system has served as a key component in our K-12 outreach program, our freshman chemical engineering classes and as a means for engagingour chemical engineering students in service learning activities.This integration of activities, all surrounding the LEGO™ Robotics system (coupled to Vernier®sensors and probes and “in house”-designed apparatus) has engaged students at all levels, frommiddle school through chemical engineering seniors in an exciting, “studio-based” environment.Anecdotal evidence suggests students readily “latching onto” key concepts and various aspectsof engineering through this “multi-modal” learning approach. Objectives of this method ofprogram integration include: 1) strengthened recruiting of students to engineering studies
Engineering Service Learning Course with a High School Robotics TeamAbstractThrough service learning, both students and community partners help fulfill each other’s needs.A robotics service-learning course teaches the principles of robotics through hands-on activitiesand requires each student to participate in mentoring high school robotics team. Through theserelationships, students gain a deeper understanding of the principles of robotics from theclassroom, through teaching those principles to others and helping their mentored team solveproblems. Students gain an appreciation for, and capability to, inspire younger generations toengage in STEM activities.The course integrates STEM outreach into the engineering curriculum as a major
the model (Figure 7), represents curriculum design, whichincludes the course structure and content. This bar carries the two outcomes to students and linksthe goals to the framework. A strong curriculum that integrates all the previous factors well, isrequired for any successful engineering education.On a student’s perspective, an effective design-based curriculum involves a strong integration ofengineering theory and provision of context, as they are discussed in this model. It is difficult tolearn abstract concepts, especially within the first few years of study, when the rationale isunclear. The authors propose that the curriculums should further involve focus on developingappreciation and rehearsal of the engineering practice. Students
globally interconnected engineering landscape.• This course stepped away from the traditional engineering curriculum, which is rigorous and technical, and instead focused on the bigger picture— what it means to be an engineer.• This course is symbolic of the stepping stone all engineers in today’s world need to base themselves on when solving problems.Conclusions“Engineering for Social Change” is a unique undergraduate course that combines engineering andphilanthropy and allows students to take a leadership role as both investigator and grantor of theNeilom Engineering for Social Change Grant. Throughout this course more than two hundred non-profit organizations have been contacted, and four grants have been awarded through the NeilomFoundation
impotence that low results generate. All thisadds up to the fact that researchers frequently made contributions from very distant places towhere most urgent needs.'Corporación Universitaria Minuto de Dios-UNIMINUTO is a higher education institution,whose mission is to provide quality education and serve populations of the lowest socio-economic level. This institutional mission implies that an important percentage of studentshave specific characteristics, including low academic level in mathematics and languageskills. That is the case of engineering students, who have several courses in basic sciences aspart of their academic curriculum. The course called 'Pre-calculus' is part of the curriculumof all engineering programs, and it registers low
creativity of student project proposals. Because of this addition, andthe added stipulation that pantries identify a problem for students to work on ahead of time, weare expecting to see higher levels of student and agency motivation and engagement. With thismonetary award at stake, we also anticipate an improvement in the quality of this year’s projectproposals.References[1] R. G. Bringle and J. A. Hatcher, “A service-learning curriculum for faculty,” Michigan Journal of Community Service Learning, pp. 112-122, 1995.[2] S. J. Peterson and M. J. Schaffer, “Service learning: A strategy to develop group collaboration and research skills,” Journal of Nursing Education, vol. 38, no. 5, pp. 208-214, 1999.[3] C. I. Celio, J. Durlak, and A
reconnect with their children in a positive way upon their release. We have some pre-planned assignments, such as a moon weight calculator which asks for auser’s weight on earth and calculates his or her weight on the moon. We also build flexibilityinto the curriculum, incorporating student ideas whenever possible. For example, after workingon the moon weight calculator program, a student said “I wonder if we could use the same ideato come up with a sentencing calculator?”. The sentencing calculator involved accepting as input(a) an initial sentence duaration, (b) eligibility for “half time” and (c) if you were good and gotyour 10% “kick”. This program was exciting to create because we hadn’t yet discussed “if”statements. We had to work around
related to the conception and institutionalization of a minor in engaged engineering. c American Society for Engineering Education, 2020 Building Community Engaged Programs in Curriculum - A Short Review of Brazilian ApproachesIntroductionEngineering schools have established a variety of ways of how community engagementprograms (CEP) are built into curriculum [1]. But what are the conditions for establishing CEP inengineering schools? And how can we explain the different ways in which CEP programsthrive? From the perspective of the social systems theory, there is an interplay in the dimensionsof constraints (structural coercion), free choices, and contingencies, allowing actors a set ofoptions
provide background or context for the project, or in a small number of cases, direct data collection, analysis and testing. 3. through a dedicated for-credit course. Students can undertake the Summit to contribute to the EfaHC course. Students complete one and a half days of workshops and three assignments before the Summit, with an additional day workshop and three assignments upon returning from the Summit.Table 1: Assessment tasks for the curriculum integration options for EWB Summits.Option Assessment DueWork • Summative 5-page work experience • once all 12 weeks of workExperience report summarising work completed. experience completed by
Paper ID #18668A Methodology to Model the Integrated Nature of the Sustainable Develop-ment Goals: Importance for Engineering EducationMr. David Zelinka, University of Colorado, Boulder David Zelinka was part of the first official graduating class from Purdue University’s Environmental and Ecological Engineering Program. In his final year, he passed his FE exam focusing in environmental engineering. Following, he completed his MS in Civil Engineering at the University of Colorado Denver in the Environmental and Sustainability Engineering program with his thesis focusing on an environmental impact assessment of the
extensive network of professionals and students engaged incommunities in developing countries. It has created successful models for mentoring withprofessionals and students to address real community needs. It has extensive expertise indeveloping community partnerships and appropriate solutions and has become one of the mostpervasive engineering organizations with student chapters on over 200 campuses. EWB-USAprojects are almost exclusively outside of the curriculum. One of the reasons for this is theemphasis on student leadership and ownership which is traditionally challenging to achieve in acourse.This project is a pilot project where the EWB-USA student chapter is integrated with EPICS togive students academic credit that can be counted toward
STEM and coaches a robotics team comprised of girls from 22 high schools. Shoshanah holds a BS in Industrial Engineering from Stanford, an MA in Technology Strategy from Boston University, and an MBA from Harvard Business School.Mr. Jeff Wood, Stanford University Goal: Make a difference in the world, through development and training of engineers to solve the most pressing problems facing the world today. ME Capstone Course and Lab Project Development Director Jeff is the ME Capstone Course and Lab Projects Development Director at Stanford, where he brings his 25-year industry experience to the role. He is responsible for the ongoing strategy, design, curriculum plan and instruction plans for capstone courses
Paper ID #26355Board 19: Impacts of Engineering Justice Curriculum: A Survey of StudentAttitudesDr. Tina Lee, University of Wisconsin-Stout Dr. Tina Lee is an Associate Professor of Anthropology and the Program Director for the Applied Social Science Program at the University of Wisconsin-Stout.Dr. Elizabeth Anne Buchanan, University of Wisconsin-Stout Elizabeth Buchanan is Endowed Chair in Ethics and Acting Director, Office of Research and Sponsored Programs, at the University of Wisconsin-Stout.Dr. Devin R. Berg, University of Wisconsin-Stout Devin Berg is an Associate Professor and Program Director of the B.S. Mechanical
experiments, the wiring of sensors to amicrocontroller board and the open source program coding were all valuable learningexperience to students. As a result of the success of this activity, in supporting STEMeducation, made the local government initiate the process to include Space Education aspart of the curriculum initiatives. Keywords—HAB, STEM, Space Education, Open Source Hardware, Low Cost)I. INTRODUCTION In spite of the early creation of the Paraguayan Space Agency by congress in 2014, Law5151/14, [1] it didn’t start office up until 2017 by executive order Act 6466/17 and Act 7364/17.During this period of time, by initiative of academia, i.e. Facultad Politecnica UniversidadNacional de Asuncion (FPUNA), an attempt to conduct a near
, innovation space design, curricularprogram development, indigenous knowledge integration, greenhouse design and businessstrategy development. The low-cost innovation space will enable students and entrepreneurs todesign and create products that will add value to their daily lives and promote entrepreneurialendeavors. Universal connectors will be used in this innovation space for rapid prototyping oflocally-relevant technology products. An innovative science curriculum in the form of acertificate program for secondary school science teachers was developed. This curriculum willintegrate the innovation space into the formal education system and help sustain it. An affordablegreenhouse was prototyped and field-tested as a compelling example of a game
Paper ID #30993Engagement in Practice (EIP): Differences in Perceptions betweenEngineering and Art Students in an Interdisciplinary Service-LearningProjectDr. Yanjun Yan, Western Carolina University Yanjun Yan is an Associate Professor in Engineering and Technology at Western Carolina University. Her research interests include engineering education, swarm robotics, statistical signal processing, and swarm intelligence.Prof. Mary Anna LaFratta, School of Art and Design, Western Carolina University Mary Anna LaFratta is an artist, designer and design and arts educator in graphic design in the School of Art and Design at
suppliesand with E-Girl logistics (food, reserving rooms, etc.), and provided funding to expand theprogram to include more K-12 students. All the components mentioned in this section werecritical to the success of the model and to achieve the desired impact.The sustainability components discussed above were all developed and integrated during the firstyear of the program, and they were improved in the subsequent years. The CPP CoE students,faculty member, administrators and staff engaged in the different symbiotic program componentsto meet the program goals. The success of the complex collaboration was an important outcomeof the project. One of the recommendations for universities or colleges that would like to developa successful and sustainable
interesting and beneficial to have these existing global engineering challenges as part of theircourse curriculum. Efforts of SPEED India and IUCEE with respect to grand challenges will becontinuously monitored and measured.Reference:[1] David D Delaine. “The Student Platform for Engineering Education Development (SPEED) –Empowering the Global Engineer”, SEFI Annual Conference (2009), Rotterdam, Netherlands.[2] http://iucee.com/ Page 26.661.11[3] Rohit Kandakatla, Dhinesh Balaji Radhakrishnan, “Diversification in Engineering Educationthrough Indian Student Forum: An Experimentation Project in India“, 2014 World
://www.arduino.cc/) that are programmed with the Arduino IDE(Integrated Design Environment) for user-friendly interfaces. Commonly these boards are usedwith conductive paint that is applied with a brush to create an artistic drawing resulting in acircuit that reacts to human touch to trigger a user-specified sound or other actions. The team hascreated a sample design and used it at outreach activities, demonstrating that the Touch Boardswill be manageable for new learners under our students’ mentoring. The authors met with theFSF clients in Summer 2018 and have hosted the clients on campus to work with our studentsthree times in Spring 2019, with a few more meetings scheduled. The project will provide novelavenues of expression for the autistic clients and
Ph.D. in Physics (1998) from the University of California, Santa Barbara. He has been twice selected as a visiting ´ Chaire Joliot at the Ecole Sup´erieure de Physique et de Chimie Industrielles at Paris Tech and has orga- nized extended workshops on the physics of glasses and on friction, fracture and earthquakes at the Kavli Institute for Theoretical Physics. He has received several awards for his educational accomplishments, and in 2011 he received an award from the university’s Diversity Leadership Council for his work on LGBT inclusion. His education research focuses on integrating computation into the undergraduate core curriculum. Falk also serves as the lead investigator for STEM
PhilosophyThe overall assessment philosophy of EPICS is guided by two core values of EPICS. First,EPICS seeks to provide an educational experience that will prepare students for professional Page 23.151.3practice. Second, we seek to meet compelling human, environmental and community needs.The assessment processes are integrated into the curriculum and designed to create artifacts thatcan be assessed. A key concept in PBSL assessment is to utilize authentic project artifacts(papers, reports, notebooks, blogs, reflections, etc.) that can be assessed and used to demonstratestudent learning. Whenever possible, the assessments are integrated into processes
important part of the engineering curriculum in many institutionssince its introduction within engineering schools in the early 1990s. The newly formed ASEEcommunity on service-learning is further evidence of its importance and adoption.Moving beyond engagement with local communities and projects, an international or globalflavor is also evident in many service-learning projects. In many cases this interest has emergedout of engineering faculty members’ research efforts. Many faculty members in civil andenvironmental engineering, mechanical engineering, and other disciplines, are involved withresearch on global climate change, sustainability, and other global challenges. Several efforts inthe area are also being driven by researchers in areas such
onstudent major as well as integrate community assessment of the final outcome into the process. Our findings of a tentatively labeled “10 hour rule” will lend itself for further design anddevelopment of this experience which can help provide a more realistic expected participation andinvolvement level for students as well as more realistic student learning outcomes. We areoverwhelming surprised by how valuable students perceive the impact of such an extracurricularproject, specifically in regards to their major and positive impact on applying skills as well as use Page 26.1758.11and development of professional skill sets. While this project
internship at Kellogg’s, where she designed processes for applyingfrosting to one of their products. She helped create a cookie processing activity where studentswork in teams to create uniform cookies with many other student contributors. While the presentations and activities developed by the Ambassadors are still in use bythe College of Engineering, it has been difficult replicating the same enthusiasm that the studentsdemonstrated when the activities were first developed. They also did the minimum required toreceive the book stipend and were not reliable when it came to prolonged activities such asEngineering Day and Engineering Week at the University of Utah. The Ambassadors haveplayed an integral role in the development of activities and
Paper ID #22097Engagement in Practice: the Student Engagement Continuum (SEC) – Op-portunities and Challenges for a Sustainable Pipeline Enhancement Model atan Urban InstitutionDr. Gregory E. Triplett, Virginia Commonwealth University Triplett is a Professor and Associate Dean of Graduate Studies and Research at Virginia Commonwealth University (VCU). Triplett oversees all aspects of graduate engineering programs including curriculum de- velopment, student recruitment and matriculation, strategic planning, student funding, graduate research, and online education. Prior to being Associate Dean, Triplett was Director of
Paper ID #27451”Ingeniero como vos”: An analysis of the Mby´a-Guaran´ı Practices Associ-ated with Engineering DesignDr. Joel Alejandro Mejia, University of San Diego Dr. Joel Alejandro (Alex) Mejia is an assistant professor of Integrated Engineering at the University of San Diego. His current research investigates how the integration of the historically and culturally accumulated wealth of knowledge, skills, and practices - also known as funds of knowledge - and engineering design can serve as a pathway to and through engineering. Dr. Mejia is particularly interested in how Latinx adolescents bring forth unique ways of
City, UT. 2018.[5] K. Talbot, “Using Arduino to Design a Myoelectric Prosthetic,” 2014. [Online]. Available: http://digitalcommons.csbsju.edu/honors_theses/55/ [Accessed Jan. 10, 2019].[6] worldpopulationreview.com/us-cities/spokane-population/ [Accessed Feb. 1, 2019].[7] M. Yim, et. al., “A practice-integrated undergraduate curriculum in Mechanical Engineering,” in American Society for Engineering Education Annual Conference Proceedings, Pittsburgh, PA. 2008.
as pathways and retention to and through K-12 and undergraduate engineering, teacher education, and curriculum development. She is passionate about hands-on engineering design for every student, at every age level.Dr. Michael A Soltys, University of Colorado, Boulder Mike Soltys is an Instructor for the Engineering Plus degree program at at the University of Colorado. Mike is passionate about engineering education, and teaches engineering design in First-Year Engineering Projects (GEEN 1400), Engineering Projects for the Community (GEEN 2400), Statics (GEEN 3851), Thermodynamics (GEEN 3852) and Theoretical Fluid Mechanics (CVEN 3313). Mike is the co-PI for TeachEngineering, a curricular digital library with the
engineering programs but also on providing a serviceopportunity for our engineering students (Our students are required to accumulate 30 hours ofcommunity services as part of the graduation requirement). Over the last 10 years, thisengagement had gradually become an integral part of the engineering curriculum.Many universities around the country hosted math competitions for their local schools, typicallyby their math departments. Many institutions limited their involvement in offering the facilityonly and not much beyond that. The math competitions hosted by our institution were organizedby the College of Engineering. In addition to offering the facility, we were actively involved inrunning the competitions with our engineering students serving as
Professions. He and a team of ethicists have worked with different universities in the Latin American context on faculty development workshops for identifying issues in engineering ethics, developing course modules in this area, and designing curricular strategies for integrating ethics across the engineering curriculum. His publications cover moral psychology, moral pedagogy, and engineering ethics in Puerto Rico. Most recently, he has been working on the GREAT IDEA project, an NSF-funded project that explores research in appropriate technology and community development.Marcel J. Castro-Sitiriche, Department of Electrical and Computer Engineering, University of Puerto Rico- ¨Mayaguez Marcel J. Castro-Sitiriche is a