community engagement programs. Participants will leavethe session with a practical action plan to implement the types of partnerships they wish to buildwith their community.1. IntroductionIn the last decade, there has been a significant increase of the number of community engagementprograms and a growth in research on these programs. As a result of this upsurge, newpublication venues have also been established, including the International Journal of ServiceLearning in Engineering (IJSLE) founded in 20041, and the new ASEE Community Engagementdivision founded in 2013.2 Related research has primarily focused on students, with particularemphasis on knowledge and skills; attitudes and identities; recruitment, retention, and diversity;and professional
capital,belonging, engagement in the classroom, and others.Research Background & MotivationA motivation for the community-based experiences highlighted in the engineering educationpractices like service learning is to improve academic engagement. Working to improve interest,i.e., engagement, as well as aptitude enables not only an increase in the number of studentstrained for the technical workforce but also a broadening of their capabilities beyond the purelytechnical. Engineers with this broader world view will be poised to lead valuable technicalinnovation in the 21st century.1 The literature, gathered from higher education, K-12, andorganizational psychology clearly supports the importance of community in influencingengagement and
Paper ID #19079Engagement in Practice: Not Just Technical Education; An AnthropologicalPerspective on a Community-Based Engineering Internship ProgramKenzell Huggins, University of ChicagoMs. Asha Barnes Currently a student of the University of Notre Dame, my long term goals are to become a citizen of the world, a metropolitan learner. As Anthropology is my passion, I hope to continue to better my skills in ethnographic research.Dr. Susan D. Blum, The University of Notre DameDr. Jay B. Brockman, University of Notre Dame Dr. Jay Brockman is the Associate Dean of Engineering for Experiential Learning and Community En
mapping exercise in which they were encouraged to consider how “community” isdefined by thinking about what communities they belong to. In the first group meeting, theinstructor asked students to free-write about communities they belong to: What are thosecommunities? What defines them? Who are the members? How does one come to belong? Aftersharing, students discussed initial ideas of what it means to do an engineering project that is“engaged with a community”. Following the initial meeting, students spent two weeks reading (out-of-class) and discussing(in-class) critiques of ETH projects, including references [1], [3], [6], [7]. The first week ofreadings were assigned by the instructor, while the second week of readings were generated bythe class
Addressing HomelessnessAjay. Malshe*,1, Kevin Fitzpatrick2 and Salil Bapat11 School of Mechanical Engineering, Purdue University, West Lafayette, IN, USA2 Department of Sociology and Criminology, University of Arkansas, Fayetteville, AR, USA*Presenting and corresponding author: amalshe@purdue.eduAbstractHomelessness/ housing insecurity is a growing challenge across the US and the world. Students,especially Gen-Z, are about to enter the workforce where insecurities including housinginsecurity are common observations in daily life. Generating engineering student’s awareness ofhousing insecurity was the key objective of the presented work as a part of Introduction toMaterials Science and Engineering, and manufacturing (MSEM) class in the
sometimes difficult.From the standpoint of the University, especially since CSU-Pueblo is an HSI, the demographicsof Club members are important. The University can reach minority and low income studentsthrough the Clubs.The STEM activities the University provides to Club members should not duplicate school, nornecessarily even teach, but rather should generate and reinforce interest and enthusiasm. “Youthare not coming to these spaces to rehash school. The OST [out-of-school time] space cancomplement or supplement school, but it cannot be ‘School 2.0.’ We must ensure that OSTlearning environments are spaces to inspire and engage youth.” [1]From the viewpoint of BGCPC, access to STEM content, mentors, and role models is veryimportant. The layers of
. Partnership DevelopmentThe University of Dayton’s heritage focuses on building community, educating the wholeperson, and promoting social justice. As scholars in such a community, we are called to addresscritical, community-identified needs through community engaged scholarship. At the Universityof Dayton, the Fitz Center provides students, faculty, and community partners with resources tonot only initiate and develop collaborations, but also develop and assess innovative community-engaged curriculum [1]. The Fitz Center hosts a variety of programs for initiating contactbetween faculty and community partners including open houses, monthly breakfasts, and bustours. The monthly breakfasts and bus tours are generally themed – that is they focus on
goal of democratizing engi- neering by project to providing free, standards-aligned, hands-on engineering curricula for K-12 STEM teachers.Ms. Jennifer Kracha, University of Colorado Boulder c American Society for Engineering Education, 2020 Engagement in Practice: Practicing Empathy in an Engineering for the Community CourseKey words: service-learning, community clients, engineering projects, projects courses,humancentered design, engagement in practiceThis Engagement in Practice paper describes the course sequence of a service-based engineeringprojects course that focuses on humanitarian projects for local clients. The course successfullyincorporates both technical
and its affiliates is on preserving affordable homeownershipand revitalizing neighborhoods. The population of homeowners served are those most at risk forremaining in their homes and are those in need. Most are at risk and are in need because they aresubsisting on a fixed income, whose buying power continues to fall over time, and who live at orbelow the poverty level. Many also have medical bills that consume much of their income, whichforces them to put off needed home repairs and modifications. This population generally includesbut is not limited to senior citizens, the disabled, families with children, single parenthouseholds, and veterans. Using this as a springboard, the national office administers an annualaffiliate survey 1 at the end
issues with key stakeholders and users, including neighborhood associations,representatives from the City of South Bend, and local business partners. Prior to the summerinternship, BCe2 leadership engaged in user interviews and brainstorming sessions with thosestakeholders and collectively identified three focus areas: management of urban naturalresources, support of community-based sustainable placemaking processes, and development ofcity wide initiatives for data based decision making. Interns then worked with BCe2 leadershipand stakeholders to identify specific projects within these focus areas, as shown in Figure 1.Interns worked on a variety of projects at different stages of implementation, allowing them toexperience and contribute to all
progress of anewly implemented interdisciplinary service-learning course at A STATE University. Thisspring, a group of approximately 120 undergraduate students in the disciplines of industrialdistribution, sociology, and computer technology management are working together inmultidisciplinary teams to boost the ability of “The State” food banks to better understand theirclients and their needs, reduce costs and enhance efficiency.Design in service learning Integrative service learning curricula create a bridge between two major design philosophies:engineering design and design thinking as shown in Figure 1. While both concepts describesimilar methods, they differ in the prioritization of relevant factors. Design thinking’s moststriking
centers around the potential impacts of the WP program,addressing the following research questions: How does the WP intervention affect: 1) collegestudents’ intentions to persist in an engineering major? 2) college students’ understanding ofengineering professions? 3) elementary school students’ understanding of the engineeringprofessions? 4) elementary school students' intentions to attend college? 5) elementary schoolstudents’ intentions to major in engineering? Finally, these potential impacts will be examinedfor demographic differences, including sex, underrepresented minority students, low-income,and first-generation students. Pre- and post-surveys for the college and elementary students usingelements from existing surveys with strong
as individuals who live out acommunity-engaged practice and who connect their professional role to their central values asholistic individuals. To that end, we have framed the course to be anchored in an extensivedesign experience that is facilitated through community partnerships.Since 2015, the course has been offered in three different sections, including one honors section.Each section is partnered with a different community partner in order to generate conceptualsolutions that address authentic problems or opportunities that are experienced by the communitypartners (see Table 1). Within a section, students are divided into teams of three or four students,and each project team works with the community partner to design a relevant
participation in learning and teachingpartnerships between elementary classrooms facing high barriers to success and collegeclassrooms can: 1) influence the knowledge of, interest in, and aspirations toward post-secondaryeducation in populations less likely to explore college; 2) impact college students’ sense of civicknowledge, civic learning, civic reflection, and civic efficacy.Background and MotivationCollege Aspiration and Barriers to SuccessStudents whose parents did not attend college often have to overcome barriers in their pursuit ofhigher education that students whose parents have attained at least a bachelor’s degree do not. Asearly as the eighth grade, first generation students have low expectations about their ability toattend college [1
incorporating the following: 1) documentingcommunication that fosters co-design between students and the community, 2) reporting on thetesting in an actual setting, 3) identifying the societal and technical constraints to provide contextfor the design, and 4) incorporating milestones and tasks for project management that includessocietal interactions. Effective documentation is important since projects are designed bystudents who generally only work on the projects for a single academic year. Course instructorsmay change as well, but the documentation can assure that there is continuity from one year tothe next. Thus, effective documentation is critical for project sustainability, allowing for futurestudents and instructors to assess past community
through its first set of cohorts.Students in this program reflect verbally and informally, in their respective groups during thesemester and as an optional session at the close of the semester. The SLDPC is offered as a non-credit course to the students outside of the core curriculum.MethodsIn each program, students were asked to reflect at the end of the semester which is also called asfinal reflection. We chose the final reflections from Spring 2020 semester to be investigated forthis study.Jacoby’s [16] general criteria for assessing service-learning reflection was used as the frameworkfor evaluating student reflections which Jacoby adapted from Bradley [17]. According toBradley, critical reflection can be characterized into three levels
options within major, hands-on activities were alsointroduced to the students.Electrical Engineering workshop exposed students to Arduino microcontroller to encouragestudent engagement by a fun project called Autonomous Vehicle [12]. The project included 2sequential labs: Lab 1 Pulse Width Modulation, and Lab 2 Arduino Pulse Width Modulation.This workshop included both software and hardware. Students were exposed to coding (loops,conditionals, and debugging), wiring, oscilloscope, DMM, function generator, and DC powersupply use. Figure 3 shows Hardware connection of autonomous vehicle.Mechanical Engineering workshop introduced two experiments: Heat Engine and tensile test,which represent two different areas of Mechanical engineering: Thermo-fluid
MakerTruck.)Partnering with Educators and SchoolsThe SMU Maker Education Project has partnered with a large number of educators across avariety of public and independent schools in the Dallas-Fort Worth Metroplex. When we enterinto a partnership, we attempt to tailor our support based on the particular needs of the schooland its educators. While this means that each partnership is unique, they generally fall into threecategories: (1) brief encounters, (2) continued encounters, and (3) sustained encounters. Below,we report on the nature of each of these types of encounters. After describing the type ofencounter, we follow with an example, and end by reporting the lessons we have learned.Brief EncountersBrief encounters are partnerships in which we
, please refer to the EMS Technical Manual (Gilmartin et al., 2017).EMS 1.0 employed various types of questions. Academic learning experiences and activitieswere asked as “participation” questions, resulting in a binary (yes – 1, no - 0), self-efficacyconstruct questions were asked using a Likert “confident can do” scale (0 – not confident, 4 –highly confident), engineering career persistence was asked using a Likert “will not/will” scale(0 – definitely will not, 4 – definitely will) and proximal influences were assessed using a Likertfrequency scale (0 – never, 4 – very often).This data set contains four constructs that correspond to specific nodes in the SCCT model (seeFigure 1). These constructs are described as follows, and shown in detail in
-building, for example, community designers(especially youth) are rarely in the lead. Often, the sense of urgency in a disaster recoverysituation creates a “help the helpless” mindset among aid agencies, and also creates a timeausterity that conflicts with listening, building local consensus, and modifying recovery plans [1][2] [3]. Few funding channels are open to community teams to design and implement their ownsolutions. It is difficult for community designers to access scholarly research and technicalengineering, and difficult for sophisticated engineers to embrace simple, inexpensive solutions.To put this in perspective, we understand development approaches in general, and disaster reliefapproaches in particular, to fall under one of four
, thus fulfillingcriterion 1. Next, the project must be worthwhile intrinsically; it is likely that K-12 outreach willmeet this criterion from the perspective of the college student feeling like they are inspiring thenext generation. It is possible that some program types may fulfill this to a lesser degree, if thecollege students feel they are just “babysitting” in an afterschool program, for example. The thirdcriterion is “must present problems that awaken new curiosity and create a demand forinformation” [11, p. 80]. If the college students are mentoring creative projects with K-12 kids, itis likely they will be asked questions they struggle to answer, which creates an impetus for themto deepen their own knowledge of engineering and science
success: Are they related? Journal of Marketing Education, 22(1), 45-53. doi:10.1177/0273475300221006[27] Cargill, Kima & Kalikoff, Beth. (2007). Linked Psychology and Writing Courses Across the Curriculum. The Journal of General Education. 56. 83-92. 10.1353/jge.2007.0017.
of SCS to be represented (See Figure 3) in such a way that made the connectionloops or cycles more easily detected and the behavior of the variables better understood in termsof how they are impacted by multiple actors or interactions with other variables. The Vensim modelwas then further translated using the Microsoft Data software to generate a 3D model (See Figure4) that allows further manipulation or abstraction of the key system elements by allowing: 1) therotation of the model so it can be viewed from different angles and perspectives; 2) Color coding ofvarious groups of variables and actors to identify patterns; and 3) identification or ranking ofvariables based on number of connections, and the degrees of separation between each
creating a cultureof preparedness. Through efficient and effective preparedness, the CCR will serve as one of the leadingentities ensuring that Mississippians can recover quickly from incidents, especially those underservedpopulations. Moreover, the CCR will assist local Emergency Management specialists, educators, publicand private organizations and underserved communities with the ability to mitigate, prepare, respond,recover and more successfully bounce back from adverse weather-related events. This will beaccomplished by the following: 1) Community training and outreach (targeting the underserved communities and vulnerable populations) a. Collaborate with National Weather Service to provide general information on weather
environmental issues and impacts. 2. Identify and collect information at the various stages of the design process necessary for the design of a global development civil engineering project. 3. Prepare engineering documents such as engineering drawings and general notes, technical reports, and proposals. 4. Prepare and present professional oral presentations for a variety of audiences. 5. Perform effectively as a member of a multi-disciplinary team. 6. Translate engineering skills and knowledge into the context of an international development project.The syllabi for the courses also indicate that they contribute to the student achievement of the sevenABET Student Outcomes. (6)Challenges of Offering the Global Capstone
.), andfighting for this world to come true, for its social-technical construction to realize.This democratized (or popular) technological development that grassroots engineering stands forand is committed to fostering is grounded on the prevalent understanding of engineering practiceand technical design that philosophers, sociologists, and historians of technology currentlysustain. Such understanding is fourfold: 1) Any technical problem allows for more than one solution. Food production, for instance, can be done according to agro-ecological techniques and technical arrangement or according to the mainstream green revolution paradigm; electricity can be generated (solely) on large and isolated power plants (macro
, and environmentally more sustainablesociotechnical reality [10], [15]. The permanent staff of Soltec encompasses two teachers (with abackground in engineering), four technical-administrative officers (two of them with a Ph.D.degree and authorized by UFRJ to do teaching and research), and one graduate student. Thisteam has a transdisciplinary background in Engineering (4), Law (1), Psychology and Journalism(1). The team also includes four to five graduate students from the Master in Technology andSocial Development program (explained below), collaborating in the management of Soltec’sprojects and office duties as part of their scholarship’s research commitments. Further, the teamcounts with six volunteers, with background in Engineering (5
classroombeginning in October where they researched desired careers, high school pathways (collegepreparation, career academy, or general diploma), local hiring companies, salary levels, andeducational requirements (bachelor or associate degrees, certifications or technical schools).Career thinking constructs were assessed pre- and post- intervention using the Career DecisionScale (CDS) and a general career interest survey administered by science teachers.In February, faculty from a local public university led a STEM career exploration workshop dayfor all 143 eighth grade females. The faculty researcher designed the workshops based onresponses received from a self-generated “STEM Career Choice Survey” for 143 females. Thesurvey, administered and tallied by
Paper ID #29733Professional Ethics LIVE! – A Community Partnership in ContinuingEducationWilliam D Lawson P.E., Ph.D., Texas Tech University William D. Lawson, P.E., Ph.D. serves as an Associate Professor of Civil Engineering at Texas Tech Uni- versity. His career in higher education is characterized by excellence and innovation in teaching, award- winning scholarship and sponsored research, and professional service at the national, regional and local levels. Creative activities encompass both technical research on geotechnical applications in transporta- tion, and interdisciplinary study of professionalism, ethics
areas such as buildings across campus, local high schools,parks, etc. 1. Structure The generic booth design includes a chamber, enclosed with a misting system, which hasan in-built motion sensor detector a person and automatically sprays the disinfectantchemical. Regardless of the cost of the disinfectant chemical, the price to construct the booth could 4be an obstacle for nonprofit organizations to manufacture. Therefore, PVC pipes are gluedtogether to maintain low-budget booth construction. 2. Disinfectant Several disinfectants and sanitization methods have been considered. Hypochlorous acid(HClO or HOCl) is is widely used as a