Mason Electric Company

Esterline Technologies Corporation

Terry Peterson

David Daniel Drobnis

Kevin Allen

Joe C Fielding

John Ronquillo

Raymond Francisco

Charlotte Ann Marelius

André Abelian

Raymond Franciso

Multi-axis pivot assemblies for control sticks and associated systems and methods are disclosed herein. A multi-axis pivot assembly in accordance with an embodiment of the present technology can include, for example, an input shaft, a first axis output shaft coupled to the input shaft, and a second axis output shaft coupled to the input shaft via a series of linkages and pivoting joints. The first and second axis output shafts rotated about corresponding first and second fixed bearing sets to capture a first axis output and a second axis output. The series of linkages are configured to decouple first axis movement of the input shaft from second axis movement of the input shaft such that the second axis output is substantially independent of the first axis output.

Multi-axis pivot assembly for control sticks and associated systems and methods

Handheld, unmanned vehicle controllers including interchangeable function bridge modules attached to the grip handles of the controllers are described herein. Interchangeable function bridge modules can include, but are not limited to, a display screen module, a pushbutton module, and a keyboard module. An operator may quickly and easily swap modules, using different modules to perform various tasks.

Unmanned vehicle controller with interchangeable function bridge modules

Systems devices and methods for flash charging a portable device with a charging device. The portable device may be a ruggedized hand-held controller. In some examples, the portable device includes a capacitive power supply which comprises one or more capacitors, e.g. supercapacitors. In use, the capacitive power supply may receive charge, store the charge, and provide power to power-using components of the portable device, when needed. In some examples, the system includes a charging device, such as a docking station. The charging device may couple to the portable device to charge the portable device. The charging device may include a capacitive power supply, which may comprise one or more capacitors, such as supercapacitors. In some cases, the system flash charges the capacitive power supply within the portable device, via the capacitive power supply of the charging device.

Rechargeable hand-held devices using capacitors, such as supercapacitors

A hall effect system having a housing, an input element coupled to the housing, and a magnetic element coupled to the input element and configured to have a detectable magnetic flux. A sensing element is adjacent to the magnetic element. The sensing element is configured to sense the magnetic flux. A processing element is coupled to the sensing element and is configured to determine a position of the magnetic element relative to the sensing element by determining changes in and/or the orientation of the magnetic flux upon movement of the interface element by a user.

Hall effect system

Control inceptor systems and associated methods, including inceptors suitable for high-g operations and/or inceptors having a center of rotation located within an operator's grasp region, are disclosed herein. One aspect of the invention is directed toward a control inceptor having a grip coupled to a support. The inceptor is configured so that a center of rotation for movement in at least one plane is located within the grasp region of an operator when an operator grasps the grip. The support is positioned so that when the operator moves the grip (e.g., makes an input movement), the support arcs about the center of rotation.

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Eagle Rock, CA, United States of America

Terry Peterson