Corning Incorporated since 2007
Optical Engineer
US Army 2006 - 2007
Optical Engineer
Northrop Grumman Corporation Jun 2005 - Aug 2005
Optical Engineer Intern
Schepens Eye Research Institute - Greater Boston Area Jun 2004 - Aug 2004
Optics Intern
Education:
University of Rochester 2005 - 2006
MS, Optics
University of Rochester 2001 - 2005
BS, Optics
Klaus Hartkorn - Painted Post NY, US Daniel Max Staloff - Rochester NY, US
International Classification:
G02B 6/32
US Classification:
385 33
Abstract:
Monolithic beam-shaping optical systems and methods are disclosed for an optical coherence tomography (OCT) probe that includes a transparent cylindrical housing having asymmetric optical power. The system includes a transparent monolithic body having a folded optical axis and at least one alignment feature that supports the end of an optical fiber adjacent an angled planar end wall. The monolithic body also includes a total-internal reflection surface and a lens surface that define object and image planes. Light from the optical fiber end traverses the optical path, which includes the cylindrical housing residing between the lens surface and the image plane. Either the lens surface by itself or the lens surface and the reflective (eg, TIR) surface in combination are configured to substantially correct for the asymmetric optical power of the cylindrical housing, thereby forming a substantially rotationally symmetric image spot at the image plane.
Uniforming An Array Of Leds Having Asymmetric Optical Characteristics
- CORNING NY, US Daniel Max Staloff - Rochester NY, US
International Classification:
H01L 25/075 F21V 5/00 F21Y 115/10 F21Y 105/16
Abstract:
An apparatus comprises an array of light emitting diodes (LEDs), each LED in the array having an asymmetric optical characteristic. The asymmetric optical characteristic of a first subset of LEDs in the array is oriented at an angle of 90, 180, or 270 with respect to the asymmetrical optical characteristic of a second subset of LEDs in the array. The apparatus may be the array of LEDs or an illumination system comprising a light source comprising the array of LEDs. Methods of manufacturing the apparatus are also provided.
Light Homogenizing Elements With Corrective Features
- CORNING NY, US Paul Francis Michaloski - Rochester NY, US Daniel Max Staloff - Rochester NY, US
International Classification:
G02B 27/00 G02B 3/00 G03F 7/20
Abstract:
Light homogenizing elements are described. The light homogenizing elements include lens arrays with corrective features designed to improve the uniformity of light fields produced by optical sources. The corrective features include masks placed at selected positions of selected lenslets in a lens array. The corrective features block or reduce the transmission of light through the lens array at the selected position to correct for spatial or angular non-uniformities in a light field produced by an optical source. Illumination systems that include a corrected lens array coupled to a light source produce highly uniform light fields. Applications include microlithography.
Beam-Shaping Elements For Optical Coherence Tomography Probes
- Corning NY, US Gary Allen Hart - Walworth NY, US Horst Schreiber - Livonia NY, US Daniel Max Staloff - Rochester NY, US Jue Wang - Fairport NY, US
International Classification:
G01B 9/02 A61B 5/00 G02B 27/09
Abstract:
A beam-shaping optical system suitable for use with optical coherence tomography having a beam-shaping insert having a polymeric material, the beam-shaping insert integrally defining a beam-shaping element. The beam-shaping element has a reflective element positioned on a curved surface. A light source generates an electromagnetic beam. An optical fiber having a core and a cladding, the optical fiber having first end optically coupled with the light source and a fiber end. The fiber end is configured to emit the electromagnetic beam toward the beam-shaping element. The reflective element has a reflectivity greater than about % for both a first wavelength band of the electromagnetic beam and a second wavelength band of the electromagnetic beam.
- Corning NY, US Daniel Max Staloff - Rochester NY, US
International Classification:
G01B 9/02 A61B 1/00 A61B 5/00
Abstract:
A beam-shaping optical system suitable for use with optical coherence tomography includes a sheath defining a central cavity having an inner wall, an optical fiber positioned within a ferrule, the ferrule configured to mate with the inner wall of the sheath, and a beam-shaping insert positioned within the sheath and configured to mate with the inner surface of the sheath. The beam-shaping insert defines a beam-shaping element. The optical fiber is configured to emit an electromagnetic beam toward the beam-shaping element and the beam-shaping element is configured to reflect the electromagnetic beam externally to the beam-shaping insert.
A beam-shaping optical system includes a sheath defining a central cavity having an inner wall, an optical fiber positioned within the cavity and engaged with the inner wall of the sheath, and a beam-shaping insert positioned within the sheath and engaged with the inner wall of the sheath. The beam-shaping insert includes a beam-shaping element with a reflective element aligned with an optical axis of the optical fiber. The optical fiber is configured to emit an electromagnetic beam toward the beam-shaping element and the beam-shaping element is configured to reflect the electromagnetic beam externally to the beam-shaping insert.
- Corning NY, US Klaus Hartkorn - Big Flats NY, US Daniel Max Staloff - Rochester NY, US
International Classification:
G02B 6/26 G01B 9/02 G02B 6/36
Abstract:
A beam-shaping optical system suitable for use with optical coherence tomography includes a beam-shaping body having a beam-shaping element and an alignment feature. An optical fiber is coupled to the alignment feature. The fiber has a fiber end configured to emit an electromagnetic beam. The fiber and the body are configured to direct the beam into the beam-shaping element such that the beam is shaped solely by reflection into an image spot.
Systems And Methods For Multiple-Pass Stripping Of An Optical Fiber Coating
- Hickory NC, US Klaus Hartkorn - Painted Post NY, US Daniel Max Staloff - Rochester NY, US
International Classification:
G02B 6/245
Abstract:
Systems and methods for multiple-pass stripping of an optical fiber are disclosed. The method include irradiating a first portion of the coating with a first beam of radiation having a wavelength at which the coating is substantially transparent and an intensity that exceeds the optical-damage threshold of the coating to form a first damaged coating portion. The method also includes receiving at least a portion of the first radiation beam and redirecting it as a one or more redirected radiation beam to either the first portion of the coating to assist in forming the first damaged coating portion, or to one or more second portions of the coating to form one or more second damaged coating portions. The method additionally includes exposing a section of the central glass portion damaged portions of the coating.