AC 2012-3829: OVERVIEW OF THE FIRST YEAR OF AN INNOVATIVESCIENCE EDUCATION AND ENTREPRENEURSHIP VENTUREMs. Kelsey B. Hatzell, Pennsylvania State University Kelsey B. Hatzell is a National Science Foundation Graduate Fellow studying material science for her doctoral studies. She received a bachelor’s of science degree in general engineering, and a bachelor’s of arts in economics from Swarthmore College. She also holds a master’s of science in mechanical engineering from the Pennsylvania State University.Marta C. Hatzell, Pennsylvania State University Marta C. Hatzell is a National Science Foundation Graduate Fellow studying mechanical engineering for her doctoral studies. She received a bachelor’s of science degree
Paper ID #29929Engagement in Practice: Establishing a Culture of Service-Learning inEngineering Orientation Classes at KSUDr. M. Loraine Lowder, Kennesaw State University M. Loraine Lowder is the Assistant Dean of Accreditation and Assessment at Kennesaw State Univer- sity. She received her B.S. in Mechanical Engineering, M.S. in Mechanical Engineering, and Ph.D. in Bioengineering from the Georgia Institute of Technology. Dr. Lowder’s research interests include image processing, computer-aided engineering, and cardiovascu- lar biomechanics. She is also interested in performing research in the area of the scholarship of
Paper ID #23916Regional Innovation Cluster: The Role of the Entrepreneurship as a Tool forClosing the Gap Between Engineering Education and the Challenges of theLocal Communities.Miss Diana Duarte, Distancia Cero Industrial Engineer and Master of Science in Industrial Engineering with emphasis in organizational man- agement from Universidad de los Andes Colombia. Her work experience is focused on research and project management with social and environmental impact in the educational context and the public sec- tor.Mr. David Leonardo Osorio, Distancia Cero Professor at Universidad Sergio Arboleda, Colombia. Professor at
Interests: 1. Social Innovation. 2. Social Appropriation of Knowledge. 3. Social Digital Entrepreneurship. 4. Green Business Management. 5. Innovation Education 6. Regional development c American Society for Engineering Education, 2018 Engagement in Practice: Co-creation process in higher education contexts to innovate in Pre-calculus curriculum Abstract In Colombia, Engineering Education faces some significant challenges. According to the 'Dropout Prevention and Analysis System' of the Ministry of Education, only 28% of engineering students complete their studies and graduate, and the national dropout rate for first-semester
for highschool students in rural areas of Sumapaz, Usme and Ciudad Bolivar [5], the last two areareas surrounding Sumapaz. Taking into account the characteristics of the Sumapaz region,the points of view of the people and the interests and possibilities of various faculties of theUniversidad Nacional de Colombia, five academic programs were chosen to be opened in thenew place in Sumapaz: Nursing, Agriculture Engineering, Agronomic Engineering,Zootechnics and Veterinary [6].The implementation of PEAMA Sumapaz program was made with a particular designcharacterized by some innovative elements for the institution: first, its interdisciplinary natureseeks to integrate students from five different programs who receive the same classes in thesame
for CECD’s Engineering for Social Change course since its inception, and in 2016 spearheaded an effort with the College of Southern Maryland to support a suc- cessful pilot program of a student-led social entrepreneurship course in the Business and Management Division.Dr. Dave K. Anand, University of Maryland, College Park c American Society for Engineering Education, 2018Engagement in Practice: Engineering for Social Change Course in Mechanical EngineeringEngineering for Social Change in the Center for Engineering Concepts Development at theUniversity of Maryland (UMD)The Engineering for Social Change (ESC) Program was developed within the Center forEngineering Concepts
. Clients arelargely non-for-profit community organizations or members and range from local fire fighters, K-12teachers, hospitals, and local farmers to people with disabilities or special needs. As the courseevolves in service of the local community, the list of clients grows. Most recently, severalengineering students in the course have sought their own clients based on personal interest andgraduates of the course have returned as clients for their entrepreneurial- and humanitarian centric-startups.BackgroundSimilar to other universities, CU Boulder has long-offered a first-year projects class, describedthrough previous research, that brings students from different disciplines, ethnicities, genders, andbackgrounds together through a semester-long
development, engineering education, product design for developing areas, and the utilization of renewable resources for the production of chemicals.Ms. Terri Christiansen Bateman , Brigham Young University Terri Bateman is adjunct faculty in the Brigham Young University College of Engineering and Technol- ogy where she has worked with Women in Engineering and Technology at BYU, numerous mechanical engineering capstone senior design teams, the Global Engineering Outreach class, and the Compliant Mechanisms Research Group. She received her bachelor’s and master’s degrees in Mechanical Engineer- ing from BYU and also worked at the Ford Motor Company as a manufacturing and design engineer in Automatic Transmission
assistant of the course INTD 6095 Responsible Research in Appropriate Technology- University of Puerto Rico- Mayaguez. Co-author: Bringing Responsible Research into Engineering Ethics: Respon- sible Research in Appropriate Technology. Her research interests include: media consumption trends, strategies for innovation and organizational change, appropriate technology and social entrepreneurship, strategies for the development of medium and small business.Mr. Davis Chacon-Hurtado Mr. Davis Chacon Hurtado just finished his Master of Science studies at the school of Civil Engineering and Surveying from the University of Puerto Rico, Mayaguez Campus. He is original from Cusco, Peru where he got his Bachelor degree in Civil
: Partnering with a Local Community in an Effort to Promote Revitalization Joan Kowalski, Assistant Teaching Professor, Department of Engineering Ruth Ann Herstek, Academic Advisor, Green Team Leader Penn State UniversityAbstractFive years ago, Penn State University developed a minor in sustainability with the first course inthe program entitled “SUST 200: Foundations of Leadership in Sustainability”. Although it is ageneral education course, the majority of the class at the New Kensington Campus consists ofengineering students. There is a community-based component required in this course. During thissame period of time, this campus has committed to investing in the surrounding
basis that they often reproduce colonial and globalisttendencies that ultimately undermine already-marginalized communities [1], [2]. For instance,Nieusma and Riley [2] use two case studies to illuminate ways in which problematic assumptionsabout technology’s role in community development can impede social justice goals. One casestudy examined a Product Entrepreneurship course in partnership with two Nicaraguanuniversities. Despite a strong faculty effort to frame the project educationally around processrather than product, emphasis on product prevailed as students’ preconceived assumptions aboutthe value of product over process were not challenged consistently enough, and structuralinfluences like funder interests reinforced the emphasis on
).A Socio-technical project-based learning model is currently used in a freshman-engineeringcourse. Contextualized design problems are assigned to engage students throughout the course.This freshman course involves understanding the overall aspects of engineering designprocess and the specific role of graphics and visualization at various stages ofengineering design. It is a required course for Civil, Mechanical and Aerospaceengineering students. Typically in each Spring and Fall this course attracts around 400students with a class size of 40. Successful completion of this course demands workingindependently on lecture activities, 3 hour lab activities every week throughout thesemester and working in a group environment for the final project
every college in the university and are part of theuniversity’s core curriculum (fulfilling the Science, Technology and Society requirement), as anoption for the Entrepreneurship Certificate and elective in the Leadership minors. The growth inrecent years has stretched the EPICS model, forcing new approaches. This paper shares theprocess used and lessons learned in scaling the successful community-engaged learning program.Scaling EPICSEnrollment in the EPICS courses at Purdue University grew from approximately from 40 in theinitial year, to 300 students per semester in 2007 and to nearly 600 students per semester in 2017(Error! Reference source not found.2). This growth stepped up significantly from the fall of2015 to the fall of 2016, and has
). Mr. McCune II, received his BS in Electrical Engineering from University at Buffalo in New York and his MBA in Entrepreneurship from Clemson University in South Carolina. He has prior certifications as an information technology specialist and in 6th-12th Mathematics. c American Society for Engineering Education, 2017 Engagement in Practice: University & K- 12 Partnership with Robotics Outreach1. Introduction In an effort to increase K-12 students’ interest and readiness for STEM careers, AlachuaCounty School District in Florida started an initiative in 2015 to introduce students to STEMthrough VEX robotics classes and/or clubs at every school
recommend having somebody with teaching and mentoring experience (e.g., graduate student, faculty member, or professional mentor) on site during the construction to ensure that students fully utilize all potential learning opportunities.Future OutlookBased upon the experience of working with the CU Boulder students on the Mathangenifootbridge, the need for a more structured educational experience was realized. Since completingthe project in 2019, EIA has developed short online asynchronous courses that more formallyteach students the design and construction process, rather than relying on an upper-class studentto pass along the knowledge. These courses formally teach the technical skills required tosuccessfully complete a
conduct an investigation of aproblem, and learning from each other, students were challenged to develop cultural competencyby operating in foreign settings while enhancing their technical knowledge.II. LTS Approach: Faculty had different strategies for how they approached LTS. For example,one respondent states: “So in the class, we deal with talking about the bottom up, we talk about underserved markets, we talk about social justice, we talk about resource consumption, we talk about sustainability, we talk about social entrepreneurship, we talk about financial sustainability. So we are talking about all these different issues and then we talk a little bit on that the technical aspects of how do you do the
Paper ID #5719Service-Learning as a Driving Force for Continuous Improvement in CCE1001, ”Introduction to Engineering Design”Dr. Edmund Tsang, Western Michigan University Edmund Tsang received a B.S. with distinction in Mechanical Engineering from University of Nebraska and a Ph.D. in Metallurgy from Iowa State University. Dr. Tsang’s current professional interests include integrating service-learning into engineering, social entrepreneurship, and student success and retention.Darrell G. Harden II, Michigan Department of Transportation Darrell Harden is the region planner for the Michigan Department of Transportation (MDOT
STEMemployment in all occupation types required a post-secondary degree. It is important that studentsare exposed and introduced to STEM content early on in the educational “pipeline” to ensure thatthey are interested in pursuing STEM-related degrees at the collegiate level. It is important tonote that while STEM exposure early on in the pipeline is important, it does not ensure that allstudents, in particular underrepresented minorities, will end up in a STEM related field. It isessential to take into account sociocultural factors that might affect and alter the journey throughthe pipeline for minority students 2 ; some of these factors might include unequal access to STEMopportunities and classes, as well as the White male stereotypical depiction of
. Other long-term Page 23.248.2service-learning practitioners in engineering include John Duffy(http://www.compact.org/initiatives/consulting-corps/john-duffy/4386/) and Edmund Tsang(http://www.wmich.edu/engineer/ceee/coe.html); Tsang was the editor of the AmericanAssociation of Higher Education’s Service-Learning in the Disciplines volume on engineering in2000 (Tsang, 2000). The first textbook on service-learning in engineering was published in 2006(Lima and Oakes, 2006) and the journal entitled International Journal for Service Learning inEngineering, Humanitarian Engineering and Social Entrepreneurship (IJSLE) was founded in2006. The Community
Strategy, Operations, and Human Resource Development at KG Reddy College of Engineering and Technology. He also has an adjunct faculty appointment with the Cen- ter for Engineering Education Research at KLE Technological University. He completed his Bachelors of Engineering in Electronics and Communication from Manipal Institute of Technology and Masters in Embedded Systems from Jawaharlal Nehru Technological University Hyderabad. His research interests include education policy, faculty development, understanding organizational development in higher ed- ucation, and integration of technology and entrepreneurship in engineering education. He was awarded Young Engineering Educator Scholarship by National Science
industrial entrepreneurship experience. Application areas of his interest are food and agriculture manufacturing, mechanical systems, and manufacturing in space. He has 225 peer-reviewed publications and has delivered 105 keynote and invited talks across the United States and the world. He has 22 allowed patents with more than 65 resulting products commercialized and launched, in a team, across many industrial sectors worldwide used by Fortune 500 companies in the en- ergy, electric vehicle, heavy-duty trucking, railway transportation, and high performance race car sectors. Malshe has trained 67 graduate and post-doctoral students and more than 1250 undergraduate students and young professional engineers in industries. He
Research Program, with the EWB Summit being offered for the first time inJanuary 2015.The EWB Challenge targets first year students and aims to provide an introduction toengineering through a humanitarian engineering project. Each year, one partner organisationis a focus for the Challenge, with a range of topics, challenges and resources identified withthe partner. These are provided to universities to incorporate into first year classes asappropriate for their needs and context. In 2015, the EWB Challenge was used by almost 30universities in Australia reaching around 10,000 first year engineering students, about 60-70% of the total first year undergraduate engineering population in the country. The EWBChallenge has been delivered internationally
frame members, determine mass, locate center of mass, and perform a tip/flip analysisin various riding situations; these calculations inform conceptual and preliminary designdecisions made by teams.The project of designing and building the human-powered vehicle is interwoven into the coursecontent and used throughout for in-class individual and team work. Students learn and practicecourse topics during class meeting times, and then must complete the activities for the project ontheir own outside of class. Often this means meeting with the final design recipient (clientand/or user), members of support staff (e.g., the university machinist, department lab manager, orlocal bike mechanic) or using material learned in other courses (e.g., MatLab and
as introductory engineering courses for freshmen, at the University of Illinois since 2013.Ms. Keilin Jahnke, University of Illinois, Urbana-Champaign Keilin Jahnke is a graduate student in Agricultural and Biological Engineering at the University of Illinois. She completed her Bachelor’s and Master’s degrees in the Industrial and Enterprise Systems Engineer- ing department at Illinois with concentrations in sustainable international development and creativity, entrepreneurship, and innovation. c American Society for Engineering Education, 2016 Drawing Upon Non-Engineering Disciplines to Research Sustainability of Engineered Infrastructure in South AmericaAbstractThe academy
highly valuable. Itallows us to make generalizations about our programs and identify the strengths and weaknessthat they possess.Example 3: GlobalResolve at Arizona State University10,11GlobalResolve is a curriculum at ASU leading to a concentration in Social Entrepreneurship inthe College of Technology and Innovation (CTI). The goal of the program is to help studentsdevelop technologies to address issues of poverty both abroad and in the US, and prepareentrepreneurs to create community-embedded sustainable enterprise around the technology. Thecurriculum consists of 5 project-based courses: Design for Impact, Global ImpactEntrepreneurship, Systems Innovation, Village Energy Systems and Community Appraisal, thelast course involving immersive
service learning activity [16]. The in-classroom activities and methodological approaches aimto encourage students’ active participation and the construction of critical thinking. Such anapproach encompasses student groups organized seminars, written reviews of the literature, andexpositive classes that encourage students’ debates [17].Master in Technology for Social Development. This master program usually takes two years andis offered by NIDES (Interdisciplinary Center for Social Development). There are three researchlines available: "Participatory Management," "Solidarity Technology," and "Polytechnical Workand Formation." Its first selective process took place in 2016 with 20 vacancies; from 2018 on,this number increased to 22 vacancies
timeperiod beyond the 15 week semester that is used for a campus visit from the elementary students.Each week, a practicing engineer serves as a guest speaker to discuss their career in civilengineering. In addition to the WP assignment, students engage in assignments related toprofessional development, advising, and ethical behavior.The 198 college students were partnered with 132 elementary students from two 5th grade andtwo 6th grade classes. College students write two letters total – the first introducing themselvesand the second in response to a letter from their elementary school partner after they receive theintroductory letter. Near the end of the semester, the elementary school writing partners visitcampus and deliver their final letter to
accreditation .Figure 1. Growth of number of papers presented and published in ASEE conferences between 1998-2018 on projectsrelated to community development, EWB, humanitarian engineering and community service (Source: peer.asee.orgdatabase)But what if these problems are so complex that they cannot be solved by engineering projectsalone, and certainly not by engineers in training operating in highly constrained educationalenvironments (e.g., 50-75 min classes, 14-week semesters, design classes away fromcommunities, etc.) and under limited resources of time, money and expertise? Where and howcan/should engineering educators focus their attention and resources to develop, organize,integrate, and support these projects so they can be more effective and
collaborative learning with peers and others through one or more of the following: working cooperatively with other students in class, observing and participating in the contemporary ramifications of various types of civic life or civic discourse, or working with civic organizations beyond the walls of the University.At most universities, the path to meet the civic engagement requirement is often found inservice-learning or community service programs organized in the social science or humanitiesdepartments. However, as a profession, engineering has incredible potential to promote andimprove the quality of life for both individuals and communities. Further, engineering projectsare required to meet codes, standards, and
is invaluable for my career and for my future. Most engineering isnow team-orientated, so the more exposure to a team atmosphere, the better. Also havingexposure to professional engineers is amazing – sometimes while being a student you are cutofffrom the “real” world and having those connections will help you better your understanding ofwhat is available after graduation and helps with communication with those individuals. Alreadythis experience has helped me with getting job offers, as companies are looking for thosequalities in engineers.I believe that this class has helped me bridge the gap between my knowledge gained as a studentand the skills I will need as an engineer. It has provided a better understanding of what I coulddo as an