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Tim Foutz P.E., University of Georgia
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Biological & Agricultural
preconceptions ofthe problem. This study needs to be repeated to overcome some of the study’s currentlimitations. However, the preliminary results do suggest that this approach could be useful tohelp new college students understand the integrative nature of engineering and gain a betterperception of the profession.ReferencesBowen, E., Prior, J., Lloyd, S., Thomas, S., & Newman-Ford, L. (2007). Engineering moreengineers—bridging the mathematics and careers advice gap. Engineering Education, 2(1),23- 32. doi: 10.11120/ened.2007.02010023English, L. D., Hudson, P. B., & Dawes, L. A. (2011, January). Middle school students'perceptions of engineering. In STEM in Education Conference: Science, Technology,Engineering and Mathematics in Education
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Christopher Josh Ramey, Colorado School of Mines; Judy Schoonmaker, Colorado School of Mines; Sarah M. Ryan, Colorado School of Mines
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Diversity
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Biological & Agricultural
used words werelearning, biology, and hands-on. Fortunately, the cultural climate of an institution changes asstudents graduate and new students arrive. Word of mouth spreads quickly and students havecome to understand that, despite the extra work required, they can expect a positive learningexperience in our studio classroom. What was new has become the norm as students engage withbiology in a more meaningful and thorough way.AAAS. (2011). Vision and Change: A Call to Action AAAS, Washington, DC.Allen, D., and Tanner, K. (2009). Transformations: Approaches to College Science Teaching.WH Freeman and Company: New York, NY.Collins, A., Brown, J. S. & Holum, A. (1991). Cognitive Apprenticeship: Making ThinkingVisible.Cortright, R.N., Collins
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Deepak R. Keshwani, University of Nebraska, Lincoln; Ryan Drew Anderson, University of Nebraska, Lincoln; Jennifer Keshwani, University of Nebraska, Lincoln; Jeyamkondan Subbiah P.E., University of Nebraska, Lincoln; Ashu Guru, University of Nebraska, Lincoln; Nathan C. Rice, University of Nebraska, Lincoln
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Biological & Agricultural
Nebraska, Lincoln Dr. Guru is a computer scientist and educational researcher who focuses on curriculum development in both formal and non-formal educational settings. His expertise includes systems thinking and design, op- erations research, statistical modeling, and simulation. He has taught several graduate and undergraduate courses in statistics, systems engineering, operations research, and business analytics. Dr. Guru has pre- viously served as the Director of Research Strategy at the Jeffrey S. Raikes School of Computer Science and Management at the University of Nebraska - Lincoln. In addition to his academic experience, Dr. Guru is an expert in supercomputing; he has 10 years of experience in building and
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Jennifer Keshwani, University of Nebraska, Lincoln; Evan Curtis, University of Nebraska, Lincoln
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Diversity
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Biological & Agricultural
, D R. 2012, Transactions of the ASABE, pp. 2371-2378.3. Howe, Neil and Strauss, William. Millennials Rising: The Next Great Generation. s.l. : Vintage,2009.4. New Generation, Great Expectations: A Field Study of the Millennial Generation. Ng, Eddy S W,Schweitzer, L and Lyons, Sean T. 2010, Journal of Business Psychology, pp. 281-292.5. Sheppard, S, et al., et al. Exploring the Engineering Student Experience: Findings from theAcademic Pathways of People Learning Engineering Survey (APPLES). Seattle, WA : Center for theAdvancement for Engineering Education, 2010.6. Student Enthusiasm for Engineering: Charting Changes in Student Aspirations and Motivation.Alpay, E, et al., et al. 2008, European Journal of Engineering Education, pp. 573-585.7
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Ann D.. Christy, Ohio State University; Oladiran Fasina, Auburn University
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Biological & Agricultural
. Proceedings of the 2013 ASEE North Central Section Conference. 12 p.Christy, A.D. 2011. Engaging Students to Prepare them for the Engineering Profession and Reflect upon their Undergraduate Career. ASABE Paper No.11-11605. St. Joseph, Mich: ASABE. 8p.Christy, A.D. and M. Lima. 1998. The use of student portfolios in engineering instruction. Journal of Engineering Education 87(2): 143-148.Crehan, M., Seery, N., Canty, D., & Lane, D. (2012), Constructivist e-Portfolios: The Use of Media in the Collecting and Evidencing of Student Learning. Paper presented at 2012 ASEE Annual Conference & Exposition, San Antonio, Texas. https://peer.asee.org/21101Fasina, O., P. Srivastava, M. Dougherty, S. Adhikari, T. McDonald, S. Taylor, &
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Alicia A. Modenbach P.E., University of Kentucky; Sue E. Nokes, University of Kentucky
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Biological & Agricultural
. The symbol m represents mass (in kg) and v is velocity (m/s) so the units of KE are kg*(m/sec)2 or (kg m/sec2)*m = N*m = Joule = J. How much energy is in one joule? A 100-watt lightbulb uses 3.6 x 105 J in one hour (so a joule is pretty small in the grand scale of energy), so we typically work with kJ = 1000 J. Another commonly used unit of energy is the calorie (cal), originally defined as the amount of energy needed to raise the temperature of 1 g of water by 1°C but is now defined as 4.184 J (exactly) so a calorie is about