Corning Incorporated

Alcon Research, Ltd.

Corning Optical Communications LLC

Novartis Ag

Northern Telecom Limited

Alcon, Inc.

Michael John Yadlowsky

Michael James Papac

Ronald T Smith

Christopher Horvath

Alexander N Artsyukhovich

Mikhail Boukhny

John Christopher Huculak

Mathieu Charbonneau-Lefort

Paul Anthony Jakobson

Bruno X Lassalas

Alan Frank Evans

Gary P Sorensen

Richard Clayton Walker

Peter Gerard Wigley

Raphael Gordon

Mark A Newhouse

Bruno Dacquay

William Richard Trutna

David A Thoe

Lars Martin Otfried Brusberg

Michael McCulloch Martin

George F Wildeman

Leslie J Button

Ralph E Svetic

Nicholas Francis Borrelli

Daniel Aloysius Nolan

Steven Thomas Charles

Jack Robert Auld

Laszlo Otto Romoda

Kevin Wallace Bennett

Kim Byron Roberts

Douglas W Hall

Jeffrey Stapleton King

Robert William Keys

Richard A Habel

Mark J Buczek

Nigel Edward Jolley

John D Minelly

Felton Aaron Flood

James G Renfro, Jr

Rebecca Kayla Schaevitz

Ian Armour McKay

Fiona Davis

Valeria Loureiro Da Silva

Robert P Blaszyk

Michael M Martin

Mark Buczek

Laszlo O Romoda

Merlin D Hall

A terahertz (THz) waveguide and method for production allows for THz waveguides to be used in or on a printed circuit board (PCB) such that the propagation of THz waves require less power, result in less signal loss due to radiation or dispersion, and propagate more efficiently. Additionally, the position and/or geometry of a waveguide, as well as any additional antenna or coupling element, may be adjusted on or in the PCB such that the electromagnetic field of the waveguide may more efficiently couple with the electromagnetic field of the PCB.

Flexible ceramic waveguides for terahertz applications and use as on-board interconnects

Electrical-optical interface devices and methods for use in optical communications systems are disclosed. The electrical-optical interface devices are configured to convert electrical signals to optical signals and optical signals to electrical signals, and are configured to connect to external devices. The electrical-optical interface device is configured to monitor the data transmission between external devices over a primary communication pathway. The electrical-optical interface device is designed to reconfigure itself when it receives information about a communication error so that it automatically utilizes secondary optical communication pathways as redundant optical communication pathways to maintain data communication between the external devices.

Optical-electrical interface devices and systems with optical communication pathway redundancy

A method to manufacture optoelectronic modules comprises a step of providing a first wafer comprising a plurality of first module portions, wherein each of the first module portions comprises at least one passive optical component, providing a second wafer comprising a plurality of second module portions, wherein each of the second module portions comprises at least one optoelectronic component. The wafers are disposed on each other to provide a wafer stack that is diced into individual optoelectronic modules respectively comprising one of the first and the second and the third module portions.

Wafer-level integrated opto-electronic module

A method to determine an ophthalmic tissue structure comprises measuring image data for a range of depths corresponding to a target point in an eye with an axial scanner with a probe; determining an image information by an imaging processor from the image data; identifying a tissue pathology corresponding to the target point by the processor from the image information; and signaling a user by a user indicator based on the identified tissue pathology. A corresponding apparatus comprises an axial scanner with a probe to measure image data for a range of depths corresponding to a target point in an eye; a processor to determine an image information from the image data, and to identify a tissue pathology corresponding to the target point from the image information; and a user indicator to signal a user based on the identified tissue pathology.

Method and system to detect ophthalmic tissue structure and pathologies

Various systems, processes, and computer program products may be used to perform retinal laser surgery. In particular implementations, systems, processes, and computer program products may include the ability to identify retina blood vessels from a retina image and determine a retina location needing therapy and not substantially intersecting a retina blood vessel. The systems, processes, and computer program products may also include the ability to generate a command to activate a retinal laser when a beam from the retinal laser will be aligned with the therapeutic location.

Retinal laser surgery

A multi-fiber aggregate is provided. The multi-fiber aggregate includes at least two optical fibers, each of the at least two optical fibers having a core member formed from a silica-based glass and an outer cladding layer formed from a silica-based glass surrounding and in direct contact with the core member. The multi-fiber aggregate also includes a polymeric binding coating surrounding the at least two optical fibers and holding the at least two fibers in a predetermined geometry.

Multi-optical fiber aggregate

An endoilluminator system includes an endoilluminator probe and an illumination source. The endoilluminator probe includes a nano-scale optical fiber and a probe fiber connector, and the illumination source includes a source fiber connector. The illumination source is configured to produce an illumination spot at the source fiber connector having a diameter smaller than a diameter of a fiber core of the nano-scale optical fiber. The probe fiber connector and the source connector are configured when connected to align the illumination spot off-center relative to the nano-scale optical fiber such that the angular distribution of light emitted by the nano-scale optical fiber is increased relative to aligning the illumination spot at a center of the nano-scale optical fiber.

Endoillumination using decentered fiber launch

An illuminated microsurgical instrument includes a microsurgical instrument having a distal tip and an optical fiber for delivering a beam of light to a surgical site. The optical fiber includes a proximal end for receiving a light beam from a light source, and a distal end proximate to the distal tip of the microsurgical instrument for emitting the light beam. The distal end includes a beveled end face either oriented toward or oriented opposite from the distal tip of the microsurgical instrument.

Illuminated microsurgical instrument including optical fiber with beveled end face

Optical engines and optical cable assemblies incorporating optical engines providing duty cycle correction on multiplexed low-speed signals are disclosed. In one embodiment, an optical engine includes a low-speed Tx line, a low-speed Rx line, an optical transceiver device, and a control circuit. A low-speed Tx signal is transmitted on the low-speed Tx line and a low-speed Rx signal is received on the low-speed Rx line. The optical transceiver device further includes a laser control pin operable to control a laser configured to provide light on an optical Tx lane, and an optical detect pin operable to provide an indication as to light detected at an optical Rx lane. A Tx signal conditioning circuit configured to condition the low-speed Tx signal is coupled to the laser control pin, and/or a Rx signal conditioning circuit configured to condition the low-speed Rx signal is coupled to the optical detect pin.

Optical engines and optical cable assemblies having electrical signal conditioning

Optical cable assemblies, optical engines, and methods for transitioning into and out of a sleep mode are disclosed. In one embodiment, a method of operating a sleep mode of an optical cable assembly includes receiving a sleep trigger, and for a time T, turning a laser of an optical transmit (Tx) lane of an optical transceiver device on or off, and providing a fixed logical high or a fixed logical low on low-speed receive (Rx) line of the optical cable assembly based on a connection state of an electrical connector of the optical cable assembly. The method further includes, after the time T, turning off the laser of the optical Tx lane, placing one or more components of the optical transceiver device into a low-power state, and periodically transmitting an optical intra-cable signal from the optical transceiver device over optical fiber to a far end of the optical cable assembly.

Optical cable assemblies with low-speed data pass-through architecture and sleep mode operation

A touch system for sensing a touch event that includes a transparent sheet having opposite upper and lower surfaces and an index of refraction n. The system also has at least one light source that emits light. The light source is arranged in optical communication with the transparent sheet to cause the light to travel within the transparent sheet by total-internal reflection (TIR). At least one detector is arranged to detect the TIR-traveling light and to detect an amount of attenuation in the TIR-traveling light caused by the touch event. An interface layer is disposed on the lower surface of the transparent sheet. The interface layer has a refractive index n, wherein n&#x3c;n, and has a thickness of equal to or greater than 1 micron. The interface layer obviates the need for an air gap when interfacing the touch system to a display unit of display device.

Touch screen systems with interface layer

Optical engines and optical cable assemblies incorporating optical engines capable of transmitting low-speed and high-speed signals over the same optical fibers are disclosed. In one embodiment, an optical engine includes a low-speed transmit (Tx) line, a low-speed receive (Rx) line, a high-speed data lane, an optical transceiver device, and a control circuit. The high-speed data lane includes a high-speed Tx lane and a high-speed Rx lane. A high-speed signal present on the high-speed Tx lane is converted to a high-speed optical signal at an optical Tx lane, and a high-speed optical signal received at an optical Rx lane is converted to a high-speed signal that is provided to the high-speed Rx lane. The control circuit selectively routes the low-speed Tx signal at the low-speed Tx line directly to the optical transceiver device in real time, and also routes a low-speed Rx signal from the transceiver to the low-speed Rx line.

Optical engines and optical cable assemblies capable of low-speed and high-speed optical communication

An ophthalmic endoprobe including a hand-piece and a cannula assembly having a longitudinal axis is provided. The cannula assembly including an inner tube concentric with an outer tube; wherein the hand-piece may further include a motor powered by a pneumatic energy source, the motor providing motion to a transmission shaft; and a transmission system to couple the shaft motion to the cannula assembly; wherein the transmission system provides a counter-rotating motion to the inner tube and the outer tube about the longitudinal axis of the cannula. A fluid console for use in endoscopic ophthalmic microsurgery including a pneumatics module to obtain a pneumatic force from an external source and provide an adjustable pneumatic force; a scanning module coupled to the pneumatics module; and an endoprobe coupled to the scanning module is also provided.

Pneumatically driven ophthalmic scanning endoprobe

A light source for a surgical system includes a broadband light source operable to produce broadband light. The light source further includes a wavelength splitter adapted to split the broadband light into illumination light having a spectral range covering at least a majority of the visible spectrum and surgical light having a spectral range outside of the spectral range of the illumination light. The light source then includes at least one surgical module adapted to control application of the surgical light. The light source also includes first and second coupling optics. The first coupling optics are configured to optically couple the illumination light to an illumination light guide for delivery to a first surgical probe. The second coupling optics are configured to optically couple the surgical light to a surgical light guide for delivery to a second surgical probe.

Optical coherence tomography and illumination using common light source

Growing community of inventors

Sunnyvale, CA, United States of America

Michael John Yadlowsky