strength is the sum of the shear strength of the concrete and theshear strength of the stirrups. Whereas for compression with no eccentricity, the nominal axialcompressive strength is equal to the compressive strength of the concrete plus the compressivestrength of the steel reinforcement.Discussion and ConclusionsThis “Best in 5-Minutes” paper outlined an interactive lecture used in a senior level ReinforcedConcrete Design course at Manhattan College. This lesson utilizes a popular quote attributed tothe Greek philosopher Aristotle to illustrate the mechanical behavior of reinforced concrete beams.It is common for some students to be initially intimidated by the technical nature of senior leveldesign courses. One of the purposes of this activity
Paper ID #31281A First Year Progress Report on ”Collaborative Research: Using Low CostDesktop Learning Modules to Educate Diverse Undergraduate CommunitiesinEngineering”Katelyn Dahlke, University of Wisconsin - Madison Katelyn Dahlke received her B.S. in chemical engineering from Iowa State University in 2013. She received her M.S. and Ph.D, in chemical engineering from the University of Illinois at Urbana-Champaign in 2019. She completed a postdoc doing hands-on engineering education research at Washington State University. She will be a faculty associate at the University of Wisconsin Madison starting in Summer 2020
synthesizing the data in form of a laboratory report. Additionally, the studentsprepare a laboratory manual that is then used by other students to conduct the particularexperiments. Our experience over the past five years indicates that such an approach is not onlymanageable but also provides the students a unique opportunity to sharpen their design, researchas well as communication skills while learning the fundamentals of mass transfer operations.This paper describes the evolution of this approach within the third-year mass transfer course andprovides an assessment of its effectiveness on student’s learning.IntroductionIt is now generally agreed that involving the students in the process of learning and knowledgeconstruction promotes more in-depth
paper will discuss the objectives of nano-technology education in thefield of engineering technology at the baccalaureate level and point to the key issue of theinterdisciplinary nature of nanotechnology. An analysis is made of the demands for laboratoryfacilities, faculty, and functions of other service departments to deliver an engineeringtechnology curriculum in nanotechnology. Guidelines are provided for an innovative curriculumthat draws upon collaborations among faculty, departments, and laboratories. The suggestedguidelines can be modified to address the evolving needs of nano-technology education withoutloss of focus on engineering technology education.IntroductionIn 1959, Richard Feyman set the stage for research at the nano scale
Chair and Professor of Mechanical Engineering. He has published numerous papers and has received numerous patents. He is actively involved in international programs. Page 12.187.1© American Society for Engineering Education, 2007 Advantages of Using Personal Response System Technology to Evaluate ABET and Mechanical Engineering Program OutcomesAbstractPersonal Response System (PRS) is a tool typically employed to promote active learning inclass, to increase participation, to measure conceptual comprehension, and to support MillennialLearners. At Gannon University, the evaluation and assessment activities of
design program has been developedat the Seoul National University of Technology and incorporated into the curriculum.Through this, students, professors, and industries have chances to cooperate in changingdesign education to fit the requirements of the today’s market.This program was a turning point in engineering education and human resource developmentin Korea. In particular, selecting practical topics considering industrial demands for theirgraduation thesis pushed students to seek industry’s cooperation by themselves, whichresulted in a new system of industry-academy cooperation. The practical engineering designeducation has been achieved in literal sense. This paper will discuss this newly establishedengineering education model and the
respectively. His research interests include designing and operating emergency vehicle systems, and using mathematical models to help solve decision problems. He was a recipient of the Shingo Prize for excellence in manufacturing (outstanding paper award, 1994), and spent a year at West Point as a visiting professor in the Department of Systems Engineering. In 1999 he was given the University of Arizona’s EL-Paso Natural Gas Foundation Faculty Achievement Award for outstanding teaching and research. His textbook (with Ron Askin) The Design and Analysis of Lean Production Systems won the "Book of the Year Award" from the Institute for Industrial Engineering in 2003.Judy Edson
AC 2007-2977: USE OF A NEURAL NETWORK MODEL AND NONCOGNITIVEMEASURES TO PREDICT STUDENT MATRICULATION IN ENGINEERINGP.K. Imbrie, Purdue University P.K. Imbrie is an Associate Professor of Engineering in the Department of Engineering Education at Purdue University. He holds B.S., M.S. and Ph.D. degrees in Aerospace Engineering from Texas A&M University. His educational research interests include: assessment of student learning, modeling of student success, modeling of student team effectiveness, and technology enabled learning. His technical research interests include: solid mechanics; experimental mechanics; microstructural evaluation of materials; nonlinear materials characterization
internships.This paper discusses some of the challenges in the program and some projects that arebeing used to enhance engineering education of the students. It discusses the impact theNASA-UMES Summer Internship Program has on the education of the engineeringstudents. It also covers a senior design project arising from this internship program.Furthermore, it discuses First Year Engineering Students collaboration with the AviationSciences Program, and a Doppler Radar Study project involving engineering students.Key Terms – Industry Partnerships, Tri-cycle training device, summer internship, seniordesign project, Doppler radar 1. INTRODUCTIONThe University of Maryland Eastern Shore (UMES), an Historically Black Land-grantUniversity, is a teaching
curriculum.Course projects are based on realistic civil engineering examples, with an emphasis on theassumptions required to develop the analytical model. The projects are team assignments andrely on numerical analysis, a pre-requisite for the course. These projects have several objectives:(1) to allow students to tackle a larger and more realistic civil engineering dynamics problem, (2)expose students to computational tools used in solving dynamics problems for which a closedform solution does not exist, (3) evaluate critical thinking and communication skills. Theprojects also allow for the introduction to advanced engineering concepts, such as seismicresponse.This paper presents the implementation of this course for all civil engineering
included creation of the educationallaboratories that can significantly contribute to the development of technologically literate students andworkforce that could be in great demand not only in the tri-state area but also nationwide. Severallaboratory- and project-based courses were developed and four of them, such as NondestructiveEvaluation of Materials, Programmable Logic Controllers, Measurements, and Robotics andMechatronics, are described in this paper.1. IntroductionThe Applied Engineering Technology (AET) program at Drexel University was initiated as a response tojob- and education-related issues expressed by government, academic institutions and industries acrossthe nation. Since fall of 2002, Drexel has been offering its AET major in
this equipment available in their own homes because of the popularity ofDSL and Cable Internet access. Students, many times, disconnect the principles of homesecurity from that of corporate or large scale network security. They learn the practice yet fail toimplement this knowledge into their own life. Even the smallest leak of information may resultin catastrophic circumstances.This paper will discuss the use of small scale routers and access points in the training of asecurity specialist in a Computer Engineering Technology program. Examples will be given onhow these small inexpensive communication devices can be used to demonstrate extensivesecurity principles. The result is a personal connection for the student to exercise good
encouraging a stronginteraction with an engineering college. This paper will review the characteristics of theprofessional development plan that is in place at Douglas L. Jamerson, Jr. Elementary School.BackgroundThe school was built in 2003 in a predominantly ethnically isolated inner city neighborhood. Itslocation facilitated ethnicity integration without the aid of a district assigned plan. During itsfirst year of operation, the school applied for and received a three year grant from the MagnetSchools Assistance Program (MSAP) that provided additional resources to support its curriculumand faculty development. The school has a K-5 student population with no special enrollmentcriteria and definitely functions as a typical neighborhood school. It
, not only is able to reduce thefrequency of error,2 but also would reduce the time for technology adoption. Secondly, as moreproducts become customized or customizable, more human labor would be involved in everystage of product lifecycle activities. Principles and guidelines in ergonomics will help increaseboth the safety and efficiency3 of these operations. Lastly, with a longer service life and a growingpublic environmental awareness, product sustaining and recycling activities become moreimportant than ever. Engineers and technicians for product delivery4 really need to pay attentionto ergonomics issues right from the beginning.In this paper an ergonomics module taught in an elective senior course is discussed in detail,including its
be familiarwith these modern tools and their applications, and to understand when and how to effectivelyutilize them. At our university these applications are being taught under the title of virtualsimulation (VS). This paper explains how VS has been integrated into our curriculum, and hasbeen used to establish effective partnerships with major manufacturing companies.IntroductionWe are in our eighth year of a curriculum utilizing advanced industrial computer simulationsoftware. The virtual simulation classes are offered in a sequence of three quarters, earning fourcredits per quarter. Students learn specific simulation applications from tutorials and onlinecourse materials. Teams of students then work with local companies to create
2006-1297: DEVELOPING EFFECTIVE, SUSTAINABLE, MUTUALLYBENEFICIAL INTERNATIONAL COLLABORATIONS IN ENGINEERING ANDTECHNOLOGYMichael Dyrenfurth, Purdue University Dr. Michael Dyrenfurth is responsible for International Programs involving the College of Technology at Purdue University.Michael Murphy, Dublin Institute of Technology Page 11.438.1© American Society for Engineering Education, 2006 Developing Effective, Sustainable, Mutually Beneficial International Collaborations in Engineering and TechnologyThis paper shares the experience and effective practices involved in building a systematic set
architecture andarchitectural engineering. The ABET 2000 criteria assessed are (f) an understanding ofprofessional and ethical responsibility, and (g) an ability to communicate effectively. FrancisChing’s Form, Space and Order is the course text, as it very competently provides a generalframework within which basic principles can be explored. Each year, the lecture presentationsand assignments are re-examined and further developed in an attempt to continually improve theeffectiveness of the course. In the fall of 2005, an experimental information delivery techniquewas utilized, in the form of a weekly case study investigation. The following paper describesthis teaching methodology, and uses the student evaluation data to assess its effectiveness.The
the candidate. There are ten qualifications for PEVs:1. be a member or fellow of the ASEE, except that an employee of a corporate member of ASEE may be selected as a program evaluator. The President of the ASEE, upon recommendation of the chair of the ASEE/AAC, may waive this requirement in individual cases.2. have a minimum of ten (10) years of academic, business, or government experience in engineering or engineering technology.3. have appropriate technical competence;4. have current familiarity with and interest in programs for which ASEE is the lead society in the United States; and be a citizen or permanent resident of the United States;5. have analytical ability, communication skills, and personal maturity commensurate with
tenure track faculty member, and the second currently enrolledin the University of Alabama Birmingham Medical School.In this paper the authors will first discuss methods that have been used to locate students incommunities underrepresented in science and engineering that would be well served by themicroEP research and educational training. The authors will then discuss their observations onhow the natural work group approach to graduate education has unintentionally addressed someof the factors affecting minority student retention3.Philosophy of microEP Graduate ProgramThe microEP graduate program at the University of Arkansas was started in 1998 with the intentof creating an educational environment for its students that was as much like an
2006-1652: INTRODUCTION OF EMERGING TECHNOLOGIES IN MECHANICSOF MATERIALSHonghui Yu, The City College of New YorkFeridun Delale, The City College of New York Page 11.839.1© American Society for Engineering Education, 2006 Introduction of Emerging Technologies in Mechanics of Materials Abstract Though technologies have advanced dramatically in the last century and Mechanicsof Materials(MoM) has found more applications in many new technologies, the MoMcurriculum has been fixed for decades. This paper presents our efforts in keeping MOMcurriculum current with the times by incorporating examples from emerging technologiesand everyday
communications experiments based upon the 6713 DSK.Results obtained from these experiments are presented as well.ApproachesAs stated earlier, it is desirable to go beyond simulation in a digital communications laboratory.A laboratory based on a vendor-supplied DSP kit is the approach to be discussed in this paper;however, it is useful to motivate the use of this method by briefly describing other approaches.A popular approach is to use a software package such as National Instruments LabVIEW for thecomplex signal processing, along with data acquisition, teamed with either standard electronicsinstrumentation2 or with general purpose signal generation3. This method is similar in spirit tothe DSP approach although not quite as cost effective or as flexible
image processing, advanced surgical navigation devices, medical instrumentation, and medical imaging.Diane Testa, Western New England College Diane Muratore Testa received her B.A. degree in mathematics from Siena College in 1989, and the M.S. and Ph.D. degrees in biomedical engineering from Vanderbilt University in 1998 and 2002, respectively. She has served as an assistant professor of biomedical engineering at Western New England College for the past four years where she teaches courses in bioinstrumentation and medical imaging. Testa has worked extensively with Engineering World Health as a technical assistant in Central America in 2004 and in the advising of instrumentation design
11.856.2attention to the emerging field of nanotechnology. This initial growth and the projected growthof nanotechnology have fostered a need to provide educational options to prepare futureprofessionals for careers in this new field. The premise for the Nanotechnology andMicrofabrication Lab-on-a-Chip course for freshmen engineers complements the findings ofmany researchers in nanotechnology education. By converting knowledge from local graduateand faculty researchers to a format accessible to freshmen, it is hoped that first-year engineeringstudents acquire the fundamentals of nanotechnology and develop an interest in this and otherareas of research. The purpose of this paper is to share the fruits of this effort and provide a highlevel presentation of
for Engineering Education, 2006 Building Industry/Education Partnership’s for Tomorrow’s Workforce Tech Careers: “I Am The Future”Abstract—The island of Maui is known the world over as a beautiful vacation destination. It isalso home to an emerging High Technology sector. The technology industry in Hawaii has beenfaced with chronic recruitment and retention challenges due to a local labor force insufficient tomeet the growing demand for engineering and technical talent and the expense of recruitingoffshore. The Maui Economic Development Board and Women in Technology1 (WIT) havehelped industry to understand that women and other underrepresented minorities are
nature of the solar panels themselves, the presence of the permanent displaykiosk in the engineering building lobby, and the online presentation of the system, the PVdemonstration project promises to be a highly visible educational venue for years to come.Another significant outcome of the project was the learning experience for the studentvolunteers, in terms of both leadership and technical skills obtained.AcknowledgementsContributing largely to the project’s success (and relatively low budget) was the enthusiasticparticipation of student volunteers. The student leaders were David Chew, Krysten Dzwigalski,James Hadley, Chris Keimig, Meghann Mouyianis, and Tim Rourke (five of these are co-authorsof this paper). Other student volunteers included
Paper ID #5783Evaluation of Hybrid Instruction of an Introductory Electronics CourseDr. Catherine Skokan, Colorado School of Mines Dr. Skokan has retired from her tenured position at Colorado School of Mines and is now a half-time research professor. Her research emphasizes engineering education as well as geophysical engineering for underserved communities in humanitarian engineering applications. In the other half of her time, she lectures on cruise ships particularly on the topic of Geology of Central America. Life is good!!!Dr. Ravel F. Ammerman, Colorado School of Mines Ravel F. Ammerman is a Teaching Professor of
Paper ID #6969Feedback in Complex, Authentic, Industrially Situated Engineering Projectsusing Episodes as a Discourse Analysis Framework – Year 1Dr. Milo Koretsky, Oregon State University Dr. Milo Koretsky is a professor of Chemical Engineering at Oregon State University. He currently has research activity in areas related to thin film materials processing and engineering education. He is interested in integrating technology into effective educational practices and in promoting the use of higher level cognitive skills in engineering problem solving. Dr. Koretsky is a six-time Intel faculty fellow and has won awards for
Paper ID #6927Holistic Consideration of Best Practices in Product Design, Quality, and Man-ufacturing Process Improvement through Design for ValueDr. Merwan B Mehta, East Carolina University Dr. Merwan Mehta is an Associate Professor at East Carolina University in the Technology Systems Department at Greenville, NC. Prior to joining academics, he has over twenty years of experience work- ing as a machine tool design engineer, manufacturing engineer, manufacturing manager, vice-president, partner, and consultant. His present research interests are improving manufacturing productivity through Lean manufacturing principles
Paper ID #5980Improving Individual Learning in Software Engineering Team ProjectsDr. Joanna F. DeFranco, Pennsylvania State University Joanna F. DeFranco is Assistant Professor of Software Engineering and a member of the Graduate Faculty at The Pennsylvania State University. Prior to joining Penn State, she held faculty positions at Cabrini College and the New Jersey Institute of Technology. She also held a number of positions in industry and government including an Electronics Engineer for the Naval Air Development Center in Warminster, PA and a Software Engineer at Motorola in Horsham, Pa. Dr. DeFranco received her B.S
Paper ID #5988Initial Investigation into the Effect of Homework Solution Media on Funda-mental Statics ComprehensionDr. Sean Moseley, Rose-Hulman Institute of Technology Sean Moseley is an Assistant Professor of Mechanical Engineering at Rose-Hulman Institute of Tech- nology. He received a B.S. from The Georgia Institute of Technology and an M.S. and Ph.D. from the University of California, Berkeley.Mrs. Shannon M. Sipes, Rose-Hulman Institute of Technology Page 23.754.1 c American Society for