longer remain as it has for essentially the past 40 Page 25.1233.2 years. The subjects of globalization, diversity, world cultures and languages, communication, leadership, and ethics must constitute a core component of the overall engineering education just as physics and mathematics do.” [3, p. 87]The important role that engineering education plays in preparing engineering graduates of thefuture is emphasized in several scholarly publications4, 5. In [4], the authors explore the currentstate of engineering education and provide recommendations for improvement. In particular,they emphasize the importance of giving students a
analysis of these data was two-fold: (a) to validate the themes and sub-themes that had beengenerated from the focus group data; and (b) to identify more teaching practice that facilitatedstudents’ effectiveness in learning. We have included illustrating quotes from these survey datato complement the findings from the focus group data in the Findings section.FindingsWe have synthesized the subthemes from our analysis into three emergent themes to addresseach of our three research questions. In the following section, we have provided examples thatspeak to each question. Student names have been replaced with a numbering system (e.g., ST1)for ethical/privacy reasons. Please note that while participants mostly shared their experienceswith engineering
Paper ID #18145Work in Progress: Quantifying the Differences Between Professional ExpertEngineers and Engineering Students Designing: Empirical Foundations forImproved Engineering EducationDr. Kurt Henry Becker, Utah State University, Center for Engineering Education Research Kurt Becker is the current director for the Center for Engineering Education Research (CEER) which examines innovative and effective engineering education practices as well as classroom technologies that advance learning and teaching in engineering. He is also working on National Science Foundation (NSF) funded projects exploring engineering design
the learners by allowing them to modify, or “tweak” their role. For reasonspreviously stated, gamification of this experiment was intrinsically motivating as was the noveltyof controlling a MUAV.2. Collaboration and cooperative learning: On the day before the experiment, the students weredivided in the groups of their respective role and given ample time in class to meet and discusshow they might approach the experiment as a whole. Likewise, they had ~10 minutes toexchange thoughts at the parking lot just prior to beginning the experiment when theirexcitement was building. In between each trial, the graduate researcher instructed each group tothink critically out loud about the previous trial and how their role affected it. As a result
littleopportunity to explore areas tangent to their stated concentration. The size of the University andDepartment (500 undergraduate majors) makes personal interaction with the faculty difficult. Aproject course, therefore, that offered a high degree of such interaction, as well as lab spaceavailable for the undergraduate use was very popular. In fact, a case could be made that thepopularity of the project was an expression of student interest in collaborative learning preceptsin contrast to the predominant lecture format.Several factors support the notion that the sounding rocket is an ideal basis for an active learningprogram. Rockets carry a certain mystique that is hard to rationalize. The attraction to “NASA”and to “rockets” seems to transcend
1these concepts. Practices such as interactive engagement through cooperative and collaborativelearning, just-in-time teaching, case-based teaching, service learning, peer instruction and concepttests are some of the most common EBIPs used to facilitate student learning and engagement [8].However, the practices used in classes are typically at the discretion and expertise of the faculty[9]. Therefore, the questions of "What evidence-based instructional practices are currently beingused in first-year engineering courses? How do engineering faculty epistemological beliefs aboutteaching and learning influence what practices they use and their reasons for using particularpractices?" remain. This paper documents the beginning of a broader research
, the proposed research has the potential to broaden participationin STEM by increasing engagement, retention, and graduation of underrepresented minorities.Second, in building SocioTechnical Learning capacity, the research will also contribute to newapproaches for community centered solutions that leverage cultural assets of underrepresentedstudents and consider alternative knowledges in collaborative technology design, development,and implementation. As students graduate and enter the workforce, they carry with them thecapacity to respond to human and societal dimensions of technology in daily practices.3. Conceptual FrameworkThe literature characterizes multiple separate flavors of social learning and techno-centriclearning in the context of
academic and professional futures.3. Course Design and ObjectivesThis course is a small component of a Title V project, the City Tech STEM SuccessCollaborative, funded by the US Department of Education, aimed at enhancing retention,graduation rates, and workforce readiness among Hispanic and low-income students interested inSTEM fields. The project emphasizes the early academic support and integration of academicresources to foster career awareness, engagement, multidisciplinary collaboration, hands-onproblem-solving, and alignment with current industry practices. This initiative aims to streamlinethe educational journey, minimizing time to degree completion and reducing the accrual of non-contributory credits.Course objectivesThe 'Exploring
various aspects such asstudent recruitment, funding allocation, and public perception [3]. It is crucial for a university toinvestigate retention to understand the reasons behind student departures. Retention rates amongcollege students are frequently employed as a metric for gauging institutional accountability andsuccess. Moreover, these rates are increasingly utilized as a basis for allocating resources.Gaining insights into the factors that influence college student retention has become imperativefor institutions of higher education. The ongoing issue of low graduation rates among students inengineering programs remains a significant cause for concern within the higher educationlandscape. Many students drop out early in their undergraduate
Paper ID #33176Student Recognition, Use, and Understanding of Engineering for OnePlanet Competencies and Outcomes in Project-based LearningJames Larson, Arizona State University James Larson is a graduate of Arizona State University, Polytechnic Campus. The general engineer- ing program in The Polytechnic School takes a project-based pedagogical approach when designing the curriculum. James has previously researched influences for this program design in examinations of the Maker Movement. Previous contributions to ASEE on this subject include conference papers, ”Sup- porting K-12 Student Self-Direction with a Maker Family
surfacewaters. It has served as the basis for senior design project for several engineering students atUniversity of Maryland Eastern Shore (UMES) and continues to provide a development platformfor a multidisciplinary team of STEM students to meet all of the design requirements withsupervision of a team of UMES faculty members and collaborators from United States Departmentof Agriculture (USDA). The design and data analyses efforts will also serve as the basis of amaster’s thesis work for a STEM graduate student at UMES.At present the base platform has been designed and utilized for navigation using remote control tospecified locations to collect water quality data and sampling of surface water on a UMES pond.For visualization purposes geo-located
science, technology,engineering, and mathematics (STEM) educators in an easily accessible and compelling form:that of an online forum student usage model. Recent work in engineering education providesprecedent for the use of personas to communicate research findings [10-12]. Moreover, incommunicating our findings using personas with contextualized scenarios that describe how thepersonas choose to actively engage (or not engage) with the online forum, we anticipate (a)improved transfer of contextual findings to a broad audience of STEM education stakeholdersand (b) heightened motivation and confidence among STEM educators toward implementingonline forums in order to increase participation of diverse, nontraditional undergraduates.Prior Use of
Table 1, below, identifies each of the 9 dimensions of innovation and indicates the meanlevel of their perceived rating in the incubator. Mean ratings are noted along with a short Collaboration & Cooperation Permeable Boundaries Voluntary Participation Safe Supportive Environment Respect for Faculty Governance Experimentation & Evaluation Administrative & Departmental Support Entrepreneurial Student Involvement Multiple & Diverse Perspectives Strategic Partnerships Exploration & Risk-taking Transparent & Inclusive Processes Inspiring Leverage Research &
discussed inertia as a reason tocontinue to use tests. One relevant observation is that Charlie might be open to using other forms ofassessments, evident in Figure 5 as the course grade weighting shows a project used in theircourse. However, when asked about the project, Charlie did not make any explicit connectionsbetween the project and test usage. Instead, they included the project because it was an outcomeof a collaboration with an engineering education researcher, and Charlie decided to keep itbecause they found it different for their students in a thermodynamics course and the studentsliked it.“The credit for the project all goes to [engineering education researcher]. She had the idea for aproject that we did as part of an NSF project
Page 5.413.1 21.3 Funding of U.S. Graduate Education for ResearchAs the 1995 NRC report noted:“ … The American system of graduate education of scientists and engineers, organized around an intensive andrealistic research experience, has become the world model for simultaneously conducting basic research andeducating graduate scientists and engineers.The efficacy of our system originated in a series of policy decisions that were prompted by the major role thatscience and technology had in the outcome of World War II. Among those decisions were the following:• The public, through a number of government agencies, would assume an
college in a timely manner.Initially, when approaching how to investigate areas in the GREAT framework, the task forcedeveloped research questions to use as a guide in the exploration. Additionally, best practiceswere considered for each area. This aided in creating a foundation to build a plan addressingstrengths and weaknesses in each component of GREAT.GraduateSince the GREAT framework examines school improvement from a reverse-engineeringstandpoint, graduation is the starting point in the process. Increasing graduation rates is aconstant struggle for urban universities and many factors were discussed to address issues thatcurrently prevent students from graduating in a timely matter. Urban colleges typically attract alarger population of
art as a communicationtool.1. Introduction1.1 Problem IdentificationAlmost all scientists that left a big impact on human civilization such as Isaac Newton,Descartes, and Michael Faraday were interdisciplinary researchers. The famous mathematicianand astronomer La Place says “to discover is to bring together two ideas that were previouslyunlinked” [1]. In the recent years, interdisciplinary research has become a necessary educationaltool for successfully finding solutions to real-world problems. It increases the experience-basedlearning, assists students in exploring unknown fields and discover new ideas and motivatesthem to complete their degrees. However, interdisciplinary collaboration can mostly be seen inthe postgraduate degree levels
, he was a graduate student at the University of New Hampshire, where he earned his BS and MS degrees in electrical engineering.Thomas G. Westfall, Virginia Tech I am an environmental engineering graduate student researching water quality issues in urban streams and rivers. I am specifically interested in developing methods using real-time environmental data for stakeholders in the urban community.Mr. James Edward TaylorMs. Serena Lise Emanuel, Virginia Tech Ms. Serena Lise Emanuel is a Biological Systems Engineering student in her third year at Virginia Tech in Blacksburg, Virginia. Focusing on watershed management and protection, she has explored water resources in Hangzhou, China and Dublin, Ireland through
” environment, ensuring no risk of actual harm. Additionally, weoffer suggested lessons that incorporate conflict while leaving their implementation to individualinstructors, enabling them to tailor the experience to their specific classes.Research indicates that competing in a game-based scenario enhances students’understanding [7]. In addition, cooperation fosters greater interest in repeating scenarios. Byincorporating both competitive and collaborative tasks, we aim to leverage the benefits of bothapproaches. Furthermore, engaging the entire classroom not only increases participation but alsoreduces the administrative burden on teachers.Impulse [8] is a direct example of a game that prepares students for future learning. It offers asimulation-based
c American Society for Engineering Education, 2013 Impact of Research Experience for Teachers with International and Societally Relevant ComponentsIntroductionWe sought to bridge the divide for teachers and their students between secondary science andmathematics content, on one hand, and the engineering of solutions to real-world societally-relevant problems, on the other hand. The expected outcomes for the Research Experience forTeachers: Energy and the Environment project* (RET) included: 1. Teacher knowledge and attitudes toward science and engineering will improve as a result of participating in ongoing engineering research projects for six weeks during the summer and
Government put forward a nationwide program knownas “A plan for Education and Training Outstanding Engineers (PETOE).” The goal ofthis engineering-focused higher education reform is to improve students’ socialresponsibility in terms of serving the nation, courage to explore creative ideas, andpractical ability to solve problems2. University-industry collaboration is a uniquecharacteristic of PETOE and a key factor for further implementation of this program,because university-industry collaboration can enhance the inventive and practical skillsof engineering students at the same time.The importance and necessity of developing engineers’ abilities throughuniversity-industry collaboration Cultivating engineers through university-industry collaboration
Introductory Design CourseTeamwork and Collaboration are among the three primary competencies needed for graduates tobe successful in the workplace according to the Committee on Defining Deeper Learning and21st Century Skills organized by the National Research Council.1 The committee reviewed eightthematic reports and subsequently presented a framework intended to inform curriculumprograms of these desired skills. Organizations and criteria governing the accreditation ofvarious higher education disciplines also address the need for teamwork skills. Several studentoutcomes in the ABET Engineering Accreditation Commission2 specifically relate tocollaborative work: 3(d): an ability to function on multidisciplinary teams 3(g): an ability to
scholarly journals, we used this natural experiment to spurour exploration of this population’s information seeking behaviors. Would this change in accessimpact the way this community found, accessed, or ultimately used scholarly literature? Wouldthey even notice? The purpose of this research study was to gain a more nuanced understandingof engineering faculty and graduate students’ information seeking behaviors to better understandtheir current practices and needs.Exploring these questions has implications for engineering librarians’ collection developmentand instruction choices. It also has implications for the way access points like link resolvers ormessages about navigating back to a library’s subscription-based resources are designed
), suggesting a complex anddynamic interaction between context and learner that shapes the emergence of relevant affective andmotivational processes related to learning and knowledge construction in engineering education. Theunderlying stability of student affect/ motivation and engagement, the environmental factors thatcontribute to its dynamic change over time, and the meaningful levels of analysis and time frames ofstudy are all points of leverage for future research. Evaluation and assessment. The establishment of faculty collaborative networks for research andteaching (Madhavan, et al., 2011) and the diffusion of educational innovations among engineeringeducation faculty (Borrego, et al., 2010) possess underlying network structures that
, Universidad EAFIT, Medellin, Colombia - Purdue University, West Lafayette ´ Juan David Ortega Alvarez is an assistant professor at Universidad EAFIT and served as the Head of the Process Engineering Department from 2010 to 2014. He holds an MS in Process Engineering and Energy Technology from Hochschule Bremerhaven (Germany) and is currently enrolled as a graduate student in the Engineering Education Doctoral Program at Purdue University. Before his full-time appointment with EAFIT, he served as Engineering Director for a chemical company for 7 years. His research interests are focused on the practice and teaching of process design, simulation and control and also on faculty and institutional
workforce.ConclusionThe study concludes that TPB-based interventions can effectively enhance student participationin team projects within STEM education. These interventions offer a promising avenue foreducators seeking to improve teamwork and collaboration among students. However, the studyalso acknowledges limitations, such as the potential variability in intervention effectivenessbased on individual student differences and the broader applicability across different STEMdisciplines.Future research should explore the long-term impacts of these interventions on students'teamwork skills and their transition to professional environments. Additionally, further studiescould investigate the scalability of the interventions and their adaptability to diverse
worked in research and develop- ment in artificial intelligence, computer vision, robotics, and sensor fusion. Prof. Nathan also has worked on computer-based tutoring environments for mathematics education that rely heavily on students’ own comprehension processes for self-evaluation and self-directed learning (so-called unintelligent tutoring systems). Prof. Nathan directed the STAAR Project, which studied the transition from arithmetic to al- gebraic reasoning. He served as Co-PI for the NSF-funded AWAKEN Project, which documented how people learn engineering in K-12, college, and the workplace. Dr. Nathan recently served as a member of The National Academy of Engineering (NAE)/National Research Council Committee on
chain management and logistics focused initiatives. Her graduate and undergraduate students are integral part of her service-learning based logistics classes. She teaches courses in strategic relationships among industrial distributors and distribution logistics. Her recent research focuses on engineering education and learning sciences with a focus on how to engage students better to prepare their minds for the future. Her other research interests include empirical studies to assess impact of good supply chain practices such as coordinated decision making in stochastic supply chains, handling supply chains during times of crisis and optimizing global supply chains on the financial health of a company. She has
Doten-Snitker, University of Washington Ms. Doten-Snitker is a Graduate Research Assistant at the University of Washington’s Center for Eval- uation and Research for STEM Equity, where she is part of a team conducting evaluation research for university-level educational and professional training, with a focus on increasing equity and participation of underrepresented and minority students and professionals. She has contributed to evaluation research for a range of programs funded by the NSF, NIH, and USAID. Additionally, she is a Doctoral Candidate in Sociology at the University of Washington, where her scholarship focuses on political processes of inclusion and exclusion.Dr. Julia M. Williams, Rose-Hulman Institute
communities21, service learning22, problem-based learning23,24, cooperative learning24and the use of team projects25. More recently, researchers have tried to improve engagement byintroducing cultural touch stones for teaching engineering concepts in large classrooms26,collaboration with multiple disciplines27, collaboration between multiple schools28, ethnographicrecords and virtual learning experiments29.Recent research efforts have identified the role that faculty plays in the classroom to create anenvironment that is engaging to the students30. This is especially true in teaching focusedschools such as Tuskegee University31,32. The way teacher behaves in classroom and his/hercommunication ability plays a crucial role in the engagement of students8