Acucela Inc.

Intelligent Diagnostics, LLC

Intelligent Dignostics LLC

Philip M Buscemi

Ryo Kubota

Matthias Pfister

Stephan Wyder

Stefan Bauer

Amitava Gupta

Paul E Glenn

David A Wallace

John Rice Rogers

Stephen Klyce

Mark A Kahan

David Kramer

Vrunjal Mehta

Cesare Tanassi

Massimo Pinazza

James Phillips

Pascal Loser

Ben Crook

Jim Niebanck

Urban Schnell

Karim Haroud

Stefan Troller

Lukas Scheibler

Julien Sauvet

Christian Oggenfuss

Cyril Stoller

Alexander Holzer

Benjamin Crook

Improved optical coherence tomography systems and methods to measure thickness of the retina are presented. The systems may be compact, handheld, provide in-home monitoring, allow the patient to measure himself or herself, and be robust enough to be dropped while still measuring the retina reliably.

Miniaturized mobile, low cost optical coherence tomography system for home based ophthalmic applications

An OCT system for measuring a retina as part of an eye health monitoring and diagnosis system. The OCT system includes an OCT interferometer, where the interferometer comprises a light source or measurement beam and a scanner for moving the beam on the retina of a patient's eye, and a processor configured to execute instructions to cause the scanner to move the measurement beam on the retina in a scan pattern. The scan pattern is a continuous pattern that includes a plurality of lobes. The measurement beam may be caused to move on the retina by the motion of a mirror that intercepts and redirects the measurement beam. The mirror position may be altered by the application of a drive signal to one or more actuators that respond to the drive signal by rotating the mirror about an axis or axes.

Scan pattern and signal processing for optical coherence tomography

An electronic case for electronic spectacles may include a base comprising a cavity formed therein. A first spectacle retention device may be located within the cavity. The first spectacle retention device may be configured to retain spectacles. An electrical control system may be included. An electrical connector may be configured to couple the electrical control system in electronic communication with the spectacles.

Electronic case for electronic spectacles

An apparatus to treat refractive error of an eye comprises an optic comprising an optical zone and a peripheral defocus optical structure to form images of a plurality of stimuli anterior or posterior to a peripheral portion of a retina of the eye. In some embodiments, the peripheral defocus optical structure located outside the optical zone. In some embodiments, the peripheral defocus optical structure comprises optical power to focus light to a different depth of the eye than the optical zone. In some embodiments, the optic comprises one or more of a lens, an optically transparent substrate, a beam splitter, a prism, or an optically transmissive support.

Stick on devices using peripheral defocus to treat progressive refractive error

Systems, devices, apparatuses and methods for an active projection system that may be incorporated into spectacles, contact lenses or provided as an add-on layer to existing spectacles or lenses. The active projection system operates to generate a stimulus or stimuli for viewing by a person's eye. The stimulus or stimuli creates an image that is defocused in front of the person's retina and can assist in slowing or stopping the progression of myopia or other refractive errors in the person.

Apparatus for the treatment of refractive error using active stimulation

An OCT system for measuring a retina as part of an eye health monitoring and diagnosis system. The OCT system includes an OCT interferometer, where the interferometer comprises a light source or measurement beam and a scanner for moving the beam on the retina of a patient's eye, and a processor configured to execute instructions to cause the scanner to move the measurement beam on the retina in a scan pattern. Measurement data may be processed using a decurving process to enhance the resolution of the ILM layer and provide improved determinations of retinal thickness.

System and method for optical coherence tomography a-scan decurving

Embodiments of the present disclosure are directed to systems, apparatuses and methods for prediction, diagnosis, planning and monitoring for myopia and myopic progression. In some embodiments, one or more refractive properties of the eye is determined for each of a plurality of retinal locations of the eye. The plurality of locations may comprise a central region, such as a fovea of the eye, or non-foveal region such as a peripheral region or a region of the macula outside the fovea. Measuring the refractive properties of the eye for the plurality of locations may be helpful in diagnosing myopia and other ocular conditions by providing the refractive properties of the eye for locations away from the fovea, such as the peripheral retina.

Myopia prediction, diagnosis, planning, and monitoring device

A neural network is trained to segment interferogram images. A first plurality of interferograms are obtained, where each interferograms corresponds to data acquired by an OCT system using a first scan pattern, annotating each of the plurality of interferograms to indicate a tissue structure of a retina, training a neural network using the plurality of interferograms and the annotations, inputting a second plurality of interferograms corresponding to data acquired by an OCT system using a second scan pattern and obtaining an output of the trained neural network indicating the tissue structure of the retina that was scanned using the second scan pattern. The system and methods may instead receive a plurality of A-scans and output a segmented image corresponding to a plurality of locations along an OCT scan pattern.

Artificial intelligence for evaluation of optical coherence tomography images

An OCT axial length measurement device is configured to measure an area of the retina within a range from about 0.05 mm to about 2.0 mm. The area can be measured with a scanned measurement beam or plurality of substantially fixed measurement beams. The OCT measurement device may comprise a plurality of reference optical path lengths, in which a first optical path length corresponds to a first position of a cornea, and a second optical path length corresponds to a second position of the retina, in which the axial length is determined based on a difference between the first position and the second position. An axial length map can be generated to determine alignment of the eye with the measurement device and improve accuracy and repeatability of the measurements. In some embodiments, the OCT measurement device comprises a swept source vertical cavity surface emitting laser ('VCSEL').

Axial length measurement monitor

Improved optical coherence tomography systems and methods to measure retinal data are presented. The systems may be compact, provide in-home monitoring, and have automation to allow the patient to measure himself or herself.

Optical coherence tomography patient alignment system for home based ophthalmic applications

An apparatus to treat refractive error of an eye comprises an optic comprising an optical zone and a peripheral defocus optical structure to form images of a plurality of stimuli anterior or posterior to a peripheral portion of a retina of the eye. In some embodiments, the peripheral defocus optical structure is located outside the optical zone. In some embodiments, the peripheral defocus optical structure comprises optical power to focus light to a different depth of the eye than the optical zone. In some embodiments, the optic comprises one or more of a lens, an optically transparent substrate, a beam splitter, a prism, or an optically transmissive support.

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Mount Pleasant, SC, United States of America

Philip M Buscemi