Professor
corradini@engr.wisc.edu
Índice A-Z
Corradini, Michael L.
Engine Research Center and Engineering Physics, University of Wisconsin, Madison, Wisconsin, USA
143 Engineering Research Building, 1500 Engineering Drive, Madison, WI 53706
Multiphase flows, Nuclear energy
Committee on Reactor Safeguards; French Atomic Energy Agency Scientific Review Committee; American Nuclear Society; INPO Training and Education Accreditation Board; Nuclear Waste Technical Review Board; National Academy of Engineering
BS 1975, Mechanical Engineering, Marquette University
MS 1976, Nuclear Engineering, Massachusetts Institute of Technology
PhD 1978, Nuclear Engineering, Massachusetts Institute of Technology
MS 1976, Nuclear Engineering, Massachusetts Institute of Technology
PhD 1978, Nuclear Engineering, Massachusetts Institute of Technology
University of Wisconsin Distinguished Teaching Award (1996); ANS Young Members Achievement Award (1990); Presidential Young Investigator (1984)
Professor Corradini is a mechanical and nuclear engineer with research interests centered primarily in thermal hydraulics and multiphase flow. He especially emphasizes the areas of reactor operation, reactor safety, reprocessing, and recycle and risk assessment. He is chair of the Energy Institute Executive committee and the director of the college's Wisconsin Institute of Nuclear Systems
The goal of research in multiphase flow is to help students understand basic physical phenomena which they analytically model or experimentally measure. Current research programs focus on four areas:
First, light water safety research analytically and/or experimentally looks at physical processes for design basis accidents or those that go beyond the design base (degraded-core accidents). These processes include critical heat flux, improved heat transfer and clad materials, hydrogen generation, molten fuel (coolant interactions, debris-bed formation and heat transfer, and molten core), concrete interactions, and containment behavior and response. All of these physical processes are coupled together under the risk assessment methodology and deterministic analyses.
Second, light water reactor operations work aids Midwest utilities in simulator modeling, operator training and accident response, and nuclear systems analysis. Research results contribute to advanced water reactor designs.
Third, fusion reactor research identifies and analyzes generic thermal hydraulic phenomena to improve current design studies including liquid-metal heat transfer and liquid-metal/water-safety concerns.
Finally, graduate students are developing new technologies related to reprocessing and recycling. These technologies minimize waste streams and recover valued by-products
The goal of research in multiphase flow is to help students understand basic physical phenomena which they analytically model or experimentally measure. Current research programs focus on four areas:
First, light water safety research analytically and/or experimentally looks at physical processes for design basis accidents or those that go beyond the design base (degraded-core accidents). These processes include critical heat flux, improved heat transfer and clad materials, hydrogen generation, molten fuel (coolant interactions, debris-bed formation and heat transfer, and molten core), concrete interactions, and containment behavior and response. All of these physical processes are coupled together under the risk assessment methodology and deterministic analyses.
Second, light water reactor operations work aids Midwest utilities in simulator modeling, operator training and accident response, and nuclear systems analysis. Research results contribute to advanced water reactor designs.
Third, fusion reactor research identifies and analyzes generic thermal hydraulic phenomena to improve current design studies including liquid-metal heat transfer and liquid-metal/water-safety concerns.
Finally, graduate students are developing new technologies related to reprocessing and recycling. These technologies minimize waste streams and recover valued by-products
Artículos:
Articles:
DEVELOPMENT OF MICRO-DIESEL INJECTOR NOZZLES VIA MEMS TECHNOLOGY AND EFFECTS ON SPRAY CHARACTERISTICS - Vol. 13 '2003 - Atomization and Sprays
ANALYTICAL PREDICTION OF THE EXIT FLOW OF CAVITATING ORIFICES - Vol. 7 '1997 - Atomization and Sprays
A FULLY COMPRESSIBLE, TWO-DIMENSIONAL MODEL OF SMALL, HIGH-SPEED, CAVITATING NOZZLES - Vol. 9 '1999 - Atomization and Sprays
ESCALATING AND PROPAGATING MELT/COOLANT INTERACTIONS IN THE KROTOS EXPERIMENTS: STATUS OF KNOWLEDGE - Vol. 9 '1995 - ICHMT DIGITAL LIBRARY ONLINE
TEXAS-V: A FUEL-COOLANT INTERACTION MODEL - Vol. 9 '1995 - ICHMT DIGITAL LIBRARY ONLINE
THE EFFECT OF LIGHT GASES IN NONCONDENSABLE MIXTURES ON CONDENSATION HEAT TRANSFER - Vol. 17 '1998 - International Heat Transfer Conference 11
Interfacial Transport Phenomena and Stability in Liquid-Metal/Water - Vol. 56 '2002 - International Heat Transfer Conference 12
NUMERICAL STUDY OF MACROSCOPIC FLOW INSTABILITIES ASSOCIATED WITH NATURAL CIRCULATION LOOPS UNDER SUPERCRITICAL CONDITIONS - Vol. 0 '2006 - International Heat Transfer Conference 13
SUPERCRITICAL HEAT TRANSFER IN A HEATED TUBE: MIXED-CONVECTION CRITERIA AND PROPOSED TURBULENT WALL-FUNCTION MODELS - Vol. 0 '2006 - International Heat Transfer Conference 13
Yerkess, A.
ESCALATING AND PROPAGATING MELT/COOLANT INTERACTIONS IN THE KROTOS EXPERIMENTS: STATUS OF KNOWLEDGE
Nilsuwankosit, Sunchai
TEXAS-V: A FUEL-COOLANT INTERACTION MODEL
Huhtiniemi, I.
ESCALATING AND PROPAGATING MELT/COOLANT INTERACTIONS IN THE KROTOS EXPERIMENTS: STATUS OF KNOWLEDGE
Bonazza, Riccardo
Interfacial Transport Phenomena and Stability in Liquid-Metal/Water
Hohmann, H.
ESCALATING AND PROPAGATING MELT/COOLANT INTERACTIONS IN THE KROTOS EXPERIMENTS: STATUS OF KNOWLEDGE
Abdulla, Sherif
Interfacial Transport Phenomena and Stability in Liquid-Metal/Water
Baik, Seunghyun
DEVELOPMENT OF MICRO-DIESEL INJECTOR NOZZLES VIA MEMS TECHNOLOGY AND EFFECTS ON SPRAY CHARACTERISTICS
Herranz, Luis E.
THE EFFECT OF LIGHT GASES IN NONCONDENSABLE MIXTURES ON CONDENSATION HEAT TRANSFER
Blanchard, James P
DEVELOPMENT OF MICRO-DIESEL INJECTOR NOZZLES VIA MEMS TECHNOLOGY AND EFFECTS ON SPRAY CHARACTERISTICS
Schmidt, David P.
A FULLY COMPRESSIBLE, TWO-DIMENSIONAL MODEL OF SMALL, HIGH-SPEED, CAVITATING NOZZLES
ANALYTICAL PREDICTION OF THE EXIT FLOW OF CAVITATING ORIFICES
Anderson, Mark H.
SUPERCRITICAL HEAT TRANSFER IN A HEATED TUBE: MIXED-CONVECTION CRITERIA AND PROPOSED TURBULENT WALL-FUNCTION MODELS
THE EFFECT OF LIGHT GASES IN NONCONDENSABLE MIXTURES ON CONDENSATION HEAT TRANSFER
Interfacial Transport Phenomena and Stability in Liquid-Metal/Water
Page, Dick
Interfacial Transport Phenomena and Stability in Liquid-Metal/Water
Burger, M.
ESCALATING AND PROPAGATING MELT/COOLANT INTERACTIONS IN THE KROTOS EXPERIMENTS: STATUS OF KNOWLEDGE
Rutland, Christopher J.
A FULLY COMPRESSIBLE, TWO-DIMENSIONAL MODEL OF SMALL, HIGH-SPEED, CAVITATING NOZZLES
Shamoun, Bassam
TEXAS-V: A FUEL-COOLANT INTERACTION MODEL
Buck, M.
ESCALATING AND PROPAGATING MELT/COOLANT INTERACTIONS IN THE KROTOS EXPERIMENTS: STATUS OF KNOWLEDGE
Cho, Day
Interfacial Transport Phenomena and Stability in Liquid-Metal/Water
Jain, R.
NUMERICAL STUDY OF MACROSCOPIC FLOW INSTABILITIES ASSOCIATED WITH NATURAL CIRCULATION LOOPS UNDER SUPERCRITICAL CONDITIONS
Liu, Xin
Interfacial Transport Phenomena and Stability in Liquid-Metal/Water
Berg, E. V
ESCALATING AND PROPAGATING MELT/COOLANT INTERACTIONS IN THE KROTOS EXPERIMENTS: STATUS OF KNOWLEDGE
Seo, K. W.
SUPERCRITICAL HEAT TRANSFER IN A HEATED TUBE: MIXED-CONVECTION CRITERIA AND PROPOSED TURBULENT WALL-FUNCTION MODELS
Tang, Jian
TEXAS-V: A FUEL-COOLANT INTERACTION MODEL
Kim, Moo Hwan
SUPERCRITICAL HEAT TRANSFER IN A HEATED TUBE: MIXED-CONVECTION CRITERIA AND PROPOSED TURBULENT WALL-FUNCTION MODELS
Magallon, D.
ESCALATING AND PROPAGATING MELT/COOLANT INTERACTIONS IN THE KROTOS EXPERIMENTS: STATUS OF KNOWLEDGE