variety of “publics” can be affected in different ways. 2. Competence of engineers – Ensuring professionals are only working in their areas of competence in an environment where engineering projects rely on the collaborative effort of interdisciplinary teams of engineers. 3. Communication - Ensuring honesty across various cultures with different languages and communication practices. 4. Avoidance of conflicts of interest or unfair competition – Ensuring that an engineer’s merit and judgment are not influenced by external factors that change the intentions of their professional duties, regardless of locally acceptable social practices. 5. Interpretation of confidentiality – Ensuring the explicit protection of
involved in the learning process taking place inthe classroom, as opposed to the teacher centric traditional lectures. Engineering faculty havelong been using such approaches in many of our courses, for example in courses which includeexperimental laboratories and projects. This initiative has prompted us to focus more consciouslyon the effect of teaching on, and the assessment of student learning. This paper will discuss avariety of design projects we are using throughout the curriculum in the Mechanical Engineeringprogram before the Senior Design Project, how they fit with the Learner Centered Instructioninitiative, as well as how they support the Program Outcomes and Program EducationalObjectives of our ABET accredited program.Projects from
AC 2012-3693: EMBEDDING RENEWABLE ENERGY AND SUSTAINABIL-ITY INTO THE ENGINEERING TECHNOLOGY CURRICULADr. Radian G. Belu, Drexel University Radian Belu is Assistant Professor within the Engineering Technology (ET) program, Drexel University, Philadelphia, USA. He is holding the second position as Research Assistant Professor at Desert Research Institute, Renewable Energy Center, Reno, Nev. Before joining to Drexel University, Belu held faculty and research positions at universities and research institutes in Romania, Canada, and the United States. He also worked for several years in industry as a project manager and senior consultant. He has taught and developed undergraduate and graduate courses in electronics
undergraduateeducation, and (3) to foster professional development for careers or graduate education. Thesegoals are realized through the students’ shared interactions within the SEECS seminar.Students awarded SEECS scholarships are required to attend a seminar where specificdevelopment and learning outcomes are realized in a team-based, project-based approach. Thechallenging and engaging aspect of the SEECS program is this zero-credit seminar. The SEECSseminar is structured around three components: engineering design, professional development,and personal development.While the two development facets are valued, the engineering design component is the pivotalexperience connecting and building not only engineering competency but also personalconfidence
AC 2012-3868: CIVIL ENGINEERING CAPSTONE CONSULTANTS: FROMRFP TO REALITYMr. William P. Manion, University of Maine William P. Manion, M.S., P.E., is an instructor in civil and environmental engineering at the University of Maine in Orono. He has taught courses in materials, soil mechanics, computer applications, graphics, and project management since 1998. He has also performed laboratory research, worked for a heavy earthwork construction company, captained charter boats, and managed a land development project. Al- ways interested in new effective teaching strategies, he employs many different pedagogical methods and techniques.Ms. Judith A. Hakola, University of Maine
capstone design course. The freshman courseintroduces students to the process skills associated with engineering design. Emphasis is on teamwork, communications skills, and computer-aided analytical tools. Activities include prototypebuilding and testing with industrial collaboration. As students complete this course beforechoosing a major in the College of Engineering, the technical content is general and does notfocus on a particular engineering discipline. In contrast, the senior capstone design courserequires students to apply the tools acquired in both required courses and technical electiveswithin our department. By blending professional engineering topics and project activity, theexisting capstone design course dilutes both these components
developing countries. He also writes and does research in the areas of engineering ethics and engineering education.Edmond John Dougherty, Villanova University Edmond John Dougherty is a graduate of Villanova and Drexel universities. He is the Director of the Engineering Entrepreneurship program at Villanova University. He is also President of Ablaze Develop- ment Corp and a Founder of Wavecam Media. Ablaze provides electronic and software product design services. Wavecam designs, produces, and operates a number of aerial remote camera systems for sports and entertainment. He specializes in product design, engineering project management, artificial intelli- gence, and creativity. He was a key part of a team that won an
circuit design and testing with projects in high-speed data communication systems with special emphasis on clock and data I/O circuits. She also works on characterization and modeling of carbon nanotubes as interconnect material. She is currently branching into curriculum and research development in electronic instrumentation for bioengineering and power electronics for renewable energy systems. She is the Advisor of the IEEE and the Engineers With- out Borders (EWB) student chapters at SCU. She has a strong interest in engineering education and is involved in several community-based activities to increase the participation of underrepresented groups in engineering.Dr. Tonya Lynn Nilsson P.E., Santa Clara University
. He joined UC on Aug. 15, 2000, and before that worked 22 years at University of Oklahoma. He teaches structural engineering, with research in ex- perimental and finite element analysis of structures. He has won five major university teaching awards, two Professorships, two national ASEE teaching awards, and is internationally recognized in his primary research field.Dr. Catherine Maltbie, University of Cincinnati Catherine Maltbie (Research Associate, UC Evaluation Services Center [ESC]) has a doctorate in educa- tional foundations with a specialization in social and cognitive aspects of education and a bachelor’s of science in chemical engineering. Maltbie has coordinated evaluations for numerous projects related
c American Society for Engineering Education, 2012 Development and Implementation of an Industry Sponsored Construction Management Capstone CourseIntroductionCapstone courses have been used by construction programs to prepare graduates for thechallenges and realities of the construction industry.1,2At Texas State University-San Marcos, acapstone course for construction science and management (CSM) majors has been taught for thepast decade. This course had been evolving over this period. Initially, the course entailedstudents completing a “real world” residential project outside the campus. Students were largelyinvolved in the physical aspects of the construction process. However, owing to legal
AC 2012-3588: A VERSATILE PLATFORM FOR TEACHING MECHA-TRONICSDr. Thomas R. Consi, University of Wisconsin, Milwaukee Thomas R. Consi is an Assistant Professor at the University of Wisconsin, Milwaukee, with a joint ap- pointment in the School of Freshwater Sciences and the Department of Mechanical Engineering. His researches focuses on the development of new and novel marine robots designed to operate in challenging environments. He is also keenly interested in engineering education and involves many UWM engineer- ing undergraduates in his research projects as well as teaches mechatronics in the UWM Department of Mechanical Engineering
for accessibility, and engineering design education.Dr. Olga Pierrakos, James Madison University Olga Pierrakos is an Associate Professor and founding faculty member in the School of Engineering, which is graduating its inaugural class May 2012, at James Madison University. Pierrakos holds a B.S. in engineering science and mechanics, an M.S. in engineering mechanics, and a Ph.D. in biomedical en- gineering from Virginia Tech. Her interests in engineering education research center around recruitment and retention, engineering design instruction and methodology, learning through service (NSF EFELTS project), understanding engineering students through the lens of identity theory (NSF BRIGE grant), advancing problem
cross-departmental collaboration. The hands-on robotic design project is introduced in the capstonecourses to teach interconnected STEM concepts. This type of project, which has proven veryeffective in engaging students, is used in many areas of technical courses as hands-on activitiesand demonstration and, in addition, lab work. Additionally, the focus of robotic project is onhardware/software interface, data communication, electrical circuits, and mechanisms whichreflect actual engineering activities in a company. These areas provide a tight integration ofmany STEM concepts and activities for capstone course. In general, the capstone course is aparent course that has inherited the knowledge of many feeder (pre-requisite) courses, and
. This is due to the emphasis onearly prototyping, quick feedback and incremental development. It still might not be thefavorable method for use in large scale industrial development projects where formalprocedures might still be preferred, but the pedagogical advantages in mechatronics educationare valuable. Incremental development and rapid prototyping for example gives manyopportunities to reflect and improve. The Scrum focus on self-organizing teams also providesa platform to practice project organization, by empowering students to take responsibility forthe product development process.Among the results of this study, it is shown that it is possible and favorable to integrate Scrumin a mechatronics capstone course and that this can enhance
AC 2012-4588: USING A CAMPUS-WIDE COMMUNITY OF PRACTICETO SUPPORT K-12 ENGINEERING OUTREACHMrs. Tracey Louise Collins, North Carolina State University Tracey Collins is the Project Coordinator for the MISO Project. Responsibilities include implementing activities of the project, coordinating efforts among K-12 science, technology, engineering, and math- ematics (STEM) outreach programs, and working closely with university enrollment management and data management professionals at the Friday Institute. She works closely with large and small STEM outreach groups like the Science House, the Kenan Fellows Program, and the Engineering Place, as well as small, individual-PI groups offering K-12 outreach to teachers and
the National Environmental Engineering Research Institute (NEERI) in Nagpur, India where she worked on biodegradation of azo dye intermediates. Jablonski served as Co-chair of UWM’s student chapter of Engineers Without Borders for two years since its inception in 2007 and continues to help design and implement water distribution projects in Guatemala. Jablonski was a 2008 recipient of the NSF Graduate Fellowship Honorable Mention, the 2008 Wisconsin Water Association Scholarship, and the 2007, 2008, 2009, 2010, and 2011 UWM Chancellor’s Graduate Student Awards. Marissa is a member of ASEE and EWB. She received her B.S. degree in natural resources and Spanish from the University of Wisconsin, Stevens Point, in 2003
teaching, students become self-motivatedlearners.Being in a self-motivated learning atmosphere enables students to develop strong professional skills. Ways in whichthe IRE model promotes professionalism are: practicing professionalism, practicing teamwork, and working alongside peers and superiors.Practicing everyday professionalism that one would experience in the work place. Including social aspects, 40-hourworkweeks, business attire, and every day ethics.Practicing teamwork on teams of multi-disciplined engineering students. This allows students to gain differentperspectives of a shared focusWorking along side peers and superiors. Students are members of semester long project teams that are led byfaculty mentors.Freedom within this program
serves as the primary point of contact for external organizations who wish to engage Rose-Hulman Institute of Technology through the Rose-Hulman Ventures (RHV) program. Landess is responsible for the business development function at RHV; initiating new client relationships, negotiat- ing engineering contracts, and directing programs of projects where teams of faculty members, project managers, engineers, technicians, and interns develop new products for RHV clients. Landess earned both his B.S. and M.S. degrees in electrical engineering from Rose-Hulman Institute of Technology. He has 16 years of work experience. Landess’s industrial background is alternative fuel gasification, cryo- genic air separation, and power
. 2006 to Aug. 2009.Dr. John Hildreth, University of North Carolina, Charlotte Page 25.263.1 c American Society for Engineering Education, 2012BIMing Construction Engineering Curricula Page 25.263.2AbstractBuilding Information Modeling (BIM) has been used by various construction engineering (ConE)programs to fulfill the Body of Knowledge (BOK) requirements, such as cost estimating,construction scheduling and control, project administration, and contract documents. Currently anumber of BIM software packages are available to ConE educators. However, guidance to
of the Food Science and Technology Ph.D. program. The teaching, research, and outreach activities of this program focus on the safety and quality of poultry, seafood, and produce. Schwarz is focusing his research and teaching activities on food processing, food safety, and food defense. Schwarz received a M.S. degree in food engineering from Hohenheim University, Stuttgart, Germany, and a Ph.D. in food science and technology from Cornell University, Ithaca, N.Y. Prior to his academic career, he worked as a Project Manager in the Technical Research Department at a General Foods subsidiary in Bremen, Germany, on product and process development projects.Dr. Lurline Marsh
AC 2012-4616: PROFESSIONAL DEVELOPMENT FOR SOPHOMOREENGINEERING STUDENTSDr. Edward F. Glynn P.E., Villanova University Ed Glynn is an Assistant Professor in the Department of Civil and Environmental Engineering at Villanova University.Prof. Frank E. Falcone, Villanova University Page 25.1074.1 c American Society for Engineering Education, 2012 Professional Development for Sophomore Engineering StudentsAbstractThe development of project management skills and interaction with the regional professionalengineering community are integral parts of Civil Engineering Fundamentals, a required
others. A national panel of 30 engineering education andevaluation professionals has called for a national resource to enable effective evaluation ofengineering education projects. This paper reports on the process and framework for creating alibrary of superior evaluation instruments, the ASSESS system, that supports scholarlyinnovation in engineering education. The overarching goal of the ASSESS project is to createand test the system, and engage the user community to position ASSESS resources for successfuladoption and implementation. The project seeks to disseminate evaluation instruments and tobuild the evaluation capacity of the engineering education community for more effectiveevaluation of engineering education development projects.A
follows:The logistics and challenges of the last years competitions at the Technical University of Cluj-Napoca (TUCN), Romania and Rose Hulman Institute of Technology (RHIT), Indiana, USA; thesection presents the criteria the organizers used for evaluation of the projects and the methods ofmotivating students into participating in the competitions. It also analyses the growth of thenumber of participants, their affiliation with universities and majors and their orientation towardsdifferent technologies (HDL programming or basic C language usage).The first contest experience at the Sir Padampat Singhania University, Udaipur, India and Indiaand Tsing Hua University, Beijing, China; presents the logistics of the first editions held in Indiaand China
water and stormwater quality improvement. Page 25.288.1 c American Society for Engineering Education, 2012 Case Study Incorporating Service-Learning in Statics and Dynamics Sequence Courses – The Wheelchair Ramp Design/BuildAbstractThis paper describes how one service-learning project was incorporated and improved throughtwo sequenced courses, Engineering Statics and Dynamics, in a small school with limitedresources and smaller classes.The benefits of service-learning are well documented so including a service-learning componentin engineering courses is a logical educational extension
-learning context, the intention was to emphasize service, however academic demands dominated.Because of the hands-on design-and-build curriculum, the instructors felt that students couldperform effectively as engineers without additional “academic” material overhead. Thus, muchof the documentation requirements were curtailed.When the requirements eased, student passion returned; yet, the instructors soon discovered thatwith this excitement came reduced project performance. Though the faculty was teaching thedesign process and engaged students with multiple projects throughout the curriculum, studentshad not effectively learned how to develop project requirements and specifications. Therefore,the instructors revamped the approach and implemented a
AC 2012-4251: INTEGRATING SUSTAINABILITY ACROSS THE CUR-RICULUM: ENGINEERING SUSTAINABLE ENGINEERSDr. Melanie L. Sattler, University of Texas, Arlington Melanie Sattler serves as an Associate Professor at the University of Texas, Arlington, where she teaches courses and conducts research related to air quality and sustainable energy. Her research has been spon- sored by the National Science Foundation, Texas Commission on Environmental Quality, Luminant Power, and the Defense Advanced Research Projects Agency. She has published more than 60 peer- reviewed papers and conference proceedings. In 2010, she received UT, Arlington’s Lockheed Martin Award for Excellence in Engineering Teaching. She is a registered
techniquessetting. The case compares alternative deliveries for a traditional linear instructor based trainingto that of computer aided, peer learning, and performance based holistic approach. Prototype ¼scale designs are first developed. The “Framing Cube” drawings themselves are schematic butprovide enough detail and notes for the students to complete the project with the aid of coursematerial, applicable building code, and three-dimensional modeling tools. Students are dividedinto groups to capture and evaluate their learning experience, project execution, and problemsolving experience. These student groups are divided into traditional wood framing materialonly and three dimensional modeling aided groups. The outcomes evaluate the use, acceptance,and
college of engineering has been offering a minorprogram in microsystems and nanotechnology. This has recently been upgraded to a major.Concurrently, efforts are underway to introduce this new field in existing courses, so as to enticestudent’s interest. This study deals with creating a nanotechnology module in our course inEngineering Economy. A typical course work in engineering economy includes employingvaluation tools and benefit-cost analysis (among many others) to study the financial feasibility ofengineering projects. Unfortunately, for projects involving nanotechnology, the finances aremainly speculative since commercial applications of nanotechnology are mainly at its infancy.Hence, we targeted small and medium enterprises (SME’s) dealing
, free online learning environment that supports studentsthrough engineering design projects designed to improve science, technology, engineering, andmath (STEM) learning in middle and high school classes. WISEngineering builds from aninformed engineering design pedagogy, knowledge integration learning framework and the open-source Web-based Inquiry Science Environment technologies. WISEngineering uses engineeringdesign modules to facilitate engineering habits of mind such as systems thinking, creativity,optimism, collaboration as well as standard-based mathematics and science concepts. In thesemodules, students use CAD technologies and digital fabrication to create, build, and refine theirdesigns. The environment leverages technologies such as
the possibility of Engineering Projects inCommunity Service (EPICS) as a transitional experience to engender global competency amongengineering students. The curricular-based model of EPICS supports vertically-integrated, multi-disciplinary, engineering service-learning projects at a Purdue University. Historically, thislong-standing program has paired student design teams with local, community partners. In thispaper, we document how these partnerships have been expanded to global communities, and howthe current curriculum, in both local and global contexts, can be used to engender globalcompetency in engineering students. We consider the efficacy of EPICS to engender global