Eurecat U.S. since Aug 2009
R&D Director
Lyondell Chemical Company 1999 - Jul 2009
Consulting Researcher
BP Amoco Oct 1985 - May 1999
staff research scientist
Amoco Corp. 1985 - 1999
Staff Research scientist
Education:
Penn State University 1981 - 1985
Ph.D., Inorganic Chemistry, Chemical engineering
St. Olaf College 1977 - 1981
BA, Chemistry
Aramco Services Company
Scientist Specialist
Eurecat Us, Inc. Aug 2009 - Mar 1, 2010
R and D Director
Lyondellbasell May 1999 - Aug 2009
Consulting Researcher
Amoco Corp 1985 - 1999
Staff Research Scientist
Bp 1985 - 1999
Staff Research Scientist
Education:
Penn State University 1981 - 1985
Doctorates, Doctor of Philosophy, Chemical Engineering, Chemistry
St. Olaf College 1977 - 1981
Bachelors, Bachelor of Arts, Chemistry
Skills:
Catalysis R&D Chemical Engineering Heterogeneous Catalysis Chemistry Polymers Materials Science Characterization Polymer Chemistry Petrochemical Polymer Science Organic Chemistry Process Simulation Process Optimization Reaction Engineering Analytical Chemistry Process Safety Organic Synthesis Inorganic Chemistry Catalyst Surface Chemistry Pilot Plant Distillation Chromatography Coatings Gas Chromatography Plastics
Gilbert Fernand Alphonse Froment - Deurle-St. Martens Latem, BE Wilfried Jozef Hippolyte Dehertog - Tervuren, BE Mark P. Kaminsky - Winfield IL
Assignee:
BP Corporation North America Inc. - Chicago IL
International Classification:
C07C 406
US Classification:
585653, 585650, 585651, 585407, 585418
Abstract:
A catalyst and an improved process for producing olefins by catalytic naphtha cracking are described. The process provides relatively higher yields over a commercially important range of naphtha conversion, while providing about the same or lower yields of aromatics and methane over the range. In the process, a hydrocarbon naphtha feedstock including a hydrocarbon having about three to about twenty carbon atoms per molecule is passed into a reactor containing a pentasil zeolite catalyst. The catalyst includes about 0. 1 to about 10 weight percent phosphorus and about 0. 1 to about 10 weight percent of a promoter metal selected from the group consisting of gallium, germanium, tin and mixtures thereof. The hydrocarbon may be passed into the reactor together with a diluent selected from the group consisting of steam, nitrogen, methane, and ethane and mixtures thereof. Alternatively, the hydrocarbon may be passed into the reactor together with additional propane.
A method for increasing the operational life-time of a pyrolysis gasoline hydrotreating process using a supported Group VIII metal catalyst by employing a catalyst having a significantly increased total surface area.
Lyondell Chemical Technology, L.P. - Greenville DE
International Classification:
C07D 301/06 C07D 301/08 C07D 301/04 C07D 301/10
US Classification:
549523, 549533, 549536
Abstract:
The invention is a process for epoxidizing an olefin with hydrogen and oxygen in the presence of a noble metal-containing titanium or vanadium zeolite and a modifier selected from the group consisting of carbon monoxide, methylacetylene, and propadiene. The process results in significantly reduced alkane by-product formed by the hydrogenation of olefin compared to processes that do not use the carbon monoxide, methylacetylene, and/or propadiene modifier.
A method for processing a gasoline range hydrocarbon stream wherein a single reactor/distillation tower stream is fractionated into a light fraction and a heavy fraction, the light fraction is hydrodesulfurized, the heavy fraction is optionally hydrocracked and then hydrodesulfurized, and the light and heavy fractions are separately recovered.
Roger A. Grey - West Chester PA, US Mark P. Kaminsky - Media PA, US
Assignee:
Lyondell Chemical Technology, L.P. - Greenville DE
International Classification:
B01J 20/34
US Classification:
502 38
Abstract:
Used noble metal-containing titanium zeolite catalysts, that have been employed in the liquid-phase epoxidation of olefins with hydrogen and oxygen in the presence of a buffer, are regenerated by heating the used catalyst at a temperature of at least 250 C. in the presence of a oxygen-containing gas stream, followed by reduction at a temperature of at least 20 C. in the presence of a hydrogen-containing gas stream to form a reactivated catalyst.
Mark P. Kaminsky - Media PA, US Roger A. Grey - West Chester PA, US Jay F. Miller - Chester Springs PA, US
Assignee:
Lyondell Chemical Technology, L.P. - Greenville DE
International Classification:
B01J 23/44
US Classification:
502243, 502330, 549533
Abstract:
A catalyst comprising a transition metal zeolite and a supported noble metal is disclosed. The mean mass diameter of the catalyst is greater than 0. 5 mm. The catalyst is formed from transition metal zeolite particles and the supported noble metal particles each having a mean mass diameter of less than 0. 1 mm. An epoxidation process by reacting an olefin, hydrogen, and oxygen in the presence of the catalyst is disclosed.
Mark P. Kaminsky - Media PA, US Edward T. Shawl - Wallingford PA, US Steven M. Augustine - Ellicott City MD, US
Assignee:
Lyondell Chemical Technology, L.P. - Greenville DE
International Classification:
B01J 37/08 B01J 29/068 C07D 301/06
US Classification:
502 74, 502 60, 549533, 549532
Abstract:
A catalyst comprising a transition metal zeolite and a noble metal is disclosed. The catalyst is prepared by an extrusion method using a comb-branched polymer as an extrusion aid. The catalyst is used in a reaction to produce epoxide from an olefin, hydrogen, and oxygen. The comb-branched polymer improves the mechanical properties of the extrudate.
Bi Le-Khac - West Chester PA, US Mark P. Kaminsky - Media PA, US Kun Qin - Chadds Ford PA, US Roger A. Grey - West Chester PA, US
Assignee:
Lyondell Chemical Technology, L.P. - Greenville DE
International Classification:
C07D 301/10 C07D 303/00
US Classification:
549513, 549534, 549536
Abstract:
A process is disclosed for the epoxidation of an olefin with hydrogen and oxygen in the presence of an oxidation catalyst comprising a transition metal zeolite, and a noble metal catalyst comprising a noble metal and an ion-exchange resin. The process is highly productive and selective in making epoxides. A noble metal catalyst comprising a cation-exchanged resin further improves the productivity and/or the selectivity of the process.