November 2007University-Based Nuclear Ed and R&D1 University-Based Nuclear Education and R&D Dr. Bill Garland

Slides:



Advertisements
Similar presentations
Gheorghe CĂTA-DANIL*, Alexandru JIPA** * Physics Department, Politehnica University Bucharest, ROMANIA ** Atomic and Nuclear Physics Chair, Faculty of.
Advertisements

IAEA December 2007Nuclear Canada - Universities Initiative1 Role of Universities in Preserving and Managing Nuclear Knowledge: Canada Dr. Bill Garland.
07/10/2014Nuclear Education in Canada1 Status of Nuclear Education in Canada Dr. B. Rouben Secretary/Treasurer University Network of Excellence in Nuclear.
UNENE: A Research & Education network supporting the Nuclear Industry 25/08/2014UNENE briefing to CANDU Energy1.
UNENE: Its Role as an Educational Network Input to IAEA Panel Discussion Tuesday March 16, 2010 B. A. Shalaby UNENE President.
University Programs -- Nuclear Engineering Education “The Road Ahead” John Gutteridge Director of University Programs Office of Nuclear Energy, Science.
NUCLEAR EDUCATION IN CANADA Dr. John C. Luxat Professor & NSERC/UNENE Senior Industrial Research Chair in Nuclear Safety Analysis McMaster University Presentation.
PEO/CNS Symposium1 How and why is CANDU designed the way it is - an introduction Bill Garland, Professor, Department of Engineering Physics,
University of Zilina Slovakia. Brief history The University of Zilina was established on October 1, 1953 as the University of Railway Transport in Prague.
Professor Jon Billowes, Director of Education Dalton Nuclear Institute Status of Nuclear Higher Education in the UK The University of Manchester Dalton.
The Conference on Nuclear Training and Education Reinvigorating University-Based Nuclear Education and R&D Dr. Bill Garland,
NUCLEAR POWER PLANT. NUCLEAR FUEL  Nuclear fuel is any material that can be consumed to derive nuclear energy. The most common type of nuclear fuel is.
Power Stations Nuclear power stations. Introduction  A nuclear power plant is a thermal power station in which the heat source is a nuclear reactor.thermal.
Electric Power Generation and the Environment Health Physics Society Power Reactor Section.
Adam Smalley.  Describe how neutrons produced in a fission reaction may be used to initiate further fission reactions (chain reactions)  Distinguish.
Spent Nuclear Fuel Timothy Pairitz. Nuclear Power 101 Uranium-235 is enriched from 0.7% to 3-5%. Enriched fuel is converted to a uranium oxide powder.
Nuclear Power Station Lecture No 5. A generating station in which nuclear energy is converted into electrical energy is known as a Nuclear power station.
Wisconsin Institute of Nuclear Systems Nuclear Engr & Engr Physics, University of Wisconsin - Madison May 2006 Michael Corradini, Chair Nuclear Engineering.
Nuclear Power What is nuclear energy? Power plants use heat to produce electricity. Nuclear energy produces electricity from heat through a process called.
 For the implementation of the EPBD and the targets optimal design strategy is needed for energy efficient buildings by applying an integrated.
International Atomic Energy Agency Ahmed Abdel-Halim Former Deputy Head of IAEA Tokyo Regional Office, Japan Consultant Division of Safeguards Technical.
Kick-off University Partners Meeting September 18, 2012 Michael Owen, VP Research, Innovation & International, UOIT on behalf of Consortium partners Southern.
Opportunities to Participate in Center for Research & Technology Development (CRTD) Activities Presented at TCOB Meeting – March 1, 2012 Michael Tinkleman,
CANDU and AECL Professional Engineers Ontario May 21 st, 2009 Joe Howieson Regional Vice-President Marketing and Business Development.
Radioisotope: an unstable isotope that spontaneously changes its nuclear structure and releases energy in the form of radiation. Isotopes Stable Radioisotopes.
 Splitting of a nucleus into smaller fragments  Happens when they are bombarded with neutrons  Releases ENORMOUS amts of energy!  Only U-235 & Pu-239.
Distinguished Talk Prof. Reza Iravani, Editor-in-Chief (IEEE Trans. Power Delivery) IEEE Fellow Dept. of ECE, University of Toronto On November 30, 2010.
Canadian Nuclear Society Société Nucléaire Canadienne “Supporting nuclear science and technology for 25 years” “25 ans de promotion de la science et de.
CANDU Owners Group Inc. “Strength Through Cooperation” Nuclear Knowledge Portal Canada’s Nuclear Knowledge Portal: Review of Functionality.
Tacit Knowledge Emergence Tacit Knowledge Emergence Presented at the CNS Annual Conference Toronto, Ontario, Dr. Bill Garland
Nuclear Power Reactors SEMINAR ON NUCLEAR POWER REACTOR.
U Th + Energy Natural “spall-off” Masses are not quite equal on both sides. The difference is ENERGY. e = mc 2 massenergy Natural radioactive.
Nuclear Power. How does nuclear power work? Fission produces heat Heat boils water making steam Steam turns a turbine Turbine produces electricity.
Nuclear Energy How will it affect you?. Nuclear Energy: What is it? n Fission –the splitting of an atom by a neutron, resulting in two or more neutrons.
Chapter 4. Power From Fission 1.Introduction 2.Characteristics of Fission 3. General Features 4. Commercial Reactors 5. Nuclear Reactor Safety 6. Nuclear.
Building a CANDU reactor
NUCLEAR ENERGY Nuclear energy originates from the splitting of uranium atoms in a process called fission. This energy is used at the power plant to generate.
DAVID VAN WAGENER NOVEMBER 26, 2008 CHE 384: TECHNOLOGY REPORT Nuclear Power: Advanced Generations and Outlook.
What is a Fission Reactor?What is a Fission Reactor?  The Principles of Fission Reactors are similar to that of an Atomic Reactor  Fission Reactors.
Center for Advanced Energy Studies Harold S. Blackman Interim Director, CAES July 18, 2007.
Brevard Community College EST1830 Bruce Hesher
Liquid Fluoride Thorium Reactors. Overview Introduction to nuclear reactors Fundamentals of LFTR (Liquid Fluoride Thorium Reactors) Economic viability.
Getting up to speed on nuclear Getting up to Speed on Nuclear Presented to SNC-Lavalin Oakville, Ontario, Dr. Bill Garland
Basic Chemistry Copyright © 2011 Pearson Education, Inc. 1 Chapter 16 Nuclear Radiation 16.6 Nuclear Fission and Fusion.
Nuclear Power Reactors
Uranium Ore - must be “enriched” most abundant = 238 U fissionable = 235 U (“fuel”) Reminder: Isotopes different # of neutrons Naturally occurring radioactive.
A collaborative research project involving: Research Centre in Non-destructive Evaluation For more information about RCNDE, contact Peter.
Nuclear Fission And Nuclear Fusion
New Postgraduate Programs in Nuclear Engineering to meet the needs of the Canadian Nuclear Industry 16PBNC, October 2008 George Bereznai (UOIT) and Bill.
OPG Nuclear Meeting our Commitment to Safe Reliable Operations The Role of University Research in Canada’s Nuclear Power Development Paul Spekkens Ontario.
Topic 2: Nuclear Reactions Isotopes are important when we are looking at nuclear reactions. Recall from chemistry, isotopes are elements with same atomic.
Nuclear Energy/Nuclear Safety/Nuclear Reactors/Nuclear Warfare/Fusion vs. Fission/Thorium Andrew Wang.
Nuclear Power. Nuclear Fuel  Primarily involve nuclear fission  Fuel: typically is uranium-235 Must be enriched, as the most abundant isotope of uranium.
1 MANAGEMENT OF TECHNICAL AND SCIENTIFIC COMPETENCE AND HUMAN RESOURCES STEVE COUPLAND CANADIAN NUCLEAR ASSOCIATION IAEA CONFERENCE APRIL 25,2007.
25.3 Fission and Fusion > 1 Copyright © Pearson Education, Inc., or its affiliates. All Rights Reserved. Chapter 25 Nuclear Chemistry 25.1 Nuclear Radiation.
© Cengage Learning 2015 LIVING IN THE ENVIRONMENT, 18e G. TYLER MILLER SCOTT E. SPOOLMAN © Cengage Learning 2015 Nonrenewable Energy-Nuclear Energy.
Generations of Opportunity By Rick Perley. If selected for construction of a repository, benefits include:  Between $16 - $24 billion in direct investment.
Education and Activities in Nuclear-Related Areas in Turkey
6 mark question.
Canadian National Committee ‘International Association of the Properties of Steam and Water’ Workshop Welcoming Remarks John Froats President & CEO CANDU.
Canadian nuclear society Canadian radiation protection association
Membership Benefits.
Nuclear Energy Fission vs Fusion.
Nuclear Skills Training Workshop
Science 10 Unit 2 CHEMISTRY: NUCLEAR REACTIONS AND EQUATIONS
A Canadian Perspective
UNENE Its role in Nuclear Training &Education
UNENE Perspective Dr. V.G. Snell Programme Director, UNENE
UNENE ;its Role in Industry
UNENE – Networking in Nuclear Engineering
Presentation transcript:

November 2007University-Based Nuclear Ed and R&D1 University-Based Nuclear Education and R&D Dr. Bill Garland Exec. Dir, of UNENE Acad. Dir. of CANTEACH Prof. of Nuc. Eng., McMaster Univ.

November 2007University-Based Nuclear Ed and R&D2 Presentation Objective Background: –Nuclear in Canada –Very brief intro to nuclear reactors Identify research and educational –Areas –Initiatives

November 2007University-Based Nuclear Ed and R&D3 Introduction - a reality check We are here. Let’s make the best it. Quality of life requires energy. Nuclear power is the only existing option that transcends the limitations of nonrenewable alternatives and renewable alternatives. We conclude, then, that nuclear should be part of the energy mix now and in the future… …that is, we have a functional requirement for nuclear energy.

November 2007University-Based Nuclear Ed and R&D4 Fission To make sense of nuclear reactor design in general, and CANDU design in particular, the reader needs to have some familiarity with a few key nuclear concepts and phenomena. In a nutshell, slow neutrons (called thermal neutrons) can initiate a fission of uranium 235 (U-235), an isotope of uranium that occurs in nature.

November 2007University-Based Nuclear Ed and R&D5 Fast vs. slow neutrons Natural uranium that is mined from the ground is 0.7% U- 235 and 99.3% U-238. The result of fission is fission products that are radioactive, radiation, fast (or energetic) neutrons and heat. The fast neutrons have a low probability of inducing further fissions, and hence have a low probability of generating more neutrons and thus sustaining a chain reaction.

November 2007University-Based Nuclear Ed and R&D6 Cross sections Fission is more likely if neutron energy is low.

November 2007University-Based Nuclear Ed and R&D7 Basic functional requirements We need: a fuel such as U-235 a moderator to thermalize (i.e., slow down) the fast neutrons a coolant to remove the heat a control system to control the number of neutrons a shielding system to protect equipment and people from radiation a system that pulls all this together into a workable device.

November 2007University-Based Nuclear Ed and R&D8

November 2007University-Based Nuclear Ed and R&D9

November 2007University-Based Nuclear Ed and R&D10 The system that pulls it all together We pull together the various requirements related to –fuel, –moderation, –cooling, –control and –shielding Layered, defense-in-depth approach wherein the radioactive fission products are kept from the environment. Designing a nuclear plant is not a trivial exercise. There are many systems and sub- systems that interact.

November 2007University-Based Nuclear Ed and R&D11 In Canada, we have these uncoordinated nuclear elements: CANTEACH – an open CANDU document repository (2001) UNENE – a nuclear centre of excellence (2002) NUCENG – an university based portal and repository (1998) CNS – a society of nuclear individuals (conferences, bulletin, …) (1979) COG – an industrial consortium of operators and designers (1984). Sponsors CANTEACH and member of UNENE OCI - provides a forum for exchange of information related to technical and quality issues with particular regard to the potential impact of such issues on the supply base for its members' products and services. Nuclear Canada portal – a wiki based portal to the Canadian Nuclear Enterprise. Canadian Initiatives

November 2007University-Based Nuclear Ed and R&D12 Existing Networks UNENE – University Network of Excellence in Nuclear Engineering, Canada (2002) WNU - World Nuclear University (2003) ENEN - European Nuclear Education Network (2003) ANENT - Asian Network for Education in Nuclear Technology (2004) NTEC - Nuclear Technology Education Consortium (UK) (2005) RANSE - Russian Association of Nuclear Science and Education (2005)

November 2007University-Based Nuclear Ed and R&D13 What is UNENE? UNENE = University Network of Excellence in Nuclear Engineering UNENE is an industry driven alliance of prominent Canadian universities and nuclear industry

November 2007University-Based Nuclear Ed and R&D14 UNENE has three distinct objectives: Enhance the supply of highly qualified graduates in nuclear engineering and technology. Reinvigorate university-based research and development in nuclear engineering and technology focusing primarily on mid to longer term research. Create a group of respected, university-based, nuclear experts for public and industry consultation.

November 2007University-Based Nuclear Ed and R&D15 Current Industry Membership –Ontario Power Generation (OPG) –Bruce Power (BP) –Atomic Energy of Canada Limited (AECL) –CANDU Owners Group (COG) –Canadian Nuclear Safety Commission (CNSC) –Nuclear Safety Solutions (NSS)

November 2007University-Based Nuclear Ed and R&D16 University Members –McMaster University –Queen’s University –University of Toronto –University of Waterloo –University of Western Ontario –University of Ontario Institute of Technology –Ecole Polytechnique –University of New Brunswick –Royal Military College –University of Guelph

November 2007University-Based Nuclear Ed and R&D17 First Phase Funding Cash Funding (first phase) Industry: $ 7.8 M Universities: $ 0.81 M NSERC: $ 7.12 M (estimated) (Not including other nuclear research chairs and programs) Other In-kind Support: Industry and Universities: $4.97M Total impact ≥$20.7M

November 2007University-Based Nuclear Ed and R&D18

November 2007University-Based Nuclear Ed and R&D19 University Research Areas McMaster: Nuclear Safety Analyses and Thermal Hydraulics (Dr. John Luxat, Associate Chair Dr. Dave Novog) moreDr. John Luxatmore Queen’s: Advanced Nuclear Materials (Dr. Rick Holt, Associate Chair Dr. M. Daymond) moreDr. Rick Holtmore Toronto: Nano-Engineering of Alloys (Dr. Roger Newman + Associate Chair) moreDr. Roger Newman more Waterloo: Risk-based Life Cycle Management (Dr. Mahesh Pandey + Associate Chair) moreDr. Mahesh Pandey more Western: Control, Instrumentation and Electrical Systems: (Dr. Jin Jiang + Associate Chair) moreDr. Jin Jiang more Nuclear Chemistry (Dr. David Shoesmith more / Clara Wren more)Dr. David ShoesmithmoreClara Wrenmore UOIT: Health Physics and Environmental Safety (Application under preparation) (Dr. Tony Waker, Associate Chair Dr. Ed Waller) moreDr. Tony Wakermore Ecole Polytechnique: (Dr. Daniel Rozon, Dr. Michel Pettigrew) New Brunswick: Chemistry and Corrosion (Dr. Derek Lister)Dr. Derek Lister Royal Military College: Nuclear Fuels (Dr. Brent Lewis under preparation) moreDr. Brent Lewis more

November 2007University-Based Nuclear Ed and R&D20 Other Research About 11, 3 year projects, proposed by existing university faculty from any Canadian university will be funded at approx. $90,000 each from UNENE and these funds will be matched by NSERC through Collaborative Research and Development grants. –Dr. Marilyn Lightstone, McMaster University moreDr. Marilyn Lightstonemore –Dr. Peter Tremain, Guelph University moreDr. Peter Tremainmore –Dr. Lynann Clapham, Queen’s University moreDr. Lynann Claphammore In addition to research output these projects will support Masters and Ph.D. graduate students.

November 2007University-Based Nuclear Ed and R&D21 Educational Programs Professional Development: Joint M. Eng. Degree in Nuclear Engineering has been accredited by OCGS. Currently about students are active. The program is delivered by faculty from UNENE universities graduates are expected each year. Full-time studies: New and continuing professors, supported by UNENE, supervise research based Masters and Doctoral students. Approx. 90 Masters, 30 Doctoral and 15 Post Doctoral people will be trained in the first phase. Currently 10 doctoral, 16 masters and 10 postdoctoral candidates are registered.

November 2007University-Based Nuclear Ed and R&D22 UNENE Web Site Tour

November 2007University-Based Nuclear Ed and R&D23 CANTEACH Web Site Tour

November 2007University-Based Nuclear Ed and R&D24 NucEng Web Site Tour

November 2007University-Based Nuclear Ed and R&D25 CNS Web Site Tour

November 2007University-Based Nuclear Ed and R&D26 COG Web Site Tour

November 2007University-Based Nuclear Ed and R&D27 OCI – Organization of CANDU Industries

November 2007University-Based Nuclear Ed and R&D28 Nuclear Canada Portal

November 2007University-Based Nuclear Ed and R&D29 Questions? Dr. Bill Garland Exec. Dir, of UNENE Acad. Dir. of CANTEACH Prof. of Nuc. Eng., McMaster Univ.