AC 2010-1405: A GENERAL ENGINEERING MINOR AS A MEANS TOENCOURAGE TECHNOLOGICAL LITERACYRoy McGrann, State University of New York, Binghamton Page 15.32.1© American Society for Engineering Education, 2010 A General Engineering Minor as a Means to Encourage Technological LiteracyAbstractTechnological literacy can be increased by offering a minor in general engineering. A Minor inGeneral Engineering was developed at Binghamton University. This minor was first available inthe 2008-09 academic year. The description of the minor states this minor “enables students whoare majoring in non-engineering fields to gain an introduction to the
remove dust etc passengers and fluid crewTransmission Recirculated air Method of What has to be for heat balance regulation recirculated? What has to be lost?Exhibit 3. B. T. Turner’s application of a matrix developed by G. G. S. Bosworth to the problem ofaircraft ventilation.27 Detail is obtained by further expansion of the boxes (see exhibit 4). For exampleit can show a family tree of
. , http://www-cdr.stanford.edu/images/Dissection/dissphil.pdf4. Brown, A. and Ollis, D. , “Team Teaching: A Freshman Engineering Rhetoric and Laboratory”, ASEE proceedings, 19965. Brown, A., Luyendyk, S. and Ollis, D.F., “Implementing an English and Engineering Collaboration,” in Liberal Education in Twenty-First Century Engineering: Responses to ABET/EC2000 Criteria, (eds: Ollis, D.S., Neeley, K.A., and Luegenbiehl, H.C., Peter Lang Publishers, New York, NY, pp. 270-279.6. Kennedy, A., Ollis, D., and Brent, R, , “Cross-College Collaboration to Enhance Spanish Instruction and Learning,” Proceedings of ASEE Annual conference, 2005.7. Laffitte, B., Ollis, D., and Brent, R.,, “Cross-College Collaboration of Engineering with Industrial
the instructor has the right to overrule thestudents’ score in case of a disagreement (which has never occurred). This method helps keep Page 14.1132.10the instructor in tune with the expectations of the class, but also helps capture those situations inwhich the material was not properly tuned for the audience.Since 2005, 63% of students have received an A on the project, 31% a B and 6% a C. Nostudent achieved less than a ‘C’ on this assignment, which comprises 20-25% of the final gradein the course. The mean score was a 91% with a standard deviation of 5.3%. These numbers,which remain more or less consistent across all of the class years
SA % a A %b D %c SD %d NE %eThe gains my students and I make in the classroom justify the amount oftime I spend preparing my Moodle course(s). 44.8 57.1 1.7 0 1.7The various class management tools (such as the gradebook, time-stamped submissions, and posting assignments) help me to stay 29.3 58.6 1.7 0 10.3organized.Working to prepare and integrate content, classroom activities, andonline assessment in a Moodle unit has improved my planning
T&E curriculum onto Standards for TechnologicalLiteracy (STL) for the two specialization groups of (a) math or science and (b) technology.Additionally, an analysis of grades for the core and upper level T&E courses indicates that,compared head-to-head in the exact same classes, the grades earned by MST majors areconsistently equal to, or more often, higher then the Technology/Pre-engineering students.This result also held true for the more hands-on lab courses. So, MST majors are not simply“surviving” the T&E courses but are performing quite well, even compared against aTechnology/Pre-engineering population that consistently performs well above average on thenational PraxisTM technology education exam. An external, and more
of Educational Objectives: The Classification of Educational Goals: Handbook I, Cognitive Domain. 1956, New York: Longmans, Green.15. Riley, D., et al. Learning/assessment: A tool for assessing liberative pedagogies in engineering education. in ASEE Annual Conference. 2006. Chicago, IL, United States: American Society for Engineering Education, Chantilly, VA 20153, United States.16. Wheeler, E. and R.L. McDonald, Writing in engineering courses. Journal of Engineering Education, 2000. 89(4): p. 481-486.17. Richards, B., et al. Integrating critical thinking and writing curriculum into freshman engineering. in ASEE Annual Conference. 2001. Albuquerque, NM, United States: American Society for
determined byan alpha of 0.05 or less; (less than 5% chance of random selection providing results). The nature of the data collected for this evaluation lent itself to analysis by the useof a General Linear Model (GLM). The method of analysis for the data collected fromthis project was an Analysis of Variance (ANOVA). The ANOVA, both factorial and one-way, used the General Linear Model (GLM).The GLM was selected because the data are arranged in categories. The method isessentially a form of regression, evaluating the distance from an “expected mean”,however the expected mean was not based upon the slope of a “y = mx+b” sort of line.Instead of determining the “expected value” of y from the x-position, the expected valueof y is
. Kremer, Engineering Design: A Practical Guide, Togo Press, Pittsburgh, PA, (2004).39. Juvinall R.C., and K.M. Marshek, Fundamentals of Machine Component Design, Wiley, New York (1991)40. Tu, J.F., “Nuggets of Mechanical Engineering – Revisit of the Free-Body Diagram Analysis and Force Flow Concept,” Proceedings of the International Conference on Engineering Education – ICEE 2007, Coimbra, Portugal September 3 – 7,( 2007).41. Novak, J. D. and Gowin, D. B. Learning How to Learn. Cambridge University Press, New York (1984).42. B. S. Bloom (Ed.), Taxonomy of Educational Objectives: The Classification of Educational Goals, David McKay Company, New York, (1956).43. Krupczak, J.J., “Using Insights from Non-engineers to Improve Introduction to
results.These add up to a system that helps students see the connections between the data they are takingand its meaning. They also can see and modify the visual representations of the data to betterinterpret the information and to draw conclusions supported by that data. Taken together, thishas the potential to help the student develop stronger critical thinking skills and to testhypotheses against data in meaningful ways. Page 12.2.9 Figure 2 - LabVIEW Diagram Created by Students to Display TemperaturesAssessment of ActivitiesWe collected data both before (see Appendix B) and after the workshop (see Appendix C) tonote any changes in
intended as illustrative suggestionsonly.1. Energy and Power A. Refrigerators B. Thermostats C. Light bulbs D. Microwave ovens E. Solar cells F. Fuel cells G. Turbines H. Nuclear power plants I. Electrical power grid J. Petroleum processing infrastructure2. Medicine A. Prosthetics B. Insulin pumps C. Heart pumps D. X-ray machines E. CT and MRI imagers F. Medical diagnosis systems G. Medical information systems3. Transportation A. Bicycles B. Segways C. Automobiles D. Mag-Lev trains E. Space shuttle F. Highway systems G. Ocean shipping system4. Agriculture A. Grapevine trellis B. Archimedes screws C. Irrigation sprinklers D. Well pumps E. Fertilizer F. Waste
the GE Goals for its area orother course goals and changes that the department has made to try to improve student successwith respect to the GE Student Learning Objectives (SLOs). Since the Department of GeneralEngineering is the home department for Engr 5, the formal assessment reports for Engr 5 are duein Fall 2012.Figure 2. Goals and Student Learning Objectives for Area B, SJSU General Education18 Core General Education: – SCIENCE (B1, B2, B3) A. Goals Science is a continuous and adaptive process through which we discover and communicate how the natural world works, separate fact from inference, and establish testable hypotheses. All students
AC 2008-807: A FRAMEWORK FOR DEVELOPING COURSES ONENGINEERING AND TECHNOLOGY FOR NON-ENGINEERSJohn Krupczak, Hope College Professor of EngineeringTimothy Simpson, Pennsylvania State University Professor of Mechanical EngineeringVince Bertsch, Santa Rosa Junior College Professor of Engineering and PhysicsKate Disney, Mission College Engineering InstructorElsa Garmire, Dartmouth College Sydney E. Junkins 1887 Professor of EngineeringBarbara Oakley, Oakland University Associate Professor of EngineeringMary Rose, Ball State University Assistant Professor, Department of Technology Page 13.40.1© American Society for Engineering Education
starts with a short introduction to robotics, for example, what is arobot and how a robot differs from other automatic systems. The learning takes place in arobotics laboratory in which the students construct and program small portable robotsusing the Lego NXT robotics environment. The robot comprises a digital controller,motors and sensors, as illustrated in Figure 4. Page 15.1003.5 Figure 4: Lego NXT robot.The students use an icon-based programming language that enables full control of eachmotor. Figure 5 presents a simple command in which robot motors A and B perform 2.31rotations at 75% full power. Figure 5: An
Wisconsin-Madison No. RED-9452971).6. Felder, R.M., Felder, G.N., & Dietz, E.J. (2002). The effects of personality type on engineering studentperformance and attitudes. Journal of Engineering Education, 91, 3-17.7. Isaacs, B., & Tempei, P. (2001). Student projects that celebrate engineering: A path to diversity in the profession.ASEE/IEEE Proceedings- Frontiers in Education Conference, 3, S1F/1-4. Reno, NV.8. Williams, R. (2003). Education for the profession formerly known as engineering. The Chronicle of HigherEducation, 49, B12-13.9. Ettema, R. (2000). A drift in the curriculum. Journal of Professional Issues in Engineering Education andPractice, 126, 21-26.10. Beder, S. (1999). Beyond technicalities: Expanding engineering thinking
, George 3. Random-House College Dictionary, Random-House, NY, 1984, pgs 1079 & 1407. 4. Krupczak, John, and David F. Ollis, Improving the Technological Literacy of Undergraduates – Identifying the Research Issues, National Science Foundation, 2005. 5. Krupczak, John, and David Ollis, Technological Literacy and Engineering for Non-Engineers: Lessons from Successful Courses, Paper No. 2006-744, Proceedings of the 2006 American Society for Engineering Education Annual Conference & Exposition. 6. Gorham, Douglas, Pam. B. Newberry, and Theodore A. Bickart, ABET and Standards for Technological Literacy, Proceedings of the 2003 American Society for Engineering Education Annual Conference &
AC 2008-2316: TECHNOLOGY LITERACY AS A PATH TO “ENGINEERINGSOLUTIONS IN A GLOBAL AND SOCIETAL CONTEXT”David Ollis, North Carolina State University DAVID F. OLLIS is Distinguished Professor of Chemical and Biomolecular Engineering at North Carolina State University. He has recently co-authored, with John Krupczak, Hope College, a NSF-sponsored workshop report titled "Improving the Technological Literacy of Undergraduates: Identifying the Research Issues,”, 2005, and was founding Program Chair for Technological Literacy Constituent Committee, ASEE 2006 and 2007. Page 13.1191.1© American Society for
AC 2007-710: A CLASS FOR UNDERGRADUATE TECHNICAL LITERACYUSING LEGO MINDSTORMSLawrence Whitman, Wichita State UniversityJames Steck, Wichita State UniversityDavid Koert, Wichita State UniversityLarry Paarmann, Wichita State University Page 12.12.1© American Society for Engineering Education, 2007 A CLASS FOR UNDERGRADUATE TECHNICAL LITERACY USING LEGO MINDSTORMSAbstractMuch effort is underway to encourage students to pursue careers in science, technology,engineering, and mathematics. There is a growing base of infusing these necessary skills andattitudes to stimulate the pursuit of these avenues as careers. There is also much effort aimed ataddressing the
AC 2008-2140: TEACHING ASPECTS OF TECHNOLOGICAL LITERACY FROMA HISTORICAL PERSPECTIVEGregory Zieren, Austin Peay State University GREGORY R. ZIEREN is a Professor of History at Austin Peay State University. He earned his Ph.D. in History from the University of Delaware in 1982. His interests include economic history and the history of technology.John Blake, Austin Peay State University JOHN W. BLAKE is an Associate Professor in the Department of Engineering Technology at Austin Peay State University, Clarksville, TN. He served as department chair from 1994-2005. He received his B.S., M.S., and Ph.D. in Mechanical Engineering from Northwestern University, and is a registered Professional
AC 2009-2456: IMPACT OF ENGINEERING: DESIGNING A CLASS FORTECHNOLOGICAL LITERACY DISCIPLINESMani Mina, Iowa State University Mani Mina is with the department of Electrical and Computer engineering and is the also the director of Minor in Engineering studies (A technological literacy minor) at Iowa State University. He is an active member of IEEE and ASEE. His research interest include applied EM, RF systems, Optical devices, and engineering education at all levels.Ryan M. Gerdes, Iowa State University Ryan M. Gerdes received a B.S. in computer engineering in 2004, and in 2006 both a B.S. and M.S. in electrical engineering, all from Iowa State University. He is currently working towards his
AC 2008-285: TECHNOLOGY ASSESSMENT: A GRADUATE COURSE TO BUILDDECISION-MAKING SKILLSMary Rose, Ball State University Mary Annette Rose is an Assistant Professor within the Department of Technology at Ball State University. As a certified technology teacher, teacher educator, graduate instructor, and community activist, she challenges learners to critically examine the interrelationships among technology, environment, and society. Her research interests include: teaching interventions which influence learners' critical thinking while engaging in distributed problem-based learning; conceptions of technological literacy among STEM disciplines; and consumer decision-making regarding mercury
2006-426: FROM "HOW STUFF WORKS" TO "HOW STUFF WORKS": ASYSTEMS APPROACH TO THE RELATIONSHIP OF STS AND"TECHNOLOGICAL LITERACY"Kathryn Neeley, University of Virginia Kathryn Neeley is a Virginia Engineering Foundation Faculty Fellow and an associate professor in the Department of Science, Technology, and Society in the School of Engineering and Applied Science at the University of Virginia. She is a former chair of the Liberal Education Division of ASEE. Page 11.652.1© American Society for Engineering Education, 2006 From “How Stuff Works” to “How STUFF Works”: A Systems
Interest Group on Design Automation (SIGDA) Meritorious Service Award in 1998, the Chicago Alumni Award from Purdue University in 1999, the National Science Foundation CAREER Award in 2000, the ACM/SIGDA Distinguished Service Award in 2002, and the Semiconductor Research Corporation Inventor Recognition Award in 2005. Page 15.1344.1© American Society for Engineering Education, 2010Page 15.1344.2 (a) (b) (c)Figure 2: (a) Three pieces with different orientations; Tetris allows rotations so these pieces are the same.(b) and (c) Two
Technology in World Civilization course (Loendorf7, 2004)was designed to broaden the students perspective of past technologies and how they werediscovered and used. The main objectives of the course were to: (a) promote awareness oftechnological development, and (b) provide a rudimentary understanding of the social, political,economic, and cultural impact.The course content explores innovations and inventions associated with ancient as well as retrotechnologies in the fields of agriculture, weapons, time measurement, industrialization,transportation, communication, and the environment (Loendorf7, 2004). These encompass everyaspect of engineering and engineering technology including mechanical, electrical, industrial,civil, and environmental. By
look at nature in a different way and have been grateful for thisassignment.Final ProjectThe final assignment in the course is an independent research project. Students are givena choice of three project formats as described below. Choice A: Pick a natural system that is particularly intriguing to you (for any reason). Write a 10 page (minimum) research paper on this system. You should explore your chosen system in depth. Highlight specific attributes of this system and discuss what function they serve. Analyze the design of your chosen system in terms of the characteristics which we have discussed in class. Choice B: Design a project that incorporates a study of a natural system. Examples
, 2003.5 Linsey, J., Talley, A., White, C. K., Jensen, D., and Wood, K. L., “From Tootsie Rolls to Broken Bones: An Innovative Approach for Active Learning in Mechanics of Materials,” ASEE Journal of Advances in Engineering Education (AEE), 2009, Vol. 1, No. 3, pp. 1-23.6 Jensen, D.L., and Wood, K.L., 2000, “Incorporating Learning Styles to Enhance Mechanical Engineering Curricula by Restructuring Courses, Increasing Hands-on Activities, & Improving Team Dynamics,” Proceedings of the 2000 ASME International Mechanical Engineering Congress and Expo., November 5-10, Orlando, Florida.7 Jensen, D., Feland, J., Bowe, M., Self, B., “A 6-Hats Based Team Formation Strategy: Development and
Design Design Connections Connections (a) Technology Survey Courses (b) Technology Focus Courses
surrender of the claim that science is true. We may be living nearer thanwe suppose to the end of the Scientific Age.”2 Page 15.1367.18Bibliography, Appendix B:1. White, L., “The Historical Roots of our Ecological Crisis.” Science, vol. 155, p.1203-1207, 1967.2. Lewis, C.S., Miracles: a preliminary study, Collins, London, p. 110, 1947. Page 15.1367.19
Society for Engineering Education Annual Conference, June 22 - 25, 2008, Pittsburgh, PA.17. Gustafson, R. J. and B. C. Trott. 2009. Two Minors in Technological Literacy for Non-Engineers, Proceedings of the American Society for Engineering Education Annual Conference, June 15-17, Austin, TX.18. Krupczak, J. J., S. VanderStoep, L. Wessman, N. Makowski, C. Otto, and K. Van Dyk. 2005. “ Work in progress: Case study of a technological literacy and non-majors engineering course,” Proceeding of the 35th ASEE/IEEE Frontiers in Education Conference, October 19-22, Indianapolis, IN.19. Pintrich, P. R., D. Smith, T. Garcia, and W. McKeachie. 1991. A Manual for the Use of the Motivated Strategies for Learning
these outcomes. The Page 15.1195.4common lists of outcomes for engineering and for engineering technology are listed below.Engineering Degree Programs: EAC of ABET Accreditation Criteria Criterion 3. Program Outcomes Engineering programs must demonstrate that their students attain the following outcomes: (a) an ability to apply knowledge of mathematics, science, and engineering (b) an ability to design 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 within realistic constraints such as economic, environmental