Learning States,” National Teaching and Learning Forum, Vol.5, no.6, 1996, pp.1-723. Lowman, Joseph, Mastering the Technique of Teaching, Jossey- Bass, San Francisco, Ca. 1984.24. Creed, Thomas, “Why We Lecture,” Symposium: A Saint John’s Faculty Journal, no.5: 1986: pp. 17-23.25. Verner, C.and G. Dickinson, “The Lecture: An Analysis and Review of Research,” Adult Education, no. 17, 1967, pp.85-100.26. Penner, Jon, G., Why Many College Teachers Cannot Lecture. Charles C. Thomas, Springfield, Ill., 1984.27. Bonwell, C.C., and J.A. Eison, “Active Learning: Creating Excitement in the Classroom,” ASHE-ERIC Higher Education Report No.1, George Washington University, Washington, DC, 1991
students are transported from the theoretical understanding to actualapplications by the end of the degree program. At the Department of Automatic Control at theLund Institute of Technology in Sweden4, all disciplines in their four and a half year Master of Page 15.831.2Science degree, excluding chemical and biotechnical engineering, must complete a basic control 1course. The second half of this course involves the assignment of control projects in conjunctionwith the lectures, which is another clear indication that there is great importance placed on thepractical applications of control theory. All
Engineering from the University of Delaware, Masters degrees in Biotechnology (Johns Hopkins) and Chemistry (University of the Sciences), and Bachelors degrees in Chemical and Electrical Engineering. Dr. Mauk is a licensed Professional Engineer. From 1989 to 2003, he was a Senior Research Engineer at AstroPower, Inc. (Newark, Delaware), serving as Principal Investigator for numerous research programs sponsored by NSF, DOD, NASA, DOE, and NIST. From 2003 to 2008, Dr. Mauk was a Research Associate at the University of Pennsylvania working on lab-on-a-chip clinical diagnostics devices. Dr. Mauk has over 120 technical publications and eight patents.Yury Gogotsi, Drexel University Dr. Yury
filter design, students arerequired to master the bilinear transform method and pole-zero placement method1. Once adigital filter is designed and its frequency responses are verified via MATLAB, the designedfilter will be implemented in real time using either a direct form I (see Figures 5 and 6) or adirect form II, as shown in Figure 7. As we can see, Lab 5 also introduces to the students analternative to implement an IIR filter in a direct form II, which is widely used in many fixed-point DSP. This topic will be studied in our advanced DSP course in detail. Applying the sameverification procedure depicted in Lab 3, students will evaluate the filter performance using thesignal generator and oscilloscope. These two labs foster students with a
. and Oreovicz, Teaching Engineering, McGraw-Hill, Inc, NY, 1993.19. ExCEEd Teaching Workshop Seminars, 2008. http://www.asce.org/exceed20. Lowman, J., Mastering the Techniques of Teaching, 2nd ed., Jossey Bass, NY, 2005.21. Aref, H., Hutzler, S., and Weaire, D., “Toying with Physics,” Euro Physics News, Vol. 38, No. 3, pp. 23-26,200722. Guemez, J., Fiolhais, C. and Fiolhais, M., “Toys in Physics Lectures and Demonstrations – A Brief Review,”Physics Education, Vol. 44, No. 1, pp. 53-64, 200923. Turner, R. C., “Toys in Physics Teaching: Cartesian Diver,” American Journal of Physics, Vol. 51, No. 5, pp.475-476, 198324. Connolly, W., “An Automated Cartesian Diver Apparatus,” The Physics Teacher, p. 51, January 198925. Graham, R. M., “An Extremely
College CLARK VANGILDER is the PI of the Central Arizona Com- munity College METSTEP program. Clark is a former Naval Nuclear Propulsion Plant Operator prior to receiving a Bachelors Degree in Mathematics from Grand Canyon University in 1995 and a Masters Degree in Physics from Arizona State University in 2004. Central Arizona College hired Clark in 2008 to take over the Physics program as well as resurrect the pre-engineering program in conjunction with two separate grant opportunities, one including the exploratory STEP grant that has evolved into MET- STEP. The introductory design course has been articulated in that time frame and successfully conducted four times now. Additionally, Clark has created new coursework
that I It is clear that this Leadership I just do not see must master this in This looks interesting is an ability that is the relevance of order to achieve my and useful relevant to success this topic potential as an in leadership
are to use FEA, we specifically advocate that they should learn as much if notmore. But what we‟re recommending relates mainly to a holistic understanding of mechanicsprinciples, a qualitative understanding of „what affects something else‟, and an expanded graspof definitions. It includes additional structural design principles. The usual adjuration to„calculate problems first by hand‟ is re-interpreted as „take steps to validate and benchmark yourFEA approach‟.Of course the feeling that students need to master mechanics concepts in order to use FEAeffectively is not unusual. What distinguishes our perspective is the idea that FEA use needn‟t bedeferred until after the mechanics classes – introducing it early in the curriculum and using it
widely distributed ranges of previous skills. This course was noexception. While some students had been programming for a very long time, others havenever learned to program. The instructor found that both populations struggled. Thenovice programmers struggled with mastering the basics of algorithmic thinking. Manydid not appreciate that they would not learn to code by simply watching the instructor inclass or copying code straight from the text. The more advanced programmers struggledwith the particulars of MATLAB, most especially the variable number of arguments tobuilt-in functions. They also brought the preconception that they already knew how toprogram and were therefore frustrated that what should have been an easy class turnedout to be a
AC 2011-677: A VIABILITY STUDY OF PHOTOVOLTAIC SYSTEMSYouakim Kalaani, Georgia Southern University Youakim Kalaani earned his Doctor of Engineering degree in Electrical Engineering from Cleveland State University with emphasis in power systems. He is a licensed professional engineer, an ABET evaluator, and a member of IEEE, IAJC, and ASEE organizations. He has research interest in electric power, renew- able energy, and optimization. He is currently the director of the newly established Electrical Engineering program at Georgia Southern University.William Trotter Nichols William Nichols graduated from Georgia Southern University in May 2010 with a Master of Science in Applied Engineering. His graduate research
are: (1) problem-solvers – able to frame and applyunderstanding to solve problems; (2) inter-disciplinary thinkers – able to think across disciplines;(3) self-reliant – able to set their own pace of study and work within specified time frames; and(4) technology-capable – able to understand and apply technology to master skills and to solveproblems. 11,12,13,14,15 These attributes parallel those of a successful engineering student.According to Wolff-Michael Roth, “The major educational goal in engineering design is thatstudents can develop two important kinds of knowledge necessary for making increasinglyintelligent choices and decisions: (a) deep familiarity within a specific domain [content]; and (b)strategies for bringing structure to
-Functional Display (MFD) applications. He is adept in performing requirements definition, analysis, review, management, and documentation using Dynamic Object Oriented Requirements Software (DOORS). As a lead systems engineer, he played an instrumen- tal role in designing, developing, and testing the next generation of Entegra Electronic Flight Instrument System (EFIS). Dr. Khalid received his Ph.D. in Aerospace Engineering from Georgia Institute of Technology. He holds Master of Science degrees in the discipline of Mechanical Engineering from Michigan State University, and Industrial, and Aerospace Engineering from Georgia Institute of Technology. He obtained Bachelors of Science degree in Mechanical Engineering from
strong GPA.5A fundamental piece of the 4.0 Plan is its detailed time management schedule. It usually takesstudents a couple of tries to really understand the Plan and the schedule. However, after thestudent masters the time schedule, they are well on their way to using their study skillsefficiently. It is especially difficult to be able to plan at the beginning of each semester exactlyhow much time each course will take in Bullet Point Reading, Bullet Point Notes, and BulletPoint Concepts. The idea of scheduling and of going to visit each professor once a week is Page 15.147.5usually a new concept to students. Students using the 4.0 Plan will
ten things students wish you’d rememberabout teaching; Organized; “office hours…be there”, have a sense of audience: “we are morethan drunken fools”, and “give teaching life” (top three).8 Millennial students are comfortablewith technology and in some instances more so than their professors. Most of them have a cellphone, have access to a computer, and have been accustomed to surfing all types of URL sitesfor the most part of their lives. They also have experience text-messaging and playing videogames. They have developed considerable experience in social interaction through MySpace,Twitter, blogs, and Facebook. With their access to and use of computers, pagers and cell phones,they have keenly mastered the ability to multitask.7 Oblinger
received her Masters in Education Technology Program at Purdue University. Her research interest focuses on engineering problem solving, cognition and instructional design. Page 15.28.1© American Society for Engineering Education, 2010 A Framework for Using Graphical Representations as Assessments of Engineering ThinkingAbstractEngineers and engineering students often face the challenge of comprehending complex systemsbecause they are unsuccessful at recognizing major components in the system and therelationships between the components. Diagrams and sketches can facilitate their comprehensionand
AC 2010-1873: EFFECTIVE TEACHING OF COMPLEX MANUFACTURINGTOPICS TO UNDERGRADUATE ENGINEERS UTILIZING A NOVEL, BROADLYBASED, INTERACTIVE VIRTUAL COMPANYMartin McCarthy, University of Auckland Martin McCarthy has a Masters Degree in Engineering Management from the University of Auckland and has recently submitted a PhD thesis. He is a is a Senior Tutor in the Department of Mechanical Engineering at the University of Auckland and is a Chartered Engineer by profession with many years experience in mechanical and electronics product design, manufacturing systems and fire prevention. Mr. McCarthy's current interests include research into the effective teaching of engineering design and manufacturing with
0 1 0 0 0 1 Mathematics 2 0 0 0 0 1 2 1 Physics 0 1* 1 1 0 1** 1 3 TOTAL 3 1 4 3 3 4 10 9*** *Completed coursework **No masters, straight to PhD***One male chemist in cohort #4 was still enrolled in the master’s program at NMSU.****One male chemist had completed a doctoral degree.In a nutshell, the gender gaps in outcomes for students in the sciences are similar to those inengineering - men are more likely to complete a degree and then to matriculate into a
principles and practices are most clearly shown on a simple part.More complex examples are used in class and in other assignments, but the multiple iterations ona single side of the Cube of Knowledge show that students need time to master this relativelysimple drawing prior to tackling a more difficult drawing.Second, because this has been designed to be a hands-on project, it was necessary to find abalance between part complexity and the required production time for each design team. Evenwith the very simple design of the rectangular side, production time, including hands-oninstruction for a two to four student team requires a full two to three hour session in the machine
particular company. The paper should examine how ethics and diversity are linked; for instance, explore what is meant by some that “ethics should be color blind in application.” Additionally, the paper should ultimately describe the students’ personal commitment to living professionally and ethically. “Life-long learning – School Never Stops.” Students discussed their commitment to pursuing education after graduation including formal training at their firm, on-the-job training opportunities consistent with mastering the fundamentals of their job, and/or formal educational opportunities (seminars, workshops, college courses, graduate degree, etc.).The student
University of Virginia. Within this position, she helps execute a number of programs that are designed to peak K-16 student’s interests in STEM disciplines. Prior to working at UVA, she taught at the collegiate level and worked as a National Academies Science and Technology Fellow.Ping Guan, University of Virginia Ping Guan is a program coordinator and evaluator in the Center for Diversity in Engineering, at the University of Virginia School of Engineering and Applied Science since January 2008. Before working in the center, she received a Bachelor of Engineering degree from Building Science department of Tsinghua University in Beijing China, and a Master of Science degree from Systems and
by creating the major with a broad “core” and a required in-depth“specialization.” Three specialization areas are possible: (i) math, (ii) science (biology,chemistry or physics) or (iii) technology/engineering. The major was approved by ourinstitution’s Board of Trustees in 1998 and subsequently as a disciplinary major foreducation majors by the State’s DOE in 2000. The MST major is one of several programofferings in the Department of Technological Studies within the School of Engineering.Other programs include a Technology/Pre-engineering education major and a Masters in theArt of Teaching. All majors are fully accredited by the National Council for Accreditation ofTeacher Education (NCATE). Advising, recruiting and program requirements for
member of various national and international boards including the US National Science Foundation International Science and Engineering Advisory Committee, ASEE International Advisory Committee and President of the International Federation of Engineering Education Societies.Jennifer DeBoer, SPEED Jennifer DeBoer is currently pursuing a doctorate in International Education Policy at Vanderbilt University, where she is a fellow in the Experimental Education Research Training group and the instructor for the year-long research methods course for the masters program. She completed her bachelor’s degrees in mechanical engineering and foreign languages and literatures at the
beenshown to influence the willingness of participants to adopt more “learner centric active learning”teaching approaches7-10. Some of the successful models were developed in engineering8,11.In India, initiatives for “teaching pedagogy” and curriculum development for school educationhave existed since the 1960s. There have been formal courses for teacher education culminatingin degree programs like Bachelor in Education and Masters in Education offered by severaluniversities and institutions and considered essential for teacher recruitment in schools. Since1960s, bodies like the National Council of Teacher Education (NCTE) and the National Councilfor Education Research and Training (NCERT) have also been playing a significant role inbuilding
levels. Williams holds a Ph.D. in Science and Mathematics Education and a Master’s of Engineering in Mechanical Engineering from Southern University and A&M College in Baton Rouge, La., and a Bachelor’s of Science in Physics from Spelman College in Atlanta, Ga.Dr. Patrick D. Pedrow P.E., Washington State University Patrick D. Pedrow received the B.S. degree in electrical engineering from the University of Idaho, Moscow, in 1975, the Master of Engineering degree in electric power engineering from Rensselaer Polytechnic In- stitute, Troy, NY, in 1976, the M.S. degree in physics from Marquette University, Milwaukee, WI, in 1981, and the Ph.D. degree in electrical engineering from Cornell University, Ithaca, NY, in 1985
visiting professors there and ourinterest in ensuring relevance of curriculum and excellence to accompany numeric growth.AUST offers masters and PhD programs in five disciplines: Computer Science and Engineering,Pure and Applied Mathematics, Theoretical Physics, Petroleum Engineering, and MaterialsScience and Engineering (MSE).Accelerated harvesting of Africa’s wealth in mineral resources has undoubtedly contributedsignificantly to the impressive growth and transformation. Unfortunately the materials resourcessector continues to be based on economic activities primarily focused on extraction and export ofraw ores. Without a significant value addition to the abundant natural resources, the sectorremains vulnerable to the swings in world commodity
. Page 21.29.12Bibliography [1] Friedman, Thomas L., The World Is Flat 3.0: A Brief History of the Twenty-first Century. Picador Press, 2007.[2] Dewhurst, Martin, Harris, Jonathan, and Heywood, Suzanne, “The global company’s challenge,” McKinsey Quarterly, no. June, 2012.[3] D. McGraw, “My Job Lies Over the Ocean,” ASEE Prism, vol. 13, no. 4, pp. pp.24–29, Dec. 2003.[4] C. Habbich, U. Heublein, and S. Burkhart, “Auch im Bachelor und Master gehen deutsche Studierende häufig ins Ausland,” Deutscher Akademischer Austausch Dienst (DAAD), 22-Nov-2011. [Online]. Available: https://www.daad.de/portrait/presse/pressemitteilungen/2011/19055.de.html. [Accessed: 15-Jan-2013].[5] Institute for International Education, “2012 Open Doors Report on
, M. Thomas and C. Stephenson, "Master Teacher Program," 2011. [Online]. Pacific Crest. Available: http://www.facultyguidebook.com/kirkwood/docs/Master_Teacher_Program_Design_041211.doc. [Accessed 2012].18. The National Effective Teaching Institute, "The National Effective Teaching Institute," [Online]. Available: http://www4.ncsu.edu/unity/lockers/users/f/felder/public/NETI.html. [Accessed 2012].19. University of Michigan College of Engineering, "Certificate in Engineering Education Research," [Online]. Available: http://www.engin.umich.edu/teaching/crltengin/rackhamcert.html. [Accessed 2012].20. Northern Illinois University College of Engineering, "The Scholarship of Teaching and Learning: The CEET Faculty Development
statistical and artificial intelligence applications in process monitoringand diagnostics. Additionally, Dr. Hines was the Maintenance and Reliability Center Educational Coordinator forfour years and is currently the College of Engineering's Extended Education Coordinator.MARY KOCAKMary Kocak received the Bachelor of Science degree in mechanical engineering from the University of Kentuckyand the Master of Science degree in mechanical engineering from North Carolina State University. Ms. Kocak hasworked in industry for Johnson Controls, Inc. and Factory Mutual Engineering. She was an assistant professor inthe Department of Engineering Technology at the University of North Carolina at Charlotte from 1990 through1994. Ms. Kocak came to Pellissippi State
have access to theprofessor. The professor should be viewed as an invaluable resource, a “fount of knowledge”who is inextricably tied to a particular class at a particular university. There exists a far,far greater value in a professor than simply his ability to transfer material from a book tohis students. Here the student has, large as life and in realtime, a person who has spent a Page 10.906.1lifetime mastering the engineering material that forms to the content of the course. Whenpuzzled, the student can ask a question, thereby enabling learning to continue. “Proceedings of the 2005 American Society for Engineering Education Annual
professional development projects were driven by active learning ofcontent in the context of teaching, involved groups of teachers from the same school, andinvolved consistent, high-quality contact lasting months.18-20Professional development in 2005 and 2006 involve 9-12 grade teachers from NCETE partnerschool districts providing a cadre of master teachers in five states (CA, UT, WI, IL, and NC). In2007-2009, K-12 schools in adjacent states may be invited to participate in NCETE professionaldevelopment. This has the potential to prepare a cadre of leader teachers in twenty states,expanding the impact of NCETE and enhancing the sustainability of the Center.Model K-12 Engineering and Technology Education ProgramsNCETE K-12 school partners are