Other

Intelligent Diagnostics, LLC

Davco, LLC

Intelligent Dignostics LLC

David A Wallace

Paul E Glenn

Stephen Klyce

Mark A Kahan

John Rice Rogers

Philip M Buscemi

Vrunjal Mehta

Cesare Tanassi

David Kramer

R Stephen Mulder

Matthew Aaron Vallotton

Edwin Jay Sarver

John Rogers

Stephen D Klyce

A combined intraocular pressure (IOP) measuring and eye medication dispensing device may include a first micro-electro-mechanical-system (MEMS) sensor to generate IOP measurements of a living organism's eye; a medication dispensing device to dispense medication into the living organism's eye; a second MEMS micro-dispenser to interface with the medication dispensing device and to control the dispensing of the medication into the living organism's eye; and an analog-to-digital (A-to-D) converter to receive control signals. The A-to-D converter may communicate the control signals to the first MEMS sensor or the second MEMS micro-dispenser; receive the generated IOP measurements from the first MEMS sensor; receive medication dispensing parameters from the second MEMS micro-dispenser or medication dispensing device, and communicate the generated IOP measurements or the medication dispensing parameters. The device may also include a communications interface to receive the control signals from one or more processors in an external control module.

System and method enabling affordable measurement, monitoring and reporting of intra-ocular pressure, combined with system for topical medication delivery, appropriate for office or home-based use

A mobile communication device-based corneal topography system includes an illumination system, a mobile communication device and a corneal topography optical housing. The illumination system is configured to generate an illumination pattern and to generate reflections of the illumination pattern off a cornea of a subject, wherein the illumination system is aligned along an axis of centers of the illumination pattern. The mobile communication device includes an image sensor to capture an image of the reflected illumination pattern. The corneal topography optical housing is coupled to the illumination system and the mobile communication device, wherein the corneal topography optical housing supports and aligns the illumination system with the image sensor of the mobile communication device. The corneal topography optical housing includes an imaging system coupled to the image sensor.

Corneal topography system and methods

A mobile communication device-based corneal topography system includes an illumination system, an imaging system, a topography processor, an image sensor, and a mobile communication device. The illumination system is configured to generate an illumination pattern reflected off a cornea of a subject. The imaging system is coupled to an image sensor to capture an image of the reflected illumination pattern. A topography processor is coupled to the image sensor to process the image of the reflected illumination pattern. The mobile communications device includes a display, the mobile communications device is operatively coupled to the image sensor. The mobile communications device includes a mobile communications device (MCD) processor. A housing at least partially encloses one or more of the illumination system, the imaging system, or the topography processor.

Corneal topography methods

A method to perform automatic corneal topography or tomography difference mapping includes receiving one or more corneal topography or tomography data files and/or a corneal image for an examined patient from a corneal topography or tomography system; receiving personal identification parameters from captured user personal data communicated from the corneal topography or tomography system; and comparing received patient identification parameters to existing patient identification parameters in a database to identify if there are existing topography or tomography data files for a same patient in the database. The method may further include retrieving a prior topography or tomography data file for the patient from the database; and performing difference mapping by comparing the received topography or tomography data files to the prior topography or tomography data file retrieved from the database to generate a topography or tomography difference map.

Cloud based corneal surface difference mapping system and method

Corneal topography system operations

Corneal topography system and methods including illumination assembly

Corneal topography system and method of operation

A device and methods in the device including at least one flexible annular member coupled to at least one hook element which can be worn by a person to couple one or more containers to the hook element to reduce effort in transport of the containers.

Container carrying system

This disclosure relates to agricultural canopies used primarily to control the amount of light, moisture and heat reaching growing plants within the canopy footprint. More specifically, it relates to mechanisms for pulling a flexible canopy over a support structure and then for removing the canopy to uncover the structure and the plants below. The mechanisms include an arm mounted rotationally on a base. When the arm is rotated in one direction the canopy is pulled over the support structure and when the arm is rotated in the other direction the canopy is pulled off the support structure.

Canopy hoist

An apparatus for enabling corneal topography includes an attachment to align a placido disc illumination system with a camera of a mobile communication device. The placido disc illumination system generates concentric rings and reflects the concentric rings off a cornea. A portion of the reflected concentric rings are utilized to confirm vertex distance. The apparatus further comprises a memory, a processor, and computer-readable instructions in a mobile communication device. The camera captures an image of reflected concentric rings and communicates the captured image of the reflected concentric rings to an external computing device. A method for performing corneal topography utilizes a mobile computing and/or communication device, projects a plurality of peripheral concentric rings onto a subject's cornea and projects center rings onto the subject's cornea. The method further includes capturing, via a smartphone camera, an image of the projected peripheral concentric rings and the center rings.

System, method and apparatus for enabling corneal topography mapping by smartphone

This disclosure is for an automated canopy greenhouse having a motor driven canopy that is pulled over curved arch supports. The greenhouse has a generally rectangular base framework to which the arches are attached, the outside of the structure having the general shape of a cylinder cut lengthwise and resting on its flat side. A canopy or tarp is wound around a drum positioned near the bottom of one of the long sides. A shuttle bar is attached to two trolleys each of which ride on an arch at each end of the greenhouse. The trolleys are motor driven. One end of the canopy is attached to the shuttle bar and closes or opens the greenhouse as the trolleys and shuttle bar are moved. Inside the drum there is a torsion spring that is preloaded to balance the load of the canopy and associated hardware as the canopy is being raised or lowered. Successive greenhouse units may be attached to a first greenhouse unit that has the motor, and tarps on the successive units may be closed or opened using the same motor.

Growing community of inventors

Los Angeles, CA, United States of America

David A Wallace