Polytechnic Institute and State University VINOD K. LOHANI is an associate professor in the Department of Engineering Education and an adjunct faculty in Civil & Environmental Engineering at Virginia Tech. He received a Ph.D. in civil engineering from Virginia Tech in 1995. His areas of teaching and research include engineering education, international collaboration and hydrology & water resources.Garrett Bradley, Virginia Polytechnic Institute and State University Garrett Bradley currently works for Amsted Rail –Griffin Wheel division as an international manufacturing engineer, with current project assignment in Xinyang, Henan, China. Garrett graduated from Virginia Tech in 2007 with a
-based, active learning environmentsfor improvement of student comprehension and engagement.1,2,3 Active-learning requires Page 13.414.2students to be involved in key activities of analysis, synthesis and evaluation. 4 For universitystudents, these activities are most clearly present in the context of directed and independentresearch.5 While certain active-learning activities can (and should) be built into the structure ofwhat would normally be a lecture class (such as group discussions, demonstrations, and groupdesign projects), the level of student engagement supported by a research project would be hardto duplicate in a classroom environment
was their first researchexperience of any kind. We had a positive impact on influencing the career path of the REUparticipants, according to their self-reported plans. The mentoring program has been verysuccessful, as indicated by the number of return attendees and alumni of the Bio-Discoveryprogram, who recommend their younger sisters or friends to the program. According to ourassessment data, the Bio-Discovery Program has been the most rewarding part of the programfor several of the REU participants, even though it also presented a challenge, as it limits theamount of time REU students can dedicate exclusively to their research projects. With ourrecommendations for improvement, this program can be adopted by other faculty who wish
. The cornerstone is a project in which teams of management, engineering, and industrial design students conceive, design, and prototype a physical product. Class sessions employ cases and hands-on exercises to reinforce the key ideas. Topics include: product planning, identifying customer needs, concept generation, product architecture, industrial design, concept design, and design-for-manufacturing. System Project Management – 12 units Subject focuses on management principles, methods, and tools to effectively plan and implement successful system and product development projects. Material is divided into four major sections: project
cell research used under a wide range of operational conditions for the US Army. He is also working with his students supporting DTE Energy in the operation and optimization of their Hydrogen Power Park in Southfield, Michigan, a photovoltaic, biomass, water electrolysis, hydrogen storage, hydrogen vehicle fueling station and fuel cell power demonstration project, funded by the Department of Energy. He is also establishing an alternative energy laboratory at LTU that contains integrated fuel cell and hydrogen generation systems, as well as equipment for solar (thermal and photovoltaic), biomass, wind and other alternative and renewable energy generation equipment
.) Presenting the material and generatinginterest requires creativity and innovation. Introducing students to possible fields of study thatthey were previously unaware of such as marine engineering, ocean engineering, and navalarchitecture, has the potential to develop the next generation of professionals, academics,engineers, scientists and industry leaders. Most important, however, is the potential to open theeyes of a student to a larger world of study within the STEM curricula.This paper will discuss one innovative approach to teaching science and engineering conceptsthrough the use of underwater robotics. The Sea Perch Project provides students with theopportunity to learn about robotics, engineering, science, and mathematics while building
in the School of Systems Engineering at Stevens Institute of Technology. Her research area is based on systems thinking in K-12 education. She graduated from Stevens Institute of Technology with a Masters degree in Computer Engineering, and then she worked with Lucent Technologies as a software developer first in embedded systems and then she held a position as a software designer/architect for CDMA2000 project where she participated in numerous projects developing several features to enhance the existing software system. She is now participating in a project to create a model curriculum in software engineering.Lawrence Bernstein, Stevens Institute of Technology
arearriving to school already familiar with communication technologies. A recent Pew Internet andAmerican Life Project study found that in 2004, 62% of the internet users between the ages ofeighteen and twenty-seven had used IM4. This number will only continue to rise as thetechnology becomes more and more popular.A trend towards the use of IM over face-to-face meetings is already taking place in the businessworld. In addition to personal use, 10% of the IM users in 2004 were business people5 and theRadicati Group predicted half the IM users to be business users by 20064. The use of IM in thebusiness world leads one to believe that students should be exposed to IM as a tool for groupcollaboration. However, inclusion of IM as a tool for group
tools, innovative manufacturing techniques, and design teaching aids at the college, pre-college, and industrial levels. Contact: wood@mail.utexas.edu.Richard Crawford, University of Texas at Austin Dr. Richard H. Crawford is a Professor of Mechanical Engineering at The University of Texas at Austin and is the Temple Foundation Endowed Faculty Fellow No. 3. He is also Director of the Design Projects Program in the Department of Mechanical Engineering. He received his BSME from Louisiana State University in 1982, and his MSME in 1985 and Ph.D. in 1989, both from Purdue University. He teaches courses in mechanical engineering design and geometric modeling for design. Dr. Crawford’s research
is working with Dr. Mohammad Elahinia on a project to develop "Multipurpose Educational Modules to Teach Hybrid Vehicle Technologies". Specifically Christopher says I am "working with colleagues to make hydraulic hybrid vehicles more suitable for commercialization…. I am excited and thrilled to be part of a university and a project which have the potential to make big changes in the automotive industry."Walter Olson, University of Toledo Walter Olson is a professor of Mechanical Engineering specializing in dynamics in the Department of Mechanical, Industrial, and Manufacturing Engineering at the University of Toledo. His research on Hydraulic Hybrid Vehicles is sponsored by the US EPA
AC 2008-2331: NOVEL TECHNOLOGY FOR ELECTRONICS INSTRUCTION –AN ELECTRONICS STUDIOArunachala Nadar Mada Kannan, Arizona State University Research focus is in the field of Alternative Energy Technologies, more specifically in fuel cells. Developed a brand new undergraduate course on Electronics projects and has been using the e-Studio as an effective teaching tool.Barbara Rempel, Arizona State University, Polytechnic campus An Edicator in the field of Electronics Engineering Technology for the past 17 years. Cureently involved in creating electronics embedded systems concentration for the undergraduate degree program. Her expertise involves, design and development of electronic circuits FPGA systems
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
systems engineering concepts and introducing economicconcepts and business benefits through implementations such as found in Supply Chain andWarehouse Management (SCM/WHM). In addition, RFID is a natural place to introduce ethicalas well as global engineering issues. The course includes selected RFID projects incorporatingbusiness student participation on multidisciplinary teams. As a result, the department has beenable to tailor the course to specifically addresses ABET1 outcomes 3 (d), 3 (f) and 3 (h). Earlyexperience in multidisciplinary teamwork has been favorable, one example provided by a teamthat evaluated possible adoption of RFID by the college’s library. The role of assessment indeciding to adopt this course, and the assessment of the
systems engineering concepts and introducing economicconcepts and business benefits through implementations such as found in Supply Chain andWarehouse Management (SCM/WHM). In addition, RFID is a natural place to introduce ethicalas well as global engineering issues. The course includes selected RFID projects incorporatingbusiness student participation on multidisciplinary teams. As a result, the department has beenable to tailor the course to specifically addresses ABET1 outcomes 3 (d), 3 (f) and 3 (h). Earlyexperience in multidisciplinary teamwork has been favorable, one example provided by a teamthat evaluated possible adoption of RFID by the college’s library. The role of assessment indeciding to adopt this course, and the assessment of the
systems engineering concepts and introducing economicconcepts and business benefits through implementations such as found in Supply Chain andWarehouse Management (SCM/WHM). In addition, RFID is a natural place to introduce ethicalas well as global engineering issues. The course includes selected RFID projects incorporatingbusiness student participation on multidisciplinary teams. As a result, the department has beenable to tailor the course to specifically addresses ABET1 outcomes 3 (d), 3 (f) and 3 (h). Earlyexperience in multidisciplinary teamwork has been favorable, one example provided by a teamthat evaluated possible adoption of RFID by the college’s library. The role of assessment indeciding to adopt this course, and the assessment of the
, there has been noshop training provided to the students to teach them safe and effective fabrication skills eventhough the projects require a wide range of fabrication techniques. Around 320 students areenrolled in the fall semester, 2007. These students are distributed into different lab sections. Eachof the labs consists of 30 students divided up into two different design teams of 15 studentsrespectively. Each lab is run by an instructor with the help of two undergraduate studentassistants (SAs). During the spring and fall semesters of 2007, a hands-on fabrication shop andspecialized training program was developed and implemented by the undergraduate teachingstaff. They applied the Total Quality Management (TQM) approach from business to
evaluation. He is presently working on several project including the Environmental Protection Agency, Health and Human Services Administration on Aging and Centers for Medicare and Medicaid Services, as well serving as the lead evaluation consultant to seven national centersEugene Brown, Virginia Polytechnic Institute and State University Eugene Brown is Professor of Mechanical Engineering at Virginia Tech. In addition to the Virginia Demonstration Project, he has worked on a number of STEM outreach programs and has published several papers describing these activities. He teaches undergraduate and graduate courses in thermodynamics and fluid mechanics.Gail Hardinge, College of William and Mary
students in science and engineering fieldsinclude hands-on approaches1- 3, field trips4, 5, summer workshops6, 7, competitions8, andsoftware training programs9. This paper describes the activities of a new project, Impactof Space Exploration Programs (ISEP), designed to educate the public about the benefitsof space exploration and to attract minority students to science and engineering careers.Specifically, the goals and objectives to be accomplished under ISEP are: ‚ Increase K-12 educator knowledge of space research projects and educational opportunities ‚ Inspire students and increase their interest in science, mathematics, and technology ‚ Increase the public’s knowledge of the benefits of space
-graduate electricalengineering degree on a part-time basis without having to travel to the main campus located 90miles and 180 miles away respectively. Students in the program typically take two engineeringcourses per semester from the on-site faculty supplemented by distance course offerings asneeded. Each of these courses has the same content as the ones offered at the main campus,including laboratory work and semester design projects. Courses in Math, Science, English, andthe Humanities are offered by the local two-year school. The specific needs of our non-traditional students and the ways the course offerings at our site have been adapted to meet thoseneeds are discussed. The unique challenges of this type of program are also
Nuclear Hydrogen -Chemical and Nuclear Engineers’ DreamAbstractNuclear energy is one of the practical energy sources to produce CO2 free hydrogen. Thisnuclear hydrogen technology requires both Nuclear and Chemical Engineers. At anundergraduate level this concept of bringing chemical engineers and nuclear engineers to worktogether in future energy technology is exciting and has created interest in chemical engineeringundergraduate students to participate in research activities in Nuclear Engineering discipline. Anaccount of projects on nuclear hydrogen area carried out by chemical engineering undergraduatesin nuclear engineering school is presented. The projects were on thermochemical water splitting,sodium borohydride hydrolysis, and fuel cell
better educational opportunities for them.Student Learning OutcomesStudents who participated in this program were expected to be able to: • describe the mechanical and manufacturing engineering technology program’s courses, laboratories, types of training, and job opportunities • describe nanotechnology, microelectromechanical systems, biomimetics, robotic construction using biologically inspired materials, project management • make basic drawings, make biomimicked materials, and characterize them using optical and electron microscopy • make a more informed decision about their choice of collegeCross Links between Among the Program Objectives, Vision 2015, and NKUStrategic Agenda
curriculum with a soft-core processor. All ofthe work does not need to be done ahead of time and developed on a dedicated board formonths/years into the future. Minor changes to labs can be made each year without requiringmajor redesign of dedicated boards. The configuration of the soft-core processor can grow orshrink as the needs dictate. Simple configurations can be used at the beginning so students canmore easily grasp the big picture; more complex configurations can be generated as theirunderstanding increases. If a project requires multiple UARTs, it is easy to add them.The Nios II processor was used for software development on the Altera DE2 for this course.Though the soft-core processor was considered the best instructional platform, it
skills 2.726 3.69616 Ability to use a systematic approach to process and product design 3.367 3.61417 Competence in information technology 3.339 3.59618 Knowledge of methods for project management 2.401 3.36519 Understanding of cultural diversity 2.812 3.33220 Business orientated thinking / Business approach 2.275 3.33221 Appreciation of the potential of research 3.576 3.24222 Understanding of principles of sustainable
AC 2008-1709: COMPARING THE DESIGN PROBLEM SOLVING PROCESSESOF PRODUCT DESIGN AND ENGINEERING STUDENT TEAMS IN THE US ANDUKSenay Yasar Purzer, Arizona State University Senay Yasar-Purzer is a Ph.D. candidate in Science Education, Department of Curriculum and Instruction at Arizona State University (ASU). She currently works as a graduate research associate in the Communication in Science Inquiry Project, an NSF-funded teacher professional development program. She earned her master’s degree in Science Education at ASU. She has a BS degree in Physics Education and is currently pursuing another B.S.E degree with a concentration in mechanical systems. In 2007, she received the Dean’s Excellence award