José
G. Santiesteban
Born:
March 5, 1957, Parral, Chihuahua,
Mexico
José
Santiesteban received his B.S.
Degree in Chemical Engineering
from the Technology Institute
of Chihuahua in 1979. He received
a M.S. Degree in Chemical Engineering
from the Technology Institute
of Cd. Madero, Tamaulipas in
1983. Prior to getting his M.S.
Degree, he spent a couple of
years as research associate
in the Mexican Petroleum Institute
and the University of Mexico.
He received a Ph.D. in Physicochemistry
from Lehigh University, Bethlehem,
Pennsylvania, in 1988.
José
joined Mobil's Central Research
Laboratory in Princeton, NJ
in 1989 where he carried out
research in the area of exploratory
catalysis until 1994. His research
included kinetics and mechanistic
studies of catalytic cracking,
methanol conversion to hydrocarbons,
hydrocracking, coking studies
of zeolites, reforming/isomerization
and petrochemical synthesis.
In
1994 he transferred to Mobil's
Paulsboro research Laboratory,
Lubricant Products Development
Division in Paulsboro, NJ where
he was a key contributor in
the development of novel synthetic
lubricants for hydroturbines.
In
1995, José left Mobil
to join Air Products and Chemicals,
Inc. at Allentown, Pennsylvania
where he led an interdepartmental
group in the synthesis of novel
chemical compounds and the use
of shape selective catalysis
for chemicals production. Discovered
a catalytic process for the
production of polyurethane organic
catalysts.
José
went back to Mobil in early
1998 at Paulsboro, NJ to lead
a group of fourteen chemists/chemical
engineers and laboratory technicians
in exploratory research of new
petrochemical technologies.
These efforts resulted in the
discovery and commercial implementation
of catalytic technologies for
the production of p-xylene,
ethylbenzene, cumene and phenol.
He acted as Department Manager
of the Strategic Research Center
of Mobil through part of 1999,
after which he joined the Corporate
Transition Team (team consisted
of a total five members) responsible
for the consolidation of the
corporate research laboratories
during the Exxon-Mobil merger.
In
February of 2000, José
was appointed Section Head of
the Light Hydrocarbon Science
Section in ExxonMobil's Research
and Engineering's Corporate
Strategic Research Laboratory
in Annandale, NJ. This group
carries out basic and applied
research in the area of catalytic
processes for the production
of Basic Chemicals and Intermediates.
José
is a member of the New York
Catalysis Society, North American
Catalyst Society, American Chemical
Society, and has organized and
served as chairman of symposiums
of the North American Catalysis
Society, AIChE and ACS. He is
referee of various scientific
journals (J. Physical Chemistry,
J. Catalysis, Applied Catalysis,
Ind. Eng. Chem. Res., Microporous
and Mesoporous Materials , etc.)
José
is the named inventor or co-inventor
on more than 50 U.S. patents
and has authored or co-authored
over 30 articles and outside
presentations. He was a guest
co-editor of a Special Issue
of Zeolites and Catalysis in
Honor of Werner O. Haag and
co-editor of a Catalysis Today
volume on Environmental Catalysis.
Presentation
Topic : New
Developments in Shape-Selective
Catalysis for the Production
of Petrochemicals.
By:
Dr. José G. Santiesteban
Summary
:
Conversion of crude oil and
natural gas to a variety of
fuels, lubricants and petrochemical
products has been and will continue
to be of importance in improving
our quality of life. Present
and future challenges coming
from competitive pressure and
societal requirements are driving
changes in this industry that
will require, now more than
ever, new advances in science
and technology. Catalysis, in
particular, has played a key
role, in meeting these challenges
and is expected that will continue
to do so. In this talk, I will
discuss some examples of ExxonMobil's
catalysis efforts on the design,
development and application
of shape-selective zeolite catalysts.
Through a set of post synthetic
methods, zeolites may be modified
to alter activity, add functionality
or change difussional properties
resulting in "tunable"
reactant or product selectivity.
During the past several years
we have exploited the full range
of novel zeolite and mesoporous
structures and catalyst modification
techniques to molecularly design
catalytic materials capable
of selective production of high-value
petrochemicals.
List
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