Assessing Women in Engineering (AWE)Project, is producing its Advancing Research into Practice (ARP) series, which translatesresearch findings on many these issues into practical recommendations for use in the classroom(http://www.engr.psu.edu/awe/ARPResources.aspx).ConclusionThe ADVANCE Project at Louisiana Tech University is approximately half-way through a four-year NSF ADVANCE PAID, utilizing a college-wide, systematic, sustainable approach forincreasing the impact and presence of women faculty in STEM. As suggested by initial focusgroup surveys, the project is focusing on the issues of climate, retention andpromotion/leadership, using a theoretical framework suggested by Social Cognitive CareerTheory. Namely, a concerted development of formal
AC 2011-1459: ENHANCEMENT OF STUDENT LEARNING IN EXPERI-MENTAL DESIGN USING VIRTUAL LABORATORIES - YEAR 3Milo Koretsky, Oregon State University Milo Koretsky is an Associate Professor of Chemical Engineering at Oregon State University. He cur- rently has research activity in areas related to thin film materials processing and engineering education. He is interested in integrating technology into effective educational practices and in promoting the use of higher level cognitive skills in engineering problem solving. Dr. Koretsky is a six-time Intel Faculty Fellow and has won awards for his work in engineering education at the university and national levels.Christine Kelly, Oregon State University
AC 2011-533: INCORPORATING TECHNICAL PEER REVIEW OF CIVILENGINEERING STUDENT PROJECTSLuciana Barroso, Texas A&M University Luciana R. Barroso, Ph.D., is an Associate Professor of Structural Engineering in the Department of Civil Engineering, in the Dwight Look College of Engineering at Texas A&M University. She has been with Texas A&M University for more than 10 years, and in that time has taught over a dozen different courses ranging from the freshman to graduate levels. She has received funding for her engineering education research from the Department of Education FIPSE program and from the NSF CCLI program. She also has been involved in several professional developments that were provided by the NT
Boulder. She holds a B.A. in biochemistry and is a graduate student in the Engineering Management Program at the University of Colorado at Boulder. She has worked for the University of Colorado in various capacities for 11 years, including as a program manager for a small medical research center. Her interests are in quantitative and qualitative research and data analysis. She has been involved with the Engineering GoldShirt Program implementation since its inception.Dr. Daniel Knight, University of Colorado, Boulder DANIEL W. KNIGHT is the engineering assessment specialist at the Integrated Teaching and Learning Program (ITLL) and the Broadening Opportunity through Leadership and Diversity (BOLD) Center in CU’s
Page 22.272.2fit within societal, ethical, and cultural contexts. Interestingly, analogous discussions are takingplace in humanities disciplines, such as philosophy, where applied philosophy is in some circlesconsidered essential for making the discipline more relevant. Historically, arguments aboutenvironmental ethics within philosophy have narrowly focused on how best to think about“nature” in order to protect it: should it be viewed as a set of resources to be utilized for human-centered ends or does nature have some “intrinsic value” apart from how it can be utilized byhumans. But the increasingly shrill, narrow and pedantic tone of these arguments has only servedto alienate philosophers from those actually working in the field
Society for Engineering Education, 2011 A Study Abroad in the Dominican Republic: Mentoring University Students as They Prepare and Teach Technology and Engineering Concepts to 6th-12th Grade Dominican StudentsIntroductionThis paper contains a report of the ongoing, collaborative effort between Complex SystemsOptimization Lab (COSOLA) and Brigham Young University (BYU) to design a science andtechnology program to improve Dominican student academic knowledge and skills. In 2007,COSOLA instituted the Matemáticas, Ciencias, Ingeniería y Lenguaje or Mathematics, Sciences,Engineering, and Language (MACILE) education program to help advance engineering andscience education in less advantaged communities in the Dominican
accomplished by (1) taking aclassroom concept and researching its applications, or (2) researching a phenomena of interestand working backwards to find the fluid mechanics principles that govern it. Each group’s topicwas presented to and approved by the group’s TA. After researching the chosen concept, groupsbuilt a presentation using Microsoft Office’s PowerPoint to teach classmates about what thestudents in that group had learned. Common components of the presentations included anoverview of the chosen real-world application topic under investigation, an explanation of how itrelated to a fluid mechanics principle, and a sample problem to solidify the connection betweenthe two. Each presentation was designed to run five minutes with extra time for
Engineers Indigo: A World of Blues A Chemical Engineering Course For Nonengineers Dip white fabric in the muddy-colored indigo dye vat, and the cloth emerges green, then slowly turns azure, cobalt or sapphire before your eyes. The chemistry behind this reaction will be revealed – and practiced – in this course. This mysterious dye has an intriguing history, and we will study its societal and environmental impact from antiquity to the present. We will explore the use of indigo by different cultures, and each student will have the opportunity to replicate one of the techniques used to dye fabric with indigo. We will learn about the equipment used in producing indigo dye, and the three sources of indigo
. Video taping of liveclass sessions for this evaluation was performed with a typical camcorder and tripodsetup. The department has decided to experiment with distance education packages todevelop Best Practices to ensure most of the pedagogically sound and successful ASCEExCEEd Teaching Model is used.Obviously fully taping a live class with natural student interaction, processing it, andposting for student review would be the optimum choice that would allow all aspects ofthe ASCE ExCEEd Teaching Model to be employed except for a high degree of contactand developing positive rapport with the students who are not in class. Those studentswould not be able to pose a question or respond to a question just as some students do notparticipate in live
CIVE 2990 for high schoolseniors and first-year engineering science students.Washington State University:Background: Washington State University is a research-based, 4 year institution dedicated to theadvancement of professional practice and the education of the next generation of leaders ininnovation. In 2009 the university took part in the NSF CCLI Phase 3 initiative to combat therise in engineering program attrition rates that has been recognized across the country. Theengineering department at Washington State University currently employs 99 tenured/tenuretrack faculty members, educating approximately 2000 undergraduates across a wide array ofengineering programs, including civil, environmental, mechanical, electrical, material science
AC 2011-2041: INTEGRATING COMMUNICATION INSTRUCTION THROUGH-OUT COMPUTER SCIENCE AND SOFTWARE ENGINEERING CURRIC-ULAJanet E. Burge, Miami University Janet Burge is an Assistant Professor in the Miami University Computer Science and Software Engineer- ing department. She received her Ph.D. in Computer Science from Worcester Polytechnic Institute (2005) and performed her undergraduate work at Michigan Technological University (1984). Her research in- terests include design rationale, software engineering, AI in design, and knowledge elicitation. She is a co-author (with Jack Carroll, Ray McCall,and Ivan Mistrik) of the book ”Rationale-Based Software En- gineering”. Dr. Burge is a recipient of a NSF CAREER Award for
theexchange of ideas and best practices; and improve communication with engineeringprofessionals, industry, government, and others. With a strong need by the industry for the nextgeneration of power engineering professionals, ECEDHA provides the necessary link to theleaders formulating the university curricula and working to achieve support to further research inthis area.Attendees at the workshop were a combination of individuals from industry and governmentinvited by the workshop organizers, as well as delegates nominated by ECEDHA member Page 22.546.6institutions. Workshop attendees were invited based on their qualifications to contribute to
specific comments on issues that survey respondents and others provide, outside the structure of the alumni/industry surveys. This includes perceived shortcomings in the program from their perspective.” • “The faculty listens carefully to the employers of their graduates. Alumni who are employers as well have a very significant impact.” • “Many employers are pleased with the process we go through in program improvement. They often wish that students were more familiar with the ABET program assessment process since is it so similar to many industrial QC/QM processes.” • “Deficiencies in student learning.” • “Engaged faculty provides the best feedback for continuous improvement. Cluster or
. He has over 20 years of experience in the research and development of Enterprise systems at IGT, Sun Microsystems and Thinking Machines Corporation. Dr. Wade is a graduate of the Massachusetts Institute of Technology.Douglas A. Bodner, Georgia Institute of Technology Douglas A. Bodner is a senior research engineer in the Tennenbaum Institute at the Georgia Institute of Technology. His research focuses on computational analysis and decision support for design, opera- tion and transformation of enterprise systems. His work has spanned a number of industries, including aerospace and defense, automotive, electronics, energy, health care, paper and pulp, semiconductors and telecommunications. Dr. Bodner is a senior
,” ASEESoutheast Section Conference, 2008.9. Diefes-Dux, H.A., Moore, T., Zawojewski, J., Imbrie, P.K., and Follman, D., “A framework for posing open-ended engineering problems: model-eliciting activities,” Frontiers in Education, 2004. FIE 2004. 34th Annual, pp.F1A- 3-8, 2004.10. Hughes, J.L.A. , “Incorporating project engineering and professional practice into the major design experience,”Frontiers in Education Conference, 2001. 31st Annual , vol.3, pp.F3G-16-2, 2001.11. Soundarajan, N. , “Engineering Criteria 2000: the impact on engineering education,” Frontiers in EducationConference, 1999. FIE '99. 29th Annual , vol.1, pp.11A1/25-11A1/30, 1999.12. Prince,M., and Hoyt, B., “Helping students make the transition from novice to expert problem-solvers
students graduating from SDSU are required to take the FE examin their senior year as part of their graduation requirements. In addition, tips from personalexperience and best practices on implementing AL in teaching Electromagnetics are alsopresented.Definition of Active LearningAL is generally defined as the use of “instructional activities involving students in doing thingsand thinking about what they are doing” 2. The focus of AL is on student learning rather thanfaculty teaching 3. The responsibility for learning is the student’s who actively engages with thecontent and is cognitively active in the learning process. AL is an approach to teaching andlearning which enlists strategies including but not limited to: reading, writing, discussing
Review, Summer 2006.10 Entrepreneurship in American Education, Kaufman Foundation, 2006. Available from: http://entrepreneurship.asu.edu/files/entrep_high_ed_report.pdf11 M. Nakkula, C. Pineda and Amy Dray, “Expanded Explorations into the Psychology of Entrepreneurship” Harvard Graduate School of Education,September 2003.12 W. J. Baurol, R. E. Litan, and C. J. Schramm, Good Capitalism, Bad Capitalism. Yale University Press, 2007.13 I. Shidhu, B. Tenderich, and S. Broadrick, Engineering Entrepreneurship Education: Best Practices and Next Steps, University of California, Berkeley, Center for Entrepreneurship and Technology, 2010.14 Advancing Entrepreneurship Education: A Report of the Youth Entrepreneurship
aware of the complex and multi-faceted problems faced byindustry. This paper describes our efforts to introduce the entrepreneurial mindset into ourundergraduate engineering students, primarily through a program that is transforming ourfaculty.We have completed two years of a program at Baylor University designed to help engineeringeducators teach innovation and become innovative in their teaching, and have received anothergrant to greatly expand it. This paper will present the background of the program, theassessment of the first two years of the program and its impact on student learning, and futureexpansion of the program. We will also discuss lessons learned and best practices, including thenecessity of working across disciplinary
Stanford University in Mechanical Engineering Design, where he also received a Post Doctoral fellowship. He taught engineering courses and served in department and college administration at BYU- Idaho (then Ricks College) before spending 10 years in industry in senior engineering and management positions with both the General Motors Corporation and the Michelin Tire Corporation in both the U.S. and Europe. His research and teaching interests include manufacturing process machine design, product design and the improvement of engineering education in a global setting. Since coming to BYU in 1989, he has been the senior author of two manufacturing processes books, one, Manufacturing Processes Ref- erence Guide, a best
, neighbors and faculty. Prizes are awarded to the best over all designs, bestoptional project and also to those who solve all the math problems correctly.One of the unique features of the SEA program is the fact that nearly all the counselors are past Page 22.1354.5SEA graduates. Every year at least six undergraduate students and two graduate students work inthe SEA program as mentors. At the inception of the SEA program, a group of women andminority undergraduate engineering students are selected from the Multicultural EngineeringProgram (MEP) and are trained to be mentors and counselors. Every year more and more SEAgraduates apply for the counselor
22.139.2Technology reported in 1997 that significant investment needed to be made in understandinglearning and supporting the development of best practices. In supporting best practices, thereport emphasized the need for large-scale studies to determine best practices and provideinformation on generalizability.1 The Interagency Education Research Initiative, formed inresponse to that report, was created to support research and develop a knowledge base to“support the development, testing, and implementation of scalable and sustainable interventionsto improve teaching and learning, particularly through the use of technology.”2 Additionally,funding agencies like the National Science Foundation (NSF) require a “broader impact”component in all grant proposals.3
redesignwas focused on our secondary program, it directly impacted our K-5 program since our T&Ecurriculum is shared between the two programs. The curricular modifications were definedwith the help of an external advisory board and were previously reported.[3] A key inputfrom the advisory board was to add more emphasis on analysis; that is, analysis-baseddecisions in design. A key element involved with improved analytical skills is mathematical(“numerical”) skills. The purpose of this paper is to describe the extent of mathematicalcontent in our STEM curriculum and to review preliminary results of the impact of thiscontent.Motivation:We believe that mathematical skills (aptitude and affect) are critically important for both ofour teacher
jobseekers, Page 22.1311.2code officials, and educators. The Nationwide Solar Instructor Training Network was launched by the U.S. Departmentof Energy in 2010 with $10 million in American Recovery and Reinvestment Act Funds toaddress the challenges that educational institutions are facing in developing the trainingprograms that meet the needs of the growing solar industry. The problems include a lack ofhighly qualified instructors, laboratory training facilities, and a nationally normed curriculum.There is also an expressed need for sharing best practices in the design and installation of solarphotovoltaic and solar thermal systems because the
benefit at-risk Page 22.1050.5students as well. These practices include a focus on student retention and graduation, rather thanjust on enrollment; well-aligned and proactive student support services; experimentation withways to improve student success; and use of data on students to improve programs and services[7]. In addition, five factors that have been show to increase retention [8-11] focus on financialsupport, helping to build a foundation in academic skills, instruction and academic support, andensuring an inclusive and welcoming institutional environment. Based on adherence to thesefactors, we designed a number of practices for
innovative products and launching them all over the world. In just two semesters of thecourse being taught, it has made a significant impact on the entrepreneurial culture among thestudents in both the college of business and engineering.1 “Applying What They Learn.” Dividends. Spring 2010: p. 7-8.2 Bisoux, Tricia. “Following New Directions.” BizEd. 2011: p. 42-43.3 Moore, Melissa L., Robert S. Moore, Allison Pearson, Rodney Pearson and Gerald Nelson, "SMA InnovativeTeacher Comment: There’s a Class for that!," in Advances in Marketing: Going Green - Best Marketing Practices Page 22.976.5for a Global World, William J. Kehoe and Linda
Engineering from LeTourneau University in 1986 and an M.S. in Metallurgical and Materials Engineering from Illinois Institute of Technology in 1994. He joined the LeTourneau faculty in 2003 following 17 years of experience in industry, consulting, and applied research and development. In addition to his work in student retention, he currently teaches and consults in the areas of materials engineering, welding metallurgy, and structural weldment design and assessment. Page 22.701.1 c American Society for Engineering Education, 2011 Facing our Retention Challenge: a Self
Portuguese Minister for Science, Technology and Higher Education as a member of the National Bologna Expert Group. He leads the Portuguese Observatory on European and Latin-American University management strategy best practices. Being a member of several engineering societies and engineering education societies in several continents, including: the Society of Instrument and Control Engineers, SICE (Japan); the Institute of Electrical and Electronics Engineers, IEEE (USA), where he was the national CIS Chapter chair; and the World Scientific and Engineering Academy and Society, WSEAS (Greece), where he belongs to the board of directors. He was also a visiting professor in several universities around the world
fit all institutions, a set of rubrics thatidentify both areas to measure and ways of articulating performance levels could provide a usefulstarting point for developing a community of practice and a shared discussion around theseissues.These two issues – the relative lack of consensus on learning outcomes beyond retention (andpotentially design) and the lack of instruments that can be used across contexts – point to keyareas for further research and discussion among first-year educators. The sheer number ofarticles written about first-year programs indicates both the importance of these course and thepassion that faculty have for effectively engaging and supporting students at this criticaljunctions. Building a strong community of practice
, May 2009.13 Welch, R.W., “Integrating Professional Topics and Engineering Constraints Across the Curriculum,”Proceedings of the American Society of Engineering Education Annual Conference, Austin, TX, 14-17June, 2009.14 Newman, K., COO, BWR Section, L Engineering, Comment made during a lunch meeting on whatgraduates need at time of graduation, Tyler, TX, 12 December 2010. Page 22.789.13Appendix I - CIVIL ENGINEERING BODY OF KNOWLEDGE FOR THE 21STCENTURY, Table 1. Entry into the practice of civil engineering at the professional levelrequires fulfilling 24 outcomes to the various levels of achievement.5Key: L1 through L6 refers to these
” can have apositive, lasting impact on the economy by addressing key societal issues through qualityeducation and research in the emerging field of engineering systems.”MPP operates a consortium that links a single high-profile U.S. research university – MIT – witha whole segment of the Portuguese HE and research system, including 8 schools of engineering,science and technology and 20 research centers, as well as government and industry fromPortugal (cf. Fig. 2-6). The program gathers 236 Portuguese faculty and over 50 faculty fromMIT (plus administrative staff), and led to the creation of 23 new faculty positions and 8 newpost-doc positions in Portugal. With a budget of 59 M€ (80 M$), the program enrolls or hasgraduated at total 425 graduate