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Nuclear Engineering Education at Texas A&M University Claudio - - PowerPoint PPT Presentation

Nuclear Engineering Education at Texas A&M University Claudio Gariazzo Associate Research Engineer Texas A&M University Who are we? Largest nuclear engineering department in U.S. Zero Power teaching reactor 298


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SLIDE 1

Nuclear Engineering Education at Texas A&M University

Claudio Gariazzo Associate Research Engineer Texas A&M University

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SLIDE 2

Who are we?

  • Largest nuclear engineering

department in U.S. – 298 undergraduate students – 147 graduate students

  • Nationally ranked programs (public

institutions)

– Undergraduate, ranked 2nd – Graduate, ranked 2nd

  • Only department in U.S. with 2

nuclear reactors on campus

  • Strong, exceptional facilities

Zero Power teaching reactor 1 MW TRIGA research reactor

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SLIDE 3

Enrollment

Fall 2013:

  • University Total: 53,337 students
  • College of Engineering: 12,414 students

– (23.3% of university)

  • 445 Nuclear Engineering Students

– (3.6% of COE) 1 MW TRIGA research reactor

  • f 53,337*

Texas A&M University Students

9,261 Undergraduate Engineering Students 3,153 Graduate Engineering Students 445 Nuclear Engineering

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Growth in nuclear education

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Nuclear Engineering at Texas A&M

  • Two academic discipline options with a wealth of subareas of study

– Nuclear Engineering

  • Powering the world with clean, safe, sustainable next-generation energy.
  • Enhancing nuclear security through defense and environmental efforts.
  • Harnessing the world’s fastest computers to solve important science and

engineering problems.

  • Providing advanced methods for manufacturing and materials.

– Radiological Health Engineering (health physics)

  • Fighting cancer through diagnostic imaging and therapy.
  • Protecting the environment by ensuring the safe use and disposal of

radioactive materials.

  • Protecting the public from disease through food irradiation and medical

sterilization.

  • Enabling space exploration by protecting astronauts and critical equipment.
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Nuclear Engineering at Texas A&M

  • Largest Nuclear Engineering department in the U.S.
  • Two degree programs—nuclear engineering and

radiological health engineering, both ABET accredited

  • Only campus in the country with two nuclear reactors
  • Exceptional facilities
  • Distinguished faculty
  • Robust, well funded research programs
  • Increasingly recognized on the national and

international levels

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SLIDE 7

Nuclear Engineering at Texas A&M

Undergraduate (BS) Graduate School (MS)

MS MS - NP MS - NM

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SLIDE 8

B.S. Degree Plans

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SLIDE 9
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Freshman Year (Year 1)

Course Description ENGL 104 – Comp.& Rhetoric

Analytical reading and writing abilities, critical thinking, and library research skills

ENGR 111 – Foundations of Engr. 1

Intro to engineering profession, ethics, and discipline

MATH 151 – Engr. Math 1

  • Rect. Coordinates, vectors, etc.

PHYS 218 – Mechanics

Mechanics for engineers and science majors

CHEM 107/117 – Chem. For Engrs.

General chemistry (and lab) for engineers

ENGR 112 – Foundations of Engr. 2

Continuation of ENGR 111

MATH 152 – Engr. Math 2

Differentiation and integration, calculus, etc.

PHYS 208 – Electricity & Optics

Electricity, magnetism, and intro to optics

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SLIDE 11

Sophomore Year (Year 2)

Course Description

MEEN 221 – Statics & Particle Dynamics

Newtonian mechanics fundamentals

NUEN 265 – Material Science for Nuclear Energy Applications

Material science fundamentals with emphasis on nuclear applications, crystal structures, crystalline defects, radiation effects in metals, ceramics, and polymers, etc.

MATH 251 – Engineering Math 3

Vector algebra, partial derivatives, multiple integration, etc.

NUEN 201 – Intro to Nuclear Engr. 1

Intro to atomic and nuclear physics, history, types of radiation, applications

NUEN 101 – Principles of Nucl. Engr.

Global/national energy requirements, radioactivity, radiation protections, and fission/fusion reactor concepts

MEEN 315 – Principles of Thermodynamics

Theory and application of energy methods in engineering; conservation of mass and energy, energy transfers, etc.

CVEN 305 – Mechanics of Materials

Stress/deformation relationship in structural members, etc.

ECEN 215 – Principles of Elec. Engr.

Electric circuit analysis

MATH 308 – Differential Equations

Ordinary differential equations, Laplace transformations

NUEN 302 – Intro. to Nuclear Engr. 2

Basic radioactivity, nuclear physics

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SLIDE 12

Junior Year (Year 3)

Course Description

COMM 203 – Public Speaking

Training in speeches of social and technical interest

MEEN 344 – Fluid Mechanics

Application of laws to ideal and real fluids, dimensional analysis and application to flow through ducts and piping

MATH 309 – Linear Algebra: Diff. Equations

Systems of linear equations, matrices, determinants, vector spaces, transformations, eigenvalues, etc.

NUEN 301 – Nuclear Reactor Theory

Introduction to neutron diffusion theory, neutron moderation, conditions of criticality of nuclear reactors

NUEN 309 – Radiological Safety

Interactions of radiation with matter and biological systems; dosimetry; radiation protection; etc.

MEEN 461 – Heat Transfer

Heat transfer phenomena; SS and transient conduction, forced/natural convection, black/gray body radiation, etc.

ISEN 302 – Economic Analysis of Engr. Projects

Principles of economic equivalence; comparison of alternatives; capital recovery, etc.

NUEN 329 – Analytical and Numerical Methods

Numerical analysis and advanced analytical techniques for reactor flux distributions, temps and transients

NUEN 303 – Nuclear Detection and Isotopes Lab

Interactions with matter; behavior of radiation detectors

NUEN 304 – Nuclear Reactor Analysis

Group diffusion method, multi-region reactors, heterogeneous reactors, reactor kinetics, etc.

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Senior Year (Year 4)

Course Description

NUEN 405 – Nuclear Engr. Experiments

Experimental measurements of basic nuclear reactor parameters; reactor operation; reactor safety

NUEN 406 – Nuclear Engr. Systems and Design

Nuclear plant systems; conventional and advanced generation power reactors; design methodology; etc.

NUEN 430 – Computer Applications in Nuclear Engineering

Applications of computers to solve nuclear engineering problems; nuclear data and cross-section libraries; deterministic and stochastic reactor modeling

ENGR 482 – Ethics and Engineering

Moral analysis and application to ethical problems encountered by engineers; environmental issues, etc.

NUEN Technical Elective NUEN Technical Elective NUEN 410 – Design of Nuclear Reactors

Application of reactor theory and disciplines in fundamental and practical reactor system design

NUEN 481 – Seminar

Designed to broaden students’ capabilities and perspective in nuclear engineering through guests

NUEN Technical Elective

Intro to specific field: nonproliferation, computational analysis, materials and fuels, power reactor design, etc.

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Senior Year (Year 4) – Power Option

Course Description

NUEN 405 – Nuclear Engr. Experiments

Experimental measurements of basic nuclear reactor parameters; reactor operation; reactor safety

NUEN 406 – Nuclear Engr. Systems and Design

Nuclear plant systems; conventional and advanced generation power reactors; design methodology; etc.

NUEN Technical Elective ENGR 482 – Ethics and Engineering

Moral analysis and application to ethical problems encountered by engineers; environmental issues, etc.

NUEN 460 – Nuclear Plant Systems

Combining disciplines (nuclear, mechanical, electrical) to design a full NPP: core, control rod drive mechanisms, neutron source, detectors, PCS, ECCS

NUEN 418 – Fuel Assembly & Core Design

Computer codes for neutronic design, analysis, modeling

  • f nuclear fuel assembly and core

NUEN 410 – Design of Nuclear Reactors

Application of reactor theory and disciplines in fundamental and practical reactor system design

NUEN 481 – Seminar

Designed to broaden students’ capabilities and perspective in nuclear engineering through guests

NUEN Technical Elective

Intro to specific field: nonproliferation, computational analysis, materials and fuels, power reactor design, etc.

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Graduate Degree (MS)

Course Description

NUEN 601 – Nuclear Reactor Theory

Neutron-nucleus interactions; neutron energy spectra; transport/diffusion theory; multi-group approximations; etc.

NUEN 604 – Rad. Interaction & Shielding

Principles of radiation interactions and transport; sources, detectors, shielding, photon interactions, dosimetry, buildup factors, etc.

NUEN 623 – Nuclr. Engr. Heat Transfer and Fluid Flow

Thermodynamics and unified treatment of mass, momentum, and energy transport with application to nuclear engineering systems

NUEN 606 – Rx Analysis/Experimentation

Perturbation theory; delayed neutrons and reactor kinetics; lattice physics calculations; reactivity coefficients

NUEN 624 – Nuclear Thermal Hydraulics and Stress Analysis

Advanced heat transport in solids and fluids including boiling phenomena, isothermal elasticity, thermoelasticity, viscoelasticity, etc.

NUEN 610 – Design of Nuclear Reactors

Advanced reactor design

NUEN 681 – Seminar

Topics not covered in NUEN courses; include faculty, student, and guest presentations

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Graduate Degree (MS – Nuclear Materials)

Course Description

NUEN 601 – Nuclear Reactor Theory

Neutron-nucleus interactions; neutron energy spectra; transport/diffusion theory; multi-group approximations; etc.

NUEN 604 – Rad. Interaction & Shielding

Principles of radiation interactions and transport; sources, detectors, shielding, photon interactions, dosimetry, buildup factors, etc.

NUEN 661 – Nuclear Fuel Performance

Nuclear fuel phenomena and performance

NUEN 606 – Rx Analysis/Experimentation

Perturbation theory; delayed neutrons and reactor kinetics; lattice physics calculations; reactivity coefficients

NUEN 662 – Nuclear Materials Under Extreme Conditions

Materials degradation under reactor environments; radiation-induced microstructure changes; corrosion; etc.

MSEN 601 – Fundamental Materials Science and Engineering

Fundamentals of microstructure properties and relationship of materials

NUEN 681 – Seminar

Topics not covered in NUEN courses; include faculty, student, and guest presentations

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Graduate Degree (MS – Nuclear Nonproliferation)

Course Description

NUEN 601 – Nuclear Reactor Theory

Neutron-nucleus interactions; neutron energy spectra; transport/diffusion theory; multi-group approximations; etc.

NUEN 604 – Rad. Interaction & Shielding

Principles of radiation interactions and transport; sources, detectors, shielding, photon interactions, dosimetry, buildup factors, etc.

NUEN 605 – Rad. Detection and Nuclear Materials Measurements

Lab-based course for special nuclear materials measurements; advanced radiation detection instrumentation; detection, identification, & quantification

NUEN 606 – Rx Analysis/Experimentation

Perturbation theory; delayed neutrons and reactor kinetics; lattice physics calculations; reactivity coefficients

NUEN 650 – Nuclear Nonproliferation and Arms Control

Political and technological issues with nuclear proliferation and arms control; verification technologies; proliferation resistance in fuel cycle; international/domestic safeguards

NUEN 651 – Nuclear Fuel Cycles and Nuclear Material Safeguards

Study of fuel cycles and application of nuclear material safeguards (CS, NMA, PPS, etc.)

NUEN 656 – Critical Analysis of Nuclear Security Data

Project-based capstone course analyzing nuclear security event data

NUEN 681 – Seminar

Topics not covered in NUEN courses; include faculty, student, and guest presentations

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Practical Experiences

  • Early professional engagement through

professional organizations

– (ANS, ASME, WIN, INMM, HPS)

  • Research opportunities

– Undergraduate – Graduate

  • Internship and co-op programs
  • International engagement opportunities

– (Europe, China, Japan, India, Russia, …)

  • Mentoring by faculty

– (2 individual advisors for each student, mentor groups led by faculty research groups)

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Recent Employers

  • American Electric Power
  • American Tank & Fabricating
  • ANATECH Corp.
  • ARCO
  • Argonne National Lab
  • Arizona Public Service Co.
  • Assurx, Inc.
  • Battelle Memorial Institute
  • Bechtel Power Corp.
  • Bigge Crane & Rigging Co.
  • BKW FMB Energie Ltd.
  • Black & Veatch
  • BNFL, Inc.
  • Boeing
  • Brackett Green USA, Inc.
  • Brookhaven National Lab
  • Burns & Roe Enterprises, Inc.
  • BWX Technologies, Inc.
  • Cardinal Health
  • Central Research Labs
  • Chrysler Corp.
  • Cogema, Inc.
  • Constellation Energy Group
  • CP&L&Florida Power-Progress

EnergyCo.

  • Defense Threat Reduction Agency
  • Detroit Edison Co.
  • Dominion Generation
  • Dow Chemical Co.
  • DuBose National Energy Service
  • Duke Energy Corp.
  • Eagle-Picher Industries, Inc.
  • Ederer, Inc. (subsidiary of PaR Systems,

Inc.)

  • Electric Power Research Institute
  • Emerson Electric Co.
  • Enanta Pharmaceuticals
  • Entergy Operations, Inc.
  • EXCEL Services Corp.
  • Exelon, Corp.
  • Federation of Electric Power Companies
  • f Japan
  • General Atomics
  • General Dynamics
  • General Electric
  • Halliburton
  • Honeywell
  • International Atomic Energy Agency
  • Kansas City Power & Light Co.
  • Knolls Atomic Power Lab
  • Lawrence Livermore National Lab
  • Lockheed Martin Corp.
  • Los Alamos National Lab
  • Luminant
  • Martin Marietta
  • Mass General Hospital
  • McDermott International
  • Morgan Stanley
  • Motorola
  • NASA
  • Oak Ridge National Lab
  • Olin Corp.
  • Pacific Gas & Electric
  • PricewaterhouseCoopers
  • Procter & Gamble
  • Progress Energy
  • R. Brooks Associates
  • Raytheon Co.
  • Sandia National Lab
  • South Texas Project
  • Tennessee Valley Authority
  • Texas Instruments
  • The Atlantic Group
  • US Air Force
  • US Army
  • US Central Intelligence Agency
  • US Department of Energy
  • US Department of Defense
  • US Department of Transportation
  • US Department of State
  • US Environmental Protection Agency
  • US National Nuclear Security

Administration

  • US Naval Research Lab
  • US Navy
  • US Nuclear Regulatory Commission
  • Westinghouse
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SLIDE 20

Nuclear Engineering Faculty and Professionals

31 Faculty Members, Researchers and Professionals

7 Full Professors

  • Marvin Adams
  • Yassin Hassan
  • William Marlow
  • Jim Morel
  • Kenneth Peddicord
  • John Poston
  • Dan Reece

8 Associate Professors

  • Gamal Akabani
  • William Charlton
  • John Ford
  • Sean McDeavitt
  • Jean Ragusa
  • Pavel Tsvetkov
  • Karen Vierow
  • Lin Shao

2 Assistant Professors

  • Stephen

Guetersloh

  • Ryan McClarren

15 Other NTT/Researchers

  • Professor Emeritus
  • Paul Nelson
  • Ron Hart
  • Visiting Assistant Professors
  • David Boyle
  • Sunil Chirayath
  • Craig Marianno
  • Senior Lecturer
  • Natela Ostrovskaya
  • Lecturers
  • Galina Tsvetkova
  • Cable Kurwitz
  • NSSPI
  • Claudio Gariazzo, Research

Engineer

  • Nuclear Power Institute (NPI)\
  • Tami Davis Sayko, Associate

Director

  • Valerie Segovia, Director

Outreach & Development

  • Others
  • Leslie Braby, Research

Engineer

  • Radek Skoda, NSC Director
  • Paulo Barretto, Research

Scientist

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SLIDE 21

Computational Methods Development

Total CLASS Research Expenditures FY13 More than $1.9 million

  • Multiphysics coupling with application to reactors and high-

energy density physics

  • Transport discretization and solution schemes, parallelization
  • Shock hydrodynamics methods
  • Adaptive-mesh transport and diffusion
  • Uncertainty quantification applied to transport and nuclear

reliability

Research Themes Activities Accomplishments Faculty

Ryan McClarren Jim Morel Jean Ragusa Marvin Adams Adaptive Mesh Refinement Multiphysics

Novel Numerical Techniques

  • Radiation Transport (neutrons, photons, and charged particles)
  • Multiphysics Applications e.g., neutronics/thermal hydraulics;

radiative transfer

  • Demonstrated an exponentially-

convergent Monte Carlo algorithm for a continuum transport system

  • Developed and implemented a

massively-parallel long-characteristic transport method

  • Pioneered adaptive mesh refinement

techniques for transport solvers

  • Engineered a tightly coupled

multiphysics software platform

  • Devised robust and accurate

spherical harmonics methods for time- dependent transport

Faculty Research Areas

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SLIDE 22

Health & Medical Physics, Radiation Biology

Total Research Expenditures FY13 More than $1 million

Research Themes Activities Accomplishments Faculty

Leslie Braby John Ford Stephen Guetersloh Gamal Akabani John Poston Dan Reece

  • Diagnostic radiology physics
  • Radiation detection
  • Radiation therapy & radiobiology
  • Proton and heavy ion therapy
  • Nuclear nanotechnologies
  • Effects of cosmic rays on electronics
  • High-energy, heavy-ion microdosimetry
  • Nuclear oncology & internal dosimetry
  • Image reconstruction methods
  • Implementation of high-energy charged

particle transport via FLUKA and PHITS Monte Carlo codes

  • Tested miniaturized dosimeter for use

in space suite during EVA

  • Completed detector development for

Space Station dosimeter

  • Irradiated one cell nucleus in a living
  • rganism and found chromosome

damage in many other cells

  • Developed and tested new beta-

emitting injectable brachytherapy sources for prostate cancer

  • Monte Carlo transport on GPUs
  • Updated controls on microbeam

Faculty Research Areas

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SLIDE 23

Nuclear Materials & Fuel Cycles

  • Radiation tolerant cladding materials
  • Advanced fuel fabrication methods
  • Advanced radiation detector
  • Advanced neutron generator
  • Nuclear waste behavior, monitoring, and processing
  • Aerosol research
  • Multi-scale modeling of materials degradation under

extreme conditions

Research Themes Activities Accomplishments Faculty

Sean McDeavitt Kenneth Peddicord Lin Shao William Marlow

Total Research Expenditures FY13 More than $4.7 million Largest single university ion irradiation lab in US!

  • Developing fabrication methods

and evaluating the performance of novel nuclear fuel forms

  • Alloys: U-Zr and U-Mo
  • Ceramic: UO2-BeO

composite

  • Dispersion: Metal matrix

alloys and barrier coating methods

  • Characterized the metallurgy of

U-Zr and U-Mo alloy fuels

  • Developed swelling resistant

metallic and ceramic materials

  • Developed multi-scale modeling

codes to understand damage evolution caused by fission fragments

  • Developed bendable neutron

detection sheets

Faculty Research Areas

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SLIDE 24

Nuclear Power Engineering

Total Research Expenditures FY13 More than $3.1 million

Research Themes Activities Accomplishments Faculty

Yassin Hassan Pavel Tsvetkov Karen Vierow

Experimental validation of modern simulations is key to quantifying uncertainties!

  • Published results on gas/liquid flooding in large diameter

tubes

  • Published results on modeling condensation heat transfer
  • Published integrated system evaluation results for HTRs
  • Developing evaluation capabilities for HTR’s (NRC)
  • Integrated code system for advanced systems (SNL)
  • First-of-a-kind 3-dim fuel management and instrumentation
  • Nuclear reactor safety
  • Nuclear reactor and system analysis and optimization
  • Validation and uncertainty of CFD codes
  • Sub-channel analysis of advanced fuel designs
  • HTR Thermal hydraulics and reactor physics
  • Small modular reactors
  • Integration of PRA and best estimate codes
  • Loading optimization for current and advanced reactors
  • Flow visualization in complex reactor geometries (PIV)
  • Data uncertainty validation and uncertainties
  • Advanced reactor instrumentation
  • 3-dim study of two-phase flows
  • Core hot-spot prediction
  • Studies in response to critical industry needs

Faculty Research Areas

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SLIDE 25

Nuclear Security & Nonproliferation

  • Proliferation Risk Analysis
  • Safeguards Systems & Instrument Development
  • Combating Nuclear Terrorism
  • Nuclear Forensics and Attribution
  • Arms Control
  • Ensuring the Peaceful Use of Nuclear Energy

Research Themes Activities Faculty

William Charlton Sunil Chirayath David Boyle Craig Marianno

NSSPI Expenditures FY13 More than $2.4 million

Accomplishments

  • First university to mount and record

radiation data from a crane used in port operations

  • Developed SINRD detector with LANL

for testing by IAEA

  • First university to establish bench-

scale reprocessing of SNF

  • Developed PRAETOR tool and

latency method for proliferation risk analysis

  • GNEII program cited by White House

as the 5th most important US science and technology activity in the Middle East

  • Methodology for determining which

states will go nuclear

  • Int’l. research and education: India,

Russia, Switzerland, UAE, England

Faculty Research Areas

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SLIDE 26

Nuclear Nonproliferation and Safeguards Education at TAMU

  • Program Educational Objectives

– To produce leaders in the development of technological solutions to prevent, detect, and deter proliferation and combat nuclear terrorism. – These graduates can:

  • apply engineering techniques to design safety, safeguards, and security systems for nuclear

facilities

  • understand the international security policy implications of technology developments
  • synthesize and critically evaluate technical data from diverse sources to aid in detecting

proliferation

  • perform quantitative measurements of nuclear and radiological materials and detect sources
  • f radiation outside of regulatory control
  • apply science and engineering as part of a comprehensive nuclear security program including

nuclear forensics and consequence management

  • perform fundamental and applied research independently and in small multidisciplinary groups

that can lead to the creation of new knowledge in the field of nuclear nonproliferation

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SLIDE 27

Program Elements

  • TAMU University Course Inventory

– Nuclear engineering core discipline courses – Nonproliferation specific technical courses – Elective courses to provide increased breadth of knowledge

  • Prerequisite course material via asynchronous online learning modules
  • Technical research applied specifically to the mission area
  • Practical experiences including training sessions and internships at national

and international research facilities and visits to commercial fuel cycle facilities

  • Extracurricular learning opportunities via the TAMU student chapter of

INMM

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SLIDE 28

Course Inventory

  • General Nonproliferation Courses

– NUEN 650 – Nuclear Nonproliferation and Arms Control – NUEN 605 – Radiation Detection and Nuclear Materials Measurement – INTA 620 – International Security – INTA 617 – Nuclear Deterrence

  • Safeguards Courses

– NUEN 651 – Nuclear Fuel Cycles and Nuclear Material Safeguards

  • Physical Security Courses

– NUEN 489 – Nuclear Security System Design – INTA 689 – Threat Assessment – INTA 657 – Terrorism in Today’s World

  • Forensics Courses

– NUEN 656 – Critical Analysis of Nuclear Security Data – CHEM 689 – Radiochemistry and Nuclear Forensics – MATH 644 – Inverse Problems in Nuclear Forensics

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SLIDE 29

Online Learning Modules (http://nsspi.tamu.edu/NSEP)

  • Module characteristics

– text, graphics, videos, wikis, quizzes

  • Currently deployed:

– Basic Radiation Detection – Nuclear and Atomic Physics – The Nuclear Fuel Cycle – Introduction to Statistics – Containment and Surveillance – Nuclear Material Accountancy – Physical Protection Systems – Nuclear Security Threats – Safeguards Terminology – Treaties and Legal Issues

  • >18,000 users since 2009
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SLIDE 30

Selected Recent Theses and Dissertations

  • B. Goddard, “Quantitative NDA Measurements of

Advanced Reprocessing Product Materials Containing U, Np, Pu, and Am” (2013)

  • M. Grypp, “An Analysis of a Spreader Bar Crane

Mounted Gamma-Ray Radiation Detect...” (2013)

  • Matt Sternat, “Development of Technical Nuclear

Forensics for Spent Research Reactor Fuel” (2012)

  • Chris Myers, “Quantitative Methodology for Assessing

State Level Nuclear Security…” (2012)

  • N. Chandregowda, “Assessment of … Verification of

Spent Fuel in MACSTOR KN-400 CANDU..” (2012)

  • C. Conchewski, “Physical Security System Sensitivity to

DBT Perturbations” (2012)

  • A. Goodsell, “Flat Quartz-Crystal X-Ray Spectrometer

for Nuclear Forensics…” (2012)

  • A. LaFleur, “Development of SINRD to Measure … in

Nuclear Fuel” (2011)

  • E.T. Gitau, “Safeguards Approach for Pebble Bed

Reactors” (2011)

  • M. Mella, “Proliferation Pathways Analysis for State-

Level Proliferation” (2011)

  • C. Ryan, “Determining the Impact of Concrete … for

Radiation Portal Monitoring Systems” (2011)

  • G. Hundley, “Nuclear Terrorism Pathways Analysis”

(2010)

  • A. Stafford, “SNF Self-Induced XRF To Predict Pu To U

Content” (2010)

  • K. Miller, “An Inverse Source … for Radiation Portal

Monitor Applications” (2010)

  • J. Feener, “Safeguards For Uranium Extraction (UREX)

+1A Process” (2010)

  • R. Metcalf, “New Tool for Proliferation Resistance

Evaluation …” (2009)

  • C. Freeman, “Bayesian Network Analysis of Nuclear

Acquisitions” (2008)

  • A. Thornton, “Development of a Portable Neutron

Coincidence Counter for Field Measurements …” (2008)

  • D.G. Ford, “Assessment Tool for Nuclear Weapon

Acquisition Pathways” (2008)

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SLIDE 31

Practical Experience: Nuclear Facilities Experience

  • In Japan with support from the Integrated Support Center for Nuclear Nonproliferation

and Nuclear Security (ISCN) of the Japan Atomic Energy Authority

– With students from Tomsk Polytechnic University and the Hanoi University of Science

  • f the Vietnamese National University
  • Facilities/experiences included:

– Hiroshima Peace Park, the Peace Memorial Museum, and attended personal account from Keijiro Matsushima (Hiroshima) – Monju Fast Breeder Reactor R&D Center, the Fugen Decommissioning Center, Mihama Nuclear Power Plant (Tsuruga) – ISCN HQ, Plutonium Fuel Production Facility, and the Tokai Reprocessing Technology Development Center (Tokai-mura) – Tokyo Institute of Technology (Tokyo) – Japan Nuclear Fuel Limited Rokkasho Uranium Enrichment Plant, the Vitrification Storage Facility, and the Reprocessing Plant (Rokkasho)

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SLIDE 32

Practical Experience: Nuclear Facilities Experience

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SLIDE 33

Practical Experience: UKNI Arms Control Simulation Exercise

  • TAMU coordinated the first American-Russian arms control simulation exercise

as part of the UK-Norway Initiative with the Atomic Weapons Establishment (AWE), King’s College of London (KCL), and the Institute for Energy Technology (IFE)

  • TAMU’s objectives in participating in the UKNI exercises were

– to build upon the formal arms control education of students, – to engage in discussion about a growing issue in non-proliferation, and – to recreate the process and roadblocks faced by negotiators and weapons inspectors in the real world

  • TAMU and Tomsk Polytechnic University students worked

together to strengthen skills that were underdeveloped, explore new nuclear security issues, and network with international colleagues on negotiations, on-site inspections, communications, and verification

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SLIDE 34

The Product of this Program

  • Students produced from this program will have

– a strong disciplinary background in traditional nuclear engineering – ability to apply engineering principles to nuclear nonproliferation issues – an introduction to the policy aspects of nuclear nonproliferation

  • These students typically will seek employment at

– US national laboratories – government – intelligence – nuclear industry – insurance industry – security consultants and vendors – International entities (IAEA, WINS, JRC, etc.) – academia

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SLIDE 35

Thank you for your attention! Questions?

Claudio Gariazzo

Nuclear Security Science and Policy Institute Texas A&M University cgariazzo@tamu.edu