Advanced Charging Technologies, LLC

Raytrx, LLC

Other

Brian Santee

Michael H Freeman

Mitchael C Freeman

Robert Dieter

W J “Jim” Weaver, Jr

Jordan Boss

David Cary

Steven Yeager

Chad Boss

Victoria McArtor

Montgomery H F Freeman

Roy Matthew Milner, Ii

Richard C Freeman

David D Kessler

Linda A Lam

Thomas A Finley

Ian Oswald

W J Weaver, Jr

Wj “Jim” Weaver, Jr

David Lee Street

Brig Gen Richard C Freeman

Jeff Riggs

David Street

W J Jim Weaver, Jr

A laparoscopic imaging apparatus is described herein. The laparoscopic imaging apparatus includes a shaft having a proximal end opposite a distal end, wherein the proximal end is configured for attachment to an actuator, and the distal end is configured for attachment of a laparoscopic tool and for insertion into patient anatomy. The laparoscopic tool pivots on a first gimbal apparatus that is actuable from the actuator at the proximal end of the shaft, to rotate the laparoscopic tool about a longitudinal axis of the shaft and, further, to rotate the laparoscopic tool about at least a second axis that is orthogonal to the longitudinal axis.

Wireless laparoscopic device with gimballed camera

A mixed reality display comprising: at least one lens, where the at least one lens has a reflective element, the at least one lens comprising a plurality of pixels; at least one display capable of projecting one or more images onto at least a portion of the at least one lens; and a dynamic opacity system, where the dynamic opacity system is capable of making at least one pixel opaque in the portion of the at least one lens onto which the one or more images are projected, while any portion of the at least one lens onto which no image is projected remains see-through.

Wearable image manipulation and control system with high resolution micro-displays and dynamic opacity augmentation in augmented reality glasses

An augmented/extended reality (AXR) headset for use with a surgery visualization system is described herein. The AXR headset includes a wearable support frame, one or more forward-facing cameras pivotably mounted to the wearable support frame, an imaging system mounted to the wearable support frame, and a control logic processor coupled to the one or more front facing cameras and the image generator, and programmed to execute an algorithm including the steps of receiving image data from the one or more forward-facing cameras and operating the image generator to display the received image data onto the curved mirror.

Surgery visualization theatre

A surgery visualization theatre comprising: an augmented/extended reality (AXR) headset; a digital viewport mounted on a cobotic arm; a monitor mounted on a monitor cobotic arm; a camera subsystem mounted on a camera cobotic arm; and a frame with cobotic arms featuring intelligence and command and control for the system and visualization methodologies, where the digital viewport cobotic arm, the monitor cobotic arm, and the camera cobotic arm are mounted on the frame and the AXR headset is connected thereto.

An augmented reality and extended reality surgical system. The system may comprise a wearable device, such as a head mounted display or glasses, that provides the user with virtual reality, augmented reality, and/or mixed reality for surgery visualization. This may allow the user to access 2D or 3D imaging, magnification, virtual visualization, six-degrees of freedom (6DoF) image management, and/or other images while still viewing real reality and thus maintaining a presence in the operating room.

Augmented and extended reality glasses for use in surgery visualization and telesurgery

An augmented reality and extended reality surgical system comprising three 3D viewing options of: (i) an AR/XR headset or headsets, (ii) one or more autostereoscopic '3D glasses free' monitor(s); and (iii) one or more digital ocular stereoscopic 3D viewports which is mounted to a cobotic arm viewing option for ergonomically sound viewing. The system may comprise a wearable device, such as a head mounted display or glasses, that provides the user with virtual reality, augmented reality, and/or mixed reality for surgery visualization. This system is all digital and features both wired and wireless connections that have approximately the same latency of less than 20 milliseconds. This may allow the user to access 2D or 3D imaging, magnification, virtual visualization, six-degrees of freedom (6DoF) image management, and/or other images while still viewing real reality and thus maintaining a presence in the operating room. The all-digital multi-option 3D viewing surgery system provides an ergonomically sound surgery visualization system.

Multi-option all-digital 3D surgery visualization system and control

A laparoscopic imaging apparatus has a shaft having a proximal end opposite a distal end, wherein the proximal end is configured for attachment to an actuator, wherein a longitudinal axis extends through the shaft, between the proximal and distal ends, wherein the distal end is configured for insertion into patient anatomy and for attachment of one or more laparoscopic tools, wherein at least a first laparoscopic tool at the distal end pivots on a first gimbal apparatus that is actuable, from the actuator at the proximal end of the shaft, to rotate the at least the first laparoscopic tool about the longitudinal axis of the shaft and, further, to rotate the at least the first laparoscopic tool about at least a second axis, orthogonal to the longitudinal axis.

An energy efficient apparatus includes a switching device, a frequency dependent reactive device, and a control element is provided. The switching device is coupled to a source of electrical power and includes a pair of transistors and is adapted to receive a control signal and to produce an alternating current power signal. The frequency of the alternating current power signal is responsive to the control signal. The frequency dependent reactive device is electrically coupled to the pair of transistors for receiving the alternating current power signal and producing an output power signal. The frequency dependent reactive device is chosen to achieve a desired voltage of the output power signal relative to the frequency of the alternating current power signal. The control element senses an actual voltage of the direct current power signal and modifies the control signal delivered to achieve the desired voltage of the direct current power signal.

Transformerless multiple output capable power supply system

Power device for delivering power to electronic devices

Power device for delivering power to electronic devices and methods of assembling same

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Tulsa, OK, United States of America

Brian Santee