course was divided into four portions:lecture, a seminar series, lab sections, and student’s final project presentation. Lectures were heldtwice a week in a classroom setting and discussed fuel cell fundamentals. Table 1 shows thediscussion topics such as fuel cell thermodynamics, electrode kinetics, performance andefficiency, transport process, classifications, fueling issues, and fuel cell systems andapplications. In order to compensate for some student’s lack of general chemistry principles,basic concepts were briefly introduced and appropriate examples were provided. After sevenweeks, students were given a midterm exam incorporating basic analysis of electrochemical andthermodynamic principles while including some response questions
Biomechanics Laboratory (EBL) at LTU with the goal of advanc- ing experimental biomechanics understanding. Dr. Meyer teaches Introduction to Biomechanics, Tissue Mechanics, Engineering Applications in Orthopedics, and Foundations of Medical Imaging. He has been an active member of the engineering faculty committee that has redesigned the Foundations of Engi- neering Design Projects course that is required for all freshmen in the College of Engineering at LTU. This committee is currently designing a new sophomore-level Engineering Entrepreneurship Studio that will also be required for all students as a continuation of the ”Foundations Studio.” He has published 33 peer-reviewed journal and conference proceeding articles. At
University. Siva is an active researcher and his research interests in- clude creativity and innovation in learning and teaching, Design based learning, Cloud learning & located learning and engineering education innovation. His education philosophy is founded on the Project Ori- ented Design Based Learning (PODBL) approach at Deakin University.Dr. John Matthew Long, Deakin University Dr. John M. Long completed his undergraduate degree in physics at the University of Michigan (Flint) in 1987, while working as an analytical chemist at AC Spark Plug, General Motors Corporation. In 1995 he completed a PhD in physics at Monash University in Melbourne, Australia. Since then he has worked in the School of Engineering at
education, a variety of pedagogical considerations have beenimplemented and experimented, such as inquiry-based learning (Behrouzi and Kuchma, 2016),project-based learning (Khorbotly, 2015; Wang et. al., 2017; Zhao et. al., 2017; Luo, 2015),cooperative learning (Akili, 2012), active learning (Luo, 2015; Akili, 2014; Oliveira, 2015),divide-and-conquer learning (Kos and Miller, 2017; Sullivan-Green, et. al., 2017), student-centered learning (Grigg and Stephan, 2018), and problem-based method (Oliveira, 2015), etc.The project-based learning approach is one of the innovative methods promoted in engineeringeducation. Khorbotly developed and taught a computer vision curriculum in the undergraduateelectrical and computer engineering program using a
environments[28], [29]; however, it has been shown to present assessment challenges [30].While peer learning can take many forms, in the computational science disciplines andcybersecurity, it often will be conducted in a project- or problem-based learning (PBL)environment. In these environments, students are presented with (or may self-select) a problemor challenge to solve or a project (e.g., software development) to complete. The efficacy of PBLhas been demonstrated at multiple levels of education [31]–[36]. It has also been shown to beeffective in numerous disciplines. Examples of the effective use of PBL can be found incomputer science [37] and electrical [38] engineering. It has also been demonstrate to beeffective in non-STEM disciplines such as
available and an example of ongoing coastalengineering research is discussed. The programs coastal natural disaster focus is sponsored bythe Office of University Programs, U.S. Department of Homeland Security (DHS). DHSsponsorship is most appropriate in view of Hurricanes Irma, Maria, Harvey, Florence and otherswithin the past twenty four months.Background The principle catalyst for the PhD Engineering (Coastal Engineering emphasis area)degree program described in this paper was one of eighteen projects (14 research and 6education) comprising a competitively awarded Coastal Resilience Center of Excellencecooperative agreement awarded by the Office of University Programs, U.S. Department ofHomeland Security (DHS) in 2015 to University of
was director of the (Engineers in Technical Humanitarian Opportunities of Service-Learning) for approximately ten years. She has incorporated service-learning projects into her classes and laboratories since she started teaching in 2000. Her research interests include community engaged learning and pedagogy, K-12 outreach, biomaterials and materials testing and analysis.Dr. M. Suzanne Franco, Wright State University Professor of Statistics and Research, Program Director for EdD in Organizational Studies, in the Leader- ship Studies in Education and Organizations Department, College of Education and Human Services and the Program Evaluation Certificate.Dr. Mary-Kate Sableski, University of Dayton Dr. Sableski is an
Paper ID #28121Board 13: Manufacturing Division: Improving Student Engagement in aSenior-Level Manufacturing Course for Mechanical Engineering StudentsDr. Joshua Gargac, University of Mount Union Joshua Gargac is an assistant professor of mechanical engineering at the University of Mount Union in Alliance, OH, where he advises the mechanical engineering senior capstone projects and SAE Baja team. In addition, Dr. Gargac teaches first-year engineering courses, computer-aided design, kinematics and dynamics of machinery, and manufacturing science. He received his BSME from Ohio Northern University and a PhD in Bioengineering
many lab stationsclose to distance learners. The limited availability of instructors to verify students’ work hasmade it difficult for students to receive the help they need to complete projects. Multiplemethods, such as lab simulators or a remote laboratory, have been proposed and used toaddress these challenges based on the idea that simulators can replace the physicalexperiments. There are multiple software programs that enable students to design electroniccircuits. These programs contain virtual instruments such as oscilloscopes, function generators,and logic analyzers that can be used to simulate and observe the voltages and currents atvarious points of a circuit. However, no simulator can completely replace the actual hands-onlaboratory
important to be able to adapt to any different culturalenvironment.Another fact, which is not new, is that many engineering students have a lack of knowledgeabout what being an engineer really means. The first 3 years are particularly intense and hard. Apossible way to improve their perception about the profession is to implement a new kind ofcourse, more enticing and dynamic. This is one of the proposals of COPEC’s engineeringeducation research team: - to embed a course with a more interesting activity for students,sooner, in the first year. It is a short-term workshop in order to show students the possibilities ofperforming as engineers in a global environment – a project developed for a private university inorder to reduce retention rate among
engineering.It focuses on the application of human physical and psychological characteristics to thedesign of engineering devices/systems so that the products and solutions can better servehuman needs. There has been a long history of efforts1,2 in incorporating human factors inengineering education, such as teaching ergonomics in product and space design.However, this idea and practice has not been widely implemented in the area of firescience and engineering education: little or limited emphasis of human factors is includedin current curriculum. In fact, human behavior in fire is at the core of all fire safetyregulations, projects and service actions. It is the basis of various engineering solutionsfor fire safety. Therefore, it is of imperative
immersion and educationalexperiences that simulate a real-world industrial design process and encourage creativity,innovation and teamwork [2-5].In line with modern practices, our program’s design sequence focuses on system engineering,and includes key design phases of project definition, system-level design, prototypedevelopment, and verification and validation. In the most recent revision, we restructured ourdesign curriculum to ensure better continuity of design topics, to facilitate collaborative projectswith industry partners, and to alleviate various academic challenges noted by faculty andindicated by students in the course evaluation questionnaires. To this end, we reduced theduration of the capstone design sequence by three academic
Smithsonian National Air and Space Museum (NASM). As an educator at a world-class museum, he was responsible for interacting with several hundred to thousands of visitors daily by educating them on the basic principles of aerodynamics, flight systems and space travel. Saul has also spent 2 years of his undergraduate career as a research assis- tant in several areas including Machine Learning, Power Systems and Mechatronics. In this capacity, he spent most of his time working under his school dean, Dr. Devdas Shetty, to enhance labs and higher-level coursework through the use of hands-on mechatronics projects and robotics. He has also worked briefly in other UDC labs including the Center for Biomedical & Rehabilitation
A Hands-on Activity to Assist Students in Making Connections between Topics in Heat Transfer Jennifer O’Neil, Ph.D. Manufacturing and Mechanical Engineering Technology Department College of Engineering Technology Rochester Institute of Technology 78 Lomb Memorial Drive, Office 70-1361, Rochester, NY 14623 Email: jaomet@rit.eduAbstractThe preliminary work presented here consists of an educational module designed for a course inthermal fluid sciences focused on fundamental thermodynamic and heat transfer principles. Thehands-on, project-based activity promotes
Applied Engineering Technology (AET) students, as well as for employees ofthe companies involved in NDT. The proposal received a very favorable response from thereviewers, and the NSF panel and was considered for funding. Nevertheless, the NSF paneladdressed some questions that came up during the review process. After receiving PI and co-PIs’responses, the project was awarded. The laboratory procedures were developed and set-up andthe course was offered to pre-junior AET students. The videoconference-based instruction of thecourse is under development. The Internet-based videoconferencing mode will allow students atcommunity colleges partnering with Drexel University participation in laboratory activitiesremotely.INTRODUCTIONNondestructive
research projects abroad. That period isalso ideally suited as students are not yet looking for post-college employment orpreparing to go to graduate school. Logistically, the summer season makes foreign study Page 13.1122.3convenient for students and institutions, as both on- and off-campus housing is readilyavailable during summer months at most schools. Under these summer research programs, several undergraduate students areinvited to USC as research interns and several of our students have the opportunity tovisit our partner institutions. Each summer, research students from guest institutions areassigned to work closely with faculty members at
AC 2008-534: LEVERAGING A FLEXIBLE INTELLECTUAL PROPERTYPOLICY TO BRING STUDENT INNOVATION TO MARKETJohn Farris, Grand Valley State UniversityHugh Jack, Grand Valley State UniversityShabbir Choudhuri, Grand Valley State UniversityChristopher Pung, Grand Valley State University Page 13.852.1© American Society for Engineering Education, 2008 Leveraging a Flexible Intellectual Property Policy to Bring Student Innovation to MarketAbstractAn engineering school at a primarily undergraduate, public, regional university in the Midwest uses a liberalintellectual property policy in conjunction with hands-on design and build projects in multiple
engineering education, programming languages for introductory courses, and formal specifications.Mike Rowe, University of Wisconsin-Platteville Michael C. Rowe is an Associate Professor in the Department of Computer Science and Software Engineering at the University of Wisconsin - Platteville. He has a Ph.D. from the University of North Texas. His interests include software engineering, software quality assurance techniques, student projects, and software engineering education. Page 13.1411.1© American Society for Engineering Education, 2008 World-Class Outcomes Assessment on a
certainly a holistic (i.e., interdisciplinary) approach that takes into account all relatedexternalities in order to solve a specific design problem. The authors were awarded $10,000 fromthe EPA, which they used to integrate the P3 competition as an educational tool in an electivecourse they co-taught on sustainable design. The design project, explained below, was therequired final assignment in the course, in which students were expected to apply the knowledgeand skills they acquired during the semester on the topic of “Sustainable Design in Architecture”.2. Design Competition EntryThe subject, chosen by the faculty, for this competition entry was “The Chameleon House, anAdaptive Sustainable Manufactured Home”. In this design challenge
years we have used student designed and developed laboratory equipmentwith great success. Typically a student team will design and fabricate a prototype of anext –generation piece of laboratory equipment. Other students are then hired tofabricate multiple production run pieces of the equipment. Student developed laboratoryequipment solves two challenging problems confronting most engineering programs: 1)the need to update laboratory exercises and equipment without adequate funds and 2)satisfying Accreditation Board for Engineering and Technology (ABET) requirements fora major design experience within the curriculum. In this paper we will briefly reviewprevious projects completed such as a Motorola HC12 microcontroller based teachingplatform, a
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
countries may have different requirements of theeducational objectives for graduating seniors, the course material has a minimum set of topicswhich will be used by all participating schools. Then, a more extensive part of the coursematerial will be elective topics that cover special needs. These special needs could be differentgovernment or ABET requirements, or it could be project specific knowledge that is toospecialized to be taught to all students. An example of the common topics is how to use QualityFunction Development to generate a set of quantifiable design objectives. An example of theelective topics is the tolerance stack analysis and design, which is necessary knowledge fordesign projects requiring high precisions assemblies.Some
conferences before.Brian Wright, Auburn University Brian Wright, Auburn University. Dr. Brian Wright is the Associate Director for Commercialization in the Office of Technology Transfer, Auburn University. As associate director, he works with and assists the technology transfer officers on various projects, oversees initiatives to reach out to industry and other research institutions, and markets, negotiates and licenses technologies from Auburn's research laboratories. For more than two years, he has worked closely with the Thomas Walter Center in commercializing selected Auburn inventions. Page
). Page 11.1459.1© American Society for Engineering Education, 2006 Xen Worlds: Xen and the Art of Computer Engineering EducationAbstractXen Worlds is being developed to provide a method for performing assignments and lab work ininformation assurance, operating systems and networking courses that require root access to theindividual machines, or the entire network. Currently, there is no existing approach thataddresses the root access requirement and the entire life-cycle of an assignment from problemdefinition, to turn-in of the end product. The Xen Worlds project is aimed at creating a versatile“virtual lab” where an entire network of virtual machines, (a Xen World), can be provided toeach
Exposing Aerospace Engineering Students to Flight Simulation Software, Hardware and Systems IntegrationAbstractAerospace Engineering students are exposed to software and hardware in the Flight Simulationcourse at Parks College to familiarize them with an Aero Engineer’s view of the world of real-time, pilot-in-the-loop flight simulation, impart some skills that could be useful to them shouldthey go into this industry and reinforce their knowledge of flight dynamics. This course hasspawned an interesting student project which is the main focus of this paper – the developmentof a PC-based mobile flight simulator.IntroductionWith respect to the Flight Simulation course at Parks, this paper reports1) the use of student written
automobile manufacturers are training their HEV engineers and techniciansentirely “in-house,” which limits the number of engineers and technicians available for thegrowing hybrid market. There is a clear need for a systematic training program on HEV. Thispaper describes a funded project whose goal is to fill this need by developing an integratedlearning environment for HEV technology. This project targets engineering/engineeringtechnology students in 4-year universities, automotive technology students in communitycolleges, automotive engineers and technicians in industries, and K-12 technology teachers.1. IntroductionThe U.S. spends about $2 billion a week on oil imports, mostly for transportation fuel 1. Thisneed for oil affects our national
a series of hands-on projects in a multidisciplinary laboratorysetup established from a grant from the Department of Education. The LEGO Mindstorm robots,FLOTEK 1440 wind tunnel, PC TURN 55 CNC machine, SolidWorks 3D software withDimension 3D Printer rapid prototyping machine are primarily used in the laboratory componentof the “Principles of Engineering Analysis and Design” course taught at the sophomore levelwhich carried 30% of the final course grade. The laboratory class introduced in 2001 has become astrong motivational tool for our engineering students inspiring them to continue with the upperlevel courses. Apart from exposure to multiple equipment and software, students gain an insightinto how a task can be accomplished by first
received his B.S., M.S., and Ph.D. in Mechanical Engi- neering from the University of Kentucky in Lexington, KY. After obtaining his B.S., he spent three years working in the Plastics Division of Eastman Chemical Products, Inc. He entered his current position in July 2000. Page 23.566.1 c American Society for Engineering Education, 2013 Experience with Mentoring and Directing Graduate Student Research at a Distance in a Mechanical Engineering ProgramAbstractThe advising of graduate student research projects from a distance requires both planning andflexibility from both the
c American Society for Engineering Education, 2013 EXPERIMENTAL STUDY ON THE OPTIMUM HARVESTING OF SUNLIGHT FOR AN EFFICIENT SOLAR ENERGY SYSTEMAbstractRenewable energy plays an important role in the support and growth of the world economy,especially in periods of fluctuating prices of fossil fuels. Among the renewable energy sources,solar energy provides specific advantages in space utilization, versatility, relatively-lowmaintenance, and quick payback. The awareness of, and exposure to, solar energy projects on thepart of engineering technology students is vital for the development of a highly-skilledworkforce in this rapidly-growing field. This paper presents the design and development, to
Instructional and Curriculum Leadership from Northcentral University. Burr-Alexander has nearly three decades of experience in management, curriculum development, and im- plementation of projects for educators, students, and their parents in science, mathematics, engineering, and technology (STEM) education.Dr. Howard S. Kimmel, New Jersey Institute of TechnologyDr. John D. Carpinelli, New Jersey Institute of Technology Dr. John D. Carpinelli is a professor of electrical and computer engineering and executive director of the Center for Pre-college programs at the New Jersey Institute of Technology. He has served as coordinator of activities at NJIT for the Gateway Engineering Education Coalition and as a member of the