Paper ID #30651Evaluating the impacts of community service on student learning outcomesDr. Jennifer Lyn Benning, Virginia Tech Dr. Jennifer Benning is an Instructor in the Department of Engineering Education at Virginia Tech. She was formerly an Associate Professor in the Civil and Environmental Engineering Department at the South Dakota School of Mines and Technology, where she was also the creator and Program Coordinator of a Sustainable Engineering Minor Degree Program. She also co-developed and lead the EPICS program there. Her main research expertise is in contaminant transport, with foci on transport processes in
- search for STEM Equity (UW CERSE) and an affiliate assistant professor of sociology. She has been at UW working on STEM Equity issues for more than 15 years. Dr. Litzler is a member of ASEE, incoming chair of the ASEE Committee on Diversity, Equity, and Inclusion, and a former board member of the Women in Engineering ProActive Network (WEPAN). Her research interests include the educational cli- mate for students, faculty, and staff in science and engineering, assets based approaches to STEM equity, and gender and race stratification in education and the workforce.Dr. Jeremi S London, Virginia Polytechnic Institute and State University Dr. Jeremi London is an Assistant Professor in the Engineering Education Department at
spans business, nursing, medicine, and engineering.This interest then continues as a catalyst for educational reforms. The rest of their work lays afoundation for acceptance or rejection of the current definitions and assessments of emotionalintelligence. In their conclusions, two distinct groups emerge: the first group’s interpretation ofemotional intelligence is strictly parallel to cognitive intelligence and the second group definedEI an all-encompassing value.These distinctions lead to several different definitions of EI. Roberts, in a summary of emotionalintelligence [7], splits EI into two models: Integrative-Model Approaches and Mixed-ModelApproaches to emotional intelligence. The Integrative-Model assessment focuses on specificabilities
are a number offactors that hinder acceptance of remote laboratories as a part of a curriculum. These are:Integration of a number of disciplines into remote experimentation design; Modularity indesigns; Readily available commercial products; Integration of learning management system;Maintenance and training; Administrative awareness and support; and Industry applications.The first part of the paper will discuss these issues and will highlight how we can moveforward in a coordinated manner so there will be a viable remote experimentationinfrastructure with a high degree of acceptance.Historically remote laboratories are developed by utilizing personal computers orworkstations as the main controller unit on the experiment side and a local
Paper ID #29480Drone Construction and Racing for PreCollege StudentsDr. Michael C. Hatfield, University of Alaska Fairbanks Michael C. Hatfield is an assistant professor in the Department of Electrical and Computer Engineering at the University of Alaska Fairbanks, and Associate Director for Science & Education, Alaska Center for Unmanned Aircraft Systems Integration. He earned a B.S. in electrical engineering from Ohio Northern University; an M.S. in electrical engineering from California State University Fresno, and a Ph.D. in Electrical/Aeronautical Engineering from the University of Alaska Fairbanks.Dr. Catherine F
Paper ID #31483Scrum as a Change StrategyDr. Timothy A Wilson P.E., Embry-Riddle Aeronautical University - Daytona Beach Tim Wilson is chair of the Department of Electrical Engineering and Computer Science at Embry-Riddle Aeronautical University in Daytona Beach, Florida.Dr. James J. Pembridge, Embry-Riddle Aeronautical University - Daytona Beach James J. Pembridge is an Associate Professor in the Engineering Fundamentals department at Embry- Riddle Aeronautical University in Daytona Beach, FL. Pembridges’ research is primarily focused on the faculty instructional development and the use of evidence-based instruction in
engineering projects, and they need to be able to communicate thoseexperiences [13].The work of Larsson, et, al. indicated that certain leadership styles are best suited for certain typesof engineering projects, depending largely upon the project duration. For example, they found that“Integrators,” whose tendency is to ensure that the team works well on an interpersonal level, tendto be best suited for complex projects that require timely completion. Their results suggest thatdiscovery of a leadership style that is effective for the projects that we do in our courses may leadus to develop a leadership curriculum that teaches leadership in that style to achieve better courseoutcomes [14]. In this work we hope to solve this question in the inverse
Ansaf and Jaksic [8] to increase students learn-ing outcomes in design analysis and critical thinking. The students implemented the requireddesign modifications of a product in a systematic time-based procedure using traditional andnontraditional design tools like finite element analysis. Their results show an improvement instudent engagement in the course topics and in critical thinking.Okojie [9] claims that “in a highly competitive manufacturing industry, the total cost of designand manufacturing can be reduced and hence increase the competitiveness of the products ifcomputers can integrate all working procedures. Computer-aided integration has, therefore,become an inevitable trend. Many industries have achieved a great deal of success
- wall beams showing integral tip plate for attaching cross-bar or optical target.2.4 Unsymmetrical section beamsWhen the loading axis system for a beam is not aligned with an axis of symmetry of the crosssection or if the section has no symmetry axis, the bending behavior becomes more complex dueto the appearance of a non-zero sectional cross-bending stiffness in the governing differentialequations as well as in the equation for the bending stress developed in response to the appliedbending moments. Such situations are generally referred to as “bending of beams withunsymmetric sections” and these configurations are avoided whenever possible. However, theyare difficult to avoid when designing thin-wall section
curriculum taught in public and global health classes, with the focus being onhow clean-energy systems decrease environmental pollution and improve community health. MercerUniversity’s Quality Enhancement Plan (QEP, running from 2015-2020) focuses on combining researchwith service (with a tagline of “Research that Reaches Out”), with a dedicated, staffed office. Thisproject is coordinating with Mercer’s QEP to advance integration of the initiative approach across theuniversity.Feedback from students in Mercer University’s Green Engineering course has shown that they find thehousehold level examples used to teach about energy efficiency and conservation to be beneficial andmemorable, the study of small-scale solar PV and shallow geothermal systems to
education curriculum with a focus on laboratory courses for the University of Minnesota, Twin Cities, Electrical and Computer Engineering Department. His courses leverage project-based learning, experiential learning, and self-paced activities. David has over ten years of industry experience specializing in mixed-signal RF integrated circuit design, power systems, and power electronics.Mr. Ben Guengerich, University of Minnesota - Anderson Student Innovation Labs Ben Guengerich is the Manager of the Anderson Student Innovation Labs at the University of Minnesota. The labs provide engineering students open access to prototyping equipment and give them the freedom to work on projects aligned with their personal and
and Mechanical EngineeringAbstractAs part of the Mechanical and Aerospace Engineering curriculum, Embry-Riddle AeronauticalUniversity (Prescott, AZ) has developed a combined lecture / laboratory (lab) course to givestudents an introduction to the fundamental principles of instrumentation and tools necessary toperform measurements while reducing the data obtained. This Measurements andInstrumentation course will provide essential knowledge and skills that students can use forcomplimentary engineering lab courses such as Thermal Fluid Sciences [1], Experimental SpaceSystems, and Experimental Aerodynamics as well as during their yearlong capstone course andnumerous student clubs / research activities.Topics covered in this course are measurement
practical knowledge that helps them to serve successfully in the construction industry. As an active ASCE (American Society of Civil Engineers) member, he also aims at contributing to the research needs of the industrial firms at local and national level. Dr. Tafazzoli Research Interests Measuring the risk of de- lay in construction projects Sustainable construction Integrating ’green’ and ’lean’ construction practices Infrastructure assess management Construction Productivity c American Society for Engineering Education, 2020 Evaluation of the Impact of a Summer Construction Camp on Participants' Perceptions Saeed Rokooei1
tradition and innovation.," Chemical Engineering Education, vol. 43, no. 3, p. 216, 2009.[2] S. Tescari, A. K. Singh, C. Agrafiotis, L. d. Oliveira, S. Breuer, B. Schlogl-Knothe, M. Roeb and C. Sattler, "Experimental evaluation of a pilot-scale thermochemical storage system for a concentrated solar power plant.," Applied energy,, Vols. 66-75, p. 189, 2017.[3] T. Eberlein, J. Kampmeier, V. Minderhout, R. S. Moog, T. Platt, P. Varma-Nelson and H. B. White, "Pedagogies of engagement in science.," Biochemistry and molecular biology education,, vol. 36, no. 4, pp. 262-273, 2008.[4] A. A. Ferri, B. H. Ferri and R. S. Kadel, "Program to Integrate Mobile, Hands-on Experiments into the ME, AE, and ECE Curriculum.," in ASEE Annual
retention of a student in a post-secondary technicaleducation [8, 9]. Further examples show that technical ability, such as high mathematicalachievement, predict higher retention in engineering majors [10]. Other institutional and societalfactors also play an important role, especially for the retention of female students [9].Thesefindings indicate the importance of developing skills before entering post-secondary education.For developing aptitudes in areas such as computer science, computer engineering, and softwareengineering, several countries have mandated computer science in their K-12 curriculum [11].Given this, we anticipate that the most vital delivery of digital skills in an engineering educationcontext happens before students graduate
group activity in terms of relational leadership, students can integrate a more relational approach to their interpersonal interactions. Finally, guided class discussion provides an avenue through which technical leadership may be scaffolded and practiced.Each prong addresses multiple developmental characteristics, so that the student learningenvironment integrates multiple modes of engagement, as outlined in Figure 3.In summary, the 3-pronged intervention proposed here includes characteristics of impactfulleadership experiences for undergraduate engineering students, grounded in the findings of thisstudy as summarized in Figure 3. Chickering and Gamson’s [52] seven principles for goodeducational practice
(CFD) simulation of a wind turbine above a forward facing step. Upon completion, he joined the National University of Singapore, where he taught mechanical design related courses. He also started work on enclosed narrow-track electric vehicles and carried out wind tunnel testing and CFD simulations to optimise the aerodynamics of the enclosure. He joined the University of British Columbia – Okanagan campus as an instructor in 2016.Dr. Claire Yan P.Eng., University of British Columbia, Okanagan Dr. Claire Y. Yan is a tenured senior instructor (Professor of Teaching Stream) in the School of Engi- neering, Faculty of Applied Science, University of British Columbia. She received her B.Sc. and M.Sc. degrees from Xi’an
. IntroductionTraditionally, the humanities have played a limited role in STEM education1; yet, there are naturalconnections between the humanities and STEM, which may be used to deepen students’ educationalexperiences2, 3. In the exploration of these links and modes of learning, the Texas Tech University(TTU) Honors College has developed an interdisciplinary curriculum that incorporates both the artsand the humanities and STEM. Unlike other iterations of this technique, namely STEAM, wherearts are included to help promote more creative problem-solving and innovative thinking, thisapproach uses the arts and humanities as the foundation and impetus for STEM learning. Thisapproach has been coined Humanities-Driven STEM (HDSTEM). HDSTEM provides studentsbenefits that
catch up. Accelerated technology development is one macro-level factor that contributes tocivil engineers requiring agile technical skills (e.g., related to infrastructure, automation, virtualcollaboration, information access, and big data). Although technical knowledge is traditionallythe foundation of civil engineering education, the workforce also needs professional skills suchas leadership, teamwork, ethical reasoning, disciplinary boundary crossing, and communicationto be competitive and successful in the civil engineering profession [28]. With an agingworkforce and high turnover [12], it is imperative to integrate these non-technical competenciesin academic and professional curricula for current and future generations of engineers. In
excursionsproviding hands-on understanding, and (purple) interdisciplinary collaborative group work.The ABBY-Net summer school advantage and its innovation in the context of graduate trainingin engineering therefore lies in the highly integrative research experience. Learning of scientificcompetences from disciplines relevant to energy systems and transitions outside of the traditionalengineering curriculum in an intense yet relaxed learning environment with immediate access tofield experts, online and offline resources. This environment has been proven to challengeparticipants to give their best, while forming interdisciplinary network linkages and expandinghorizons in research and teaching. Akin to similar collaborative learning experiences [6] a highlevel
thefollowing: 1. Apply engineering design principles to formulate a problem statement, analyze requirements and produce a system-level block diagram. 2. Develop a prototype of an electrical/electronic and/or software system to meet given specifications. 3. Integrate knowledge from across the core Electrical Engineering Technology curriculum. 4. Work effectively and productively in a team environment. 5. Effectively communicate technical ideas and concepts.The required course deliverables are as follows: 1. Problem Statement (Definition) 2. Benchmark Studies 3. Requirements Specification 4. System Block Diagram 5. System Specification and Design/Analysis 6. Prototype Fabrication 7. Testing/Debugging Plan
. Stories Eng. Fac. Pedagog. Journeys. Synth. Lect. Eng., vol. 6, pp. 53–58, 2019.[8] S. Odeh, S. McKenna, and H. Abu-Mulaweh, “A unified first-year engineering design-based learning course,” Int. J. Mech. Eng. Educ., vol. 45, no. 1, pp. 47–58, Oct. 2016.[9] D. B. Dittenber, “Project based learning in an introduction to civil engineering course: A cascade effect on student engagement and retention in subsequent years,” ASEE Annu. Conf. Expo. Conf. Proc., vol. 2017-June, no. Paper 19087, 2017.[10] C. Pierce, “Creating a community of collaborators to achieve curriculum change,” Transform. Teach. A Collect. Stories Eng. Fac. Pedagog. Journeys. Synth. Lect. Eng., vol. 6, pp. 53–58, 2019.[11] C. S. Kalman
communication activities informed by industryco-curricular partners. Central to contemporary pedagogical approaches such as problem-basedlearning and entrepreneurially minded learning is an aim to engage students in authenticexperiences which integrate technical knowledge with workplace skills connected toprofessionalism, communication, collaboration, and leadership. This aim, however, is oftendifficult to incorporate into the design of engineering curricula, which frequently separatetechnical learning from “soft skills” coursework in interpersonal, professional and technicalcommunication. Recognizing this persistent divide, this paper reports on a descriptive case study[8], [9] employing a backwards design approach to integrate professional
GovernmentCreating the Foundation for Exploration—Engineering 110Establishing a strong mechanism to support students in the intentional exploration of learningexperiences is integral to the success of the experiential learning framework. In order toaccomplish this, we will leverage Engineering 110, an existing elective course that currentlyserves around 300 students per year (approximately 20% of first-year engineeringstudents). Engineering 110 provides students the opportunity to explore the breadth ofeducational and career opportunities available to engineers.Engineering 110 is engaged in a multiyear redesign process through a University-wide effort totransform high-impact, large-enrollment introductory courses at U-M. Prior to this effort, thecourse was
” method that can be applied.This poses a significant challenge to new institutions/programs that have embarked on the process ofapplying for ABET accreditation. Each program/institution has to develop its own methodology orprocess8,9,10 for meeting the ABET requirements based on the resources available at its disposal.Successful ABET accreditation of an institution of higher learning requires several years of priorplanning and preparation11. It must have a strong up-to-date curriculum that meets internationalstandards, qualified faculty and staff in sufficient numbers, teaching and laboratory facilities, andstrong institutional support. It must also put in place a clear, well-defined, and implementableprocess for assessment and evaluation of
shipwreck, inspect offshore rigs, and underwater pipelines etc. [4]As drones become an integral part of our daily lives, it becomes important for engineers to learnabout their operation, design, and applications. Keeping this in mind, a design project isdeveloped to integrate drones into the curriculum of first-year design course. This paper furtherelaborates on the activities performed to implement this idea, as well as the authors’ efforts inindulging the students’ interest into the topic and thus, in the process giving a hands-onexperience in reverse-engineering, assembling, and redesigning a mini drone in a first-yearengineering design class. The authors believe that this is an engaging activity to introduce theconcepts of engineering design to
parents play a crucial role in thesuccess of a program, their input into curricular components, contemporary equipment needs, oremerging topics in the discipline is unlikely to categorized as a constituent for accreditationpurposes.Linking courses and student outcomesThe knowledge, skills, and behaviors that students should possess at the time of graduation aregeneralized as student outcomes. Accrediting bodies feature expected student outcomes, bothgeneralized, such as critical thinking, and discipline-specific such as knowledge of computeraided drafting. Mapping the student outcomes to particular courses can be an effective way toensure all accreditation student outcomes are included in the curriculum. As part of the planningfor a self-study
graduates is alsoevolving; emphasis on more than just technical knowledge: communication, teamwork, and otherprofessional skills are in high demand. Such a shift has occurred that ABET, the accreditationboard used by many universities worldwide, has adapted its student outcomes and designdefinitions to include these topics as fundamental to engineering degrees [8].Materials science and engineering (MSE) as a discipline is also evolving. What started out asmetallurgy and ceramics has now evolved to include polymers, electronic materials, andbiomaterials. The field has become more interdisciplinary, with simulation and softwareprograms are now an integral part of the curriculum. Despite all these changes, degrees take thesame length of time. Since
ADVANCES IN ENGINEERING EDUCATION A Learning Model Proposal Focused on Challenge-Based Learning This set of changes that are occurring in the business, social and economic environment, requiresattention from academics and also entrepreneurs, since real problems are generated continuouslyand demand attention of many professionals, including engineers. These scenarios not only demandthe technical approach in engineering training, but, as several studies have shown, it is also neededthe development of non-technical skills among students, which includes attitudes, soft capabilitiesand values, integrated altogether with technical knowledge and skills. This will allow an engineer tofunction effectively in different contexts (Zah and
“cross-cutting foundationalresearch capabilities” to “integrate natural and social science, engineering, and other disciplinaryapproaches” and “build capacity for climate assessment through training, education, andworkforce development.” Realization “requires new approaches to training and curriculum, aswell as research to evaluate the effectiveness of different approaches to research and teaching[1].”Charting a Path to Trans-disciplinary Collaborative Design, is a current NSF project that willevaluate, test, and model pedagogic methods in an existing interdisciplinary hybrid set of coursesdevoted to studying adaptation to sea level rise for urban neighborhoods in Norfolk, VA. Theexisting course set, combines lecture, community engagement, and