controls, motor drives and applications of energy conversion as well as data acquisition and programmable logic controllers.Five courses in the mechanical engineering curriculum will use the new laboratory. They areME337 Thermodynamics, ME338 Fluid Mechanics, ME431 Heat Transfer, ME432 ThermalFluids Laboratory, and RS365 Programmable Logic Controllers.• ME337 Thermodynamics, ME338 Fluid Mechanics, ME431 Heat Transfer and ME432 Thermal Fluids Laboratory are required courses for mechanical engineers and optional for electrical engineers. These courses cover the fundamental aspects of thermodynamics, fluid mechanics, and heat transfer as applied to engineering practice. In these courses an emphasis is placed on the development of
Reverse Engineering and Design Graphics Project," Journal of Engineering Education, 89 (4), 413-417, (2000). 10. Heshmat, A.A., and A. Firasat, "Hands-on Experience: An Integrated Part of Engineering Curriculum Reform," Journal of Engineering Education, 85 (4), 327-330, (1996). 11. Schmalzel, J., A. J. Marchese and R. Hesketh, "What's Brewing in the Engineering Clinic?" Hewlett Packard Engineering Educator, 2 (1), 6-9 (1998). 12. Newell, J. A., D. K. Ludlow and S. P. K. Sternberg, "Progressive Development of Oral and Written Communication Skills across an Integrated Laboratory Sequence," Chemical Engineering Education, 31 (2), 116-119 (1997). 13. Van Orden, N., "Is Writing and Effective Way to Learn Chemical
Session 3260 Developing a Study Abroad Opportunity for Engineering Undergraduates Solomon R. Eisenberg1, Jo-Ann Murray1 and Urbain DeWinter2 1 College of Engineering / 2Division of International Programs, Boston University, Boston, MA 02215AbstractThe Boston University College of Engineering, in cooperation with the Division of InternationalPrograms and the Technical University of Dresden (TUD) in Dresden, Germany, inaugurated astudy abroad program in spring 2001 designed specifically for second-semester
programs, and have assisted with laboratorymaintenance and instruction. Perhaps the most rewarding on-campus activity, asdiscussed below, has been the involvement of these students in laboratory development,primarily through senior design classes (Capstone projects).3. The Laboratory Beginning in 2000, the faculty began a concerted effort to develop and equip a newlaboratory in the Energy Systems area. The focus of the efforts was to create a modernlaboratory that would allow us to explore concepts at a system level and then graduallyexpose students to the details of individual pieces of equipment, including design, testingand operational issues. The “Systems” approach, outlined in Table 1, is consistent with ourrecent curriculum review. It
agile organizations, the need for working in teams, and demographic changes in the workforce. 3. Companies in the survey are “short on leaders.” 4. Few of the companies provide leadership training except to upper-level management. 5. Leadership effectiveness is evaluated most often by measures of team performance.Thus, providing for the development of both teamwork and leadership skills in the engineeringcurriculum will better prepare graduates for success in the real world.Today's accreditation criteria also specify that the inputs of constituents must be considered inthe process of continuous improvement of the engineering curriculum. For several years,members of the Industrial Advisory Board for the industrial engineering program
(Drafting and Graphic Arts) from North CarolinaAgricultural and Technical State University in Greensboro, NC. He also completed his Ph.D. from The Ohio StateUniversity, in Columbus Ohio. In addition to research, service, and administration he has taught courses in architecture,and mechanical design, freshman orientation, and a host of desktop publishing and other design courses.ROBERT MATTHEWSProfessor Matthews earned his graduate degree from the University of Louisville. He is an associate professor ofEngineering Graphics at the University of Louisville Speed Scientific School. He is published nationally andinternationally in the areas of curriculum development, CADD, and design/manufacturing learning concepts. He isan active member of ASEE and
escapes the undergraduate engineering curriculum,or else, is confined to a technical writing course taught by non-engineers. With the trend toreduce four-year engineering programs to 128 student credit hours, it is hard to imagine a 1- or 2-credit course devoted exclusively to career development. Thus, another means of accomplishingit is to include career development activities in one or more required engineering courses. Assuch, all students in the program are obliged to participate in and, presumably, benefit from theseactivities.The six career development activities described in this paper are a small fraction of all that isneeded to prepare students for entering and staying in the workforce. Certainly, the bulk of theresponsibility and drive
Section 1213 Re-engineering Faculty Development: Lessons LEA/RNed Carol Fulton and Barbara L. Licklider Iowa State UniversityIncreasingly, over the past two decades, industry, government leaders and the public havedecried the state of affairs in higher education. The general consensus is that institutions are notpreparing students to meet the demands of the next century. In response, faculty on college anduniversity campuses nationwide find themselves in the midst of efforts to re-engineer theircurricula1 and re-engineer the conduct of instruction.2 Frequently overlooked in this
Paper ID #43698Developing KSAs in Engineering Capstone Students (WIP)Ms. Maryann Renee Hebda, Baylor University Maryann R. Hebda, M.S., is a doctoral student in the Educational Psychology Department at Baylor University. Prior to relocating to Texas, Hebda taught elementary and middle school special education, gifted education, and STEM for 13 years. Her current research explores integrated STEM talent development and achievement motivation in twice-exceptional and advanced learners.Morgan R Castillo, Baylor UniversityTracey Sulak, Baylor University ©American Society for Engineering Education, 2024
several academic and research institutions, including Oak Ridge National Laboratory, W. M. Keck Center for 3D Innovation, the University of Texas at El Paso, and the World University of Bangladesh. ©American Society for Engineering Education, 2024 Development of Hands-on Additive Manufacturing Course AbstractIn this paper, developmental effort toward an Additive Manufacturing (AM) senior elective coursefor undergraduate mechanical engineering students is presented. To develop the next generation ofengineers with digital manufacturing skill sets, the AM course offers unique opportunities forundergraduate engineering students. A senior elective in the AM
ETD 445 Developing Energy Efficiency and Advanced Decision-Making Course Javad Khazaii, Ali Khazaei Kennesaw State UniversityAbstractIn today’s world we are facing an explosion of population worldwide. This is “the majorunderlying force on environmental degradation and a threat to sustainable use of naturalresources” [1]. As a result, there is a need for much more energy to accommodate thesedemands. At the same time, the world is facing the problem of extreme impact of these demandson the nature and environment and is in need for developing methods of satisfying thesedemands
, the extent to which these applications are utilized in the curriculumbeyond those specific courses, and the extent to which programs are including content on,building information modeling. As a result, a research study was conducted to collect datarelated to the use of these technologies in curriculums. More specifically, the study focused onarchitectural engineering curriculums based on two assumptions. First, it is assumed thatarchitectural engineering education emphasizes an integration of both engineering andarchitectural design content, a position supported by review of many AE programs. Second, it isassumed that industry developments such as the GSA mandate will require all disciplinesinvolved in design and construction to utilize
2006-898: IMPACT OF CONVERGING DISCIPLINES IN CURRICULUM DESIGNFOR BIOTECHNOLOGY MINOR IN INDUSTRIAL TECHNOLOGYKari Clase, Purdue University Page 11.716.1© American Society for Engineering Education, 2006 Impact of Converging Disciplines in Curriculum Design for Biotechnology Minor in Industrial TechnologyTremendous advances are being made in pharmaceutical and biotechnology discoveriesand their applications (including manufacturing), as well as in health care services. As aresult, there is an increasing sophistication of the products and services available andbeing developed, with an ever-widening scale of applications and marketing. The growthof
arrival.The team uses earned value management to measure project performance against scope,schedule, and cost baselines. Communication of planned value, earned value, and variance withappropriate team members and relevant stakeholders generates better project results.ConclusionsThree different departments at The Ohio State University have developed project managementcourses to address a different need in the curriculum. These courses share common roots in thefact that industry requires students with improved abilities to manage projects and function inorganizations with formal project management processes. In addition to this curriculum,students involved in the more than thirty engineering student organizations practice projectmanagement to some
past two years,the final project has been to design an exhibit for the Lawrence Hall of Science, based upontopics learned in lecture. These topics vary from specific medical devices (replacement heartvalves, total joint replacements) to engineering issues (fatigue and fracture, viscoelasticity).Working in teams, the students research various aspects of their topics and develop lesson plansfor the exhibit. In addition to primary lectures by University faculty and researchers, thestudents receive instruction from LHS science educators and exhibit designers on currentpractices in communicating science to children and the public. On the exhibit day at LHS, thestudent teams present activities and demonstrations of their chosen topics as well as age
Session 2555 Addressing the Need for Engineering Educators in Higher Education: A Proposal and an Associated Curriculum Eugene J. Audette, Ph.D., L.P. Associate Dean, Academics & Research School of Education University of St. Thomas-Minneapolis Ronald J. Bennett, Ph.D. Director and Chair School of Engineering & Technology Management University of St
A General Engineering Technology Program For Navy Technical Personnel: A CD-ROM Based Curriculum Gary R. Crossman, William D. Stanley, David L. Chase Old Dominion UniversityAbstractOld Dominion University (ODU) has offered Bachelor of Science degrees in engineeringtechnology for over 30 years. The programs in Civil, Electrical, and Mechanical EngineeringTechnology have maintained continuous accreditation by TAC of ABET since 1976. Theseprograms have been delivered via ODU's interactive video TELETECHNET system to distancelearning students in Virginia and other selected sites for more than 10 years.In 1999, the Department of Engineering Technology saw a
Page 25.1365.1 c American Society for Engineering Education, 2012 Towards an “Adaptive Concept Map”: Creating an Expert-Generated Concept Map of an Engineering Statics CurriculumAbstractConcept maps are graphical representations of cognitive knowledge structures. Although theywere originally developed as a way to follow and understand changes in student knowledge, theyhave proven to be effective instructional tools. Concept maps consist of labeled nodes thatrepresent concepts, or perceived regularities or patterns, and links that are labeled to indicate therelationships between the nodes. Current work with concept maps is limited to small maps thatcover only sections of a class or the entire class
Biomedical Engineering Curriculum AbstractIn response to the growing importance of ethical consciousness in the realm of biomedicalengineering, we present a comprehensive educational initiative designed to seamlessly integrateethics across the entire curriculum. This endeavor involved close collaboration with facultymembers and the provision of summer salary support to develop substantial ethical thinkingexercises within key technical courses, including Modeling Cells and Cellular Systems, ImagingSystems, Instrumentation, Biomaterials, and senior capstone design classes. This initiative, aptlynamed the "Snail Progression of Ethical Instruction," introduces a structured frameworkspanning four years, each
Paper ID #37847A Strategic Curriculum Design for an IntroductoryEngineering Course to Encourage Self-Empowerment ofMinority StudentsVictor Manuel Garcia (Research Associate) Victor Garcia holds a PhD in Civil Engineering from The University of Texas at El Paso (UTEP). Victor is currently a research civil engineer at the US Army – Engineer Research and Development Center in Vicksburg, MS. He leads research projects sponsored by the US Department of Defense that focus on improving the design and construction practices for military transportation installations. Victor has been also collaborating with UTEP faculty on
) Shannon O’Donnell, Americas Zone Strategy Lead, Academic Programs Melanie Spare, Portfolio Development Executive, Academic Enablementumich mbse asee filed -- 2021-05-24.docx Page 1 of 27 Date Created: December 17, 2020 Date Modified: May 24, 2021 Redefining Student Preparation for Engineering Leadership Using Model-Based Systems Engineering in an Undergraduate Curriculum May 24, 2021 – FiledAbstractUS colleges and universities confer over 130,000 engineering degrees each year. However, whilegraduating students from top universities possess
Paper ID #14056Evaluating the Impact of Curriculum-Integrated Engineering Design Mod-ules in Middle Grades ClassroomsJessica M Harlan, University of South Alabama Jessica M. Harlan is a PhD student in Instructional Design and Development at the University of South Alabama (USA). Her research interests include educational evaluation and measurement. Jessica’s current research focuses on integrated STEM education, including evaluating a middle school engineering design curriculum. She will complete her degree in Spring 2016, and her dissertation research examines the relationship between the fidelity of implementation of
curriculum prepares graduates to solve problems and to usemodern engineering techniques for industrial engineering practice. Project management skillswill contribute to the execution of improvement plans that will facilitate the continuousimprovement of organizations. Relevant outcomes are: a, b, e, g, kPEO3 - Use their teamwork and systems thinking skills as well as their ability to adapt to changein order to keep current in their field. The curriculum develops life-long learning skills that willallow graduates to adapt and stay current in their field considering the rapid technologicalchanges that they will have to face in manufacturing or service organizations. Teamwork andsystems thinking abilities will contribute to the search for innovative
along with ajustification for the need to institute a replacement. The primary focus of this paper is a uniquecollaboration model which was developed to address this need. Faculty, staff, and graduateteaching associates from the First-Year Engineering Program joined with the Industrial, Weldingand Systems Engineering (IWSE) Department to investigate possible solutions. The paperdescribes the curriculum research and design methods used by the curriculum team.The document also discusses the requirements and constraints of the project and presents adetailed timeline of the evaluation and feedback tools implemented. The evaluation and feedbacktools used are explained along with sample worksheets. The results of the first quarter arediscussed in
AC 2008-1383: A COLLABORATIVE CURRICULUM ENHANCEMENT WITHRECOGNITION OF CHARACTERISTICS OF CHINESE COLLEGE STUDENTSFanyu Zeng, Indiana Wesleyan University Fanyu Zeng is an assistant professor of Business Information Systems and is actively involved in several projects to develop Chinese higher education programs and international student programs for Indiana Wesleyan University. Page 13.15.1© American Society for Engineering Education, 2008 A Collaborative Curriculum Enhancement with Recognition of Characteristics of Chinese College StudentsAbstractThis study aims to enhance a software engineering
building customers’ needs into product designs. This paperdiscussed the implementation of QFD in an educational scenario, where the principles ofQFD are applied to systematically improve the design of Manufacturing Engineeringcurriculum in a Midwest private institution. The incorporation of QFD is aimed atintegrating the voices of various stake holders into curriculum development; the voices ofacademicians, students and companies that hire students are recognized and reflected inthe curriculum quality improvement process. Fifty companies, current students, alumni,and all departmental faculty members become customers in the construction of QFDhouse. The outcome and process roadmap of this QFD-based curriculum improvementproject may serve as an
immersing them into ElectricalEngineering communications and signal processing research. Our objective is to raise the interest ofundergraduates in thesis-oriented research and hence attract them to graduate education programs orprepare them for research careers in the industry. The innovation includes the development of researchmodules that expose UG students to signal processing for communications (SP-COM) research. Thesemodules are taken by students across the Electrical Engineering SP-COM curriculum. Four interrelatedmodules are first injected in early junior-level “Signal and systems” and “Random signal analysis”courses and then in senior-level “Digital signal processing” and “Communications systems” courses. Inaddition, a new senior-level
Paper ID #37169Towards Developing a Modernized Wind Engineering Curricula ¨Ms. Claudia Calle Muller, Florida International University Claudia Calle M¨uller is a Ph.D. student in Civil and Environmental Engineering at Florida International University (FIU). She holds a B.S. in Civil Engineering from Pontificia Universidad Cat´olica del Per´u (PUCP). Claudia has 4+ years’ experience in structural engineering designing reinforced concrete resi- dential and commercial buildings in Peru; 2+ years’ experience in entrepreneurship building a successful health coaching and wellness business; and 4+ years teaching
Paper ID #31175Paper: Attendance and Social Interdependence in Game Development LabsBrantly Edward McCord, Purdue Polytechnic Institute Brantly McCord is a teaching assistant and co-instructor at Purdue Polytechnic Institute assisting with the development and instruction of video game dev curriculum. His instructional specialties are in Unreal Engine 4, visual scripting and art design, and his current research interests are concentrated on education in his field.Dr. Ronald Erdei, University of South Carolina Dr. Ronald Erdei is an Assistant Professor of Computer Science at the University of South Carolina Beau- fort
Paper ID #31027Development of Team-Based Hands-On Learning ExperiencesDr. Aldo A. Ferri, Georgia Institute of Technology Al Ferri received his BS degree in Mechanical Engineering from Lehigh University in 1981 and his PhD degree in Mechanical and Aerospace Engineering from Princeton University in 1985. Since 1985, he has been a faculty member in the School of Mechanical Engineering at Georgia Tech, where he now serves as Professor and Associate Chair for Undergraduate Studies. His research areas are in the fields of dynamics, controls, vibrations, and acoustics. He is also active in course and curriculum development. He