Engineering with an affiliate appointment in Educational Psychology. Her research interests include vascular biomechanics, hemodynamics and cardiac function as well as the factors that motivate students to pursue and persist in engineering careers, with a focus on women and under-represented minorities.Prof. David Williamson Shaffer, University of Wisconsin-Madison David Williamson Shaffer is a Professor at the University of Wisconsin-Madison in the Department of Educational Psychology and a Game Scientist at the Wisconsin Center for Education Research. Before coming to the University of Wisconsin, he was a teacher, teacher-trainer, curriculum developer, and game designer. Dr. Shaffer studies how new technologies change
forefront of this transformation. STEM students,as future innovators and leaders, need to be well-equipped with knowledge and skills in thisdomain. However, the key to effective learning lies in inclusivity and hands-on experience. Thispaper aims to elucidate strategies for integrating inclusive experiential learning with sustainablerobotic agriculture in STEM education.The student participants from science and engineering explored the potential benefits andchallenges of technologies such as Farmbots (an open-source farming technology that combinesrobotics, automation, and software to facilitate precision farming in small-scale agriculturalsettings) while considering the equitable distribution of resources, the three P’s (People, Planet,and Profit
degree-seeking years [13], to the inseparable impact of the state of the world onto the state of theclassroom (especially students who do not fit the tradition and dominant paradigm of white andmale-presenting) [14]. Microaggressions have been revealed to have an intense net-negativeeffect on people from marginalized communities working and studying in academic spacesperpetuated by systemic social structures that reinforce white-body supremacy [15]. Work tocounter legacy or traditional pedagogical practices where technical course topics are siloed fromhumanitarian efforts include the sociotechnical integration of human-centered design withengineering coursework [16], and discursive “micro-insertions” of ethics into technical coursesfor a
Paper ID #8996Ethical Concerns of Unmanned and Autonomous Systems in EngineeringProgramsProf. Richard S. Stansbury, Embry-Riddle Aeronautical Univ., Daytona Beach Dr. Richard S. Stansbury is an associate professor of computer engineering and computer science at Embry-Riddle Aeronautical University in Daytona Beach, FL. His research interests include unmanned aircraft systems, field robotics, and applied artificial intelligence. He is program coordinator for ERAU’s new MS in Unmanned and Autonomous Systems Engineering program, which began in fall 2013.Mr. Joshua Lloyd Olds, Embry-Riddle Aeronautical Univ., Daytona BeachDr
licenses or certifications tied to them (Aft, 2002). Accreditationrelies heavily on the learning outcomes detailed in Criteria 3 a-k. This study aims at providinganswers to the following questions: What is the student achievement of the learning outcomesdetailed in EC2000 (Criteria 3 a-k), as reported through student perceptions’ data? ABET (2016) curriculum requires an integration of content in a culminating experiencefor the student to apply technical and non-technical skills to solve problems. The culminatingexperience is typically found within a capstone courses. Capstone courses are for studentstypically within their final semester(s) prior to graduating. While each individual programcurriculum of their capstone course differs slightly
studentengagement in terms of “quality of effort” (p. 339), while engaged faculty create an environmentthat stimulates student engagement. Faculty activities influence the experience of students. Theseactivities include instruction, professional development, and overall attitudes. Studentexperiences occur in and out of class, and these events affect what and how well the studentlearns. Importantly, if the students believe their professors care about and take an interest in theireducation, they persevere and become more engaged in their education [1]. Although the contentof both curricula and courses affects student engagement, far more important factors involve thestudents’ outlook on their educational experience as well as how effectively the faculty
in engineering problem solving. His research interests particularly focus on what prevents students from being able to integrate and extend the knowledge developed in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals.Dr. Susan Bobbitt Nolen, University of Washington Professor Emerita of Learning Sciences and Human Development, Dr. Nolen’s work focuses on engage- ment and learning from a situative perspective. Recent research at the postsecondary level includes the take-up and use of tools for concept-based instruction in mechanical engineering and engagement and negotiation in group work on simulated real-world problems in engineering.Michelle
textbooks limits them to relativelysimple problems that fail to show students the larger picture when it comes to economic analysis.The use of personal finances similar to those identified by Martinazzi and Lavelle3 has beenfound to increase interest in a subject that many students find dry and confusing. By usingpractical common sense problems, faculty is able to impress the applicability of engineeringeconomy on the individual student.Bibliography1. Hartman, J.C., “Engineering Economy: Suggestions to Update a Stagnant Course Curriculum,” American Societyfor Engineering Education Annual Conference Proceedings, 1998.2. Wells, W.E., “Economics for Engineers: An Integrated Approach,” American Society for Engineering EducationAnnual Conference
international service projects and how students learn to enhance creativity. An Illinois alumnus, he earned his bachelor’s degree in mechanical engineering, worked in industry for four years, and earned his master’s and doctorate degrees in agricultural and biochemical engineering at Purdue University. Since 1986, he has been on the faculty at the University of Illinois, where he is a professor in the Department of Agricultural and Biological Engineering.Laura D Hahn, University of Illinois, Urbana-Champaign Dr. Laura Hahn is a zero-% time assistant professor in the Department of Agricultural and Biological Engineering at the University of Illinois at Urbana-Champaign. She specializes in curriculum and instruc- tion
Paper ID #24834Conceptual Representations in the Workplace and Classroom Settings: AComparative EthnographyMr. Matthew Stephen Barner, Oregon State University PhD student at Oregon State University working under Dr. Shane Brown. Research interests include: engineering education, diffusions of innovation, concerns-based adoption model, conceptual change theory, workplace learning and earthquake engineering.Dr. Shane A. Brown P.E., Oregon State University Shane Brown is an associate professor and Associate School Head in the School of Civil and Environmen- tal Engineering at Oregon State University. His research interests
MS degree program. The Klamath Falls campus can accept about ten students per yearinto the MS degree program. In contrast, undergraduate computer engineering technology (CET)is currently about 100 per year. Another 100 per year eagerly go into software engineeringtechnology (SET).The Oregon Institute of Technology, part of the Oregon University System (OUS) now offers theMaster of Science degree with an emphasis on application specific integrated circuits (ASIC’s), 8application and design. Details are available on the Web . The Northwest Association ofSchools and Colleges accredits the MS degree, and all of OIT. The (ideal) curriculum map atOIT in Klamath Falls for a 48 quarter-units
consumption/heating value consideration.Conclusions Consistent with the ABET emphasis on design content through out the curriculum,extensive use of computers, written and oral communication, and team work, I try toincorporate all these aspects in my lab courses. So far I have seen a lot of enthusiasm in mystudents involved in the development projects after an initial brief period of apprehension, anduncertainty. A little reassurance and motivation by the professor go a long way in overcomingthese mental obstacles. After successful completion of their projects, one could feel theirsense of achievement. Comments such as “This was a unique experience for me here,” “Ilearned a lot in this lab,” and “the only turbine I had seen before taking this
modules in collaboration, a successful launching of a travel course comesfrom not just a single module, but an integrated efforts of them all. All the modules incollaboration are intertwined, and they are fostered throughout the entire duration of thetravel course’s development and implementation.To foster an effective collaboration, the key is to find out the trustworthycollaborators, trust them, learn from them, and appreciate them.Through the collaborations with a wide-range of colleagues and friends, we discovered acolleague had previously drafted a travel course proposal, but the proposal was declinedby the administration. That is why there had never been a travel course offered in ourdepartment before. The common concerns include:1. Why is
extremely compelling, identifying and analyzing data within current events”.Industry feedback includes the following:“Data plays an integral role in the energy sector, driving almost every facet of the industry. Withdata analytics, organizations in this critical sector can learn to get the most out of their data andbetter serve their communities through optimal energy utilization and process refinement. As acybersecurity professional at National Fuel, I see every day how data plays a key role inprotecting our infrastructure as we provide energy to our communities in Western New York andPennsylvania. MS DSA Clean Energy option at SUNY Buffalo State provides a better insight forour engineers to efficiently use methods and tools to realize these
growing incurricula through courses that focus on topics such as artificial intelligence, data science, dataanalytics, computer science, machine learning, and more [22]. While promising, these coursestend to be offered, much like other courses in the curriculum, as offerings that increaseknowledge of specific methods and tools, rather than providing students the opportunity toexperience their education as a continuum and progression of knowledge that supports theintegrated systems thinking mindset that is needed in an integrated/connected digital world.A growing number of graduate programs offering doctoral degrees in engineering education haveemerged since 2004, when Purdue University and Virginia Tech transformed engineeringfundamentals
AC 2010-1647: A CROSS CURRICULAR NUMERICAL AND EXPERIMENTALSTUDY IN HEAT TRANSFERTimothy Doughty, University of PortlandSteven O'Halloran, University of Portland Page 15.23.1© American Society for Engineering Education, 2010 A Cross Curricular Numerical and Experimental Study in Heat TransferAbstractIn this study, the integration of numerical and experimental analyses for the heat transfer of acooling cylinder is revisited. In the spring of their Junior year, students in an introductory heattransfer course are asked to perform a numerical analysis of the cooling phenomenon for the freeconvection of cooling cylinder. The students study both aluminum and acrylic cylinders
engineering entrepreneurs, participated in a 3-day start-up weekend hosted by theuniversity’s Innovation Hub, attended engineering job fairs and two semesters of project-focusedseminars, and read entrepreneurial and/or leadership-related books. This included reading booksand providing oral reports of prominent entrepreneurs across various domains (to supplementdiscussions held during synchronous seminars). The students also met with mentors on a regularbasis. Furthermore, they engaged in intrapreneurial-focused curriculum activities that weredesigned to increase understanding of and engagement with intrapreneurship.Program component details:• Faculty mentorship: Students chose an Electrical and Computer Engineering faculty mentor. The student
enculturation as an engineer. The research is guided bythree fundamental research questions: 1) How does the integration of computing into the foundational engineering courses affect the formation of engineers? 2) In what ways do social identities (e.g., gender, ethnicity, first-generation status, socioeconomic status), choices (e.g., major, transfer status), and other factors impact the engineering student experience with computational thinking? 3) In what ways do computational thinking skills develop over time in engineering students?Instrument ValidationOver the past two years, the research project sought answers to questions one and two whilegathering longitudinal data for question three. The first major research result from
process, possiblyfor the only time in their carriers. The process of carrying out all of the design stages providedeach student with an unique perspective on the nature of design that may not occur in teamsituations. The construction of a working prototype can be a difficult and frustrating experience,since each student defined the requirements of the project and invested his or her own money,motivation to persevere through completion was high. Many engineering students enjoy hands-on activities and often develop some type of informal design experience before beginningcollege. The undergraduate curriculum rarely exercises or develops these skills. The individualprojects drew from these previous informal design experiences but added an
. Kent J. Crippen, University of Florida Kent Crippen is a professor of STEM education in the school of teaching and learning at the University of Florida and a fellow of the American Association for the Advancement of Science. ©American Society for Engineering Education, 2024 Towards A Survey Instrument For Use In Proactive Advising This paper focuses on developing a survey instrument to support proactive advisingstrategies based on data analysis. Proactive advising strategies aim to identify at-risk studentsearly, as these students often delay seeking support, and engage them effectively in the supportprocess[1]. An advising curriculum can be created to provide structure for the
manner to better understand student knowledge ofcore concepts. Additionally, the development of reliable and valid subject specific instrumentsi.e., survey and concept map as used in this study could be used for other pedagogical studiesrelated to engineering education.Bibliography1. J. Bordogna, Fromm, E. and Ernst, E. W., "Engineering education: innovation through integration," Journal of engineering education, vol. 82, pp. 3-8, 1993.2. U. S. h. education, "ABET Criteria 2000, www.ele.uri.edu/faculty/daly/criteria.2000.html." vol. 3a-3k, 2000.3. S. A. Zekavat, Sandu, C., Archer, G., and Hungwe, K. , "An evaluation of the teaching approach for the interdisciplinary course electrical engineering for non majors," in
equal access. Integral to this mission issupporting efforts to create diverse and welcoming campus communities for all students. Researchshows that institutions’ commitment and implementation of practices toward diversity, equity andinclusion (DEI) have positively impacted students and campus cultures [3, 4, 5]. There has beenan increase in institutional strategic activities including institutional political commitment andbroader efforts to create supportive institutional climates [6]. However, institutionalizing DEIshould be viewed as an ongoing process rather than a single action or outcome and requires thebuy-in of all institutional stakeholders. As such, certain institutions are further along in theirdiversity efforts than others, and the
activities were included above, but have also led to the followingactions from the task force: • Shared materials and resources amongst faculty to address DEI issues in syllabi, assignments, and in lectures • Agreements to work on integrating DEI issues across the curriculum • Reviewed recent student surveys for feedback on DEI issues and this was shared with faculty • Compiled and shared extensive notes from the DEI Town Hall • Hired two new faculty members to the department that will start in January 2022 that both represent diverse perspectives (1 Hispanic woman, 1 Black male)The response to these events from undergraduate students has been very encouraging and mostlypositive. However, to find out if any of
coverage of specific areasbut expecting a new faculty member to attend all this training is unrealistic. What this projectfocused on is providing a holistic, cohesive approach to multiple areas of faculty development.By providing the basics in these areas, it is expected that new faculty will be able to betterunderstand how to balance the demands of a position at a UG university and be more amenableto taking on curriculum innovations.BackgroundMany faculty development programs focus on an individual faculty responsibility such ashandling ABET Accreditation, Mentoring, Undergraduate Research or Effective Teaching.Research has demonstrated that faculty success is correlated to a reasonable balance between thefaculty member’s job expectations and
, supported by tutorials and laboratory work. d. The resistance of senior academics to change their academic practices is another major challenge that needs to be addressed, e. The lack of suitable accrediting bodies that evaluate the programmes, recommend methods of delivery, ensure appropriate qualification of academics and ensure the universities are equipped with appropriate facilities. f. Integration of experimental work with theory needs to be at the core of the curriculums to overcome the lack of appropriate practical skills in the industry.7.1. Further RecommendationsThe education system in Afghanistan has been misused for political short-term gains
higher education-workforce infrastructure for sustained, innovative Industry 4.0 workforce preparation. The factors being evaluated primarily involve objectives related to curriculum development, course integration, career pathway establishment, building partnerships and dissemination. Faculty Outcomes: To increase community college faculty members’ skills and comfort level with teaching Industry 4.0 curricula. The evaluation factors involve objectives related to the use of industry 4.0 curricula, and faculty and student satisfactions. Student Outcomes: To increase the number of workers (including underrepresented students) qualified to merge manufacturing OT & IT skills for an Industry 4.0
Engineering. This would allow researchinvestments and activities in the area to be directly reported on and measured for universities andany organisation involved in research.DiscussionThe swelling support, interest and recognition of HumEng in Australia has sparked studentinterest, academic literature and investment from institutions in the area. EWB-A was an initialdriver of this, building momentum through education programs and partnerships withuniversities. New academic appointments and a growing number of experiential providersindicate this growth is continuing.EWB-A acting as a central hub, a collegiate spirit, government mobility grant funding andbroader curriculum review and renewal were key enablers in the rise of HumanitarianEngineering in
surprised when unit test was completed in half a day. They said they had done a prototype of this code before the project started and it took 1.5 weeks to get it to work well enough to see any results. They have found only two defects since the code has been integrated with the rest of the software.” • “Our project increased its delivered quality by 10 times and reduced its effort by 20 percent compared to a previous project.” • “This is the hardest, most enjoyable, personally rewarding thing I have done outside of growing a family.” PSP and TSP in an Undergraduate Software Engineering Program The undergraduate software engineering (BSSE) program at the
-IP.Most of the fundamentals are on Digital Signal Processing but we focus on the applications tospeech and voice coding.In this paper, we first describe the DSP curriculum for both undergraduate and graduate students.We describe our experiences and the challenges encountered in developing these courses. Wedetail some of the laboratory and teaching materials and the exercises developed, etc.We discuss as an example the internet low-bit rate speech coder (iLBC) which is used to codespeech under packet loss conditions that exists on the internet.Finally, we present possible future directions in the course development. Page 13.967.2IntroductionThe area
Engineers Without Borders Challenge: Implementing Sustainability in German Engineering Education Tags: Engineers Without Borders Challenge, Sustainability, Problem-Based Learning Abstract The twenty-first century is highly influenced by globalization, climate change and an increasing dependence on technologies. Education in general needs to foster these trends, but especially engineering education needs to impart knowledge about the necessity and the possibilities of sustainable development to students. The Engineers Without Borders (EWB) Challenge offers an innovative opportunity to integrate sustainability into engineering curricula. Although the EWB Challenge is well