Leland Stanford Junior University

Montana State University

Microvision, Inc.

Other

Olympus Optical Company, Ltd.

Vanderbilt University

Memorial Sloan Kettering Cancer Center

David L Dickensheets

Gordon S Kino

Clarence T Tegreene

Anita Mahadevan-Jansen

Mitsunori Kubo

Milind Rajadhyaksha

Pavel Neuzil

Akiko Murata

Phillip A Himmer

Chad Lieber

Handheld devices and methods that integrate wide-field dermoscopy with reflectance confocal microscopy for non-invasive simultaneous capture of wide-field color images of the skin surface and images of the sub-surface cellular structure.

Microscope lens with integrated wide-field camera and beam scanning device

A probe using integrated confocal reflectance imaging, confocal Raman spectroscopy, and gross spatial imaging for non-invasiveIy evaluating a target of interest of a living subject. In one embodiment, the probe includes a casing with first and second ends, and first, second and third optical pons The firsi and second optical ports are located at the first end of the casing and the third optical port is located at the second end of the casing such that the first and third optical ports define a first optical path therebetween and the second and third optical ports define a second optical path therebetween, respectively. Each optical path has first and second portions, where the second portions of the first and second optical paths arc substantially overlapped and proximal to the third optical port.

Device and method for non-invasively evaluating a target of interest of a living subject

An optical element with multi-layer composites that deforms to reduce optical aberrations in off-axis optic. Methods are also described in relation to the optical element.

Off-axis variable focus and aberration control mirrors and method

A scanning system device has a predetermined aberration as it scans or switches light along selected optical paths. A deformable membrane receives the light and introduces an inverse 'aberration' that offsets that of the scanning system. In one embodiment the scanning system includes a torsion arm that supports an oscillatory body. The torsion arm and/or body can be machined from metal, micromachined in silicon or formed in a variety of other ways. Alternatively, the scanning system may include a rotating polygonal scanner or other type of optical scanner. In another approach, an optical switch replaces the scanner.

Optical scanning system with correction

A scanning optical microscope which includes an optical fiber which serves as a point source of light and for collecting reflected light is disclosed. A lens for focusing the light from the optical fiber onto an image plane and for gathering light reflected form the image plane and focusing it into the optical fiber is also disclosed, together with a scanning mechanism for scanning the light to scan a field of view.

Miniature scanning confocal microscope

A light scanning type confocal optical device comprises a light source section, a light transmitting section, a light scanning section, and a processing section. The scanning section includes a movable mirror, a fixed mirror and a converging lens. The movable mirror has an opening at the center, and is supported to be swingable about at least one axis. The fixed mirror is fixedly supported by an optically transparent plate. Reflection surfaces of the movable and fixed mirrors are located opposed to each other. The transmitting section includes an optical fiber having a core, whose end face substantially functions as a confocal pinhole. The light from the end face of the core is, upon passing through the opening, reflected by the fixed mirror toward the movable mirror. The light from the fixed mirror is then reflected by the movable mirror, and is converged by the converging lens onto an object surface.

Light scanning device and confocal optical device using the same

A scanning mechanism for scanning light to scan a field of view, a method of micromachining the scanning device, and a method of operating the scanning device are disclosed.

A scanning optical microscope which includes an optical fiber which serves as a point source of light and for collecting reflected light is disclosed. A lens for focusing the light from the optical fiber onto an image plane and for gathering light reflected from the image plane and focusing it into the optical fiber is also disclosed, together with a scanning mechanism for scanning the light to scan a field of view.

A magneto-optic recording system employing near-field optics which includes a read/write head having a stylus comprising a pair of crossed tapered prisms made of a material having a high index of refraction closely adjacent to the recording medium to provide light coupling between slits at the ends of the prisms and the recording medium. The length of the prism slits being greater than one-half the effective wavelength inside the material filling the prism of the light transmitted by the prisms to transmit all light entering the waveguide to the tapered end and the width being a fraction of a wavelength of the light.

Growing community of inventors

Stanford, CA, United States of America

David L Dickensheets