Abstract: A motorized tensioning mechanism for orthotic devices, such as a knee brace, wherein the controls for the motorized tensioning mechanism may be manual, automatic, or a hybrid of both. Sensors associated with the orthotic device may inform the user regarding tension or other aspects of the device, and, in cases, may automatically adjust tension in the motorized tensioning mechanism.

Abstract: An adjustable tensioning device capable of providing and holding high tensions needed for medical devices, prosthetics, and orthotics.

Abstract: An adjustable tensioning device capable of providing and holding high tensions needed for medical devices, prosthetics, and orthotics.

Abstract: An adjustable knee ankle foot orthosis for unloading weight from a knee joint afflicted with osteoarthritis, thus reducing pain and improving mobility, comprising: an upper and lower frame connected by an unloading hinge assembly, optionally comprising a sensor and processor allowing for remote or automatic control of brace tension. In embodiments, the brace includes a user mechanism that is capable of adjusting a tensioning element while the brace is being worn. In other embodiments, electronic motors, sensors, and indicators may be included in the brace to improve brace performance and user interaction.

Abstract: An adjustable knee ankle foot orthosis for unloading weight from a knee joint afflicted with osteoarthritis, thus reducing pain and improving mobility, comprising: an upper and lower frame connected by an unloading hinge assembly, optionally comprising a sensor and processor allowing for remote or automatic control of brace tension. In embodiments, the brace includes a user mechanism that is capable of adjusting a tensioning element while the brace is being worn. In other embodiments, electronic motors, sensors, and indicators may be included in the brace to improve brace performance and user interaction.

Abstract: An automated method for applying specific geometric constraints to a starter file and considering external specifications outside of fit to achieve an optimized, restorative joint brace or orthotic device. External specifications may include indications of the patient, biometric data, data from prescribing doctors, X-ray data, MRI data, joint geometry to restore optimized function, and envelope of motion. After the fitting process, the starter file undergoes a process of exact commands in order to finish and/or add additional features. With a vertical integration from scanning an object to producing the custom fitted device, the product can be manufactured at scale more rapidly and at lower cost, improving access to superior devices at a reasonable price to the consumer.

Abstract: An automated method for applying specific geometric constraints to a starter file and considering external specifications outside of fit to achieve an optimized, restorative joint brace or orthotic device. External specifications may include indications of the patient, biometric data, data from prescribing doctors, X-ray data, MRI data, joint geometry to restore optimized function, and envelope of motion. After the fitting process, the starter file undergoes a process of exact commands in order to finish and/or add additional features. With a vertical integration from scanning an object to producing the custom fitted device, the product can be manufactured at scale more rapidly and at lower cost, improving access to superior devices at a reasonable price to the consumer.

Abstract: A motorized tensioning mechanism for orthotic devices, such as a knee brace, wherein the controls for the motorized tensioning mechanism may be manual, automatic, or a hybrid of both. Sensors associated with the orthotic device may inform the user regarding tension or other aspects of the device, and, in cases, may automatically adjust tension in the motorized tensioning mechanism.