Issues in Engineering Education &Practice, 130(2), 95–108, 2004. [Online] Available: https://doi-org.citytech.ezproxy.cuny.edu/10.1061/(ASCE)1052-3928(2004)130:2(95)[21] L. M. Komoroske, S. O. Hameed, A. I. Szoboszlai, A. J. Newsom, and S. L. Williams, “AScientist’s Guide to Achieving Broader Impacts through K–12 STEMCollaboration,” BioScience, 65(3), 313–322, 2015. [Online] Available: https://doi-org.citytech.ezproxy.cuny.edu/10.1093/biosci/biu222[22] Daniel Hale Williams demographic data. Insideschools.org.https://insideschools.org/school/13K307 (Accessed March 28, 2021)[23] “Rainbow Rain.” MEL Science. https://www.youtube.com/watch?v=3Qj7IO6fVsQ(Accessed October 2020).[24] “ DIY Lava Lamp.” https://www.youtube.com/watch?v=B9QdMaOlVrM
Paper ID #35327Changing the Mindset of Engineering Education through BiomimicryDr. Ross A. Lee, Villanova University ROSS LEE Dr. Ross A. Lee, Villanova University Ross Lee is a Professor of Practice in Sustainable Engineering at Villanova University where he teaches Biomimicry, Sustainable Materials and Design, and Engineering Entrepreneurship. In addition to his academic experience (joined Villanova in 2008), Dr. Lee has over 36 years of industrial experience with the DuPont company (retired July 2009) spanning a wide variety of technology, product and new business developments including films, resins
through campus and community engagement and in preparation for professional pursuits and life after college. • Assess their own cultural lens and interpret how it influences their worldview. • Develop an action plan to improve cultural intelligence.Fellows deliver more than 100 make presentations during classroom visits, information sessions,prospective student visits, new student orientations, and in virtual (often prerecorded) formats.The audience size may range from fewer than ten to more than 1,000 individuals and mayinclude students, parents, administrators, and faculty. Thus, a critical element of the GlobalEngineering Fellows’ course is training in the creation and delivery of presentations. Beyond themechanics in the
. Recentframeworks, including the science and engineering practices in the Next Generation ScienceStandards (NGSS) [7] and the National Academy of Engineering ([8, 9]), heighten the need forengaging K-12 students in engineering activities in school. Yet, limited access remains a problem.Fewer than 6 million of the nation’s 56 million students have encountered engineering education.Many students, including women and minorities, have limited access to high quality STEMlearning experiences ([10, 11]). Moreover, typical K-12 math and science classrooms rarelyprovide students with the chance to engage in authentic problem-based or design learning. In fact,these opportunities decline as students progress through school. For example, in a national reportof science
Austin (UT). Prior to earning her PhD Dr. Smith received a master’s degree in civil engineering from UT and her BS from Georgia Institute of Technology in civil and environmental engineering. After finishing her graduate work Dr. Smith worked in international development in Asia, the South Pacific, and Afghanistan, overseeing water and natural resource management projects. Since starting at Villanova University Dr. Smith has leveraged her experiences in her research focusing on rivers, floodplains, and flooding dynamics, particularly in urban settings. She also has several funded research projects investigating sediment transport into and through green stormwater infrastructure. She is the winner the of the Early
Scoping Review of Adaptive Expertise in Education.Medical Teacher, Vol. 1-30.Kuo, S.P. (2018). Graphic Design Students' Development of Adaptive Expertise in Ideation Strategies, Ph.D.Dissertation, University of Purdue.La Place, C., & Jordan, S. S. (2020, June). WIP: Building a Bridge Between Hackathons and Software EngineeringCapstones Through Adaptive Expertise. 2020 ASEE Virtual Annual Conference Content Access, June 22-26, VirtualOnline.Linsenmeier, R.A., Harris, T.R., &Olds, S.A. (2002). The VaNTH Bioengineering Curriculum Project. Proceedingsof the Second Joint Biomedical Engineering Society (BMES) / Engineering in Medicine and Biology Society(EMBS) Conference, October 23-26, Houston, TX.Martin, T., Rayne, K., Kemp, N.J., Hart, J
preliminarymapping of both additional professional and volunteer opportunities through online research intothe wide variety of engineering for good efforts within the United States. As previously stated, apreliminary identification of educational programs has been completed, with other relevantdocumentation provided by relevant conference organizers of events our research team hasalready attended. A thorough review of literature and public-facing material which articulates aconnection between these otherwise disparate fields will be conducted. This project aims tobridge the intellectual and practical gaps between groups of engineers for good, who ultimatelyhave similar goals, but they do not know how to communicate with each other. Beyond theseliterature
Systems, Man, and Cybernetics, vol. 24, no. 2, pp. 327-332, Feb. 1994.[17] J. Walther and D. F. Radcliffe, “The competence dilemma in engineering education: Moving beyond simple graduate attribute mapping,” Australasian Journal of Engineering Education, 13:1, pp. 41-51, 2007.[18] A. Azemi, "Promoting innovation through systems thinking and systems design," in Proceedings of the 2018 Annual IEEE International Systems Conference (SysCon), Vancouver, BC, Canada, pp. 1-3, 2018.[19] C. B. Keating and A. V. Gheorghe, "Systems thinking: Foundations for enhancing system of systems engineering," in Proceedings of the 11th System of Systems Engineering Conference (SoSE), Kongsberg, Norway, pp. 1-6, 2016.[20] H. Sibo-Ingrid, C. A. Gomez and S. Liou
howdifficult it is for students in these courses to be fully engaged during the whole term. In theselaboratory experiences, students are typically required to do some calculations following theconcepts from lectures, and then compare them to the results of simulations and directmeasurements on a simple circuit. While this approach gives students the basic skills to useelectronic instrumentation, the experimental work is, by design, self-contained, withoutchallenging students to concepts beyond those described in those modules. Furthermore, theseinitial experiments do not show freshman students the real applications of electronic circuits inelectrical engineering (technology).To combat these limitations, the author has developed a set of exercises that
board member of the American Society of Engineering Education’s Precollege Engineering Education Division; as an advisor for Carnegie Mellon University’s CREATE Lab Satellite Network; as a committee member on the National Academy of Engineering project, Educator Capacity Building in PreK-12 Engineering Education; and advises the NSF funded INCLUDES project, STEM PUSH Network at the University of Pittsburgh.Dr. Malinda S Zarske, University of Colorado Boulder Malinda Zarske is the Associate Director with the Engineering Plus program at the University of Col- orado Boulder and Chair of ASEE’s Commission on P12 Engineering Education. She teaches undergrad- uate product design and core courses through Engineering Plus as
University MarylandLoyola University Maryland has a long and distinguished history in community engagement.This has resulted in some enduring and long-term partnerships with the community. Many ofthese partnerships have naturally evolved around the need for educational resources, specificallytutoring, in the K-12 environment. The nature of the undergraduate population at the institutionand their majors has made initiating and establishing service-learning in the STEM fields moreof a challenge. There are examples from biology, chemistry, and health related fields, butpartnerships around engineering, math, and physics are rarer at the institution. One of thedifficulties is finding either a single project or an on-going service that can be at the
disasters and relocatedrefugees to safe havens.One of the most notable examples of aircraft utilization for humanitarian relief was the Berlinairlift operation immediately following the end of World War II. The city of Berlin and itsFrench, U.S. and U.K. sectors were isolated within Soviet occupied East Germany. A politicalblockade prevented food and supplies transportation by rail or road to the Allied sections ofBerlin. To sustain these areas, France, U.S. and U.K. circumvented the blockade through“Operation Vittles” an air transportation program that delivered more than 2.3 million tons offood, fuel and supplies to the residents of West Berlin. More than 278,000 airdrops were madeby American aircrews, accounting for about 189,000 flights, and
-case projects that areembedded into existing courses, one-credit engineering service-learning seminar courses, senior design,and independent study options at the undergraduate level. Students who want to further engage withprogram partners can elect to pursue a minor in Humanitarian Engineering and can deepen their immersionexperience through a summer service-learning internship program. Beyond graduation, students canvolunteer with program partners via the year-of-service program which also provides them with thequalifications to apply for the graduate fellowship for international development program where they canpursue a master’s degree in Sustainable Engineering. Whereas students can participate at any level throughout their
their personalengineering skills were and to determine how they could best apply them to help clients betterunderstand their technical needs and jointly develop potential paths forward to satisfy those real-worldneeds. On a fortnightly basis through the semester, each senior consultant would provide their peerswith a brief status update of where they were in the process of developing the solution to theproblem/need they were satisfying and how their actual time on each task compared/contrasted withtheir initial estimates. All seniors were able to see the breadth and depth of their peer’s engagementwith the consulting opportunities during these sessions and offer input if they had ideas. The majority ofthe consulting engagements resulted in very
countries.”Student 2: “I would say that this research compliments my interests, but it has also opened me up to new possibilities within the chemical engineering field. I am very thankful that I had the chance to connect my research to the world through my trip to Madagascar, and because of this research, I have really started to understand humanitarian engineering and connect it to the world in a way I have never been able to do in the classroom. I would say that it is important to have at least some interest in humanitarian engineering within this research because it has allowed to me to see the bigger picture and think about the research beyond just the technical aspect.”Student 3: “At first
of things. According to him, this can mean a big picture of the overall course,or a big picture of each individual concept. He contends that the ability to see the big picture notjust help students to learn better but it also keeps them motivated and curious.On the other hand, Felder & Silverman (1988) talks about students with varying levels ofsequential and global learning styles. While some students may want to start with knowing thebig picture of things, others might get overwhelmed by the information. The pre-recorded videosproved to be very helpful to achieve the goal of helping each student learn through their ownpreferred learning style. Initially the pre-recorded videos were provided to students one week inadvance and the idea