practices, benefits, andchallenges of engaging in Learning Through Service (LTS) activities, with a focus on theengineering faculty perspective. LTS in engineering typically takes two forms: (1) course-basedservice-learning (SL) projects for real communities or individuals (such as assistive technologydevices), and (2) service projects conducted via extracurricular activities such as EngineersWithout Borders (EWB). Studying both of these distinct but related activities was of interestsince extracurricular service activities such as EWB projects have sometimes moved intoengineering courses such as capstone design. The group of engineering faculty and LTSresearchers first described what excited them about LTS. Then the group shared ideas on
reflections, this paper attempts to identify theeffect of community projects on student learning and student perception of their chosen careerpath. As one student reflected, “The engineer must be able to understand much more than the‘engineering’; there is a huge ethical and communal side to engineering.” Another noted, “Thisexperience has a large impact on the team members’ concept of what it means to be anengineer”.IntroductionIn 1997 a major change in engineering education in the United States began with the introductionof ABET’s EC 2000. This new criteria not only focused on what is learned as opposed to what istaught, but it emphasized “soft” skills along with traditional technical abilities.1 These soft skillsintroduced teamwork, communication
Commission of ABET establishesstandards for accrediting engineering programs. ABET requires that graduates from accreditedprograms possess, among other skills, an understanding of professional and ethicalresponsibilities (3.f), and understand the impact of engineering solutions in a global and societalcontext (3.h)1. A well-developed sense of social responsibility, contextualized within theengineering profession, embodies both of these professional skills.Social responsibility can be defined as “acting with concern and sensitivity, aware of the impactof your actions on others, particularly the disadvantaged”2. In the context of engineering, a well-developed sense of social responsibility would manifest itself through sustainable design,community
,purified water for 600 orphans. The untreated underground water is pumped from a well with adepth of 150 feet and then goes through a 5-stage water filtration system to produce cleandrinking water at the flow rate of 2 gallons per minute. The system also needs to store, regulate,and distribute 1,200 gallons of water.As shown in Figure 1, the system is composed of five major components including the solarpanels, the submersible pump, the water filters, the storage tank, and the battery pack as analternative power source. The 4 135 watt solar panels provide power for the submersible pump,the UV filter, and slight lighting needs. The submersible solar pump can deliver up to 6 gallonsper minute and lift up to 200 feet maximum depth capability. The
others and also learn important engineering skills. Theseexperiences have been termed service-learning. In addition to curricular activities, varioussocieties and groups such Engineers for a Sustainable World (ESW) and Engineers withoutBorders (EWB), have taken a hold across campuses increasing the opportunities for students toparticipate in community service activities. Many service-learning initiatives have been highly Page 25.882.2successful and have had a significant impact on engineering education. For instance, theEngineering Projects in Community Service (EPICS),1 program at Purdue University receivedthe Bernard M. Gordon Prize by the
during this summer, teaching the skillsthey have learned to others. The final year is Figure 1. Curriculum breakdown forspent working on capstone projects reflecting on a typical engineering student. Thethe coursework and international experience and percentage of class types taken for a Page 25.887.3continuing the advancement of the program. bachelor’s of science degree is shown. Figure 2. Distribution of general education
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
things that make service-learning projects difficult to find and develop. Despite these difficulties, engineering educatorshave incorporated service learning in their curriculums. Examples of service-learning in thefreshmen and junior/senior years of an engineering program can be found with a search throughthe National Service-Learning Clearinghouse.1 However, there are few project-specific service-learning opportunities for sophomore-level foundational engineering courses. This paper seeksto fill this gap by providing a description of a service-learning project developed specifically fora statics and dynamics class. It should be noted this case study is limited in scope in that theemphasis is on program evaluation rather than academic research
averages continue to rise. The College WISE Retention Rateand Graduation Rates compared to the University as a whole are also significantlyhigher. (Institutional Research 2011)WISE-GPA Cohort 3-18 Compared to University(Institutional Research Figure 1) Page 25.502.3WISE students have significantly higher SAT scores, grade point averages,retention rates and graduation rates compared to the university as a whole. WISEvs. University SAT Scores Cohort 2-18 (Institutional Research Figure 2) Page 25.502.4WISE First Yr. Retention Rate v. University 2003 - 2008 (Institutional Research 3)WISE
. Page 25.27.1 c American Society for Engineering Education, 2012A Comparative Assessment of Graduate versus Undergraduate Student Outcomes via International Community Engagement Programs1. BackgroundWith the way the world is changing, the development of future engineers is going torequire a mixture of technical expertise and communicative skills. It is becomingincreasingly clear that universities lack the appropriate infrastructure to foster thenecessary growth to promote successful engineering in the future.1-5 In spite of thislimitation, students are finding ways to gain these skills outside of the classroom throughthe development of extracurricular opportunities.6 This movement has fueled thedevelopment of
dimensions fall into 4 key categories: Academic, Program Design, Management,and Technical-Social Balance.Table 1. Academic Characteristics None 1. Learning Outcomes Clear, rigorous, both technical and non-technical None 2. Deliverables Substantial, many Little 3. Assessment Rigorous, well aligned Purely experiential 4. Civic Outcomes Reflective, civic outcomes assessedFour academic dimensions were identified as shown in Table 1. Several
globally-integratedworld5. In Engineering for a Changing World, Duderstadt provides a summative snapshot ofmany of these voices, stating that engineers “must appreciate the great diversity of culturescharacterizing both the colleagues they work with and the markets they must compete in.”6Although the need for engineering education to prepare engineers for a globalized future may bewell-recognized, the prominent voices in engineering education seem to be wrestling withpractical approaches to addressing this need by asking two salient questions: 1) What attributes characterize globally competent engineers?7, 8, 9, 10 2) How can post-secondary education engender such global competence?7, 8This paper explores these questions and examines
defining a problemand developing solutions to that problem. The education and engineering courses have contentthat needs to be part of what happens, so the problem and community based work reinforces andamplifies the course content, and has the potential to offer unique insights or experiences thatcourse content alone can not.. This illuminates the tension between goals of the community workand the goals of the courses.ModelsThe courses used three different models that defined how students interacted with thecommunity: 1. a problem embedded in a specific context; this model gets to the challenges of complexity without formal partner relationships, interactions with community/end users are ad-hoc (partner interactions are theoretical
expected and integrated part of the engineering curriculum.BackgroundIn the fall of 2004, the University of Massachusetts Lowell, a medium-size state university, beganintegration of service-learning (S-L) projects into required engineering courses within fiveundergraduate academic departments. The goal was to have students exposed to S-L in onaverage one course in each of eight semesters during their engineering program with anoverarching aim to graduate better engineers and more engaged citizens. Previous papers havesummarized earlier results 1-16.The original motivation for attempting this service-learning program was rooted in the findings ofclassic studies in which service-learning was shown to be effective in a large number of cognitiveand
students’ assumptions and interactions withtheir clients resulted in four major themes. 1. Assumptions 2. Impact 3. Motivation 4. Understanding client needsIn the first theme, Assumptions, students often expressed thoughts on what they believed to bethe intent of what their clients were thinking and about their abilities. Thoughts on clientassumptions included, for example, a student-centered view of their clients, “he would want us toenjoy the project.” Thoughts on client abilities included an assumption of the lack of anengineering background, “We assumed she had little to no engineering background,” yet alsoassumed some knowledge of the problem to be addressed. This knowledge was explicitlyacknowledged after meeting with their
would focus students on both serving and learning. This effortled to the discovery of the EPICS program started at Purdue University,1, 2 and faculty membersattended the EPICS Conference in 2008 and 2009. After surveying the wide variety of service-learning options, from integration into existing courses to the creation of elective courses, thefaculty of GFU felt that the service-learning opportunity was important enough to create asequence of courses that would be required of all of the engineering students. This coursesequence is called Servant Engineering.Servant Engineering is a 4-semester sequence – 1 unit per semester beginning in the spring of thesophomore year, going through the junior year, and concluding with the fall of the senior
. 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
Computer Science (SEECS) program initiated itsfirst cohort of 20 students in fall 2009. Funded through an NSF S-STEM grant, theinterdisciplinary, multi-year, mixed academic-level offering awarded scholarships to studentsbased on academic merit and financial need. SEECS is an opportunity for students in the majorsof computer science, electrical and computer engineering, environmental engineering,information systems, mechanical engineering, and software engineering at Gannon University,Erie, PA, in the School of Engineering and Computer Science. The goals of the scholarshipprogram are (1) to increase the number of academically talented, but financially disadvantagedstudents in the stated majors, (2) to assist students to be successful in their
skills, first-year engineering project-based learning (PBL) courses have reported increased gains inknowledge across genders and effectiveness in improving students’ self efficacy and confidencein using the engineering design process.1–4Related research suggests that incorporating service-learning into existing engineering curriculaincreases student learning. In a service context, the needs of the community define the design Page 25.1157.2tasks and provide students with a sense responsibility for being members of a larger community.5Often combined with project-based learning in engineering to form project-based service-learning (PBSL), studies