Gilbert Froment

Last updated
Gilbert F. Froment
Born (1930-10-01) 1 October 1930 (age 93)
Nationality Belgian
Alma mater Ghent University
Known forApplied & industrial reaction kinetics
Reactor modeling
Catalytic reaction engineering
Awards Amundson Award (ISCRE, 2007)
Villermaux Medal of European Federation of Chemical Engineering (1999)
Wilhelm Award (AIChE, 1986)
Scientific career
Fields Chemical reaction engineering
Institutions Ghent University
Texas A&M University
Doctoral advisor Professor Goethals

Gilbert F. Froment (born 1 October 1930) is a Belgian Professor Emeritus of chemical engineering at Ghent University, Belgium, and a research professor at Texas A&M University. His career specialized in the fields of kinetic and chemical reaction engineering studies, including it's application in process industry.

Contents

Froment was elected a member of the National Academy of Engineering in 1999 for the application of fundamental approaches in the analysis of complex, industrially important processes and reactors.

Education

He received his chemical engineering degree in 1953 from Ghent University. He earned his Ph.D. in chemical engineering in 1957.

Following his degrees, he spent a year with Professor Schoeneman at the Institute for Chemical Technology in Darmstadt, Germany. The following year, he obtained a fellowship from the Belgian-American Educational Foundation enabling a year at the University of Wisconsin-Madison, where he worked with Professors Olaf Hougen, K.M. Watson, and C.C. Watson on catalytic kinetics and the modeling of catalyst beds. [1]

Tenure at the Ghent University

In 1959, he returned to Ghent University as an associate professor. In 1968, he became full professor and director of the Laboratorium voor Petrochemische Techniek until 1996, when he became emeritus professor of the Ghent University. Froment's objective was to design or simulate industrial catalytic reactors using mathematical models.[ citation needed ]

Froment's contributions to catalyst research have been significant in addressing challenging problems related to particle transport and deactivation. His work, spanning from the 1980s onward, has played a crucial role in advancing the understanding of these complex phenomena.

One of the notable areas of his research has been the study of transport mechanisms within catalyst particles. In contrast to earlier approaches that treated catalyst particles as single pores or pseudo-continua, Froment recognized the importance of retaining network topology in modeling. He particularly emphasized the preservation of network connectivity, especially in cases where pores could be obstructed due to factors like metal deposition or coke formation.

An area where he has demonstrated pioneering work is in understanding catalyst deactivation caused by coke formation. He approached this phenomenon on multiple levels, delving into the behavior of active sites or clusters, the intricate network of pores within particles, and the broader context of the reactor. His exploration led him to employ advanced techniques such as Bethe and percolation networks to describe mass transport and reactions within catalyst particles. These methodologies proved to be a significant departure from conventional tortuosity factor-based descriptions.

Another major area where Froment has been active is thermal cracking for olefin production. He started research in this area already in 1959, stressing the derivation of accurate kinetic data from experimentation in tubular flow reactors and developing the equivalent reactor volume concept introduced by Hougen and Watson. Continuing this work through the decades led to more advanced and detailed reaction kinetics integrated within reactor models with transport phenomena. This impressive effort, combining heat transfer and three-dimensional computational fluid dynamics calculations, has led to the most advanced furnace models in use today. [2]

Tenure at Texas A&M

Various universities in the US were interested in hiring him upon his retirement from Ghent University. He finally opted to join Texas A&M University, where he had several friends, as a "research professor" so that he could concentrate on research and a few seminars for graduate students. Between 1999 and 2015 he directed 9 Ph.D. students and several postdocs from all over the world. His research concentrated on the application of the Single Event concept, which he had developed in Belgium, to the complex refining processes such as FCC, hydrocracking, alkylation, and petrochemical processes such as MTO (methanol-to-olefins) and oligomerization. Since 2015, he concentrated on the kinetics and design of the Fischer-Tropsch process.

Travel

He has established a record of excellence for instruction of chemical engineering and reaction engineering.[ citation needed ] His dedication to teaching has led him all over the world as a visiting professor at other universities. Including Katholieke Universiteit Leuven (1967–77) and Université Libre de Bruxelles (1967–69), and at Yale University (1969), University of Houston (1973 and 1981), Universidad Nacional del Sur, Bahia Blanca, Argentina (1977), University of Buenos Aires, Argentina (1981), Universidad de Salta (since 1983), University of Santa Fe, Argentina (1983), and University of Stanford (1984). He also was an adjunct professor at the University of Delaware (1980–85).

Textbook: Chemical Reactor Analysis and Design

In collaboration with his co-author, Dr. Kenneth Bischoff, Froment published a highly influential textbook entitled, "Chemical Reactor Analysis and Design," in 1970. A second edition was published in 1990, [3] followed by a third edition in 2010. [4] The textbook has been utilized around the world in the instruction of chemical reaction engineering within chemical engineering curricula. The impact of the textbook has been attributed to the extensive background of Froment and Bischoff, which provides context into the connections between the macro- and micro-scale phenomena of transport and reaction engineering. [5]

Chemical Reaction Engineering

Froment has been active in professional organizations and supportive of the chemical reaction engineering community. He is the founder of the Chemical Engineering Section of the Koninklijke Vlaamse Ingenieursvereniging and a member of the Working Party on Chemical Reaction Engineering of the European Federation of Chemical Engineering since 1966 and of the Working Party of the Use of Computers in Chemical Engineering since 1968. He has organized many congresses such as those on "Catalyst Deactivation" and "Large Chemical Plants." He chaired ISCRE-14 in Bruges, Belgium. [6] He has also been active as an editor. He was co-editor of Chemical Engineering Science from 1965 until 1996 and of Chemical Reaction Engineering Reviews since 1971 and was a member of the editorial boards of Bulletin des Societes Chimiques Belges, Applied Catalysis, Industrial and Engineering Chemistry, Chemical Engineering Reviews, Revista Latino-Americana de Ingenieria Quimica, and Energie Primaire. [7]

Academic accomplishments

With over 70 Ph.D. students and over 300 scientific publications, Froment has had a significant impact on the science and the practice of Chemical Reaction Engineering. [8] Froment has been widely recognized, in Belgium and abroad, for his role as an educator and a scientist. He has received the Frederick Swarts Award for Applied Chemistry of the Royal Belgian Academy (1958), the National Alumni Award of the Belgian University Foundation (1966), the Prix Cornez de la Province du Hainaut (1976), and the R. H. Wilhelm Award in Chemical Reaction Engineering from the American Institute of Chemical Engineers (1984). He received a Doctor of Science Honoris Causa degree from Technion, Haifa, Israel (1984), and was elected a member of the Académie Royale Belge des Sciences d'Outre mer in 1981 and a member of the Koninklijke Academie van België, Class of Science, in 1988. In 1999, he was awarded the Villermaux-medal of European Federation of Chemical Engineering. Also in 1999, he was elected a member of the National Academy of Engineering. In 2007, Froment was awarded the Neal R. Amundson Award for Excellence in Chemical Reaction Engineering at the NASCRE Symposium in Houston, TX. [9]

Key publications

Gilbert has helped to rutland wrote numerous journal articles describing significant advances in chemical reaction engineering which includes but is not limited to:

Related Research Articles

<span class="mw-page-title-main">Chemical reactor</span> Enclosed volume where interconversion of compounds takes place

A chemical reactor is an enclosed volume in which a chemical reaction takes place. In chemical engineering, it is generally understood to be a process vessel used to carry out a chemical reaction, which is one of the classic unit operations in chemical process analysis. The design of a chemical reactor deals with multiple aspects of chemical engineering. Chemical engineers design reactors to maximize net present value for the given reaction. Designers ensure that the reaction proceeds with the highest efficiency towards the desired output product, producing the highest yield of product while requiring the least amount of money to purchase and operate. Normal operating expenses include energy input, energy removal, raw material costs, labor, etc. Energy changes can come in the form of heating or cooling, pumping to increase pressure, frictional pressure loss or agitation.

<span class="mw-page-title-main">Heterogeneous catalysis</span> Type of catalysis involving reactants & catalysts in different phases of matter

Heterogeneous catalysis is catalysis where the phase of catalysts differs from that of the reactants or products. The process contrasts with homogeneous catalysis where the reactants, products and catalyst exist in the same phase. Phase distinguishes between not only solid, liquid, and gas components, but also immiscible mixtures, or anywhere an interface is present.

<span class="mw-page-title-main">Packed bed</span> A hollow object filled with material that does not fully obstruct fluid flow

In chemical processing, a packed bed is a hollow tube, pipe, or other vessel that is filled with a packing material. The packed bed can be randomly filled with small objects like Raschig rings or else it can be a specifically designed structured packing. Packed beds may also contain catalyst particles or adsorbents such as zeolite pellets, granular activated carbon, etc.

<span class="mw-page-title-main">W. Harmon Ray</span> American academic

Willis Harmon Ray is an American chemical engineer, control theorist, applied mathematician, and a Vilas Research emeritus professor at the University of Wisconsin–Madison notable for being the 2000 winner of the prestigious Richard E. Bellman Control Heritage Award and the 2019 winner of the Neal Amundson Award.

<span class="mw-page-title-main">Neal Amundson</span> American chemical engineer

Neal Russell Amundson was an American chemical engineer and applied mathematician. He was the chair of the department of chemical engineering at the University of Minnesota for over 25 years. Later, he was the Cullen Professor of Chemical & Biomolecular Engineering and Mathematics at the University of Houston. Amundson was considered one of the most prominent chemical engineering educators and researchers in the United States. The Chemical Engineering and Materials Science building at the University of Minnesota-Twin Cities bears his name.

<span class="mw-page-title-main">Lanny D. Schmidt</span> American physical chemist (1938–2020)

Lanny D. Schmidt was an American chemist, inventor, author, and Regents Professor of Chemical Engineering and Materials Science at the University of Minnesota. He is well known for his extensive work in surface science, detailed chemistry (microkinetics), chemical reaction engineering, catalysis, and renewable energy. He is also well known for mentoring over a hundred graduate students and his work on millisecond reactors and reactive flash volatilization.

Chemical reaction engineering is a specialty in chemical engineering or industrial chemistry dealing with chemical reactors. Frequently the term relates specifically to catalytic reaction systems where either a homogeneous or heterogeneous catalyst is present in the reactor. Sometimes a reactor per se is not present by itself, but rather is integrated into a process, for example in reactive separations vessels, retorts, certain fuel cells, and photocatalytic surfaces. The issue of solvent effects on reaction kinetics is also considered as an integral part.

Martin Feinberg is an American chemical engineer and mathematician known for his work in chemical reaction network theory.

<span class="mw-page-title-main">Arvind Varma</span> American chemical engineer (1947–2019)

Arvind Varma was the R. Games Slayter Distinguished Professor, School of Chemical Engineering at Purdue University. His research interests are in chemical and catalytic reaction engineering, and new energy sources.

<span class="mw-page-title-main">Bubble column reactor</span>

A bubble column reactor is a chemical reactor that belongs to the general class of multiphase reactors, which consists of three main categories: trickle bed reactor, fluidized bed reactor, and bubble column reactor. A bubble column reactor is a very simple device consisting of a vertical vessel filled with water with a gas distributor at the inlet. Due to the ease of design and operation, which does not involve moving parts, they are widely used in the chemical, biochemical, petrochemical, and pharmaceutical industries to generate and control gas-liquid chemical reactions.

This bibliography of Rutherford Aris contains a comprehensive listing of the scientific publications of Aris, including books, journal articles, and contributions to other published material.

A fractal catalytic model is a mathematical representation of chemical catalysis in an environment with fractal characteristics.

<span class="mw-page-title-main">Yurii Matros</span>

Yurii Shaevich Matros was a Soviet and American scientist in the field of chemical engineering, known for his achievement in the theory and practice of heterogeneous catalytic processes. He is acknowledged as a “Godfather” of realization of catalytic processes in forced unsteady state conditions. Matros developed a catalytic reactor with periodic changes of direction of flow rate in packed bed of catalyst. This reactor is widely known in scientific and applied literature as an example of an application of developed theory of forced unsteady processes. Yurii Matros possessed a full doctoral degree of science and was a professor.

<span class="mw-page-title-main">Grigoriy Yablonsky</span>

Grigoriy Yablonsky is an expert in the area of chemical kinetics and chemical engineering, particularly in catalytic technology of complete and selective oxidation, which is one of the main driving forces of sustainable development.

Filamentous carbon is a carbon-containing deposit structure that refers to several allotropes of carbon, including carbon nanotubes, carbon nanofibers, and microcoils. It forms from gaseous carbon compounds. Filamentous carbon structures all contain metal particles. These are either iron, cobalt, or nickel or their alloys. Deposits of it also significantly disrupt synthesis gas methanation. Acetylene is involved in a number of method of the production of filamentous carbon. The structures of filamentous carbon are mesoporous and on the micrometer scale in dimension. Most reactions that form the structures take place at or above 280 °C (536 °F).

Heterogeneous catalytic reactors put emphasis on catalyst effectiveness factors and the heat and mass transfer implications. Heterogeneous catalytic reactors are among the most commonly utilized chemical reactors in the chemical engineering industry.

Dan Luss is an American chemical engineer, who is the Cullen Professor of Chemical Engineering at the University of Houston. He is known for his work in chemical reaction engineering, complex reacting systems, multiple steady-states reactor design, dynamics of chemical reactors, and combustion.

Donna Blackmond is an American chemical engineer and the John C. Martin Endowed Chair in Chemistry at Scripps Research in La Jolla, CA. Her research focuses on prebiotic chemistry, the origin of biological homochirality, and kinetics and mechanisms of asymmetric catalytic reactions. Notable works include the development of Reaction Progress Kinetic Analysis (RPKA), analysis of non-linear effects of catalyst enantiopurity, biological homochirality and amino acid behavior.

Maria Flytzani-Stephanopoulos was a Greek chemical engineer and, at the time of her death, had been the Robert and Marcy Haber Endowed Professor in Energy Sustainability and a distinguished professor at Tufts University. Flytzani-Stephanopoulos had also been the Raytheon Professor of Pollution Prevention at Tufts. She published more than 160 scientific articles with over 14,000 citations as of April 2018. She was a Fellow of AIChE, the American Association for the Advancement of Science and American Institute of Chemical Engineers. She lived in the Greater Boston Area with her husband, Professor Gregory Stephanopoulos of MIT.

<span class="mw-page-title-main">Guy B. Marin</span> Professor emeritus of chemical engineering

Guy B. Marin is professor emeritus of chemical engineering at the Ghent University, Belgium. He is founding member of the Laboratory for Chemical Technology (LCT) and the Center of Sustainable Chemistry (CSC) at Ghent University. Prior to that, he has been teaching at the Department of Chemical Engineering and Chemistry of Eindhoven University of Technology. His research on chemical kinetics and chemical reaction engineering led in 2015 to a spinoff company. He co-authored two books, Kinetics of Chemical Reactions: Decoding Complexity and Advanced Data Analysis and Modelling in Chemical Engineering.

References

  1. "Online CV of Gilbert Froment" . Retrieved 28 December 2012.
  2. "Ind. Eng. Chem. Res. 1997, 36(8), 2877". Industrial & Engineering Chemistry Research. 36 (8): 2877–2881. 1997. doi: 10.1021/ie970298a .
  3. Froment, Gilbert F.; Bischoff, Kenneth B. (1990). Textbook: Chemical Reactor Analysis and Design, 2nd Edition. ISBN   978-0471510444.
  4. Froment, Gilbert F.; Bischoff, Kenneth B.; Wilde, Juray De (2010-08-24). Textbook: Chemical Reactor Analysis and Design, 3rd Edition. ISBN   978-0470565414.
  5. "Historical Review of the Impact of G.F. Froment". Industrial & Engineering Chemistry Research. 36 (8): 2877–2881. 1997. doi: 10.1021/ie970298a .
  6. "History of ISCRE Symposia" . Retrieved 28 December 2015.
  7. "Service History of Service of G.F.Froment". Industrial & Engineering Chemistry Research. 36 (8): 2877–2881. 1997. doi: 10.1021/ie970298a .
  8. "List of Awards of G. Froment" . Retrieved 28 December 2015.
  9. "Past Winners of the Neal R. Amundson Award for Excellence in Chemical Reaction Engineering". Archived from the original on 10 December 2015. Retrieved 28 December 2015.