an ASEEor SIGCSE conference, but with the advantage of being uniquely suited to Baylor University’sculture. The assessment of the effectiveness of this endeavor will be presented, along with plansto generalize these “core values in teaching” for the academic unit’s use in maintainingexcellence in undergraduate engineering education.IntroductionDeficiencies in engineering education have been enumerated exhaustively in recent years by abevy of panels and blue-ribbon commissions.1,2,3,4 ABET indicates that we must strengthen ourcoverage of fundamentals while also teaching more about “real world” engineering design, covering material in frontier areas of engineering
students. MethodsA simple questionnaire was developed and distributed to the capstone community. Thiscommunity was primarily developed from academics and their willingness to invite industrycontacts. Participants included capstone instructors/ coordinators (N=41), and capstone sponsorsas well as other industry representatives (N=16). The survey was designed to be brief and general. Some comments received during dataacquisition pointed out that the brevity of the survey contributed to a lack of clarity as to whetherquestions were dealing with sponsor problem statements or student derived problem statements.This lack of clarity was deliberate and was intended to parallel real-world, open, general
science courses, and senior design courses 10, 29, 39, 47, 50.Previous research has shown many beneficial student outcomes from well-designed LTS effortsand programs. These outcomes, or desirable attributes, include deepening of student abilitiesrelated to ABET Criterion 3 a-k 9, 10, 21, 22, 37, 48, cultural competency 41, critical thinking 5, self-efficacy 31, sustainability 40, and leadership 21, 25.Community engagement (CE) in engineering education is defined as a form of active,experiential learning where students, instructors, and the community/client work collaborativelyon projects that benefit a real community need. This definition provides an umbrella under whichmany previous definitions and descriptions of service-based learning
projects share many Page 9.933.5common elements with “real world” software projects. Students face numerous technical Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Educationchallenges. Projects are designed so that every team is required to learn and apply one or morenew technologies in order to complete their project. Students have strict schedule requirements.The academic semester is fixed at 16 weeks; all project work must be confined to that time.Students experience management problems. All student projects
problemsolvers have and how well we are in teaching “problem solving” skills.1.2 Our Findings Are Applicable to Other DisciplinesWe have broad experience in working with students from different backgrounds. Although ourexperience is mainly with electrical and computer engineering students, we believe that ourobservations, explanations, questions, and concerns will be of relevance to other engineeringdisciplines.1.3 Engineering Programs: Description, Objectives, and RequirementsIn the typical electrical engineering program with which we are familiar, students are required totake a series of basic and specialized courses. The multidimensional requirements of theprogram are designed to provide the opportunity to the students to become a competent
globalization,and how globalization impacts their education, practices, and collaborations with non-engineers.For example, organizational changes and initiatives implemented to respond to globalcompetition, such as mergers, joint ventures, product customization, subcontracting, etc, createcircumstances for non-engineers to be hired as engineers as actually practice engineering. Underthese circumstances, non-engineers’ knowledges and skills become important for the solution oftechnical problems. Collected through ethnographic fieldwork and interviews, the data presentedhere show how processes of globalization open engineering practice to the application of non-engineering knowledge by non-engineers to complex technical problems. The analysis of this
serving as the President of the National Association of Multicultural Engineering Program Advocates. She has spoken at schools, churches and correctional institutions, and received a commendation from the Pennsylvania Historical and Museum Commission for her contribution to African Americans in the city of Williamsport and Lycoming County. Ms. Freeman has traveled internationally including Europe, Canada, Mexico, The People’s Republic of China, Jamaica, Morocco and the Republic of Korea. As a speaker and an educator, she emphasizes the need to learn as much as possible about others and the world around us.Javier Gomez-Calderon, Penn State University Dr. Javier Gomez-Calderon is a Professor of Mathematics and
sample sets21. Further, Sheu et al.21 notes that studiestend to focus on self-efficacy rather than outcome expectation even though their analysisindicates that outcome expectation may have a stronger impact on choice than previouslytheorized.This research contributes to this literature by testing social cognitive theory as a framework forimproved engineering education. It proposes that involvement in EWB-USA or similarorganizations impacts both self-efficacy and expected outcomes. By enabling students toparticipate in a real engineering project, it increases their sense of self-efficacy. Furthermore, byproviding diverse mentors and providing an alternative to Dilbert©-style engineering, it changesthe expected outcomes of becoming or remaining an
offeredso that students receive a comprehensive and carefully planned education to ensure that its Page 25.375.2graduates are competitive in the global world they will be living. ES is a clear example of the concern at UDLAP to offer cutting-edge academic programs and continuously seeksimprovement of teaching and student learning. As part of the education offered in UDLAP and inline with the agendas of the major engineering schools in the world, is that ES is concerned aboutimproving the quality of student learning in every one of its engineering programs. Improvementthat goes beyond just an update of the various programs but involves a thorough
-efficacy21 I can use a variety of assessment strategies for teaching engineering. 0.74022 I can adequately assign my students to work at group activities like 0.702 engineering design.23 I can plan engineering lessons based on each student's learning level. 0.68124 I can gauge student comprehension of the engineering materials that I 0.679 have taught.25 I can help my students apply their engineering knowledge to real world 0.550 situations.Engagement Self-efficacy26 I can promote a positive attitude toward engineering learning in my 0.690 students.27 I can encourage my students to think
error on the side of safety, so I wouldrecommend at least a safety margin of 2:1 (ten questions minimum) for a knowledge-based quiz. At NCEES, theexam specification requires each exam to include 25% equators, 25% new questions and the rest can be recycledquestions. But then, they are professionals with both budget and staff. For the rest of us in the “real” world, keepa file of your equators and try to add some new ones each cycle.I modify the above data collection process into two steps. Immediately after scoring a test, I select my samplecohorts and record the number of correct answers for both cohorts for each question directly in the margin of myanswer key. That allows me to return the tests to the students by the following class so they
thethermodynamics and mechanics at various points will allow determination of the variousefficiencies of the engine. The versatility of the engine with its instruments and controls packageis intended to allow for future research on the variables of steam and spray timing and insulationof the cylinder can affect the various efficiencies.Something else we plan to investigate are the effects of scaling on the performance and how theuse of different materials effects the overall performance of the engine. So many things can belearned about this historic technology. We speculate that the potential exists for this technologyto be used again, perhaps in third world applications. For example, one of the key needs of manyparts of the developing world is clean water
-12, undergraduate students, graduatestudents and the general public. The latter includes strong alliances with various stakeholdersthat led to several awards such as the 2009 EPA Region II Environmental Quality Award. Thelaboratory’s cultural transformation started in 1995 sponsored by the Department of Energy withenvironmentally friendly topics related to renewable energy such as Fuel Cell applications, SolarDetoxification, Biomass Conversion processes, etc. Workshops and Demonstrations wereintegral components of those efforts. At the turn of the century the focus increased to includesustainability principles such as social equity, ethics and community participation but withenergy as the central theme. This focus has been primarily
strategies for developing strategic plans that are particularly applicable toEngineering Technology Design Programs. It follows upon research undertaken byorganizational planning theorists, who contend that planning for sustainability and longevity isbest done through identifying operating principles (rather than by first determining specificobjectives). The paper also sets out and critiques definitive steps for developing sustainableprograms that can weather the future by being built upon well-thought out operating principlesand a shared vision.It is the authors’ intent to discuss this within the framework of a pilot study that could serve as atemplate for others to follow as they travel through this unfamiliar territory of strategic planning.Once
knowledge of first-generation college students inengineering: An instrument development [24]. While the instrument here focused on engineeringstudents, it can be used on STEM students. This is true as engineering makes use of and combinesSTEM subjects like science, technology, and math. On top of that, STEM and engineering fieldsare characterized as rigorous fields and students in both fields apply and learn critical thinking andproblem-solving skills in their curriculum. Thus, STEM and engineering can be considered similarfields in terms of their focus on science, technology, and mathematics and their application to real-world problems. From this instrument, this study has modified the construct names and itemsslightly to accommodate the target
participants also reported the benefit of career preparation and guidance: [O]ne of the main things that it does is that it kind of sets up your life after UW Tacoma and after ACCESS in STEM because we’ll work on like resumes or work on like other career building like exercises. And so I think it just like getting into the real world, getting more experience, like in the research and like just broadening like your knowledge about everything (Asian man, Cohort 2).Other students spoke about becoming involved in research opportunities or internships theyfound out about from their mentor. [P]ersonally my mentor helped me find some opportunities … I got ahead like with internships (Hispanic male, Cohort 3). I
Bangladesh University of Engineering and Technology (BUET). Shebuti Rayana’s research is to build a safe and secure digital world with the help of cutting-edge Data Mining techniques. During her PhD, she was involved in several projects funded by National Science Foundation (NSF), Defense Advanced Research Projects Agency (DARPA), and R&D grant from Northrop Grumman to develop Anomaly Mining algorithms and apply them to solve real-world problems. She also worked as a Research Intern in the Information Security team at IBM Thomas J. Watson Research ©American Society for Engineering Education, 2024 Paper
institutionalized their undergraduate engineering curricula, and extensively shared their results with the engineering education community. He co-created the Integrated, First-Year Curriculum in Science, Engineering and Mathematics at Rose-Hulman Institute of Technology, which was recognized in 1997 with a Hesburgh Award Certificate of Excellence. He has authored or co-authored over 70 papers on engineering education in areas ranging from curricular change to faculty development. He is collaborating on NSF-supported projects for (i) renewal of the mechanics of materials course, (ii) improving preparation of students for Calculus I, (iii) systemic application of concept inventories. He is currently an ABET Program Evaluator and a
for managing creativeenterprises.Collective CreativityManaging Creativity focuses on creative enterprises, in other words, how to lead, manage and/orwork in a creative team. Creativity is generally viewed as an individual pursuit, and of course, itcan be, but groups can produce things which one person can hardly imagine. Spacecraft,cathedrals, good schools, parks, medicines and computers all result from group or “collective”creativity. Plays, exhibitions and concerts are enabled by individual creativity, but they aremade manifest by the creativity of a group. A well-conducted orchestra produces music morethrilling than the sum of the individual skills of its musicians.Creativity is easily recognized in the worlds of art and science. But
, talking casually with students before class, and moving around the room during class. iii. Use multiple approaches for content delivery; mix lecture, multimedia, and discussion, with extensive use of engaging questions and in-class problem solving. iv. Use real-world applications of the content. c. To capitalize on the benefits of informal academic communities while minimizing their limitations, faculty can do the following. i. Provide dedicated space for group work such as dedicated study rooms or study tables, perhaps with specified hours. (This may require support from your department or college to implement, but can also be achieved by
earn“A” grades, while other students were expected to give their full effort toward accomplishments.And some students were expected to utilize the knowledge they gained in the classroom in a real-world atmosphere. For all participants, however, success revolved around their performance inschool and required all of their effort in academic undertakings and doing well in classes.For students like Salma, academics ranked highest among the priorities in her household. “Myparents always stressed education when we were young. That was always the main focusgrowing up: do well in school.” She explained that her parents established their expectationsearly by enrolling her in Head Start, a childhood development program for low-income families.As Salma
most challenging aspects ofeach laboratory; students will respond to (brief) surveys at the conclusion of each activity. Thelab activities and/or the lectures will be adjusted in light of the data and findings. Studentanalysis of data will be a component of the scoring rubric; data analysis skills will bedocumented in the lab activities as well as in course quizzes and exams.2. Connect what they learned in the lab with the contents of the lectures in a coherent way.Students will be asked on formal assessments to relate their learning from lab and lectureexperiences through the presentation of real-world data sets and problems. (Students may bepresented with data and asked to relate the data to the theoretical model; they may be asked toexplain
guy teaching the participants. Example: and we do a lot of studies with at-risk youth and Teacher wilderness programs” (Byron, T1). Fictional A person created for a story but does not “When I think of like who a good king would be and has not existed in real life. at Game of Thrones” (Penelope, T2). Example: Goku Group A group or categorization of people. “Probably just about any U.S. veteran” (Alex, Example: Engineers T1). Other Anyone that does not fall under any of “I would not like to [pick someone], mainly
removed from practical,real-world issues. Thus, empowering students to utilize their technical skills to meaningfullycontribute to pressing social issues can be an important motivator for students. At the same time,this element of the course should be balanced with an awareness of the practical, marketableaspects of this training in order to minimize any socioeconomic barriers to such courses. If thisaspect is not emphasized and students feel the skills they are gaining are not broadly marketable,some students who may be interested in these topics may feel it is not practical to pursue thisarea solely out of passion. Regardless of the field/nature of the course, students are gaining anumber of skills which will prove valuable and marketable
environmental injustice. These focus areas were illustrated with relevantengineering examples, highlighting the pervasive and structural nature of racism in societalsystems. Students engaged in scenario-based reflections, which required them to criticallyevaluate and think of engineering solutions to address these social justice issues. This criticalthinking exercise was further reinforced through a detailed case study on systemic racism,allowing students to apply social justice principles to real-world situations and proposeengineering solutions to the highlighted issues.The final segment of the module concentrated on hostile design. Through readings and videos,students learned about intentional exclusionary practices embedded in everyday designs
Graduate Student Project Surveys.No. Year Student Comments1 2011 I have no additional comments other than to say I really enjoyed working on the graduate project and it was my favorite part of the class.2 2011 Doing this project in ANSYS would take much less time and be more applicable to real world engineering. No one is going to make a FEM code every time they need to do a model if a company already has an OK GUI to do it in.3 2011 The project was not so hard, just took a long time. Plenty of information was provided for the project by the end of the semester but need more on beam analysis earlier to finish on time (original due date).4 2011 The
processor, presentations) that offer many of the standardcapabilities of spreadsheets. For engineering purposes, it contains basic graphing capabilities, allstandard functions and calculation capabilities. It does lack some features of particular use toengineers, including a “goal-seek” capability and circular (iterative) calculations. Anotherdownside is a limit of 1MB for a single spreadsheet file. Documents may be imported from andexported to desktop applications, including Excel. The distinguishing feature of the offering isthe ability to not only share documents with other users, but for all of those users tosimultaneously edit the document with all changes appearing on the spreadsheet in nearly real-time. The application uses subtle outlines
regularly to report progress of FIG members. Meets with the FIG director and other PMs bi-weekly for reporting and encouragement. Builds community and camaraderie among the FIG freshmen by attending social and professional society events together at least once a month.Industrial Mentor (Started in year two) Industrial mentors are recruited from local industry by the FIG director with input from the faculty mentor. Meets with the FIG approximately two times during the semester. Provides a mechanism for exposure of first-year SEET students to “real world” engineering practice either through discussion, presentation, or a plant visit during the first half of the fall semester. Provides a role model to
foster design learning in middle school students and to support entrepreneurship at primarily undergraduate institutions. Her background is in civil engineering with a focus on structural materials. She holds a B.S.E. degree from Princeton, and M.Eng. and Ph.D. degrees from Cornell.Prof. Robin Ott, Virginia Tech In 1995 Robin received a Bachelor’s degree in Mechanical Engineering at Virginia Tech and has since gained 20 years industry experience. Early job experience included working as a design engineer for a Naval Sea Systems Command contractor where she designed a Countermeasure Washdown System for the MHC-51 Coastal Minehunter ships. She also spent time as an Application Engineer at Parametric Tech- nology
= .001,which indicates that the actions taken by the professor in and outside of the virtual classroomsupported the development of interpersonal rapport. In summary, the six elements of theExCEEd model were critical for the emergency transition to the online environment.Introduction - On March 2020, due to the COVID-19 world pandemic (WHO, 2020), business,recreational and educational activities were shutdown with a stay-home order in the state ofCalifornia (CA). Following this order, California State Polytechnic University, Pomona (CalPoly Pomona) paused face-to-face (F2F) instruction on Friday, March 13, and resumedinstruction in a virtual format on Wednesday, March 18. Cal Poly Pomona’s faculty had threebusiness days to prepare materials