endeavors include conducting pedagogical studies on learning technologies and remedial math preparation for engineering students. He instructs courses in computer vision, computer graphics, computational electrical engineering, electromagnetics and characterization of semiconductor materials.Dr. Mandoye Ndoye, Tuskegee University Mandoye Ndoye received the B.S.E.E. degree from the Rensselear Polytechnic Institute, Troy, NY, in 2002, the MS degree in Mathematics and the Ph.D. degree in electrical and computer engineering from Purdue University, West Lafayette, IN, in 2010. After completing his Ph.D. studies, he joined the Center of Applied Scientific Computing, Lawrence Livermore National Laboratory, as a Research Staff
Virginia University Melissa Morris is currently a Teaching Associate Professor for the Freshman Engineering Program, in the Benjamin M. Statler College of Engineering and Mineral Resources at West Virginia University (WVU). She graduated Summa cum Laude with a BSME in 2006, earned a MSME in 2008, and completed her doctorate in mechanical engineering in 2011, all from WVU. At WVU, she has previously served as the Undergraduate and Outreach Advisor for the Mechanical and Aerospace Engineering department and the Assistant Director of the Center for Building Energy Efficiency. She has previously taught courses such as Thermodynamics, Thermal Fluids Laboratory, and Guided Missiles Systems, as well as serving as a Senior
and specific learning outcomes. Much of the worked example literatureused a fairly controlled laboratory setting rather than an actual higher education classroom. Someof that literature focuses quite closely on mechanics related learning outcomes. Recent workusing controlled eye gaze experiments examined how students learn physics concepts fromworked examples[10], with the conclusions supporting the central tenets of both the workedexample effect (via cognitive load theory[11]) and effective multimedia design that leveragesspatial contiguity principles[12]. Quite a bit of work in similar laboratory settings has focused onquantifying specific aspects of physics or mechanics problem solving using eye gazetechnologies and other instruments to
students who completed the course in their second year) and one laboratoryengineer. The expected course commitment from students is 13 hours per week: pre-classpreparation including reading, numerical tasks and online quizzes (2-3 hours/week), classeswith active learning methods (245min on Mondays and 445min on Tuesdays, a total of 6teaching hours in ProLab per week), laboratory sessions (3-4 hours fortnightly), andcompulsory assignments (3-4 hours fortnightly). All assignments must be satisfactorilycompleted for students to be allowed to sit the final examination, which counts for 100% of thecourse grade.Students who fail the end-of-semester final examination are entitled to take a resit-examinationthree months later. If they pass the resit
Page 26.1762.2Scholars spent two weeks immersed at Cooper University Hospital, where they shadowed onrounds on medical and surgical floors and in Intensive Care Units; participated in discussionswith doctors, nurses, technicians, hospital staff, secretaries, and patients; attended Grand Rounds;and were present in Operating Rooms and Cardiac Catheterization Laboratory. Scholarsfollowed a three-step process: 1) observe clinical processes, 2) identify problems associated withthat process, and 3) formulate a need statement. Each Scholar maintained an “innovationnotebook” to ensure that observations were accurately captured.5 For a few hours at the end ofeach week, engineering and clinical faculty met with the Scholars to discuss their
base for full-scale application.Big Data Insight Group • For example, proving and progressing intelligent electro-mechanical design and manufacturing capabilities from laboratory to prototype factory environments would improve production efficiencies and costs. • Focus is the smart and comprehensive use of the ‘digital thread’ throughout design, production and support. Apriso Designing, Building and Growing the NNMI 5) NNMI Next Steps 15
laboratories Discipline-based structure with cross-disciplinary mechanisms Uses “rotators” or IPAs primarily from universities FY2013 budget of $5.6 billion for Research and Related Activities (R&RA) – FY2014 Budget Request for R&RA at $6.2 billion ($7.626 Billion Operating Plan Request). 8.4% over FY2012 enacted level. National Science Foundation Office of Cyberinfrastructure Office of Diversity & National Science Director Inclusion Board (NSB
content, and physical and natural science. Criterion 6 – Faculty – must have expertise and educational background expected. Criterion 7 – Facilities – classrooms, offices, laboratories and equipment must be adequate. Criterion 8 – Institutional Support – Must be adequate to ensure the quality and continuity of the program.In looking at the criterion in depth, that specified by ABET, the Engineering AccreditationCommission (EAC) for BSxE programs, and the Engineering Technology AccreditationCommission (ETAC) for BSxET programs, most of the criterion appear to match almost wordfor word. For example, Criterions 1, 2, 4, 6, 7, and 8 are similar enough as to appear with onlyminor
AC 2007-2415: SUCCESSFUL PRE-COLLEGE SUMMER PROGRAMSLeo McAfee, University of Michigan Leo C. McAfee received the BS degree from Prairie View A&M University, Prairie View, TX, in 1966, and the MSE and PhD degrees from the University of Michigan, Ann Arbor, MI, in 1967 and 1970, respectively, all degrees in Electrical Engineering. He joined the University of Michigan in 1971 and is currently an Associate Professor of Electrical Engineering and Computer Science. He has had summer and leave positions at General Motors Research Laboratories, IBM T.J. Watson Research Center, AT&T Bell Laboratories, and Telecom Analysis Systems. He has held leadership positions for curriculum and degree
-1 -1.5 -2 0 5 10 15 Carbon Black wt%Figure 3. Log Resistivity vs. % Carbon Black concentration- emulsion based Polyvinyl Acetatepolymer. Percolation limit appears to occur at 2% Carbon Black concentration1 www.nano.gov2 T. S. Creasy, J. C. Grunlan, and R. B. Griffin, “An Undergraduate Laboratory: the Effect of NanoparticleMicrostructure on the Electrical Properties of Polymer Nanocomposites,” Proceedings of IMECE06, ASME
theoretical, computational, and experimental methods(Objective IV B) and allows students to be more laboratory and computer proficient while usingmodern equipment and current computer methods (Outcome 8). In addition, the students utilizeappropriate design software (Objective I B), better understand the importance of teamwork(Objective III B), and are introduced to design processes (Outcome 6).The execution of this course requires the instructor to provide both CAD instruction and lessonson proper methodology related to aerospace design. The varying methods used during the firstsemester that the course was offered are recounted in the following section.Contrasts in Teaching MethodsAs a 3 credit hour course per semester, there are 42 class meeting
tomeasure attitudes and impressions about module content and delivery as well as attitudes towardengineering in general. We included a novel method for evaluating attitude by developing anadjective checklist that varied by gender (adjectives were masculine or feminine, negative,positive, or neutral). This was intended to gauge whether mechanical engineering, usuallyperceived to be masculine in nature, would gain a more gender-balanced image throughinnovative laboratory experiences. The second tool utilized conceptual questions (requiring noformal calculations) in a pretest-posttest format to determine whether students learned the lawsof thermodynamics. The third tool took the form of a behavioral rubric designed to assesswhether and how well
): 3 Cr. iv) Carbon Nanotube Technology: 3 Cr. v) Molecular Biology of the Cell: 3 Cr. vi) DNA Computing: 3 Cr. vii) Membrane Computing: 3 Cr. viii) DNA Laboratory: 3 Cr.Several faculty members from the participating institutions with five to twenty years ofteaching and research experience in these fields were actively involved in thedevelopment of these under-graduate level courses.Two labs were developed to support the courses mentioned above. These labs are locatedat the SUNY Oneonta Campus. The names of
course dealing with Portland cement included both traditional classroominstruction as well as the laboratory experiences presented in this paper. The subset of theCourse Learning Outcomes regarding Portland cement is rather well developed and dealsparticularly with understanding the nature and application of Portland cement; it includes thefollowing: 1. Appreciate the historical development of concrete and its current physical composition. 2. Understand the basic steps in producing Portland cement. (Refer to www.cement.org/basics/images/flashtour.html for audio-visual presentation.) 3. Understand the process of hydration and its critical role in achieving compressive strength. 4
purpose of the workshop (module) is to bring students up to a minimum standard ofaccepted grammar structure in short order through specific targeted subject areasincluding person, active/ passive voice and documentation. It was hoped that increasedstudent skill in these areas will dramatically improve student effectiveness in creatingreadable and grammatically correct technical reports, laboratory reports and dailyengineering communication appropriate for the field. Pre and post assessmentinstruments were employed with the workshop to measure the impact on the studentlearning of subject areas. Results of the assessment findings will be discussed. Lastly, theworkshop has been taught both on site and from remote location by use of distancelearning
in the ease of implementation and a great impact. The Infinity Projectprovides a complete turnkey solution including curriculum, teacher training, and technology.Target Audience“When am I ever going to use this?” - a question posed all-to-often by students to their math nadscience teachers. The Infinity Project provides the answer to this question for both teachers andstudents. The prerequisites for the Infinity Project are Algebra II and one laboratory scienceclass. The Infinity Project is not only for the super-smart students, but rather is designed tointroduce students to engineering by taking math and science concepts and applying them tofamiliar entities – the Internet, music, video, and more. In college, the course is positioned as
professor in 2007. She is the author coauthor of more than 30 refereed publications. Herresearch interests in synthesis of nanoparticles using plasma torch and growth of graphite structures. She is a Co- PI onthe recently awarded NSF-NUE program “NUE: An Integrated Multidisciplinary Nanotechnology UndergraduateEducation Program at the University of New Mexico”.JONATHAN PHILLIPSDistinguished National Lab Professor, Department of Mechanical Engineering, University of New Mexico. Prof. Phillipsis working on novel nanoscale graphite structures, for which he was recognized with a “Nanotech Briefs - Nano 50”award. Phillips works at Los Alamos Laboratories and is engaged in both fundamental science and novel technologies,having eight issued patents. He
Regents’ Lecturer in 2007, the highest recognition to bebestowed on junior faculty members at UNM.MEHMET F. SUMehmet Su received his M.S. degree in computer engineering from University of New Mexico in 2006. He is continuinghis studies as a PhD candidate in Electrical and Computer Engineering Department at UNM. Mr. Su is the author/co-author of more than 14 publications in the fields of photonic and phononic crystal research.IHAB EL_KADYIhab El-Kady is with the Department of Photonic Microsystems Technologies, Sandia National Laboratories inAlbuquerque, NM, USA.ZAYD C. LESEMANZayd Leseman is a professor in the Mechanical Engineering Department at the University of New Mexico inAlbuquerque NM, USA. Dr. Leseman is a graduate of the University of
transferlecture and laboratory classes. Students will apply the experience of combining theoretical,experimental, and computational fluid dynamics to solve problems in thermodynamics and heattransfer. FLUENT SoftwareFluent is a general purpose package for modeling fluid flow and heat transfer. It is used forsimulation, visualization, and analysis of fluid flow, heat and mass transfer, and chemical reactions.It is a vital part of the computer-aided engineering (CAE) process for companies around the worldand is deployed in nearly every manufacturing industry. It can simulate two/three-dimensional,steady/unsteady, compressible/incompressible flows in structured or unstructured grids. Itscapabilities include simulating
mediums by which students’ leadership skills could be assessed. Some areasare through co-operative education, internship, job shadowing, and many more. Given the factthat most students in the industrial technology program would have not been able to put intopractice their leadership skills before graduation, the integration of service learning and learningcommunities would be of immense benefit. While service learning would provide the avenue forstudents to put into practice the knowledge gained in the classroom and laboratory, the learningcommunities would function in the capacity of facilitators and mentors by giving constantfeedback on students’ performance while engaged in service learning to enhance their leadershipskills.The integration of
testingprocedures, measurement and data acquisition, and includes both lecture and laboratory sessions.It is an ideal venue for adopting the new developments of nanotechnology in civil engineering.The key element in instructional strategies is to fully utilize the excitement and innovationbrought forward by nanotechnology to create diverse learning opportunities for stimulatinginterest and broadening vision of students in engineering and research, fostering active learningand life-long learning, and inspiring innovation and creativity. The proposed diverse learningactivities and expected outcomes are essentially aligned with these ABET-specified engineeringeducational outcomes and shown below in the conceptual model of the new course modules (seeFig.1).New
Water Resource Studies and Operations Director of the WATERS Laboratory at Western Kentucky University. Ms. Fattic’s role as Associate Director of the Center includes budget development and project coordination of state and federal grants totaling over one million dollars annually. Ms. Fattic’s responsibilities include day-to day administration, budget and personnel management, quality assurance and quality control, and maintenance of certifications. She holds a Bachelor of Science degree from Western Kentucky University, and has worked in both the public sector as a regulator and private sector as an environmental consultant prior to being employed by the Center.Sherry Reid, Western
response of the students in the final anonymous class evaluation of MMAE 546in Fall 2008 to some survey questions on the lab session of the class.The following are some comments from the students on the experimental section:• “Laboratory experiments were very helpful in understanding course material “• “The labs are extremely helpful”The comments above and Figures 2 and 3 have shown that most of the students strongly agreethat adding an experimental section has improved the class quality, and also the lab session hasbeen well organized.Figure 4 and Figure 5 show the students’ evaluations on the author’s teaching quality (in theofficial class survey organized by the university at the end of the semester) for MMAE 546 inFall 2007 and Fall 2008
which are too complexto calculate or too expensive to be reproduced in a laboratory, or are simply notaccessible to the senses. The successful use of computer algebra systems does not implythat mathematical skills are no longer at a premium: such skills are important as ever.However, computer algebra systems may remove the need for those poorly understoodmathematical techniques which are practiced and taught simply because they serve asuseful tools. The usefulness of this approach will be evaluated by direct observation andformative assessment, and feedback from other educators will be highly appreciated.1. IntroductionEngineering electromagnetics is considered one of the most difficult courses and mostabstract and conceptually difficult areas
. Derived from a small group of college students, ranging fromseniors to freshman, these projects create a learning atmosphere that enables students to developknowledge of what a future in the Engineering and Technology field requires. Since all parts willbe manufactured within the laboratory, the project strengthens knowledge concerning control andpower systems, instrumentations systems, modern modeling, and testing protocols10. It has beenproven that students who are involved in these projects perform better in both their ET andgeneral studies classes5. The PL-TL model at MTSU creates an internal support group as well asa mentoring program that has aided in sustaining the success of the ET department.PL-TL Model as Support Group Faculty
CE and CET has been to instill in the graduating seniorthe ability to enter the workplace with sufficiently full bag of civil engineering ‘tools’ so that thenew graduate can productively undertake straightforward design assignments in that first monthon the new job. At least that has been our goal for graduates from the Wentworth CET program.We also want the CET graduate to know how the tools work, although not necessarily be able toderive the basics equations from first basics of physics and intergral calculus.A significant element in our educational model at Wentworth is the extensive use of‘experiential learning’ through use of laboratory sessions in many fundamental and CE designcourses, as noted on Table I with the (L) indication. These
Mobile and Online Laboratories for Engineering Education and Research in Africa Florida Atlantic The Laboratory at Distance for Education and Research (LAB@DER) that aims University to set up an online laboratory brokerage system that offers: 1) learning scenarios and tools to create distributed users’ interfaces that meet the standards pertaining Télé-université/UQAM, learning objects and distributed hardware in the loop (HIL) systems cooping with Canada the new “Internet of things” research trend; 2) mechanisms that allow user interfaces storage and their
newlycreated concentration in bioprocess engineering provides an excellent opportunity to developand implement a novel curriculum based upon proven pedagogical approaches designed toengage the students and improve their mastery of concepts. There are four main objectives ofthis NSF funded (DUE-0737198) Course, Curriculum, and Laboratory Improvement project:utilize proven techniques to develop nine instructional modules for three bioprocess engineeringcourses (three modules per course); develop common themes to integrate subsets of thesemodules between two or more courses, while ensuring portability to other programs; assess theeffectiveness of the instructional modules; and disseminate the results so other programs canincorporate the modules into
many currently developed courses is an added advantage of the proposed program;no additional faculty is needed. The courses will be taught by faculty with degrees inengineering and physics. The Physics Department offers sufficient laboratory space fortraining engineers.Moreover, the program should attract local 2+2 transferees from several communitycolleges that are offering pre-engineering two-year degrees. These programs are expectedto have completed two courses of calculus and calculus-based physics.The future proposed program is expected to meet EAC/ABET accreditation. Studentscompleting the program are expected to meet all requirements need to obtain jobs withinthe state and federal government agencies. Many engineering jobs in