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Robert Michael Breznak

from Alpharetta, GA
Age ~62
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Also known as:
Robert M Breznak, Richard A Breznak, Robert M Brezna, Lena Breznak
Related to:
Carolyn Bellai, 78Michael Bellai, 57Robert Bellai, 85Lyle M Coy, 62Denise Apgar, 60
Connected to:
Angel D Breznai, 28Chad A Breznay, 50Scholastica M Breznay, 95Whitney L Breznay, 72Jacqueline W Brezney, 82Andrew L Breznick, 54Shawn Breznick, 37Shawna R Brezny, 56Tera D Brezny, 59Vinko Brezo, 68

Robert Breznak Phones & Addresses

  • Alpharetta, GA
  • 7951 Valentina Ct, Naples, FL 34114 (239) 732-8619
  • Montgomery, TX
  • 44 Windsor Way, Berkeley Heights, NJ 07922 (908) 665-9482
  • 49 Windsor Way, Berkeley Hts, NJ 07922 (908) 464-1002 (908) 464-7613
  • Chester, NJ
  • Duluth, GA
  • Antioch, TN
  • Somerville, MA
  • Cambridge, MA
  • Springfield, NJ
  • 220 May Apple Ln, Alpharetta, GA 30005 (908) 531-5125

Work

Position: Service Occupations

Resumes

Resumes

Robert Breznak Photo 1

Technical Support Manager

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Location:
Alpharetta, GA
Industry:
Automotive
Work:
Bmw Group
Technical Support Manager
Skills:
Technical Support
Automotive
Robert Breznak Photo 2

Robert Breznak

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Publications

Us Patents

Electrically Conductive Heterofil

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US Patent:
59165065, Jun 29, 1999
Filed:
Sep 30, 1996
Appl. No.:
8/722704
Inventors:
Robert Anthony Breznak - Berkeley Heights NJ
Joseph Andrew Foldhazy - Avenel NJ
Robert Allen Ritchie - Kenvil NJ
Herman Leslie LaNieve - Warren NJ
Wolfgang Alfred Piesczek - Bobingen, DE
Assignee:
Hoechst Celanese Corp - Somerville NJ
International Classification:
D01F 109
D01F 814
US Classification:
264104
Abstract:
An antistatic bicomponent fiber includes a nonconductive first component made of a first polymer and a conductive second component made of a second polymer containing a conductive material, where the second polymer has a lower melting point than the first polymer. The bicomponent fiber is made by co-extruding the two polymers at a temperature above their melting points, stretching the extruded fiber to increase the tensile strength, and heat treating the fiber at a temperature between the melting point of the first polymer and the melting point of the second polymer to improve the conductivity of the conductive second component. The bicomponent fiber is preferably a sheath/core fiber.

Splice For Use During The Thermal Stabilization Of A Flat Multifilament Band Of An Acrylic Fibrous Material Comprising At Least Two Segments

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US Patent:
41306791, Dec 19, 1978
Filed:
Apr 25, 1977
Appl. No.:
5/790540
Inventors:
Robert A. Breznak - Clifton NJ
James A. Parker - Somerville NJ
Assignee:
Celanese Corporation - New York NY
International Classification:
B32B 708
US Classification:
428 58
Abstract:
An improved splice is provided which is useful in joining segments of a substantially flat band (e. g. , a flat tow) of an acrylic fibrous material in an end to end relationship. A fabric surrounds and is sewn to an end of each band segment and extends beyond the end of the band to form a fabric extension. A pair of fabric extensions are sewn in an overlapping opposing relationship in the absence of any substantial overlap of the acrylic fibrous material of each band segment within the splice. The resulting splice is substantially flat in configuration and the band may be continuously passed in the direction of its length through the thermal stabilization zone without impairment of movement resulting from the presence of the splice. The usual exothermic heat of reaction which is evolved during the cyclization portion of the thermal stabilization reaction effectively is dissipated from within the splice without harm.

Splice For Use During The Thermal Stabilization Of A Flat Multifilament Band Of An Acrylic Fibrous Material Comprising At Least Two Segments

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US Patent:
40482774, Sep 13, 1977
Filed:
Dec 15, 1975
Appl. No.:
5/641066
Inventors:
Robert A. Breznak - Clifton NJ
James A. Parker - Somerville NJ
Assignee:
Celanese Corporation - New York NY
International Classification:
D06M 336
US Classification:
264 83
Abstract:
An improved splice is provided which is useful in joining segments of a substantially flat band (e. g. , a flat tow) of an acrylic fibrous material in an end to end relationship. A fabric surrounds and is sewn to an end of each band segment and extends beyond the end of the band to form a fabric extension. A pair of fabric extensions are sewn in an overlapping opposing relationship in the absence of any substantial overlap of the acrylic fibrous material of each band segment within the splice. The resulting splice is substantially flat in configuration and the band may be continuously passed in the direction of its length through the thermal stabilization zone without impairment of movement resulting from the presence of the splice. The usual exothermic heat of reaction which is evolved during the cyclization portion of the thermal stabilization reaction effectively is dissipated from within the splice without harm. BACKGROUND OF THE INVENTION It is well known that acrylic fibrous materials when subjected to heat undergo a thermal stabilization reaction wherein the fibrous material is transformed to a black form which is non-burning when subjected to an ordinary match flame.

Electrically Conductive Heterofil

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US Patent:
62420941, Jun 5, 2001
Filed:
May 8, 1998
Appl. No.:
9/074883
Inventors:
Robert Anthony Breznak - Berkeley Heights NJ
Joseph Andrew Foldhazy - Avenel NJ
Robert Allen Ritchie - Kenvil NJ
Herman Leslie LaNieve - Warren NJ
Wolfgang Alfred Piesczek - Bobigen, DE
Assignee:
Arteva North America S.A.R.L. - Zurich
International Classification:
D01F 800
US Classification:
428373
Abstract:
An antistatic bicomponent fiber comprises a nonconductive first component made of a first polymer and a conductive second component made of a second polymer containing a conductive material, where the second polymer has a lower melting point than the first polymer. The bicomponent fiber is made by co-extruding the two polymers at a temperature above their melting points, stretching the extruded fiber to increase the tensile strength, and heat treating the fiber at a temperature between the melting point of the first polymer and the melting point of the second polymer to improve the conductivity of the conductive second component. The bicomponent fiber is preferably a sheath/core fiber.
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Robert Michael Breznak from Alpharetta, GA, age ~62 Get Report