Bicerano & Associates Consulting, Inc. since Jun 2004
President
Dow Chemical 1986 - 2004
Scientist
Energy Conversion Devices 1982 - 1986
Senior Research Scientist
University of California 1981 - 1982
Postdoctoral Research Associate in Chemistry
Turkish Air Force 1979 - 1981
Second Lieutenant
Education:
Harvard University 1974 - 1979
Ph.D., Physics (focus on Chemical Physics)
Northwestern University 1971 - 1974
B.A. & M.S., Chemistry
Robert College 1968 - 1971
High school (valedictorian)
Skills:
Polymers Plastics Materials Science Polymer Science Chemistry Composites Thermoplastics Polymer Physics Characterization Elastomers Extrusion Nanocomposites R&D Product Development Simulations Polymer Chemistry Chemical Engineering Coatings Rheology Polymer Characterization Design of Experiments Adhesives Nanotechnology Materials Catalysis Commercialization Market Development Additives Process Simulation Resin Process Optimization Polyurethane Tga Spectroscopy Injection Molding Organic Chemistry Analytical Chemistry Differential Scanning Calorimetry Thin Films Technology Transfer Gpc Polymer Composites Surface Chemistry Ftir Polymerization Nanomaterials Polymer Nanocomposites Emulsions Pigments Surfactants
Interests:
Christianity Exercise Electronics Traveling Home Improvement Reading Sports Automobiles Family Values Travel Home Decoration
Languages:
Polish
Us Patents
Integrated Chemical Processes For Industrial Utilization Of Seed Oils
Zenon Lysenko - Midland MI, US Bob R. Maughon - Midland MI, US Jozef Bicerano - Midland MI, US Kenneth A. Burdett - Midland MI, US Christopher P. Christenson - Lake Jackson TX, US Clark H. Cummins - Midland MI, US Marvin L. Dettloff - Lake Jackson TX, US Alan K. Schrock - Lake Jackson TX, US P. J. Thomas - Midland MI, US Richard D. Varjian - Saginaw MI, US Jerry E. White - Lake Jackson TX, US John Michael Maher - Charleston WV, US
Assignee:
Dow Global Technologies Inc. - Midland MI
International Classification:
C07C 51/43
US Classification:
554174, 585639, 560155, 560179
Abstract:
Integrated processes of preparing industrial chemicals starting from seed oil feedstock compositions containing one or more unsaturated fatty acids or unsaturated fatty acid esters, which are essentially free of metathesis catalyst poisons, particularly hydroperoxides; metathesis of the feedstock composition with a lower olefin, such as ethylene, to form a reduced chain olefin, preferably, a reduced chain α-olefin, and a reduced chain unsaturated acid or ester, preferably, a reduced chain α,ω-unsaturated acid or ester. The reduced chain unsaturated acid or ester may be (trans)esterified to form a polyester polyolefin, which may be epoxidized to form a polyester polyepoxide. The reduced chain unsaturated acid or ester may be hydroformylated with reduction to produce an α,ω-hydroxy acid or α,ω-hydroxy ester, which may be (trans)esterified with a polyol to form an α,ω-polyester polyol. Alternatively, the reduced chain unsaturated acid or ester may be hydroformylated with reductive amination to produce an α,ω-amino acid or α,ω-amino ester, which may be (trans)esterified to form an α,ω-polyester polyamine.
Thermoset Nanocomposite Particles, Processing For Their Production, And Their Use In Oil And Natural Gas Drilling Applications
Jozef Bicerano - Midland MI, US Robert L. Albright - Southhampton PA, US
Assignee:
Sun Drilling Products Corporation - Belle Chasse LA
International Classification:
C09K 8/24
US Classification:
507117, 1663081, 428402, 264 5
Abstract:
Thermoset polymer particles are used in many applications requiring lightweight particles possessing high stiffness, strength, temperature resistance, and/or resistance to aggressive environments. The present invention relates to the use of two different methods, either each by itself or in combination, to enhance the stiffness, strength, maximum possible use temperature, and environmental resistance of such particles. One method is the application of post-polymerization process steps (and especially heat treatment) to advance the curing reaction and to thus obtain a more densely crosslinked polymer network. In general, its main benefits are the enhancement of the maximum possible use temperature and the environmental resistance. The other method is the incorporation of nanofillers, resulting in a heterogenous “nanocomposite” morphology. In general, its main benefits are increased stiffness and strength.
Thermoset Nanocomposite Particles, Processing For Their Production, And Their Use In Oil And Natural Gas Drilling Applications
Jozef Bicerano - Midland MI, US Robert L. Albright - Southampton PA, US
Assignee:
Sun Drilling Products Corporation - Belle Chasse LA
International Classification:
C09K 8/24
US Classification:
507117, 428402, 264 5
Abstract:
Thermoset polymer particles are used in many applications requiring lightweight particles possessing high stiffness, strength, temperature resistance, and/or resistance to aggressive environments. The present invention relates to the use of two different methods, either each by itself or in combination, to enhance the stiffness, strength, maximum possible use temperature, and environmental resistance of such particles. One method is the application of post-polymerization process steps (and especially heat treatment) to advance the curing reaction and to thus obtain a more densely crosslinked polymer network. In general, its main benefits are the enhancement of the maximum possible use temperature and the environmental resistance. The other method is the incorporation of nanofillers, resulting in a heterogeneous “nanocomposite” morphology. In general, its main benefits are increased stiffness and strength.
Thermoset Nanocomposite Particles, Processing For Their Production, And Their Use In Oil And Natural Gas Drilling Applications
Jozef Bicerano - Midland MI, US Robert L. Albright - Southampton PA, US
Assignee:
Sun Drilling Products Corporation - Belle Chasse LA
International Classification:
C09K 8/24
US Classification:
507117, 428402, 264 5
Abstract:
Thermoset polymer particles are used in many applications requiring lightweight particles possessing high stiffness, strength, temperature resistance, and/or resistance to aggressive environments. The present invention relates to the use of two different methods, either each by itself or in combination, to enhance the stiffness, strength, maximum possible use temperature, and environmental resistance of such particles. One method is the application of post-polymerization process steps (and especially heat treatment) to advance the curing reaction and to thus obtain a more densely crosslinked polymer network. In general, its main benefits are the enhancement of the maximum possible use temperature and the environmental resistance. The other method is the incorporation of nanofillers, resulting in a heterogeneous “nanocomposite” morphology. In general, its main benefits are increased stiffness and strength.
Thermoset Nanocomposite Particles, Processing For Their Production, And Their Use In Oil And Natural Gas Drilling Applications
Jozef Bicerano - Midland MI, US Robert L. Albright - Southampton PA, US
Assignee:
Sun Drilling Products Corporation - Belle Chasse LA
International Classification:
E21B 43/04
US Classification:
507117, 507219, 166278, 166285
Abstract:
Thermoset polymer particles are used in many applications requiring lightweight particles possessing high stiffness, strength, temperature resistance, and/or resistance to aggressive environments. The present invention relates to the use of two different methods, either each by itself or in combination, to enhance the stiffness, strength, maximum possible use temperature, and environmental resistance of such particles. One method is the application of post-polymerization process steps (and especially heat treatment) to advance the curing reaction and to thus obtain a more densely crosslinked polymer network. In general, its main benefits are the enhancement of the maximum possible use temperature and the environmental resistance. The other method is the incorporation of nanofillers, resulting in a heterogeneous “nanocomposite” morphology. In general, its main benefits are increased stiffness and strength.
Proppants Containing Dispersed Piezoelectric Or Magnetostrictive Fillers Or Mixtures Thereof, To Enable Proppant Tracking And Monitoring In A Downhole Environment
Sun Drilling Products Corporation - Belle Chasse LA
International Classification:
E21B 43/267 E21B 47/00
US Classification:
16625012, 1662501, 1662802
Abstract:
In one aspect, the invention relates to a method for “tagging” proppants so that they can be tracked and monitored in a downhole environment, based on the use of composite proppant compositions containing dispersed fillers whose electromagnetic properties change at a detectable level under a mechanical stress such as the closure stress of a fracture. In another aspect, the invention relates to composite proppant compositions containing dispersed fillers whose electromagnetic properties change under a mechanical stress such as the closure stress of a fracture. The currently preferred embodiments use substantially spherical thermoset nanocomposite particles where the matrix comprises a terpolymer of styrene, ethylvinylbenzene and divinylbenzene, a PZT alloy manifesting a strong piezoelectric effect or Terfenol-D manifesting giant magnetostrictive behavior is incorporated to provide the ability to track in a downhole environment, and carbon black particles possessing a length that is less than 0. 5 microns in at least one principal axis direction may optionally be incorporated as a nanofiller.
Proppants Coated By Piezoelectric Or Magnetostrictive Materials, Or By Mixtures Or Combinations Thereof, To Enable Their Tracking In A Downhole Environment
Sun Drilling Products Corporation - Belle Chasse LA
International Classification:
E21B 47/00 E21B 43/267
US Classification:
16625012, 1662501, 1662802, 428407
Abstract:
A method for “tagging” proppants so that they can be tracked and monitored in a downhole environment, based on the use of composite proppant compositions comprising a particulate substrate coated by a material whose electromagnetic properties change at a detectable level under a mechanical stress such as the closure stress of a fracture. In another aspect, the invention relates to composite proppant compositions comprising coatings whose electromagnetic properties change under a mechanical stress such as the closure stress of a fracture. The substantially spherical composite proppants may comprise a thermoset nanocomposite particulate substrate where the matrix material comprises a terpolymer of styrene, ethylvinylbenzene and divinylbenzene, and carbon black particles possessing a length that is less than 0. 5 microns in at least one principal axis direction incorporated as a nanofiller; upon which particulate substrate is placed a coating comprising a PZT alloy manifesting a strong piezoelectric effect or Terfenol-D manifesting giant magnetostrictive behavior to provide the ability to track in a downhole environment.
Thermoset Nanocomposite Particles, Processing For Their Production, And Their Use In Oil And Natural Gas Drilling Applications
Jozef Bicerano - Midland MI, US Robert L. Albright - Southampton PA, US
Assignee:
Sun Drilling Products Corporation - Belle Chasse LA
International Classification:
E21B 43/04
US Classification:
507117, 507219, 166278, 166285
Abstract:
Thermoset polymer particles are used in many applications requiring lightweight particles possessing high stiffness, strength, temperature resistance, and/or resistance to aggressive environments. The present invention relates to the use of two different methods, either each by itself or in combination, to enhance the stiffness, strength, maximum possible use temperature, and environmental resistance of such particles. One method is the application of post-polymerization process steps (and especially heat treatment) to advance the curing reaction and to thus obtain a more densely crosslinked polymer network. In general, its main benefits are the enhancement of the maximum possible use temperature and the environmental resistance. The other method is the incorporation of nanofillers, resulting in a heterogeneous “nanocomposite” morphology. In general, its main benefits are increased stiffness and strength.
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Jozef Bicerano President
Bicerano & Associates Consulting, Inc. Plastics · Consulting & Contract Research