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Dmitri Brevnov Phones & Addresses

  • 1259 Avenida Las Brisas, San Jose, CA 95131 (408) 649-1523
  • Santa Clara, CA
  • 7501 Montgomery Blvd NE, Albuquerque, NM 87109
  • 32 Maple St, Potsdam, NY 13676
  • 832 Ridgeway St, Morgantown, WV 26505
  • Hayward, CA
  • 1259 Avenida Las Brisas, San Jose, CA 95131

Skills

Photovoltaics • Fuel Cells • Solar Energy • Pvd • Batteries • Powder X Ray Diffraction • Thin Films • Characterization • Semiconductor Industry • Design of Experiments • Electrochemistry • Cvd • Failure Analysis • Semiconductors • Alternative Energy • R&D • Silicon • Materials Science • Nanotechnology

Languages

English

Industries

Chemicals

Resumes

Resumes

Dmitri Brevnov Photo 1

Dmitri Brevnov

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Location:
1259 Avenida Las Brisas, San Jose, CA 95131
Industry:
Chemicals
Skills:
Photovoltaics
Fuel Cells
Solar Energy
Pvd
Batteries
Powder X Ray Diffraction
Thin Films
Characterization
Semiconductor Industry
Design of Experiments
Electrochemistry
Cvd
Failure Analysis
Semiconductors
Alternative Energy
R&D
Silicon
Materials Science
Nanotechnology
Languages:
English

Publications

Us Patents

Metrology Methods And Apparatus For Nanomaterial Characterization Of Energy Storage Electrode Structures

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US Patent:
8192605, Jun 5, 2012
Filed:
Feb 9, 2009
Appl. No.:
12/368105
Inventors:
Sergey D. Lopatin - Santa Clara CA, US
Dmitri A. Brevnov - Santa Clara CA, US
Eric Casavant - Cupertino CA, US
Robert Z. Bachrach - Burlingame CA, US
Assignee:
Applied Materials, Inc. - Santa Clara CA
International Classification:
H01M 4/02
US Classification:
205 57, 205 82, 205111, 205170
Abstract:
Embodiments described herein generally relate to methods and apparatus for forming an electrode structure used in an energy storage device. More particularly, embodiments described herein relate to methods and apparatus for characterizing nanomaterials used in forming high capacity electrode structures for energy storage devices. In one embodiment a process for forming an electrode structure for an energy storage device is provided. The process comprises depositing a columnar metal structure over a substrate at a first current density by a diffusion limited deposition process, measuring a capacitance of the columnar metal structure to determine a surface area of the columnar metal structure, and depositing three dimensional porous metal structures over the columnar metal structure at a second current density greater than the first current density.

Thin Film Electrochemical Energy Storage Device With Three-Dimensional Anodic Structure

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US Patent:
8486562, Jul 16, 2013
Filed:
Jun 30, 2009
Appl. No.:
12/459313
Inventors:
Sergey D. Lopatin - Santa Clara CA, US
Dmitri A. Brevnov - Santa Clara CA, US
Robert Z. Bachrach - Burlingame CA, US
Assignee:
Applied Materials, Inc. - Santa Clara CA
International Classification:
H01M 4/60
H01M 4/13
US Classification:
429215, 429213, 4292318, 2521821
Abstract:
A method for forming a battery from via thin-film deposition processes is disclosed. A mesoporous carbon material is deposited onto a surface of a conductive substrate that has high surface area, conductive micro-structures formed thereon. A porous, dielectric separator layer is then deposited on the layer of mesoporous carbon material to form a half cell of an energy storage device. The mesoporous carbon material is made up of CVD-deposited carbon fullerene “onions” and carbon nano-tubes, and has a high porosity capable of retaining lithium ions in concentrations useful for storing significant quantities of electrical energy. Embodiments of the invention further provide for the formation of an electrode having a high surface area conductive region that is useful in a battery structure. In one configuration the electrode has a high surface area conductive region comprising a porous dendritic structure that can be formed by electroplating, physical vapor deposition, chemical vapor deposition, thermal spraying, and/or electroless plating techniques.

Nucleation And Growth Of Tin Particles Into Three Dimensional Composite Active Anode For Lithium High Capacity Energy Storage Device

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US Patent:
8546020, Oct 1, 2013
Filed:
Oct 21, 2010
Appl. No.:
12/909436
Inventors:
Sergey D. Lopatin - Morgan Hill CA, US
Dmitri A. Brevnov - Santa Clara CA, US
Connie P. Wang - Mountain View CA, US
Robert Z. Bachrach - Burlingame CA, US
Assignee:
Applied Materials, Inc. - Santa Clara CA
International Classification:
H01M 4/76
H01M 4/72
H01M 4/58
US Classification:
429238, 429233, 4292181
Abstract:
Embodiments of the present invention generally relate to lithium-ion batteries, and more specifically, to a system and method for fabricating such batteries using thin-film processes that form three-dimensional structures. In one embodiment, an anodic structure used to form an energy storage device is provided. The anodic structure comprises a flexible conductive substrate, a plurality of conductive microstructures formed on the conductive substrate, comprising a plurality of columnar projections and dendritic structures formed over the plurality of columnar projections and a plurality of tin particles formed on the plurality of conductive microstructures. In another embodiment, the anodic structure further comprises a tin nucleation layer comprising tin particles formed on the flexible conductive substrate between the flexible conductive substrate and the plurality of conductive microstructures.

Porous Three Dimensional Copper, Tin, Copper-Tin, Copper-Tin-Cobalt, And Copper-Tin-Cobalt-Titanium Electrodes For Batteries And Ultra Capacitors

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US Patent:
8206569, Jun 26, 2012
Filed:
Jan 29, 2010
Appl. No.:
12/696422
Inventors:
Sergey D. Lopatin - Santa Clara CA, US
Dmitri A. Brevnov - Santa Clara CA, US
Robert Z. Bachrach - Burlingame CA, US
Assignee:
Applied Materials, Inc. - Santa Clara CA
International Classification:
H01M 4/02
US Classification:
205 57, 205111, 205170
Abstract:
A method and apparatus for forming a reliable and cost efficient battery or electrochemical capacitor electrode structure that has an improved lifetime, lower production costs, and improved process performance are provided. In one embodiment a method for forming a three dimensional porous electrode for a battery or an electrochemical cell is provided. The method comprises depositing a columnar metal layer over a substrate at a first current density by a diffusion limited deposition process and depositing three dimensional metal porous dendritic structures over the columnar metal layer at a second current density greater than the first current density.

Activation Of Aluminum For Electrodeposition Or Electroless Deposition

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US Patent:
20060032757, Feb 16, 2006
Filed:
Aug 11, 2005
Appl. No.:
11/201766
Inventors:
Dmitri Brevnov - Albuquerque NM, US
Tim Olson - Albuquerque NM, US
Gabriel Lopez - Albuquerque NM, US
Plamen Atanassov - Albuquerque NM, US
International Classification:
C25D 5/34
US Classification:
205205000, 205213000
Abstract:
Method for treating an aluminum alloy surface for electrodeposition or electroless deposition of a metal or alloy on the surface, the surface is oxidized (e.g. anodized) to form aluminum oxide, and then the oxidized surface is chemically etched to render the surface amenable for electrodeposition or electroless deposition of the metal or alloy thereon. A metallic coating can be electrodeposited or electroless deposited on the treated surface.

Fabrication Of An Anisotropic Super Hydrophobic/Hydrophilic Nanoporous Membranes

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US Patent:
20060037477, Feb 23, 2006
Filed:
Oct 21, 2004
Appl. No.:
10/969341
Inventors:
Gabriel Lopez - Albuquerque NM, US
Plamen Atanassov - Albuquerque NM, US
Dmitri Brevnov - Albuquerque NM, US
Marcos Barela - Albuquerque NM, US
International Classification:
B01D 53/22
US Classification:
096011000
Abstract:
Anisotropic hydrophobic/hydrophilic nanoporous membranes and methods of forming anisotropic hydrophobic/hydrophilic nanoporous membranes are disclosed. The method of forming the nanoporous membrane includes growing a nanoporous oxide film on a substrate. A nanoporous membrane having a top side and a bottom side can then be formed by partially separating the nanoporous oxide film from the substrate. A fluorocarbon film can be deposited on the top side of the nanoporous membrane by plasma polymerization. The disclosed anisotropic hydrophobic/hydrophilic nanoporous membranes can have extremely different hydrophobicity between the top side and the bottom side of the nanoporous membrane.

Method Of Depositing Films On Aluminum Alloys And Films Made By The Method

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US Patent:
20060254922, Nov 16, 2006
Filed:
Mar 17, 2006
Appl. No.:
11/384208
Inventors:
Dmitri Brevnov - Albuquerque NM, US
Tim Olson - Albuquerque NM, US
International Classification:
C25D 5/34
US Classification:
205205000
Abstract:
Method for depositing a metallic material on an aluminum alloy surface for galvanic displacement type deposition, electrodeposition or electroless deposition of a metallic film on the surface wherein the alloy surface is oxidized (e.g. anodized) to form aluminum oxide and the oxidized surface is etched to leave a partial thickness of a barier aluminum oxide on the alloy surface. The partial thickness of the barrier oxide is controlled by etching to form a porous, metallic particulate film for a thin barrier oxide, or a continuous metallic film for thicker barrier oxide. The metallic film then is electrodeposited or electroless deposited on the barrier film.

Mesoporous Carbon Material For Energy Storage

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US Patent:
20100203391, Aug 12, 2010
Filed:
Jan 29, 2010
Appl. No.:
12/696445
Inventors:
Sergey D. Lopatin - Santa Clara CA, US
Robert Z. Bachrach - Burlingame CA, US
Dmitri A. Brevnov - Santa Clara CA, US
Christopher Lazik - Fremont CA, US
Miao Jin - San Jose CA, US
Yuri S. Uritsky - Newark CA, US
Assignee:
APPLIED MATERIALS, INC. - Santa Clara CA
International Classification:
H01M 4/583
D01F 9/12
H01M 4/04
B05D 5/12
H01G 9/058
H01G 9/042
H01G 9/048
US Classification:
4292318, 4234472, 427 58, 427 79, 361516, 361508, 977734, 977742, 977773, 977843, 977752
Abstract:
A mesoporous carbon material formed on an electrode surface in an energy storage device, and a method of forming the same are disclosed. The mesoporous carbon material acts as a high surface area ion intercalation medium for the energy storage device, and is made up of CVD-deposited carbon fullerene “onions” and carbon nanotubes (CNTs) that are interconnected in a fullerene/CNT hybrid matrix. The fullerene/CNT hybrid matrix is a high porosity material that is capable of retaining lithium ions in concentrations useful for storing significant quantities of electrical energy. The method, according to one embodiment, includes vaporizing a high molecular weight hydrocarbon precursor and directing the vapor onto a conductive substrate to form a mesoporous carbon material thereon.
Dmitri A Brevnov from San Jose, CA, age ~55 Get Report