assembly may include one hobby servo motor or multiple hobby servo motors that work together.

Abstract: An aspect of the disclosure relates to a multichannel controller for controlling a target in a target system. In one embodiment, a multichannel controller is configured to control a target system and includes a user input interface that receives a user input for the multichannel controller, wherein the user input is a command to control one or more targets in the target system and a processor that generates the command to send to the one or more targets in the target system and a command translation unit that relays the command to the one or more targets, wherein the command comprises a motion sequence.

Abstract: Hobby servo motor linear actuator systems are provided. In certain circumstances, a linear actuator system includes a lead screw attachment mechanism and a lead nut. The lead screw attachment mechanism is configured to be rotatably connected to an output shaft of a hobby servo motor assembly. The lead nut is configured to move linearly along the lead screw attachment mechanism as it is rotated. The system is optionally either open-looped or closed-loop. The lead screw attachment mechanism has an outer surface that can include multiple different types of threads such as, but not limited to, gear teeth and screw threads. The hobby servo motor assembly may include one hobby servo motor or multiple hobby servo motors that work together.