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IOR Exclusive, January
2009 |
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Second Iran
Oil Refining Forum (IOR2) | Summit 2008 |
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Solid Fundamental Science |
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We emphasize the opposite route: to
come from “industry to science” through ongoing relations, monitoring etc.
with industrial units where we have supplied process and catalyst and
learned from their long-term behavior under industrial conditions what the
industry would desire in new developments. |
Permitting myself to speak about our
company: we emphasize integration of theoretical and experimental work. My
first point is related to the integration between fundamental, theoretical
work and experimental work. This integration is getting ever more important,
because both for experimental and theoretical work we have a number of new
tools. The theoretical work we focus on is called Density Functional Theory
which was started by a few international groups - with due respect I think the
most important was the Danish group where we participated. This tool has
allowed one to consider the energy relations between catalytic surfaces and
the feeds and products in ever greater detail. We have a group studying these
relations for the very complex zeolite molecules. We also use these tools to
study nanoscale surface structures.
The experimental tools we have used for
decades go back to tools for studying the surface of crystals or amorphous
materials, ascribing the surfaces to catalytic activities, selectivity and of
course kinetics. Also here, recent years have brought great progress. We have
emphasized in-situ studies, meaning studies of catalysts and their surfaces
when exposed to the conditions under which they work in industry.
Of particular interest is the progress
made in electron microscopy. Until a few years ago one was unable to make
in-situ pictures. We have with friends inter alia at Phillips some 5 years ago
developed the first electron microscope capable of taking in-situ pictures,
meaning pictures under about a millibar, permitting the presence of realistic
feeds and products instead of being forced to take pictures under extreme
vacuum, making in-situ work impossible. We continued our work after installing
this first in-situ electron microscope and again with our friends in Holland
developed the first in-situ microscope permitting our company to take pictures
at one atmosphere’s pressure. This microscope is now working at our research
laboratories since early summer. We have already benefitted from these two
unique microscopes and gained much new insight - a good deal of it surprising.
Our company emphasizes that everything
we bring to industry, whether catalysts or processes, must be anchored in
solid fundamental science and accepts that this policy necessitates a lot of
stubbornness - it often takes more than a decade to come from “science to
industry”. We also emphasize the opposite route: to come from “industry to
science” through ongoing relations, monitoring etc. with industrial units
where we have supplied process and catalyst and learned from their long-term
behavior under industrial conditions what the industry would desire in new
developments.
The second part will deal with the
energy situation.
Some data concerning the global energy
situation today and some guesstimates about how the situation will look in a
hundred years are shown. These guesstimates are only indicative of what the
situation will be, based on assumptions which may be very wrong if you go into
details of the different sectors of production or use of primary energy, but
the overall tendency I believe to be reasonably realistic. I will go though
the main sources of primary energy whether fossil, renewable or nuclear etc.
and show that it is certain that we will use considerably more energy in the
future and that this is necessary if we shall not face unacceptable economic
and social problems, endanger a reasonable standard of living and make the
development of the third world countries difficult or even impossible.
There are many ways to save and many
ways to increase efficiency, also in the renewables, and this has been
included in the guesstimates, but you cannot avoid dependence on fossil fuels
like oil, natural gas, coal, lignite, tar sand etc., and therefore you simply
cannot avoid increase in CO2 emission. So here my point is, we all have to
live with it, and I do no not think that it will be nearly as difficult as
some quarters say.
But how do we handle the situation when
fossil fuel will begin to run out - or to put it clearly, when the few oil and
gas countries may hold the rest of the world as hostage? Can we handle that
situation? Surely the many international, political problems we have today,
alienating nations from each other, have to be overcome and this should be
easy. Should be! - but still one thing is to handle these present problems,
another thing is to come up with a positive solution to solve the energy
problems when resources start running out, find new resources or technologies
- extremely difficult – and work together, realizing that we are all of us in
the same boat.
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Haldor Topsoe
President & Founder,
Haldor Topsoe, Denmark |
Haldor Topsoe
President & Founder, Haldor Topsoe, Denmark
Born: 24th May, 1913
Place of Birth: Copenhagen
Parents: Flemming and Soffy Topsøe (b.
Andersen)
Married: 11th February, 1936 to Inger Veng
Kunst
Children: Flemming Topsøe, Lissen Haugwitz (b.Topsøe),
Birgitte Øigaard (b.Topsøe), Henrik Topsøe
Profession: Chemical Engineer from the
Technical University of Copenhagen (DTU), 1936
Honours, Prizes: G.A. Hagemann-medal, 1944
Dr.phil. h.c. at Aarhus University, 1968
Dr.techn. h.c. at the Technical University of Copenhagen, 1969
Knight of Dannebrog (R)
C.F.Tietgen medal, 1982
Queen’s medal for Meritorious Services, 1984 (F.M.1)
Honorary member of the Danish Association of Engineers (Dansk
Ingeniørforening), 1984
Royal Academy of Sciences gold medal, 1985
Technical dr. h.c. Chalmers University, Gothenburg, Sweden, 1986
Ordre National de la Légion d’Honneur, 1988
Francis New Memorial Medal, 1989
The Hoover Medal, 1991
Trade Union of Danish Technicians’Technology- and Environment Prize (Teknisk
Landsforbund), 1992
“Order of Intellectual Capacity”, Morocco, 1996
Eminent Chemical Engineer award,Delhi, India, 1997
The Engineer of the Century,“Ingeniøren”, 1999
The Honorary Professor of the Russian Academy of Science, 2003
The Grove Memorial Medal for Advances in Fuel Cell Technology, 2007
Storkorset (SK), 2008 (Grand Cross)
The Julius Thomsen Medal (DTU), 2008
The Winthrop-Sears Medal, 2008 |
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CURRENT ISSUE |
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IOR Exclusive,
January 2009 |
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