the need for technical assistance,financial aid and education. This is made clear by past research done by others 3, 4, 5. However,because of the differences in culture, we needed to ask the questions, hear the answers anddevelop potentially helpful projects around the answers.Survey MethodologyThe surveys were done on an informal basis built around three questions and 150 to 200 leaders.The methodology for the survey was to meet with the leaders and informally ask the threequestions and then to record the responses. The questions and answers were further support forour belief in the basis for a successful new research center model.This study used qualitative research methods, in particular in-depth interviews, focus groupdiscussions and a
University, and B.S. in electrical engineering from Suffolk University.Dr. Sean P. Brophy, Purdue University, West LafayetteDr. Ruth A. Streveler Page 25.1006.1 c American Society for Engineering Education, 2012 Online Learning Communities for DesignAbstractWeb 2.0 tools can enhance a team’s knowledge development through socialcollaboration. Integration of web 2.0 collaborative tools, such as web blogs, wikis,podcasting, social bookmarking, and social networking sites can be especially useful insupporting collaborative and project-based learning. Our goal in this study is to gain abetter
digital, analog, mixed-signal, MEMS, computer-aided design (CAD), and design method-ology IP, including standardization of the deliverables for IP of these types. The current demandfor IP of this nature far outweighs its availability7 and thus UMIPS can accelerate microsystemsand SoC research while preparing students and researchers with experience developing IP compo-nents and using these components in an IP design framework that will almost certainly becomeubiquitous in future microsystems and SoC development.II. Recent research developments and the founding of UMIPSSeveral independent but related University of Michigan research projects were combined in orderto develop the microsystem recently presented by Senger, et al.8 This microsystem was
career, Dr. Ertekin published papers in referred journals and in conference proceedings in his area of research interest. He has also been PI for various NSF research projects including NSF-TUES and MRI programs. Dr. Ertekin is an active member in the Society of Manufacturing Engineers (SME), and currently serves as a chair of Philadelphia SME Chapter-15.Mr. M. Eric Carr, Drexel University Mr. Eric Carr is a full-time Laboratory Manager and part-time adjunct instructor with Drexel University’s Engineering Technology program. Eric assists faculty members with the development and implementa- tion of various Engineering Technology courses. A graduate of Old Dominion University’s Computer Engineering Technology
Tissue Engineering and Regenerative Medicine International Society, the Fiber Society, the American Association of Textile Chemists and Colorists, the Textile Institute, and is a fellow of the Institute of Textile Science in Canada. Page 23.515.1 c American Society for Engineering Education, 2013Engineering Librarians as Partners of Faculty in Teaching Scholarly Inquiryto Undergraduate Students through Curriculum Integration: The Biotextiles Product Development Course BlogAbstractGroup projects are frequently utilized in undergraduate course curricula at the NC
Building Bridges Between Education and Engineering Programs: An Example of a Successful Planning Process Philip Parker, Jason Thrun University of Wisconsin-PlattevilleIntroductionThree Engineering faculty members and three School of Education faculty members at theUniversity of Wisconsin-Platteville (UWP) have teamed up to introduce engineeringfundamentals to pre-service teachers. The philosophy behind this project is that teachereducation is the responsibility of the entire university, not simply the School of Education. Assuch, this project has four goals listed below. The first two goals focus on the pre-serviceteachers participating in the project
student fabrication and testing, since modern devices in ’student friendly’ packages are becoming less and less available, or two, using complex, state-of-the-art devices but at a high level of abstraction to make them accessible to students. In redesigning our embedded systems design course, we wanted to ensure that our students worked with the state of the art (i.e. current microprocessors, standard interfaces and current technology I/O devices, real-time operating systems, application and device driver software development, and hard- ware description languages), but that they still did actual hardware design and fabrication. We wanted students to have independence in the selection of projects, but had to
departments and a topic well discussedin the 2001 ASEE conference2,3. The curriculum of the course was built around fourpillars: drawing, design, communication and teamwork.The Engineering Design LabThe University of Calgary invested 1.28 million dollars as a start up contribution to thedesign and construction of four technologically advanced laboratories for the first yeardesign course. The four linked labs circle around a central broadcast booth; instructorscan broadcast to all labs simultaneously and are able to monitor lab activities throughfeedback screens. The four labs accommodate 150 students at one time; students work atlab tables in teams of four. Each lab has a document camera, a projection screen, acomputer terminal for every two students
followed across different capstone classes with application to machinedesign and automotive capstone classes is presented. The developed process fosters creativity,develops students’ communication skills and provides a logical product realizationengineering/management experience.The educational design process starts with team building and brainstorming focusing oncreativity as right brain activity. From the brainstorming list of projects one is selected based oncreativity, effort and timing. Each team proceeds to develop a written and oral proposalcontaining product history, state of the art, Bill of Product, development and simulationmethodology, project management/impacts and cost estimates. The Bill of Product represents theset of product
design projects will beneeded to replace the traditional continuous chemical manufacturing process that is most oftenthe subject of the capstone design class. This paper describes one such design project assignedto the West Virginia University class of 2005. A different multi-scale, biologically related,product design was completed by the class of 2004.2The ProblemThis class was assigned the task of investigating food products. Specifically, they were toidentify promising markets for low-carbohydrate and/or low-fat foods and suggest opportunitiesfor a profitable venture to manufacture such products. They were to learn the ingredients in and
3160 Rural Economic Development through Building Energy Efficient Houses for Under $3,000 J. STRUEBER, V. Harris, E. Meyer, E. Carter, E. Maweza, M. Matshaya, Tuskegee University/Tuskegee University/University of Fort Hare/Tuskegee Uni- versity/University of Fort Hare/University of Fort HareAbstractThis paper looks into creating community-based economic development through materials de-velopment and building small energy-efficient housing for the rural areas of the Eastern Provinceof South Africa. This is a student exchange project between Tuskegee University and the Uni-versity of Fort Hare, Republic of South Africa
scales, as appropriate, and themanufacture of the product at the macro scale. Therefore, a new class of design projects will beneeded to replace the traditional continuous chemical manufacturing process that is most oftenthe subject of the capstone design class. This paper describes one such design project assignedto the West Virginia University class of 2004.The ProblemThis class was assigned the task of investigating transdermal drug delivery systems. They wereto identify potential pharmaceutical products for use in a transdermal patch and suggestopportunities for a profitable venture to manufacture such a product. They were to learn thecomponents of transdermal patches, including their chemical composition, their function, andtheir mechanism
with a solid funded followup serves as ameans to leverage the creation of such large research tools. Details of ideas for design,implementation, projects, and data collection are presented.IntroductionA Transient Network Analyzer (TNA) is a controlled hardware environment with whichengineers can intentionally create and observe real electrical faults on a scale model powerdistribution system. A TNA has the main elements of a section of the commercial electrical grid,such as lines, sources, transformers, loads, instrumentation, and protection. There is a significantdegree of flexibility for interconnection and instrumentation. Appropriate scaling of voltages,currents, impedances, and other quantities permit its behavior to safely mimic the
requirements. Construction industry today ismoving to fully integrated/automated project processes. This has caused outsourcing, alliances,contractor consolidation, and experimentation. These events present both challenges andopportunities for the construction community. This article highlights the existing and futureissues and challenges for the construction industry from the perspective of trends and newtechnology development. The authors have explained qualitatively what steps industry shouldtake to minimize these future challenges. The paper describes the role of management,technology, clients, industry and academia to address the challenges. This paper also identifiesthe qualities or abilities construction students should achieve during their
Matlab/Simulink, a required software for the EE undergraduate curriculum. A series of lab sessions are introduced to the class to complement the lecture materials and to guide the students into the design project. The use of animation provides many advantages: better visual effects, improved communications, and higher interest levels. Student response has been very positive. A number of recommendations are made in this work based on instructor observation and course evaluations.(I) IntroductionSystem analysis is a multidisciplinary subject encompassing all fields of engineering applications.However, the traditional treatment (in the sense of teaching pedagogy) of this subject tends to behighly
. The question that every engineering program has to answer is “whichone of these languages is appropriate for a freshman engineering programming course?”In order to use the object-oriented capabilities of Java and C++ and develop aninteresting project, students have to go through a long period of instructions, which oftencannot be done in one semester. In fact, we may end up losing students. Retention ofengineering freshman is a critical issue in most engineering programs.Visual Basic (VB) is an attractive alternative to C++ or Java. VB, with its ControlObjects, makes computer programming a very interesting subject. In fact, it helps thestudents like programming. With a few weeks of instruction, students can developsophisticated programs with
c American Society for Engineering Education, 2011 Providing International Experience through Studying Abroad for Engineering Technology StudentsIn 2004 we began an investigation to provide international experience for engineeringtechnology students at Indiana University Purdue University Fort Wayne (IPFW) thatwas currently not available. The original plan was to have a small group of students go toKuala Lumpur, Malaysia for six weeks to study with Malaysian students in a projectorientated course. This was planned for the summer of 2005. The project was actuallycompleted for the first time during 2006, and repeated again in 2007. A group of fourstudents from the Electrical and Computer Engineering Technology
setting and in one-on-one and small group sessions.Forming the foundation for engineering students’ research skills is a structured library instructionprogram during their freshman year. But between their freshman and senior years there is noclass required for all engineering students that integrates formal library instruction. For thisreason, by the time they arrive at their senior design projects, students have often forgotten theirresearch skills. Additionally, the library’s electronic resources collection is constantly becomingmore exhaustive, leading to ever increasing challenges in instructing students in informationskills. During the three or four years between receiving formal library instruction, studentssimply fall behind.Drexel’s
objectives for a Materials Engineering course were established using principles ofcourse design from Fink [1]. In Fink’s taxonomy, six different types of course objectives arepossible. The different types include that of Foundational Knowledge, Application, Integration,Human Dimensions, Caring and Learning How to Learn. According to Fink’s model for coursedesign, a course should also include a Rich Learning Experience [1], or project, which addressesmore than one course objective. The paper will discuss the changes that were made to the courseand the approach to course re-design to allow for new course objectives. Assessment data forseveral of the objectives from two sections of the course will be presented. The course includesan audio podcast
computer-aided draftsman at Powerex, Inc., a project engineering at Stanko Products, a Process Engineer at Ami-Doduco, Inc., and a Project Engineer and Team Leader at Classic Industries, Inc., in Latrobe, Penn. Nitterright’s employment at Behrend commenced in 1999.Robert Michael, Pennsylvania State University, Behrend Robert J. Michael, P.E. and Senior Lecturer for the School of Engineering at Penn State, Behrend, ob- tained his B.S. degree from Akron University, where he graduated summa cum laude, and his M.S. degree from Case Western University. Michael is currently working towards his doctorate in mechanical and aerospace engineering at Case Western Reserve. He joined the faculty at Penn State, Behrend, in the fall
countries. Capstone design is a good startingplace for faculty collaboration and synchronization, because it reflects and assembles allthe features of the curricula in different educational systems across a large number ofcountries.The authors have many years of combined teaching experience in two differenteducational systems and have launched collaborative and synchronous teaching of acapstone design course in the United States and China since 2010. The same designtopics have been offered to student teams in the two collaborating schools. Based on thestudents’ learning experience and performance in the finished projects, the majordifferences in the two systems are significant. For example, American students putmore effort into creativity, team
. Joseph A. Morgan, Texas A&M University Joseph A. Morgan has more than 20 years of military and industry experience in electronics and telecom- munications systems engineering. He joined the Engineering Technology and Industrial Distribution De- partment in 1989 and has served as the Program Director of the Electronics and Telecommunications programs and as the Associate Department Head for Operations. He received his B.S. degree in electrical engineering (1975) from California State University, Sacramento, and his M.S. (1980) and D.E. (1983) de- grees in industrial engineering from Texas A&M University. His education and research interests include project management, innovation and entrepreneurship, and
paper introduces the concept of service learning, illustrates how a servicelearning strategy has been incorporated into the design project component of the course, andprovides an assessment of the impact on student motivation/commitment and attainment oflearning objectives.I. Introduction: A Challenge in Teaching Concurrent EngineeringThe Department of Industrial Engineering and Management Systems has offered EIN 6399Concurrent Engineering to students at the University of Central Florida since 1993. Armacostand Mullens1 describe the course, including the rationale for teaching concurrent engineering, theteaching/learning approach used in the course and a detailed syllabus. The objective of thecourse is to familiarize students with the
and interact with ProtoThinker. The following examples illustrate thetypes of arguments students are expected to evaluate successfully.Categorical Reasoning:Categorical logic deals with inferences involving classes of objects. Example:ARGUMENT: Anyone who is an experienced engineer is a reliable employee, and at least oneperson who is working on the software project is an experienced engineer. Therefore, at leastone person who is a reliable employee is working on the software project.FACTS: No one who is a reliable employee is working on the software project. Everyone whois a reliable employee is an experienced engineer.EVALUATION: The argument is:(A) Valid but not sound(B) Valid but possibly unsound(C) Both invalid and unsound(D
68HC11 microcontroller is used toteach assembly language programming and to introduce the use of embedded microcontrollers insystem design. One of the most common challenges for educators who teach this type of courseis covering all desirable hardware and software concepts in a single semester. To help remedythis situation, we recently redesigned the course so each student must complete a single mobilerobot project with multiple “subsystem labs” replacing the previously unrelated lab sequence.We believe this more integrated approach improves the course for both educators and studentswhile facilitating the development of a systems design methodology. INTRODUCTIONTypically, a microcomputer assembly language
. It is a project-based activity where thestudents are organised into teams, spanning all three years of the students’ undergraduatestudies. The project acts as an integrating theme through a course module entitled “TotalDesign”, and requires the students to acquire a number of transferable skills. Theseinclude information gathering, report writing, presentation skills, time management,project planning, teamwork, and managing meetings. This paper describes the year onyear structure of the PAMS project, and the acquisition of the mentioned transferableskills, with particular reference to team working, and the subsequent implications for thestudents as they enter industry on graduation.I. IntroductionThe School of Manufacturing and Mechanical
Director for the Engineering Plus program. She has served as the Associate Chair for UndergraduateDr. Joseph Polman Polman Joe Polman is a Professor of Learning Sciences and Science Education, as well as Associate Dean for Research, in the School of Education at University of Colorado Boulder. He designs and studies project-based learning environments for youth in schools andProf. Michael Hannigan Michael P. Hannigan is an Associate Professor in the University of Colorado’s Department of Mechanical Engineering. He holds a B.S. in Civil Engineering from Southern Methodist University and a M.S. and Ph.D. in Environmental Engineering Science from Calt ©American Society for Engineering Education
AC 2011-1270: INTEGRATION OF SYSTEMS ENGINEERING TRAIN-ING MODULES INTO CAPSTONE COURSES ACROSS COLLEGE OFENGINEERING DEPARTMENTSDean Walton Pichette, Wayne State University DEAN PICHETTE Senior Lecturer Department of Industrial & Systems Engineering TEACHING INTERESTS Systems Engineering, Project/Program Management, Engineering Economics & Lifecycle Costing, Introduction to Design PROFESSIONAL PREPARATION 1995 MS Electronics and Computer Control Systems. Wayne State University, Detroit, MI 1990 MBA Business Administration, Michigan State University, East Lansing, MI 1972 BS Electrical Engineering, Michigan State University, East Lansing, MI PROFESSIONAL EXPERIENCE 2007 Present Wayne State University
whatactivities current practicing engineers are engaged in and what tools they use in the workplace.How those activities have changed over time will provide insight into how to properly trainstudents to be lifelong learners. To assist with this effort, this work undertook a survey of arepresentative group of practicing engineers. The link for a web-based survey was sent to achapter of the Society of Manufacturing Engineers. In addition to demographic and employerinformation, details regarding work-related activities and how those activities have changed overtime was requested. Additional information regarding the tools used by the respondingpracticing engineers was also collected.Survey results show design, manufacturing engineering, and project
) printer, which enables students tosee their designs come to life by creating a functional ABS plastic model directly from designfiles. Additionally, a large-format printer allows students to create posters and CAD drawings informats up to 42 inches wide. To aid in the development of communication projects, the Studiooffers a wide range of audio-visual resources for student checkout. These resources include stilland video cameras, wireless and corded microphone systems, and highly portable projectors andprojection screens.The campus-wide CxC program and the Studio comprise a sustained support system forengineering students and faculty. This has contributed to enthusiastic acceptance ofprogrammatic changes by both faculty and students and helped