Novartis Ag

Oculus, Vr, LLC

Innovusion, Inc.

Google Inc.

Alcon, Inc.

Edouard G Schmidtlin

Barry Lynn Wheatley

Kambiz Parto

Rui Zhang

Lingfeng Yu

Tammo Heeren

Mauricio Jochinsen

Dean Lin

Mary Lou Jepsen

Michael James Papac

Adam Eales Norton

Bernard Charles Kress

Ehsan Saeedi

Tammo Hereen

Embodiments discussed herein refer to generating multiple laser beams from a single beam source. Single source multi-beam splitters can produce multiple beams from a single source, precisely control the exit angle of each beam, and ensure that each beam has substantially the same intensity.

Multiple beam generation from a single source beam for use with a lidar system

Multiple beam generation from a single source beam for use with a LiDAR system

A scanning optical probe and method includes a cannula, optical fiber, lens, and an actuating mechanism for tilting the optical fiber back and forth within the cannula. An actuator in the probe handle is coupled to various flexing and guide components extending through the cannula and towards the distal end of the scanning optical probe. Reciprocating motion from the actuator is transmitted to the components thereby causing the optical fiber at the distal end of the scanning optical probe to aim across target surfaces. The light emitted from the optical fiber is processed to generate a scan of the target area.

Scanning optical probe with flexing mechanism

A magnification device includes a two-dimensional array of lens assemblies. The two-dimensional array of lens assemblies includes a first group of multiple lens assemblies of a first magnification and a second group of multiple lens assemblies of a second magnification that is distinct from the first magnification. The first group of multiple lens assemblies of the first magnification includes a first lens assembly and a second lens assembly. The second group of multiple lens assemblies of the second magnification includes a third lens assembly and a fourth lens assembly. Each of the first lens assembly, the second lens assembly, the third lens assembly, and the fourth lens assembly includes two or more lenses. The device also includes a spatial light modulator configured to selectively reduce transmission of light for the two-dimensional array of lens assemblies.

Microlens array system with multiple discrete magnification

A display device includes a two-dimensional array of tiles. Each tile includes a two-dimensional array of pixels, and a lens assembly, of a two-dimensional array of lens assemblies, configured to direct at least a portion of the respective pattern of light from the two-dimensional array of pixels to a pupil of an eye of a user. Each pixel is configured to output light so that the two-dimensional array of pixels outputs a respective pattern of light. The lens assembly includes multiple distinct optical elements, such as one or more lenses and/or one or more diffraction gratings.

Optical system for retinal projection from near-ocular display

An optical light scanning probe is presented, the probe comprising a handle, shaped for grasping by a user; a cannula, protruding from a distal portion of the handle with an outer diameter smaller than 20 gauge; an optical fiber with a distal fiber-portion off a probe-axis, configured to receive a light from a light-source at a proximal fiber-portion, and to emit the received light at the distal fiber-portion; a fixed beam forming unit, disposed at a distal portion of the cannula, configured to receive the light from the distal fiber-portion, and to deflect the received light toward a target region; and a fiber actuator, housed at least partially in the handle, configured to move the distal fiber-portion to scan the deflected light along a scanning curve in the target region.

Forward scanning-optical probes, circular scan patterns, offset fibers

An eyepiece for a head wearable display includes a lightguide component for guiding display light and emitting the display light along at a viewing region. The light guide component includes an input surface oriented to receive the display light into the lightguide component at the peripheral location, a first folding surface disposed to reflect the display light received through the input surface, a second folding surface disposed to reflect the display light received from the first folding surface, an eye-ward facing surface disposed opposite to the second folding surface to reflect the display light received from the second folding surface, and a curved reflective surface having reflective optical power disposed at the viewing region to receive the display light reflected from the eye-ward facing surface and to reflect the display light for emission out through the eye-ward facing surface.

Lightguide optical combiner for head wearable display

In certain embodiments, a scanning system includes optical elements and a movement system. The optical elements include an optical fiber and a gradient-index (GRIN) lens. The optical fiber has a fiber axis that extends to an imaginary fiber axis, and is configured to transmit a light ray. The GRIN lens has a GRIN perimeter and a GRIN lens optical axis, and is configured to refract the light ray. The movement system moves a first optical element relative to a second optical element in a closed path such that the GRIN lens optical axis substantially aligns with the imaginary fiber axis at at least one point of the path and the GRIN perimeter intersects the imaginary fiber axis at at least two points of the path.

Forward scanning optical probes

A surgical probe can include an outer cannula; an inner cannula, rotatably disposed inside the outer cannula; a rotational scanner, disposed at an end of the inner cannula and configured to receive a light beam from a delivery fiber and to scan the light beam along a loop; and an anamorphic optical element, disposed at an end of the outer cannula and configured to receive the light beam scanned along the loop and to output the light beam along an anisotropically compressed loop. A corresponding method can include providing a light beam by a light source; coupling the light beam to a rotational scanner at an end of an inner cannula; scanning the light beam by the rotational scanner along a loop; and receiving the light beam scanned along the loop by an anamorphic optical element and outputting the light beam along an anisotropically compressed loop to a target.

Anamorphic lens for rotational scanning surgical laser probe

In certain embodiments, a scanning system comprises optical elements and a movement system. The optical elements comprise an optical fiber and a focusing element. The optical fiber transmits a light ray and has a fiber axis that extends to an imaginary fiber axis. The focusing element refracts the light ray and has a focusing element optical axis that is substantially aligned with the imaginary fiber axis. The movement system rotates the focusing element about the focusing element optical axis to scan the light ray. In other embodiments, a scanning system comprises optical elements and a movement system. The optical elements comprise an optical fiber, a focusing element, and a prism. The prism has a prism optical axis and receives the light ray from the focusing element. The movement system rotates the prism about the prism optical axis to scan the light ray.

Growing community of inventors

San Francisco, CA, United States of America

Edouard G Schmidtlin