Magic Leap, Inc.

Pocared Diagnostics Ltd.

Trimble Navigation Limited

Battelle Memorial Institute

Molecular Imprints, Inc.

Jason A Schaefer

William Godwin Atterbury

Gal Ingber

Sherwood G Talbert

John S Laudo

Thomas Alan Klausing

John P Tallarico

Dave Holley

Clinton Carlisle

Michael Anthony Klug

Hui-Chuan Cheng

Vaibhav Mathur

Timothy Mark Dalrymple

Robert D TeKolste

Frank Y Xu

Vikramjit Singh

Jahja I Trisnadi

Victor Kai Liu

Samarth Bhargava

Eric C Browy

Douglas E Boyd

Andrew C Duenner

David Manly

Kevin Marc Morrissey

Russell H Barnes

Jonathan Gurfinkel

K Bryan Scott

Steven E Huckaby

Joseph D Dennis

Kevin Sadeski

Carol Stillman

Brian T Schowengerdt

Chulwoo Oh

Lionel Ernest Edwin

Nicole Elizabeth Samec

William Hudson Welch

Michael Nevin Miller

Ivan Li Chuen Yeoh

Nastasja U Robaina

Adam Charles Carlson

Xiaoyang Zhang

Jeffrey Dean Schmulen

Björn Nicolaas Servatius Vlaskamp

Philip Premysler

Pierre St Hilaire

Christophe Peroz

Robert Dale Tekolste

Kang Luo

Mauro Melli

Zhiheng Jia

Evgeni Poliakov

Etienne Gregoire Grossmann

Johnway Gao

Miller Harry Schuck, Iii

Marshall Charles Capps

Michal Beau Dennison Vaughn

Jeffrey P Carpenter

John Tallarico

Lei Zhang

John Monos

Joseph A McClintock

Kazunori Tanaka

Melanie Maputol West

Nukul Sanjay Shah

Rodney S Black

Grace Vesom

Jerome U Gilberry

John J Kester

Clark A Morrow

Nicholas Ihle Morley

William A Ivancic

Michael Beau Dennison Vaughn

Ohad Zohar

Robert Zito

Mike Nevin Miller

William A Ivanic

Optical systems and methods for operation thereof are disclosed. A delimited zone is defined as a function of distance from the optical system based on a VAC limit, the delimited zone having at least one distance threshold. A virtual distance of a virtual depth plane from the optical system at which a virtual object is to be displayed is determined. It is determined whether the virtual distance is outside the delimited zone by comparing the virtual distance to the at least one distance threshold. A collimated pixel beam associated with the virtual object is generated by a projector of the optical system. The collimated pixel beam is modified to generate a modified pixel beam if the virtual distance is outside the delimited zone. Modifying the collimated pixel beam includes converging the collimated pixel beam and/or reducing a diameter of the collimated pixel beam.

Increased depth of field for mixed-reality display

In some embodiments, an augmented reality system includes at least one waveguide that is configured to receive and redirect light toward a user, and is further configured to allow ambient light from an environment of the user to pass therethrough toward the user. The augmented reality system also includes a first adaptive lens assembly positioned between the at least one waveguide and the environment, a second adaptive lens assembly positioned between the at least one waveguide and the user, and at least one processor operatively coupled to the first and second adaptive lens assemblies. Each lens assembly of the augmented reality system is selectively switchable between at least two different states in which the respective lens assembly is configured to impart at least two different optical powers to light passing therethrough, respectively. The at least one processor is configured to cause the first and second adaptive lens assemblies to synchronously switch between different states in a manner such that the first and second adaptive lens assemblies impart a substantially constant net optical power to ambient light from the environment passing therethrough.

Augmented reality display having multi-element adaptive lens for changing depth planes

Methods and systems for depth-based foveated rendering in the display system are disclosed. The display system may be an augmented reality display system configured to provide virtual content on a plurality of depth planes using different wavefront divergence. Some embodiments include monitoring eye orientations of a user of a display system based on detected sensor information. A fixation point is determined based on the eye orientations, the fixation point representing a three-dimensional location with respect to a field of view. Location information of virtual objects to present is obtained, with the location information indicating three-dimensional positions of the virtual objects. Resolutions of at least one virtual object is adjusted based on a proximity of the at least one virtual object to the fixation point. The virtual objects are presented to a user by display system with the at least one virtual object being rendered according to the adjusted resolution.

Depth based foveated rendering for display systems

A method for characterizing a digital color camera includes, for each of three primary colors used in a field sequential color virtual image, determining a conversion model for each color using RGB values and the color-measurement values. For each primary color, the method includes illuminating a display device using an input light beam of a primary color having spectral properties representative of a light beam in a virtual image in a wearable device. The method includes capturing, with the digital color camera, an image of the display device, and determining, from the image, RGB values for each primary color. The method includes capturing, with a color-measurement device, a color-measurement value associated with each corresponding primary color at the display device, thereby acquiring a color-measurement value in an absolute color space. A conversion model for each color is determined using RGB values and the color-measurement values.

Method and system for color calibration of an imaging device

Described are optical fibers and scanning fiber displays comprising optical fibers. The disclosed optical fibers include a plurality of mass adjustment regions, such as gas-filled regions, positioned between a central waveguiding element and an outer periphery for reducing a mass of the optical fiber as compared to an optical fiber lacking the plurality of mass adjustment regions.

Microstructured fiber optic oscillator and waveguide for fiber scanner

Techniques are described for using confinement structures and/or pattern gratings to reduce or prevent the wicking of sealant polymer (e.g., glue) into the optically active areas of a multi-layered optical assembly. A multi-layered optical structure may include multiple layers of substrate imprinted with waveguide grating patterns. The multiple layers may be secured using an edge adhesive, such as a resin, epoxy, glue, and so forth. A confinement structure such as an edge pattern may be imprinted along the edge of each layer to control and confine the capillary flow of the edge adhesive and prevent the edge adhesive from wicking into the functional waveguide grating patterns of the layers. Moreover, the edge adhesive may be carbon doped or otherwise blackened to reduce the reflection of light off the edge back into the interior of the layer, thus improving the optical function of the assembly.

Edge sealant confinement and halo reduction for optical devices

The present invention relates to a system for conducting the identification and quantification of micro-organisms, e.g., bacteria in biological samples. More particularly, the invention relates to a system comprising a cooling, heating and fan arrangement for maintaining a predetermined optimum temperature of the samples during testing; a visual, circumferential and axial alignment system for aligning the samples within the carousel; a transfer system for transferring the samples from the carousel to the centrifuge; a balancing system of minimizing the rotational vibrations of the centrifuge; a safety system and anti-tipping design for the sample containing system; liquid dispensing arms for dispensing the buffered saline solution; and discharge ports for discharging and disposing of the liquid removed from the samples to a location external of the system.

System for conducting the identification of bacteria in biological samples

The present invention relates to a system for conducting the identification and quantification of micro-organisms, e.g., bacteria in biological samples. More particularly, the invention relates to a system comprising a disposable cartridge and an optical cup or cuvette having a tapered surface; an optics system including an optical reader and a thermal controller; an optical analyzer; a cooling system; and an improved spectrometer. The system may utilize the disposable cartridge in the sample processor and the optical cup or cuvette in the optical analyzer.

A system for conducting the identification and quantification of micro-organisms, e.g., bacteria in urine samples which includes: 1) several disposable cartridges for holding four disposable components including a centrifuge tube, a pipette tip having a 1 ml volume, a second pipette tip having a 0.5 ml volume, and an optical cup or cuvette; 2) a sample processor for receiving the disposable cartridges and processing the urine samples including transferring the processed urine sample to the optical cups; and 3) an optical analyzer for receiving the disposable cartridges and configured to analyze the type and quantity of micro-organisms in the urine sample. The disposable cartridges with their components including the optical cups or cuvettes are used in the sample processor, and the optical cups or cuvettes containing the processed urine samples are used in the optical analyzer for identifying and quantifying the type of micro-organism existing in the processed urine samples.

System for conducting the identification of bacteria in urine

Growing community of inventors

Plainfield, IN, United States of America

Jason A Schaefer