Search

Sergei M Bachilo

from Houston, TX
Age ~62
Get Report
Also known as:
Sergei B Bachilo, Sergi M Bachilo, Sergi J Bachilo
Phone and address:
9214 Symphonic Ln, Houston, TX 77040
(713) 896-8777
Related to:
Olga BachiloElena V Bachilo, 62
Connected to:
Corinne M Bachiller, 72Daniel Bachiller, 67Charles Bachini, 75Funda Bachini, 44Matthew J Bachinski, 49Philip J Bachinski, 113Valerie A Bachinsky, 50Samir Bachir, 67Pavan Bachireddy, 42Larry L Bachko, 70

Sergei Bachilo Phones & Addresses

  • 9214 Symphonic Ln, Houston, TX 77040 (713) 896-8777
  • 5500 N Braeswood Blvd #165, Houston, TX 77096 (713) 728-3625

Work

Position: Executive, Administrative, and Managerial Occupations

Education

Degree: Associate degree or higher

Public records

Vehicle Records

Sergei Bachilo

View page
Address:
9214 Symphonic Ln, Houston, TX 77040
VIN:
1G6DZ67A490168765
Make:
CADILLAC
Model:
STS
Year:
2009

Publications

Us Patents

Fluorescent Security Ink Using Carbon Nanotubes

View page
US Patent:
7682523, Mar 23, 2010
Filed:
Sep 2, 2004
Appl. No.:
10/572720
Inventors:
R. Bruce Weisman - Houston TX, US
Sergei M. Bachilo - Houston TX, US
Eric Christopher Booth - Moorhead MN, US
Assignee:
William Marsh Rice University - Houston TX
International Classification:
C09D 11/00
C09K 11/65
US Classification:
25230136, 106 3164
Abstract:
The present invention is directed toward fluorescent inks and markers comprising carbon nanotubes. The present invention is also directed toward methods of making such inks and markers and to methods of using such inks and markers, especially for security applications (e. g. , anti-counterfeiting). Such inks and markers rely on the unique fluorescent properties of semiconducting carbon nanotubes.

Resonant Optothermoacoustic Detection Of Optical Absorption

View page
US Patent:
8102532, Jan 24, 2012
Filed:
Dec 31, 2008
Appl. No.:
12/347470
Inventors:
Anatoliy A. Kosterev - Pearland TX, US
Sergei M. Bachilo - Houston TX, US
Assignee:
William Marsh Rice University - Houston TX
International Classification:
G01N 21/00
US Classification:
356437, 250343
Abstract:
A device comprising an acoustic detector, one or more thermal sensing elements coupled to the acoustic detector, and a light source. A method comprising directing a beam of light at a wavelength at or near one or more thermal sensing elements, wherein the thermal sensing elements are coupled to an acoustic detector, determining a resonance frequency of the acoustic detector, wherein the acoustic detector is coupled to one or more of the thermal sensing elements, and measuring the response of the acoustic detector to detect optical radiation absorption proximate to or at the surface of one or more thermal sensing elements.

Single-Wall Carbon Nanotubes Of Precisely Defined Type And Use Thereof

View page
US Patent:
20040038251, Feb 26, 2004
Filed:
Mar 4, 2003
Appl. No.:
10/379022
Inventors:
Richard Smalley - Houston TX, US
Robert Hauge - Houston TX, US
W. Kittrell - Houston TX, US
Ramesh Sivarajan - Houston TX, US
Michael Strano - Houston TX, US
Sergei Bachilo - Houston TX, US
R. Weisman - Houston TX, US
International Classification:
C12Q001/68
G01N033/53
US Classification:
435/006000, 435/007100
Abstract:
The invention relates to macroscopic amounts of (n, m) type single-wall carbon nanotubes and sensing and monitoring devices comprising specific nanotube types. Selected (n, m)-type fractions of single-wall carbon nanotubes are separated from a suspension of mixed single-wall carbon nanotubes are individually dispersed and isolated. The nanotubes are isolated and precluded from reassociating with other nanotubes by encasing the nanotube with a non-perturbing molecular species, such as surfactant molecules or polymers that can wrap around the nanotube. In contrast to metallic single-wall carbon nanotubes, semiconducting single-wall carbon nanotubes have been found to fluoresce in the near-IR region of the electromagnetic spectrum. The nanotubes are very sensitive to environmental perturbations and the nanotube's fluorescence profile will be affected by these perturbations. Thus, the nanotubes can be used as sensors for a wide variety of applications, such as gas concentrations and pH, as well as fluorescent tags for biological mapping of malignant cell activity.

Method For Separating Single-Wall Carbon Nanotubes And Compositions Thereof

View page
US Patent:
20040040834, Mar 4, 2004
Filed:
Mar 4, 2003
Appl. No.:
10/379273
Inventors:
Richard Smalley - Houston TX, US
Robert Hauge - Houston TX, US
W. Kittrell - Houston TX, US
Ramesh Sivarajan - Houston TX, US
Michael Strano - Houston TX, US
Sergei Bachilo - Houston TX, US
R. Weisman - Houston TX, US
International Classification:
H05F003/00
US Classification:
204/164000
Abstract:
The invention relates to a process for sorting and separating a mixture of (n, m) type single-wall carbon nanotubes according to (n, m) type. A mixture of (n, m) type single-wall carbon nanotubes is suspended such that the single-wall carbon nanotubes are individually dispersed. The nanotube suspension can be done in a surfactant-water solution and the surfactant surrounding the nanotubes keeps the nanotube isolated and from aggregating with other nanotubes. The nanotube suspension is acidified to protonate a fraction of the nanotubes. An electric field is applied and the protonated nanotubes migrate in the electric fields at different rates dependent on their (n, m) type. Fractions of nanotubes are collected at different fractionation times. The process of protonation, applying an electric field, and fractionation is repeated at increasingly higher pH to separated the (n, m) nanotube mixture into individual (n, m) nanotube fractions. The separation enables new electronic devices requiring selected (n, m) nanotube types.

Single-Wall Carbon Nanotube Compositions

View page
US Patent:
20060231399, Oct 19, 2006
Filed:
Jun 19, 2006
Appl. No.:
11/410658
Inventors:
Richard Smalley - Houston TX, US
Robert Hauge - Houston TX, US
W. Kittrell - Houston TX, US
Ramesh Sivarajan - Houston TX, US
Michael Strano - Houston TX, US
Sergei Bachilo - Houston TX, US
R. Weisman - Houston TX, US
Assignee:
William Marsh Rice University - Houston TX
International Classification:
C07K 1/26
US Classification:
204450000
Abstract:
The invention relates to a process for sorting and separating a mixture of (n, m) type single-wall carbon nanotubes according to (n, m) type. A mixture of (n, m) type single-wall carbon nanotubes is suspended such that the single-wall carbon nanotubes are individually dispersed. The nanotube suspension can be done in a surfactant-water solution and the surfactant surrounding the nanotubes keeps the nanotube isolated and from aggregating with other nanotubes. The nanotube suspension is acidified to protonate a fraction of the nanotubes. An electric field is applied and the protonated nanotubes migrate in the electric fields at different rates dependent on their (n, m) type. Fractions of nanotubes are collected at different fractionation times. The process of protonation, applying an electric field, and fractionation is repeated at increasingly higher pH to separated the (n, m) nanotube mixture into individual (n, m) nanotube fractions. The separation enables new electronic devices requiring selected (n, m) nanotube types.

Efficient Fluorimetric Analyzer For Single-Walled Carbon Nanotubes

View page
US Patent:
20080014654, Jan 17, 2008
Filed:
Nov 16, 2005
Appl. No.:
11/281784
Inventors:
R. Weisman - Houston TX, US
Sergei Bachilo - Houston TX, US
John-David Rocha - Missouri City TX, US
John Casey - Houston TX, US
Assignee:
William Marsh Rice University - Houston TX
International Classification:
G01N 21/64
US Classification:
436172000, 436171000, 422082080
Abstract:
The present invention is directed toward methods and devices for analyzing populations of single-wall carbon nanotubes (SWNTs) on the basis of their fluorescence properties and the comparison of said properties to fluorescence profiles of pre-determined SWNT compositions. Generally, such analyzing yields information about the composition of the SWNTs within said population. Such information includes, for example, the relative abundances of semiconducting SWNTs, the diameter distribution of such SWNTs, and the relative abundances of one or more particular SWNT species—as identified by one or more specific nanotube indices (n,m). The methods and devices of the present invention provide for the analysis of SWNT compositions in a rapid and efficient manner.

Fluorescent Carbon Nanotube Compositions Deposited On Surfaces

View page
US Patent:
20100209632, Aug 19, 2010
Filed:
Feb 4, 2010
Appl. No.:
12/700509
Inventors:
R. Bruce Weisman - Houston TX, US
Sergei M. Bachilo - Houston TX, US
Eric Christopher Booth - Hammond LA, US
Assignee:
WILLIAM RICE MARSH UNIVERSITY - Houston TX
International Classification:
B32B 9/00
B44F 1/12
C09K 11/65
US Classification:
428 29, 428199, 428323, 977902, 977742, 977750
Abstract:
The present invention is directed toward fluorescent inks and markers comprising carbon nanotubes. The present invention is also directed toward methods of making such inks and markers and to methods of using such inks and markers, especially for security applications (e.g., anti-counterfeiting). Such inks and markers rely on the unique fluorescent properties of semiconducting carbon nanotubes.

Non-Contact Strain Sensing Of Objects By Use Of Single-Walled Carbon Nanotubes

View page
US Patent:
20150115159, Apr 30, 2015
Filed:
Mar 14, 2013
Appl. No.:
14/398799
Inventors:
R. Bruce Weisman - Houston TX, US
Paul A. Withey - League City TX, US
Sergei M. Bachilo - Houston TX, US
Satish Nagarajaiah - Sugar Land TX, US
Venkata Srivishnu M. Vemuru - Houston TX, US
Assignee:
William Marsh Rice University - Houston TX
International Classification:
G01L 1/24
G01N 21/359
US Classification:
25033907
Abstract:
In some embodiments, the present invention provides methods of detecting strain associated with an object by: (1) irradiating a composition that has been applied to the object, where the composition comprises semiconducting single-walled carbon nanotubes; (2) measuring an emission from the irradiated composition, where the emission comprises near infrared emission; and (3) correlating the near infrared emission to the presence or absence of strain associated with the object. In some embodiments, the aforementioned steps occur without physically contacting the object or the composition. In some embodiments, the aforementioned steps occur without utilizing Raman spectroscopy. Further embodiments of the present invention also include a step of applying the composition to the object.
Control profile
Sergei M Bachilo from Houston, TX, age ~62 Get Report