paper reviews interdisciplinary nuclear and automation program implemented as shown inFigure 1. One pilot student has completed the workforce development program as a Mastersstudent with two working semesters at LANL. Three PhD students are currently completing theirsecond semester of course work. Both lab and research projects have been organized for eachstudent and the feedback from the National Labs is preliminary but very positive, includingdemand for additional students.Most importantly, this program fulfills the higher level objectives of each participant. • Student Researcher – It provides year-round funding to perform relevant research while exploring the opportunities in both academia and the research laboratories. • National
is a multifaceted research facility specializing in research related to the nuclear sciences. The facility houses unique ca- pabilities including the 1.1 MW Oregon State TRIGA Reactor (OSTR), gamma irradiator, thermal hy- draulics testing laboratories, radiochemistry laboratories, and extensive radiological spectral and counting equipment. His research focus includes neutron radiography, MCNP, and reactor dosimetry. He obtained a PhD from Colorado State University (1997) in Radiological Health Sciences and a BS from Oregon State University (1991) in General Science. He also holds a Senior Reactor Operating license for the OSTR. He is certified by the American Board of Health Physics and is a member of the
understood. Chiefamong these technological hurdles is the use of continuous processing of spent fuel to removefission products while the reactor is online [1]. The voluminous literature on molten salt reactors mostly dates to the 1960s era. Notably,in the U.S. the Molten Salt Reactor Experiment at Oak Ridge National Laboratory was an 8MW(th) reactor that was designed primarily to study the technical feasibility and safety of usinga molten salt based fuel and coolant. In addition to demonstrating the practicality of a moltensalt reactor, the Molten Salt Reactor Experiment also addressed issues of on-line refueling, fuelmakeup, and salt chemistry. Towards the end of the Molten Salt Reactor Experiment, andcontinuing after its shutdown, research
Laboratory • Plant Systems OverviewIn addition to the Nuclear Engineering Technology core requirements, students must complete a3-credit Integrated Technology Assessment (ITA) requirement.The 3-credit ITA requirement consists of the submission of a comprehensive portfolio by the BS-Nuclear Engineering Technology students at Excelsior College. This portfolio consists ofinformation regarding students’ achievement of the learning outcomes of the given program ofstudy. The academic and professional portfolios are effective tools for academic programs to usein assessing program outcomes. All the desired outcomes for engineering education identified byABET Criteria are addressed by these portfolios.Integrated Technology AssessmentAll BS candidates in
representatives during thedinner meetings of the American Nuclear Society – Eastern Carolina Section. Opportunities tointeract with industry representatives at career sessions occur in conjunction with the MinorityCareer Fair and the College of Engineering Career Fair. Due to our location and relationship withutilities, major vendors and national laboratories, representatives also visit the departmentdirectly to recruit for summer internships and full-time positions. Service activities assist with retention as well. For example, student ambassadors assistthe Director of Outreach Programs with school visits, departmental tours, science fairs,Engineers’ Week programming and university/engineering open houses. It provides anopportunity for students
AC 2008-657: TEACHING THE SN METHOD: ZERO TO INTERNATIONALBENCHMARK IN SIX WEEKSErich Schneider, University of Texas at Austin Dr. Schneider is an Assistant Professor of Nuclear and Radiation Engineering at the University of Texas at Austin. Since joining the UT faculty in 2006, Dr. Schneider has been active in the development of a modern nuclear energy systems analysis curriculum including courses in computational radiation transport and the nuclear fuel cycle. Prior to joining UT, Dr. Schneider was a Technical Staff Member in the Nuclear Systems Design group at Los Alamos National Laboratory
experimental runs (6) Introduction to special techniques as required for the experiments such as X-Ray Diffraction (XRD), and Scanning Electron Microscopy (SEM) (7) Laboratory note book entry (8) Weekly written reports on progressFor analytical and code modeling research work the following training and materials wereprovided (1) An computer account and access to the code usage (2) Reading material and (3) Topical presentations by undergraduates to demonstrate understanding of reading material (4) Research note book entry (5) Weekly reports on progressLaboratory experimental faculties included (1) Hydrolysis experimental facility that includes high pressure reactor chamber (15 MPa or 2000 psi max), precision
Page 24.1040.3PowerPoint animation. Specific misconceptions were targeted in the demonstration. Apedagogical model referred as U-POSE methodically sequences students through the five stepsof these proposed MCNP6 demonstrations: Understand, Predict, Observe, Synthesize, andExplain. The final step culminates with students explaining the concept by authoring arepresentative concept question with a solution for a peer. This paper provides a model fornuclear engineering demonstration and proposes means for sharing demonstrations created usingthis model.The Problem In nuclear engineering studies at the U.S. Military Academy, the NaI (th) scintillatorradiation detector is a workhorse in our laboratory courses, and it is analyzed in depth in
2006-354: STUDY OF SODIUM BOROHYDRIDE CATALYST FOR HYDROGENGENERATION - PURDUE UNIVERSITY SURF PROGRAMDan Montgomery, Purdue UniversityJosh Walter, Purdue UniversityShripad Revankar, Purdue University Dr. Shripad Revankar is currently an associate professor and Chair of Undergraduate Committee in the School of Nuclear Engineering at Purdue University. He received MS and Ph.D in Physics from Karnatak University, India and M.Eng. in Nuclear Engineering from McMaster University, Canada. He has worked as post doctoral researcher at Lawrence Berkeley Laboratory and at University of California, Berkeley. His current research interests are in advanced nuclear reactor design, two-phase flow
responsibility forassessment of certain Student Outcomes each time that the course is taught andthis data is integrated into a program level evaluation of the curriculum. Likeother programs, embedded indictors include tests, laboratories, papers,presentations, and projects. What follows are some unique ideas for assessing thestudent outcomes. Each of these is a graded event in the NE Capstone Course,NE495/496. They include (1) Student Outcome Essays to assess studentperspectives on their attainment of ABET Student Outcomes a-k, (2) CapstoneProject Elevator Pitch to convey a broad perspective of the engineeringenvironment ABET Student Outcomes h, (3) an Oral Examination to assessstudent dedication to continued learning Student Outcomes i, and (4) a
and research stages inthe Medical fields and have shown enormous amounts of yielding tremendous outcomes. As theworld of AR and VR crosses more and more thresholds, cross-industry discoveries haveincreased as a result of a more inclusive educational focus.Many studies have shown the strides in medical sciences, highlighting the amount of abilitieslearned through avidly participating in the learning. Figure 9 Mixed Reality used in the Medical Field [7]Even though the results from the medical field are growing exponentially, there are great leaps infields even more closely related to the Nuclear Engineering realm. For example in MiningEngineering, a “Virtual Reality Laboratory” consists of a 360-degree screen [of an
Engineering Technology must complete an Integrated TechnologyAssessment (ITA) requirement. [5] The ITA is driven by the program’s publishedlearning objectives. Students are required to demonstrate their accomplishment of eachobjective with individualized learning statements drawn from their own academic,professional, or life experiences. The resulting portfolios must also contain evidencesupporting these statements; examples of such evidence may include copies ofexaminations or laboratory reports, design drawings, citations from supervisors or peers,honors or awards, or similar documentation. It may also include videos of presentationgiven in class or on the job, and letters from professors or employers attesting to skills inthe particular areas of