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Alexei Lukashev

from San Diego, CA
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Also known as:
Alexei V Lukashev
Phone and address:
12229 Carmel Vista Rd, San Diego, CA 92130
(858) 350-5153
Connected to:
Julia Lukashin, 63Vladimir Lukashov, 45Alicia L Lukasiak, 40Mark R Lukasick, 39Aneta Lukasiewicz, 45Christopher R Lukasiewicz, 38Cynthia A Lukasiewicz, 67Delcie L Lukasiewicz, 52Donna M Lukasiewicz, 69George J Lukasiewicz, 61

Alexei Lukashev Phones & Addresses

  • 12229 Carmel Vista Rd, San Diego, CA 92130 (858) 350-5153
  • 12229 Carmel Vista Rd #251, San Diego, CA 92130 (858) 350-5153
  • 12229 Caminito El Rincon, San Diego, CA 92130 (858) 350-5153
  • 3574 Caminito El Rincon, San Diego, CA 92130 (858) 350-5153
  • 95 Park Ave, Danbury, CT 06810 (203) 730-0018

Work

Company: Gpi 1984 to 2007 Position: Scientist

Education

Degree: Master of Science, Masters, Bachelors, Bachelor of Science School / High School: Moscow Institute of Physics and Technology (State University) (Mipt) 1978 to 1984 Specialities: Physics

Skills

Optics • R&D • Medical Devices • Laser Physics • Product Development • Photonics • Spectroscopy • Sensors • Physics • Laser • Zemax • Nonlinear Optics • Life Sciences • Experimentation • Optical Engineering • Lifesciences • Photolithography • Nanotechnology • Fluorescence • Drug Discovery • Characterization • Cell • Semiconductors • Biotechnology • Matlab • Design of Experiments • Confocal Microscopy • Optoelectronics • Assay Development

Industries

Biotechnology

Resumes

Resumes

Alexei Lukashev Photo 1

Director Of Laser Stem Cell

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Location:
San Diego, CA
Industry:
Biotechnology
Work:
Gpi 1984 - 2007
Scientist
Cymer 2002 - 2007
Scientist
Trex Enterprises Jan 2000 - May 2002
Scientist
Thermotrex 1998 - 2002
Scientist
Stemedica Cell Technologies 1998 - 2002
Director of Laser Stem Cell
Education:
Moscow Institute of Physics and Technology (State University) (Mipt) 1978 - 1984
Master of Science, Masters, Bachelors, Bachelor of Science, Physics
Skills:
Optics
R&D
Medical Devices
Laser Physics
Product Development
Photonics
Spectroscopy
Sensors
Physics
Laser
Zemax
Nonlinear Optics
Life Sciences
Experimentation
Optical Engineering
Lifesciences
Photolithography
Nanotechnology
Fluorescence
Drug Discovery
Characterization
Cell
Semiconductors
Biotechnology
Matlab
Design of Experiments
Confocal Microscopy
Optoelectronics
Assay Development

Publications

Us Patents

Gas Discharge Laser Light Source Beam Delivery Unit

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US Patent:
7190707, Mar 13, 2007
Filed:
Dec 17, 2003
Appl. No.:
10/739961
Inventors:
Palash P. Das - Vista CA, US
Khurshid Ahmed - San Diego CA, US
Gregory Francis - Escondido CA, US
Holger Glatzel - San Diego CA, US
Alexei Lukashev - San Diego CA, US
Jeremy Tyler - Oceanside CA, US
R. Kyle Webb - Escondido CA, US
Assignee:
Cymer, Inc. - San Diego CA
International Classification:
H01S 3/22
US Classification:
372 55, 372 15
Abstract:
A beam delivery unit and method of delivering a laser beam from a laser light source for excimer or molecular fluorine gas discharge laser systems in the DUV and smaller wavelengths is disclosed, which may comprise: a beam delivery enclosure defining an output laser light pulse beam delivery pat from an output of a gas discharge laser to an input of a working apparatus employing the light contained in the output laser light pulse beam; a purge mechanism operatively connected to the beam delivery enclosure; an in-situ beam parameter monitor and adjustment mechanism within the enclosure, comprising a retractable bean redirecting optic; a beam analysis mechanism external to the enclosure; and, a retraction mechanism within the enclosure and operable from outside the enclosure and operative to move the retractable beam redirecting optic from a retracted position out of the beam path to an operative position in the beam path. The BDU may also include a beam attenuator unit contained within the enclosure adjustably mounted within the enclosure for positioning within the beam delivery pat. The BDU may have at least two enclosure isolation mechanisms comprising a first enclosure isolation mechanism on a first side of the enclosure from the at least one optic module and a second enclosure isolation mechanism on a second side of the enclosure from the at least one optic module, each respective enclosure isolation mechanism comprising a flapper valve having a metal to metal seating mechanism and a locking pin assembly.

Laser Output Light Pulse Stretcher

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US Patent:
7369597, May 6, 2008
Filed:
May 18, 2004
Appl. No.:
10/847799
Inventors:
Scot T. Smith - Winter Springs FL, US
Alexander I. Ershov - San Diego CA, US
Alexei Lukashev - San Diego CA, US
Assignee:
Cymer, Inc. - San Diego CA
International Classification:
H01S 3/083
US Classification:
372 94, 372108
Abstract:
Providing a high peak power short pulse duration gas discharge laser output pulse comprises a pulse stretcher a laser output pulse optical delay initiating optic diverting a portion of the output laser pulse into an optical delay having an optical delay path and comprising a plurality of confocal resonators in series aligned to deliver an output of the optical delay to the laser output pulse optical delay initiating optic. The plurality of confocal resonators comprises four confocal resonators comprising a twelve pass four mirror arrangement. An apparatus and method may comprise a plurality, e. g. , two pulse stretchers in series and may include spatial coherency metrology.

Method And Apparatus For Stabilizing Optical Dielectric Coatings

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US Patent:
20050008789, Jan 13, 2005
Filed:
Jun 26, 2003
Appl. No.:
10/608521
Inventors:
Robert Rafac - Carlsbad CA, US
Alexei Lukashev - San Diego CA, US
Weiman Zhang Kevin - San Diego CA, US
International Classification:
B05D003/00
US Classification:
427532000
Abstract:
A method for stabilizing a multi-layered dielectric reflectivity coating subject to compaction/densification upon exposure to DUV or shorter wavelength light, is disclosed which may comprise: applying the reflectivity coating to a reflective surface forming a coating bulk on the surface; exposing the coating bulk to a pretreatment of a sufficient amount of DUV radiation to induce sufficient densification in enough of the coating bulk to inhibit subsequent densification during continued exposure to DUV or shorter wavelength radiation. The method may also comprise the pretreatment radiation exposure amounting to energy of at least the equivalent of about 2 Bp at 9 mJ per pulse. The method may also comprise the pretreatment radiation exposure amounting the energy being delivered in at about 3 KHz pulse repetition rate. The method may also comprise the pretreatment radiation exposure amounts to energy of at least the equivalent of 15-18 mJ per pulse delivered over about 700 M-1 B pulses, i.e., about 4 days at 3 Khz or 2-3 days at 4 Khz pulse rates.

Passive Q-Switch Modulated Fiber Laser

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US Patent:
20060007965, Jan 12, 2006
Filed:
Jul 12, 2004
Appl. No.:
10/890076
Inventors:
Nikolai Tankovich - San Diego CA, US
Alexei Lukashev - San Diego CA, US
Alexander Kirhanov - Leon, MX
Valery Filippov - Leon, MX
Andrei Staroovmov - Leon, MX
International Classification:
H01S 3/11
H01S 3/30
US Classification:
372010000, 372006000
Abstract:
An all-fiber erbium laser oscillating in a passive Q switched mode. The laser includes a crystal saturable absorber that may be Co:ZnSe or Cr:ZnSe. In preferred embodiments continuous pumping or short pulse pumping may be utilized. The laser is characterized by low threshold high-power, short-pulse generation. In preferred embodiments the threshold is only about 20 mW. The crystals are bleached at extremely low intensity, of about 0.8 kW/cmand provide moderate relaxation time of the excited state (290 μs) within a spectral range of about 1400-1800 nm. The simplicity of the design and low cost of that laser 2000).

Gas Discharge Laser Light Source Beam Delivery Unit

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US Patent:
20070160103, Jul 12, 2007
Filed:
Mar 6, 2007
Appl. No.:
11/715082
Inventors:
Palash Das - San Diego CA, US
Khurshid Ahmed - San Diego CA, US
Gregory Francis - Escondido CA, US
Holger Glatzel - Benicia CA, US
Alexei Lukashev - San Diego CA, US
Jeremy Tyler - San Diego CA, US
R. Webb - San Diego CA, US
Assignee:
Cymer, Inc. - San Diego CA
International Classification:
H01S 3/22
US Classification:
372055000
Abstract:
A beam delivery unit and method of delivering a laser beam from a laser light source for excimer or molecular fluorine gas discharge laser systems in the DUV and smaller wavelengths is disclosed, which may comprise: a beam delivery enclosure defining an output laser light pulse beam delivery path from an output of a gas discharge laser to an input of a working apparatus employing the light contained in the output laser light pulse beam; a purge mechanism operatively connected to the beam delivery enclosure; an in-situ beam parameter monitor and adjustment mechanism within the enclosure, comprising a retractable beam redirecting optic; a beam analysis mechanism external to the enclosure; and, a retraction mechanism within the enclosure and operable from outside the enclosure and operative to move the retractable beam redirecting optic from a retracted position out of the beam path to an operative position in the beam path. The BDU may also include a beam attenuator unit contained within the enclosure adjustably mounted within the enclosure for positioning within the beam delivery path. The BDU may have at least two enclosure isolation mechanisms comprising a first enclosure isolation mechanism on a first side of the enclosure from the at least one optic module and a second enclosure isolation mechanism on a second side of the enclosure from the at least one optic module, each respective enclosure isolation mechanism comprising a flapper valve having a metal to metal seating mechanism and a locking pin assembly. A precision offset ratchet driver operative to manipulate actuator mechanisms in difficult to reach locations may be provided. An external kinematic alignment tool may be provided. A method of contamination control for a BDU is disclosed comprising selection of allowable materials and fabrication processes.

Laser Treatment System And Method For Producing Thermal Cavities And Energy Droplets

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US Patent:
20110160712, Jun 30, 2011
Filed:
Nov 2, 2009
Appl. No.:
12/590075
Inventors:
Nikolai Tankovich - San Diego CA, US
Alexei Lukashev - San Diego CA, US
International Classification:
A61B 18/20
US Classification:
606 9
Abstract:
A laser process for tissue treatment. Preferred embodiments include features for producing a first laser beam and a second laser beam and a skin cooler for cooling the surface of a region of skin. The system is designed to utilize the first laser beam for heating a volume of skin tissue below the cooled surface region to a temperature below skin tissue damage threshold. This volume of skin tissue is called a “thermal cavity”. The second laser beam is divided into a plurality of separate laser beams that are directed through separate optical fibers and via separate paths through skin tissue to a single tiny volume of skin tissue within the thermal cavity to heat that tiny volume to a temperature above the damage threshold. This tiny volume is called an energy droplet. Thus tiny regions of tissue are damaged while minimizing or preventing any significant damage to adjacent tissue.

Skin Treatement System With Time Modulated Laser Pulses

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US Patent:
20110313408, Dec 22, 2011
Filed:
Aug 29, 2011
Appl. No.:
13/199415
Inventors:
Nikolai Tankovich - San Diego CA, US
Alexei Lukashev - San Diego CA, US
International Classification:
A61B 18/22
A61B 18/20
US Classification:
606 3, 606 9
Abstract:
A laser skin treatment process and system. The system includes features for producing a first laser beam of long pulse duration and a second laser beam of short pulse duration and a skin cooler for cooling the surface of a region of skin. The system is designed to utilize the first laser beam for heating a volume of skin tissue below the cooled surface region to a temperature to produce skin tissue modification but below skin tissue damage threshold. This volume of skin tissue is called a “thermal cavity”. The second laser beam is divided into a plurality of separate laser beams that are directed through separate optical fibers and via separate paths through skin tissue to a single tiny volume of skin tissue within the thermal cavity to produce in that tiny volume mechanical damage. This tiny volume is called an energy droplet. Thus tiny regions of tissue are damaged while minimizing or preventing any significant damage to adjacent tissue.

Medical Cosmetic Laser With Second Wavelength Enhancement

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US Patent:
6569156, May 27, 2003
Filed:
Sep 18, 2000
Appl. No.:
09/664463
Inventors:
Nikolai Tankovich - San Diego CA, 92129
Alexei Lukashev - San Diego CA, 92130
International Classification:
A61L 1820
US Classification:
606 10, 606 3, 606 13
Abstract:
A laser system and process by which prior art medical and cosmetic laser techniques using laser beams chosen to produce selective thermolysis are enhanced by the addition of a second laser beam chosen for much deeper transmission in tissue and more uniform absorption. Preferred embodiments include enforcement with a 1079 nm YAP:Nd laser beam of a 532 nm beam produced by a frequency doubled YAG:Nd laser beam.
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Alexei Lukashev from San Diego, CA Get Report