-Riddle Aeronautical UniversityMr. Matthew Charles Selkirk, Embry-Riddle Aeronautical University Page 25.693.1 c American Society for Engineering Education, 2012 High Tech High Touch: Lessons Learned from Project Haiti 2011Abstract – In this paper, we will share our experiences and lessons learned from a design projectfor providing clean water to a Haitian orphanage (Project Haiti 2011). Supported by funds from arenewable energy company and the university president’s office, five engineering students andtwo faculty members from Embry-Riddle Aeronautical
AC 2012-3805: SERVICE-BASED FIRST-YEAR ENGINEERING PROJECTS:DO THEY MAKE A DIFFERENCE?Dr. Malinda S. Zarske, University of Colorado, Boulder Malinda S. Zarske is the Director of K-12 Engineering Education at the University of Colorado Boulder’s College of Engineering and Applied Science. A former high school and middle school science and math teacher, she has advanced degrees in teaching secondary science from the Johns Hopkins University and in civil engineering from CU, Boulder. She is also a First-year Engineering Projects Instructor and on the development team for the TeachEngineering.org digital library. Her primary research interests are on the impacts of project-based service-learning on student identity
AC 2012-3941: LEARNING FROM WORKING ON OTHERS’ PROBLEMS:CASE STUDY OF AN INTERDISCIPLINARY PROJECT-BASED GLOBALSERVICE-LEARNING PROGRAMDr. Aditya Johri, Virginia Tech Aditya Johri is an Assistant Professor in the Department of Engineering Education at Virginia Tech. He studies the use of information and communication technologies (ICT) for learning and knowledge sharing, with a focus on cognition in informal environments. Sites of research include distributed work among globally dispersed workers and social development in emerging economies. His research is supported by several grants including a NSF Early Career Award.Prof. Akshay Sharma, Virginia Tech
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
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
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
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
. Page 25.887.1 c American Society for Engineering Education, 2012 Learning to Lead in a Global CommunityAbstractIn response to a growing desire for students to possess leadership skills upon entering theworkforce, an undergraduate cross-cultural, technological leadership institute was formed in2005. Students in the Institute, many of whom are engineering majors, learn and develop theirleadership abilities through a 25-credit certificate program.The curriculum allows students to explore leadership through coursework, interaction withindustry leaders, development and implementation of projects, completion of a five-weekinternational experience, and mentoring other students in the institute
1988, respectively. She has worked as a Manufacturing Engineer for the Norton Com- pany and Product Development Engineer for the Olin Corporation. She is currently Associate Professor of mechanical engineering at Worcester Polytechnic Institute, Co-director of the Assistive Technology Resource Center, and Director of the Melbourne Global Project Center. In the fall of 2001, she was in- vited as the Lise Meitner Visiting Professor, Department of Design Sciences, Lund Technical University, Lund, Sweden. Her primary teaching and course development responsibilities include undergraduate and graduate-level courses in computer-aided design, mechanical design, and rehabilitation engineering. She served as the Director of
two multidisciplinary service-learning programs: the Access by Design project that has capstone students design devices for people with dis- abilities to participate in adapted physical activity, and Organic Twittering that merges social media with sustainability.Dr. James M. Widmann, California Polytechnic State University Jim Widmann is a professor of mechanical engineering at California Polytechnic State University, San Luis Obispo. He received his Ph.D. in 1994 from Stanford University. Currently, he is a visiting Fulbright scholar at Kathmandu University in Nepal. He teaches mechanics and design courses. He conducts research in the areas of machine design, fluid power control, and engineering
?AbstractService-learning (S-L) has been integrated into an average of 30 engineering courses every yearsince 2004 in five undergraduate departments. Forty-three faculty members have tried S-L, overhalf the engineering faculty. In 2010-2011, 1267 students (out of an enrollment of 1600) engagedin S-L projects in 33 courses contributing an estimated 49,500 hours to the community. Thisapproach to trying to develop better engineers and more engaged citizens was motivated by thegrowing body of research showing widespread benefits of S-L, the meeting of academicobjectives through addressing real community needs in credit-bearing courses. But what do thestudents who are part of this program think about S-L? In this study surveys of student viewswere collected
engineering, is also Director of Michigan Tech’s D80 Center. D80 has the mission to develop contribution-based learning, research, and service opportunities for all students and staff to partner with the poorest 80% of humanity, together creating solutions that matter. As Director of several international programs at the undergraduate and graduate levels, Paterson, his colleagues, and his students have conducted numerous community-inspired research and design projects. Paterson is an educational innovator, recently adding courses for first-year students, Great Ideas, and graduate students, Discover Design Delight. At the intersection of these two fields, Pa- terson leads several national initiatives for learning
should be inherent in the engineering profession suchthat any project can be seen as service to a community. Academic institutions carry theresponsibility of teaching engineering students not only technical skills but also professionalskills that relate to social responsibility, such as an understanding of professional and ethicalresponsibility and of the global and societal impacts of engineering decisions. Teachingtechniques such as project-based service learning (PBSL) could increase a student’s awareness ofsocial responsibility due to the community engagement (typically with underserved populations)and the reflective aspect inherent in PBSL. This study presents pre-post data from an assessmentof engineering students’ development of social
school and at DC Prep, a high-performing urban public charter school. After completing her graduate work at Harvard University’s Graduate School of Education, Kay Sigler be- came involved in teacher support and training, working as a mentor teacher to new and veteran educators and developing a Resident Teacher program at DC Prep, and through the New Teacher Project and Mercy College in New York City, where she helped develop a residency-based master’s in education program for New York City Teaching Fellows. Kay Sigler’s work at Brown has focused on preparing secondary history/social studies teachers for urban classrooms. Kay Sigler currently works with schools to evaluate the way in which they are implementing best
. Page 25.1142.1 c American Society for Engineering Education, 2012 Scaffolding Undergraduate Engineering Design Education with the Wellbeing FrameworkIncreasingly engineering design educators articulate wanting to embed social sustainabilityinto student projects. Some educators observe that global calls, such as the Grand Challengesof Engineering and the Millennium Development Goals, foster social consciousness whilesupporting open innovation environments.1-4 Engineering design requires an ill-structuredproblem in a complex context.5, 6 Professors of engineering design use a range of tools
are to 1.) develop systems, design, and entrepreneurialthinking amongst secondary school students and their teachers, 2.) create an affordable,sustainable and replicable innovation space 3.) develop an innovative experiential sciencecurriculum 4.) integrate the indigenous knowledge of the host country into the science educationcurriculum and 5.) develop a sustainable method for building prototypes using universalconnectors.These objectives were operationalized in a Humanitarian Engineering and SocialEntrepreneurship (HESE) class that focuses on integrated engineering design, business strategyand implementation strategy development. Multidisciplinary student teams focused on severalaspects of the project including emergent integration
keep the student in TechPREP involved in STEM education.STEM Tech engages 7-9th grade girls in STEM Clubs by providing an after schoolprogram in their communities. The pedagogy of both programs is deeply rooted inservice-learning. All of the projects the students do are generated from the interestand focus on the environment and the community in which they live. Theprograms are supported by multiple community organizations, networks andcorporate sponsors.WISE has many partnerships that support its programs. Each provides animportant function that lends to their success. To get a full understanding of themagnitude of the WISE partners I have listed and given a short description on ofhow they support the WISE, TechPREP and STEM Tech students.The
AC 2012-3903: A COMPARATIVE ASSESSMENT OF GRADUATE VER-SUS UNDERGRADUATE STUDENT OUTCOMES VIA INTERNATIONALCOMMUNITY ENGAGEMENT PROGRAMSKristine Louise Guzak, Michigan Technological University Kristine Louise Guzak is a Ph.D. student of environmental engineering at Michigan Technological Univer- sity. She is the lead graduate student on a larger project assessing the impacts of learning through service on undergraduate students. Her research interests include engineering education with some focuses on international programs.Prof. Kurt Paterson P.E., Michigan Technological University Kurt Paterson, Associate Professor of Civil and Environmental Engineering, is also Director of Michigan Tech’s D80 Center. D80 has the