eight prominent and diverse southeastern colleges ofengineering with a shared vision of creating sustainable engineering education reform havingnational impact. This vision was articulated through the definition of a curriculum model based onthe desired attributes of engineering graduates. It was desired that the graduates of thiscurriculum be technically competent, critical and creative thinkers, life-long learners, effectivecommunicators, team players, and globally aware. They should understand process and systemsdesign and integration, display high ethical standards, and appreciate the social context ofengineering and industry business practices. The curriculum model was designed to develop thesequalities through changes in the curriculum
effectively" Outcome h: "the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context" Outcome i: "a recognition of the need for, and an ability to engage in life-long learning" Outcome j: "a knowledge of contemporary issues" Proceedings of the 2009 ASEE Gulf-Southwest Annual Conference Baylor University Copyright © 2009, American Society for Engineering Education Outcome k: "an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice"Since these skills are important in the university setting, these are the
student mentees within educational out-of-school time STEM programs. Outside of their research, they are the Founding President of the Policy Advocacy in Science and Engineering (PASE) student organization and Vice President of the Engineering Education Graduate Student Council at the University of Florida.Krista Dulany Chisholm, University of Florida Dr. Krista Chisholm is a Research Assistant Scientist working for the EQuIPD grant at the University of Florida. She currently manages the development and deployment of the grant’s K-12 Programs which include the Goldberg Gator Engineering Explorers Summer Program and the Powering the Community: AI Design Contest in school districts across Florida. She was previously the
helping companies attract innovators.Carolyn Breden Voter, University of Wisconsin-Madison Carolyn Voter is a Ph.D. candidate in Civil and Environmental Engineering at University of Wisconsin- Madison where she focuses on urban hydroecology as part of the Hydroecology Lab with Dr. Steven P. Loheide II. She also currently serves as the project assistant for Water@UW-Madison, an umbrella organization which connects water scholars on the UW-Madison campus and beyond. As a certified instructor for the Software Carpentry Foundation, Voter regularly teaches scientists and engineers best practices for scientific computing by live-coding in a two-day, learner-centered workshop. She completed her Delta Certificate in Teaching
in terms of providing classes for 150200 students at a time, not 2050. There is also the issue of faculty skills. With tenure as a practice, the change in skill mix is very slow. Thirty year careers are very common, so only onethirtieth of the resident skills has the possibility of change every year. While practitioners and adjuncts help accelerate this process, in the long run those individuals are not permanent fixtures in the program. The second is that ASCE’s BOK2 “demands” are only one of a larger set of “demands” that current programs face. An example is preparation for graduate school, teaching students how to do scholarly research, about which the BOK2 is silent. Naturally, the BOK2 addresses
efficient in learning. All together with using active learning, instructors mustalso consider the ‘Student Resistance to Active Learning’ which remains a new area of interest forengineering education research [12]. ‘Student Resistance to Active Learning’ may be reduced byemploying the strategies proposed in literature such as varying the teaching methods usedthroughout the course and making and using a public grading rubric for students to avoidperception of grading unfairness, just to mention few [13-14]. Although, this paper focused on thedifferences in student expectations on the efficacy of instructional practices, the impact of thosechanges on the learning outcomes is yet to be determined and is the focus of our future work.References[1
Scholarship.Margot Vigeant, Bucknell University Margot Vigeant is Associate Professor of Chemical Engineering and Associate Dean of Engineering at Bucknell University. She is very interested in first-year engineering education.Donald Visco, Tennessee Technological University Don Visco is a Professor of Chemical Engineering at Tennessee Technological University, where he has been employed since 1999. Prior to that, he graduated with his Ph.D from the University at Buffalo, SUNY. His current research interests include experimental and computational thermodynamics as well as bioinformatics/drug design. He is an active and contributing member of ASEE at the local, regional and national level. He is the 2006
transmitting facility or renewal of alicense. Failure to comply with the FCC’s RF exposure guidelines could lead to the preparationof a formal Environmental Assessment, possible Environmental Impact Statement and eventualrejection of an application.”19 Beyond this, the FCC Rules impose a continuing duty to ensureoperating facilities are in compliance and a not a danger to workers or the general public.Substantial fines are imposed for failing to comply with radio frequency radiation (“RFR”)maximum permissible exposure (“MPE”) limits applicable to facilities, operations, ortransmitters5,6,7.The FCC’s policies with respect to environmental RF fields are designed to ensure that FCC-regulated transmitters do not expose the public or workers to levels of
pushes students to their creative limits through the use of open-ended projects in which realistic, complex, challenging state-of-the-art problems are investigated. This new approach will increase student enthusiasm and provide closer alignment of classroom topics with today’s standard industry practice. This paper will deal with a unique application of the research/teaching method used at the undergraduate level, using a hands-on laboratory approach in conjunction with classroom lecture. The approach can be tailored to all levels from introductory freshman to senior-level classes. An open-ended project is utilized, requiring a creative approach for its solution. Faculty and students are both learners and investigators, formulating and solving
learning environment?3. One of the discovery projects mottos was the “WOW” factor. How can the wow factor be incorporated into the everyday educational experience of a learner?4. This has been a big year for teacher training with this project. What ideas does this group have toward bringing the best researchers to contribute to the overall content knowledge and retooling the educational landscape to meet the learners’ needs?5. The discovery project has changed our direction and emphasis many times over the last two years; still we have learned to trust certain practices to enhance learning. In a corporate or higher education environment, what leadership practices to you employ to promote best practices which reinforce the concept
academic behaviors,” Achiev. Achiev. Motiv., 1983, Accessed: Feb. 06, 2022. [Online]. Available: https://ci.nii.ac.jp/naid/10020820462/#cit[7] A. Y. Huang-Saad, C. S. Morton, and J. C. Libarkin, “Entrepreneurship Assessment in Higher Education: A Research Review for Engineering Education Researchers,” J. Eng. Educ., vol. 107, no. 2, pp. 263–290, 2018, doi: 10.1002/jee.20197.[8] S. E. Zappe, S. L. Cutler, and L. Gase, “A Systematic Review of the Impacts of Entrepreneurial Support Programs in Science, Technology, Engineering, and Math Fields,” Entrep. Educ. Pedagogy, p. 25151274211040424, Sep. 2021, doi: 10.1177/25151274211040422.[9] R. K. Mitchell, L. Busenitz, T. Lant, P. P. McDougall, E. A. Morse, and J. B. Smith
Foundation under grantnumber 2130326. Any opinions, findings, and conclusions or recommendations expressed inthese materials are those of the authors and do not necessarily reflect the views of the NationalScience Foundation.References[1] P.M. Yanik, C.W. Ferguson, A. Ritenour, W. Cagle, and S. Rowe. “Fostering Leaders in Technology Entrepreneurship (FLiTE): Program Goals and First-Year Activities.” Proceedings of the American Society for Engineering Education Annual Conference and Exposition, 2013.[2] M.H. Davis, J.A. Hall, and P.S. Mayer, P.S. “Developing a New Measure of Entrepreneurial Mindset: Reliability, Validity, and Implications for Practitioners.” Consulting Psychology Journal: Practice and Research, 2015.[3
, there have been dramatic changes in the way engineering principlesare applied to practical problems. Increasingly, an integrated approach using analytical,experimental, and computational approaches is being utilized. The development of compact,powerful digital computers has been one prime mover in these changes, with computationalalgorithms now often replacing experiments as primary analytical tools. However, experimentsstill play a crucial role in developing in students an understanding of complex thermofluidphenomena. Additionally, the analytical (exact solution) approach still has an important place inbringing intuitive insight into a problem. For these reasons, engineering programs in academia
11, 609-630 (2012).9. LeDoux J. A., Gorman, C.A. & Woehr, D.J. The impact of interpersonal perceptions on team processes: A social relations analysis. Small Group Research 43, 356-382 (2012).10. Resick C. J. , Dickson M. W. , Mitchelson J. K., Allison L. K. & Clark M. A. . Team composition, cognition, and effectiveness: Examining mental model similarity and accuracy. Group Dynamics: Theory, Research, and Practice 14, 174-191 (2010).11. Mero, N.P., Motowidlo, S.J. & Anna, A.L. Effects of Accountability on Rating Behavior and Rater Accuracy. Journal of Applied Social Psychology 33, 2493-2514 (2003).12. Mero, N.P. & Motowidlo, S.J. Effects of rater accountability on the accuracy and the
and conduct experiments, as well as, to analyze and interpret data.c. An ability to design a system, component, or process to meet desired needs.d. An ability to function on multi-disciplinary teams.e. An ability to identify, formulate, and solve engineering problems.f. An understanding of professional and ethical responsibility.g. An ability to communicate effectively.h. The broad education necessary to understand the impact of engineering solutions in a global and societal environment.i. A recognition of the need for an ability to engage in life-long learning.j. A knowledge of contemporary issues.k. An ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.Kettering
collected in the post-program survey, and shared positive impactsof the program in focus groups. Among many recommendations we make for others interested instarting or improving a STEM summer bridge program, we point especially to our thoughtfulprogram design as well as the thoughtful selection of courses and faculty that engenderedconfidence in student’s ability to be successful in STEM courses. 17 REFERENCES1) Ackermann, S. P. (1991). The benefits of summer bridge programs for underrepresented and low-income transfer students. Community/Junior College Quarterly of Research and Practice, 15(2), 211–224
Paper ID #9379Work in Progress: Using Outcomes-Based Assessment in an IntroductoryStructural Engineering CourseDr. Matthew W Roberts, University of Wisconsin, Platteville Matthew Roberts has been teaching at UW-Platteville since 2002. He is originally from Denver, Colorado and attended Brigham Young University for his B.S. in Civil Engineering. He then spent four years as a civil engineering officer in the U.S. Air Force. After his military service, he completed graduate work at Texas A&M University. He teaches classes on reinforced concrete design, structural steel design, and other structural engineering topics.Ms
Paper ID #39795Learning Concrete in Construction Management Course through BowlingBallProjectProf. Pranshoo Solanki, Illinois State University Dr. Pranshoo Solanki is a full professor in the Construction Management program of Department of Technology at Illinois State University. He received his doctorate in civil engineering from the University of Oklahoma in 2010. The overall theme of Dr. Solanki’s research is innovative construction materials and methodologies which can be used for building a sustainable civil engineering infrastructure. Dr. Solanki mainly teach courses in the area of construction materials and design
environment, for both lecture and lab courses. 2- Identify the challenges faced by students while adapting to the remote learning environment. 3- Identify the new learning environments opportunities that emerged. 2. MethodologyTo achieve the objectives of this study, a qualitative research approach was utilized to investigatethe impact of the 2020 pandemic on the students’ learning experiences during the period ofremote teaching . The survey was designed to include five sections: (1) experiences withlectures and laboratory courses, including challenges faced and opportunities that emerged, (2)campus resources utilization, (3) extracurricular activities involvement, (4) students’ professionalexperience, (5) sense of community, and (6
card as our“technologies.” We were educated in an environment that was in transition as aresult of the Grinter Report,2 New Math and the Cold War. In time discussionsbegan to focus on the effects these changes made on our product -graduates.3Technological education was changing from a practitioner-oriented to a science-based pedagogy. In the ‘60’s we entered the space age where mathematics andscience began displacing practice and design in the majority of engineeringcurricula.II. Engineering Educators and Instructional TrainingSince 1960 the need for more science compelled universities to seek youngPh.D.'s as new faculty members. Like their predecessors, they entered theirteaching positions without formal training in educational sciences and
ability to act ethicallyas engineers, it is essential that students are exposed to it. At a minimum, the benefit to thestudent is their recognition of critical gaps in their education; at best, students will be motivatedto gain additional background knowledge from outside research, from peers in other disciplines,or simply from the context of assigned readings. Additional challenges include students notbeing used to doing large amounts of reading, or readings of the type assigned, such that theymay not think critically and bring good questions for discussion. Finally, the readings arechallenging because they pose a threat to the world view many engineers hold, and can producedefensive reactions. These challenges are discussed more fully
, Universidad EAFIT, Medellin, Colombia - Purdue University, West Lafayette,IN ´ 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 first-year 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
work and to those instructors teaching largefundamentals courses where engaging in dysfunctional group work could have a severelynegative impact on student learning. I also believe that the positive results presented here justifyfuture research to directly measure how IC compares with well-implemented group-work interms of promoting student learning.Bibliography1. ABET. Criteria for Accrediting Engineering Programs, 2017 – 2018; ABET: Baltimore, 2017.2. National Academy of Engineering. Educating the Engineer of 2020: Adapting Engineering Education to the New Century; National Academy of Engineering, 2005.3. Oakley, B. A.; Hanna, D. M.; Kuzmyn, Z.; Felder, R. M. Best Practices Involving Teamwork in the Classroom: Results from a Survey of
courses togetherform an important core and foundation of the discipline. This is also the time to develop and improveproblem solving skills. One of the best textbooks currently available is the fourth edition of Cengel andBoles 4. It is rich in sample and homework problems and begins to address biological applications. Itcurrently provides about 60 per cent of the material needed in this course. Obviously, agricultural andbiological sciences could be greatly impacted by a thermodynamics theory which emphasizes lesscosmological, but more practical reasoning applied to food, bioresources, water quality, andbiotechnology problems. Biological Systems Engineering is illustrated in Figure 1 which gives a pictorial overview of thisdiscipline
Paper ID #15279Understanding ”Failure” is an OptionDr. Hansel Burley, Texas Tech University Dr. Burley is a professor of educational psychology. His research focus includes college access, diversity, and resilience in youth. Recently he has served as the evaluator for multiple STEM projects.Mr. Casey Michael Williams, Texas Tech University I am currently a second year PhD student in educational psychology. I spent 2 years teaching environ- mental science, chemistry and biology to high school students in Kansas City through Teach For America. My interests lie with designing educational initiatives that highlight the
engineeringprograms do not explicitly address it throughout their curricula. For instance, there are manycompetitions, challenges and opportunities for the demonstration of design skills, but most areoptional or extracurricular, catching only a portion of engineering graduates in a somewhat adhoc manner and at variable or even random places and times. As Walesh states, "Yes, we couldindividually and collectively rely on accidental creativity and innovation, those wonderful butrare out-of-the-blue events. However, why not complement accidental creativity and innovationwith the intentional kind?"11(pxviii) Making development of creativity skills a deliberate part ofengineering curricula is vital. If we do not integrate the development of these important skills
. For those with a good background in differential calculus, and the desire for atheoretical orientation, Calculus IIB is recommended. Calculus IIIA and section two of Calculus IIIBare for freshmen with strong preparation in both integral and differential mathematics. The mostdedicated and experienced can take Calculus IC. Their courses are impressive on paper butineffectual in practice. The A-sequence is designed to teach applied mathematics; it suffers from students taking thecourse description too literally. Freshmen, particularly engineers in Calculus A have virtually nointerest in mathematics per se; they view calculus as a tool for use in the physical or socialsciences and desire only to learn how to use it. Yet the A-sequence employs
assess this way of teaching courses. This is especially the casewith very short time periods like one, two, and three week intervals. Not only do we needcontributions from educators on specific courses, but we need much more contributions frompsychologists, behavioral experts, and policy makers among others.Aside from a few and sporadic comments from students, there is very little research wherestudents evaluate this educational technique. The opinions of students who are currently takingshort term courses may be biased for various reasons. Opinions of students at a later stage likefive, ten and fifteen years after graduation are important and needed.That is, there is a strong need to investigate this topic holistically. Nonetheless, this should
of Mechanical Engineering at Stanford University. Besides teaching both undergraduate and graduate design and education related classes at Stanford University, she conducts research on engineering education and work-practices, and applied finite element analysis. From 1999-2008 she served as a Senior Scholar at the Carnegie Foundation for the Advancement of Teaching, leading the Foundation’s engineering study (as reported in Educating Engineers: Designing for the Future of the Field). In addition, in 2003 Dr. Sheppard was named co-principal investigator on a National Science Foundation (NSF) grant to form the Center for the Advancement of Engineering Education (CAEE), along with faculty at the University of
Florida. His research on the longitudinal study of engineering students, team assignment, peer evaluation, and active and collaborative teaching methods has been supported by the National Science Foundation and the Sloan Foundation and his team received Best Paper awards from the Journal of Engineering Education in 2008 and 2011 and from the IEEE Transactions on Education in 2011 and 2015. Dr. Ohland is Chair of the IEEE Curriculum and Pedagogy Committee and an ABET Program Evaluator for ASEE. He was the 2002–2006 President of Tau Beta Pi and is a Fellow of the ASEE, IEEE, and AAAS.Dr. Monica E. Cardella, Purdue University, West Lafayette (College of Engineering) Monica E. Cardella is the Director of the INSPIRE