third module isthe same as project four in Nutt's Linux kernel projects book.6 However, after the students havestudied the first two modules, the third module is a simple program to write. Finally, thestudents are asked to write a user space program to compare the system time returned from thegettimeofday() system call to the xtime global variable reported by the kernel module.The fourth project deals with device drivers. The students expressed that they had a high interestin this lab because a device driver is something that they can visualize themselves developing atsome time in their careers. Again, the students begin by looking at a sequence of modulesobtained from the Linux Kernel Module Programming Guide.1 The device studied here is
of instructional techniques such as hands-on experience,interactive visually-oriented multi media, and group learning processes4.Most college students expect to be evaluated on their individual work and envision limitedinteraction among students in the classroom. Since engineers typically work in teams duringtheir professional careers, it is common for engineering courses to incorporate collaborativelearning. In addition, the national organization for accreditation of engineering curriculums(ABET) requires a demonstrated ability to work in multi-disciplinary teams. Any activity thatinvolves two or more students working together may be considered collaborative learning5. Thisstyle emphasizes learning through student interactions as opposed to
time.IntroductionIn addition to conveying engineering content, teaching first-year engineering students entails itsown specific educational issues, some of which are: (1) attracting and maintaining the students’interest and attention at a quality level, (2) helping students generate a sense of relevance Page 11.1315.2between class and engineering in the real world, (3) building a foundation to their technicalpresentation skills, (4) motivating them to be interested and inspired by engineering as a career,(5) making them feel part of the new academic world they are entering, and (6) allowing themto contribute to and participate in their own education. The OME
career and has already begun to branch off into other areas. The second benefit of the workshop related to motivation stemming from being a part of the developing community interested in rigorous research in engineering education. As a relatively new faculty at a teaching institution, reflection on the workshop experience still helps me to stay motivated on these endeavors.On the original workshop evaluation, responses to the open-ended item on whatparticipants liked best ranged from those who expressed appreciation for the opportunityto meet with other engineering educators and with experts in the field to those whosingled out interactive and encouraging environment of the discussion
services are information technology-driven. Students are increasingly expected to use statistical tools in order to analyze data,interpret information, and make decisions in their career. Future innovations are expected to increasingly exploit synergies between statisticaltools and business disciplines8. The need to use statistical tools to creatively improveundergraduate education is further stressed by the Carnegie Foundation for the Advancement ofTeaching2, 3. How has the education establishment reacted to the need for educating business studentson statistical tools? The National Science Board states that the shortage of technically skilled
, Page 11.448.10competent graduates will become technologists and technicians that manufacturing,automotive and other industries’ need. Hence, exposures to challenges in this field willresult in drawing more student attention to take careers in I&M, quality control,manufacturing fields, etc.5. Evaluations and Assessment PlanThe evaluation plan will be twofold: (1) A quantifiable measure of completions of theobjectives as stated in the proposed plan; (2) measure of student learning and outcome.Table 6 summarizes the deliverables and measures to be used for the evaluation of thecompletion of project objectives. A team formed by recent graduates of the DET and FH,industry representatives (among others the members of DET and FH Joint
“Theworkshop has the potential to motivate Spanish-speaking students to pursue engineeringeducation” and “Translating other LITEE case studies into Spanish is valuable for engineeringfaculty and students”. The LITEE cases were originally conceived to motivate all gifted U.S.students to pursue engineering careers. The fact that the cases are now being put to use in aforeign country, with the potential for further growth, is a major outcome of the Chilean venture.The statement receiving the least positive support involved the organization of the workshopwith only 11% of the participants disagreeing or strongly disagreeing that the workshop was wellorganized. Participants were also required to write down strengths and weaknesses they
course.AcknowledgmentsProf. Lu is supported in part by National Science Foundation CAREER CNS-0347466. Anyopinions, findings, and conclusions or recommendations expressed in this material are thoseof the authors and do not necessarily reflect the views of the sponsors.”References [1] J. Armarego. Advanced Software Design: A Case in Problem-based Learning. In Conference on Software Engineering Education and Training, pages 44–54, 2002. [2] E. A. Billard. Introducing Software Engineering Developments to a Classical Operating Sys- tems Course. IEEE Transactions on Education, 48(1):118–126, February 2005. [3] B. Boehm and D. Port. Educating Software Engineering Students to Manage Risk. In Inter- national Conference on Software Engineering, pages 591–600
bacterial chemotaxis and control in a conventional chemicalprocess.By introducing bacterial chemotaxis, we achieve two ends. First, we expose the studentsto a relatively unexplored set of questions where the physics, biology, and mathematicsare all incomplete. Second, we also introduced the students to the idea of decentralizedcontrol, a concept critical to regulating nano-scale machines.Operating LogicEven the most sophisticated hardware system will not function unless it is programmed.The program is what makes the installed control system operational. Previous controlcourses had not dealt with this issue, yet it is often an area that chemical engineersbecome involved with early in their careers. Programming can take many forms but it isthe
teaching. In the 2001 teaching formal, graded emphasis was not placed on thinking through complex algorithms before attempting to generate code whereas 2003 included this at several stages. o Response to the tutorial was exceptional. Several students commented that they wished they had learned Matlab in this fashion earlier in their college careers. o Two-thirds of students engaged in self-guided learning of programming language as evidence by a special challenge assignment. Students where challenged with generating Matlab code to perform the computational simulation of polymer formation in as few commands as possible. Two thirds of students developed functioning programs utilizing fewer commands than the
practical design skills. To prepare for a successful career in signal processing,whether in industry or academia, students should develop expertise in two domains: thetheoretical understanding of signal processing problems and the design of devices or algorithmsto solve those problems. As part of its ongoing curriculum reform, the ECE department at DukeUniversity has implemented a new DSP laboratory that impacts student instruction in multiplecourses. The overall vision for this vertically-integrated, application-driven laboratory has beenpresented previously1. This paper described the motivation for integrating a hardware-basedlaboratory into the introductory Signals and Systems course, the specific laboratory experimentsthat were conducted, and
u-shaped one in the original design, and the circuit board was repositioned to Page 11.1419.5accommodate the other design changes.Integration of business students in the capstone MIMIC projectThe business students who participate in MIMIC are enrolled in a capstone course, IntegratedBusiness Operations, required in their Associate in Applied Science degree programs. Theyare from a variety of career fields, including marketing, accounting, management, computersystems and information systems, which allows the makeup of the "companies" to berepresentative of an industry. Integrating students from various disciplines not only fulfillsthe technical
subsequent career as opposed to degree name for categorization. 1The main purpose of our recent effort is to evaluate the diversity of the environmentalengineering field. Our study evaluates gender diversity and ethnic diversity among U.S. citizensand permanent residents in terms of African Americans, Hispanic Americans, and NativeAmericans. Engineering diversity remains a problem in the USA despite ongoing efforts bygovernment, academia, and the private sector. Chubin et. al. (2005) reported that since 1995, theproportion of women and minority freshman in engineering is declining.2 However, for a similartime period, the representation of women and minorities in science, technology, engineering andmathematic (STEM) fields at both the baccalaureate
with Professor William Messner of Carnegie Mellon University) in 1997 for her work on the web-based Control Tutorials for Matlab. An expanded version, Control Tutorials for Matlab and Simulink, was published by Addison-Wesley in 1999. She is co-author (with Joseph Hellerstein, Yixin Diao, and Sujay Parekh) of the book Feedback Control of Computing Systems. She received an NSF CAREER award in 1999, and is the 2001 recipient of the Donald P. Eckman Award of the American Automatic Control Council. She belongs to ASME, IEEE, and SWE. She was a member of the 2004-2005 class of the Defense Science Study Group (DSSG) and is a current member of DARPA's Information Science and Technology Study Group
EPICS Entrepreneurship Initiative and the Innovation Realization Lab. She has been with the university since 1996 in business services with the Minority Engineering Program, Women in Engineering Program, and the libraries. Prior to her university career, Nancy owned several businesses including a wholesale/retail business, rental property business, and a direct marketing business. As an independent contractor she has worked for the Department of Education, the US Census Bureau, and was a teacher for a private mental health institution. From 1990-93, as a member of the American Society for Quality, Nancy introduced Koalaty Kid to the Lafayette School Corporation. “ASQ Koalaty
this paper establishes its technological feasibility. Logistical problems of preparingunique questions and solutions have been solved, and enhancements for professors have beendeveloped including formatting and notation, graphics, and automated grading and help for stu-dents. It is something that engineering education needs and should have, but it takes time, andspending too much time on teaching can be harmful to a professor’s career unless there is admin-istrative support.One simple, very real reason why some managers of engineering education emphasize researchat the expense of teaching excellence is that research is easier to measure. Department chairsconducting performance reviews quickly learn that evaluating the quality of teaching can
themselves as solutions for schools interested ingiving their graduates an edge in the workforce or satisfy technology competencies, there areconcerns that many IT certification programs do not provide the appropriate foundation andskills in IT necessary to be successful in long-term career or in postgraduate studies2. However, adetailed examination of the Network+ and CCNA certificate objectives indicates clearly that thetopics covered in theses certificates are standard Networking and Data Communications topics13,14, 15 and they can be integrated into the IS 2002.6 Networking and Communication course. TheIS 2002.6 course provides an in-depth knowledge of data communications and networkingrequirements including network and telecommunication
those sought by9; i.e. persons who seek to emerge as leaders and arepursuing career paths centered upon the “creation, development & innovation of new/improvedtechnology in the form of new/improved/breakthrough products, processes, systems, or technicaloperations.”Program implementation, Growth, and AssessmentThe initiation of the M.T. program should begin in 2007-2008 with an expected enrollment of 10-15 students. It is expected that the program will experience 20-25% growth in its first 3 yearswith a leveling out of 50-75 headcount in the program over time.Initial growth will be the result of local and national marketing efforts to businesses, industries,governmental agencies, and other universities. These marketing efforts will emphasize
research projects rather than doing other kinds of work to supportthemselves in graduate school. The program is less-well-suited to students in those sciencedisciplines in which it is not normative to complete a masters degree prior to a PhD. That is, in1 This analysis is a very crude indicator of the likelihood that students move from masters to doctoral programs. A Page 11.940.3more accurate method would use longitudinal data on masters degree recipients’ career paths, which are notcurrently available at the national level and seldom exist at the institutional level.fields like chemistry, physics, and biology, for example, most
supply and distribution systems that we have becomeaccustomed to. In many areas where systems have been developed they may need to be removedand proper feasible systems engineered that will fit the needs of the people integrated with anenvironment where no further development can occur as none can be sustained.If we wish to prepare students in our American engineering programs for a more activeinternational role in developing countries in their careers, we have to be able to at least introducethem to a context that is very different from the US engineering scene. Although some factorssuch as funding may be more constraining, the typical legislated constraints that control much ofengineering design in the US may be nonexistent. It will be
decisions. The number of suchdecisions will also grow because with great potential comes great hype. Citizens should have aknowledge base to help them separate the bad propaganda from the good.A second reason for pre-college nanoscale education is the need to stimulate a desire in morestudents to pursue science or engineering in college, and for a subset of them to pursuenanoscience and technology. Student enrollment in college courses for science, technology,engineering, or math careers has been roughly constant for 10 years, while the need, evenwithout the ensuing growth in nano, is not being met. “As nanotechnology moves into themainstream, companies ... will face a serious shortage of talent—far worse than what is alreadyoccurring.” 3 Yet, “[a
and analog electronic systems. He is the author of a Textbook in Power Electronics, published by Prentice-Hall. His professional career is equally divided in academia and industry. He has authored several research papers in IEEE journals and conferences. Currently Professor Agrawal is doing research in nanophotonics.Omer Farook, Purdue University-Calumet OMER FAROOK is a member of the faculty of the Electrical and Computer Engineering Technology Department at Purdue University Calumet. Professor Farook received the Diploma of Licentiate in Mechanical Engineering and BSME in 1970and 1972 respectively. He further received BSEE and MSEE in 1978 and 1983 respectively from Illinois Institute of
: Page 11.300.2‘...increasingly flexible and truncated careers. Hence graduates have to be more ‘flexible’ intheir attitudes towards work and more ‘adaptive’ in their behaviour in the labour market.They require a broader portfolio of technical, social and personal skills than...wereemphasised in the past.’ 3Therefore, the type of graduates we need to produce are those that are business-aware as wellas possessing the traditional engineering skills. However, the lack of fully efficient linksbetween university and industry means that we don’t always produce the type of graduatesthat industry really requires. And, in fact, we have been slow to respond to its changingrequirements.In many universities, course planning is largely an internally driven
the characteristics that we would like the students to acquire inthe robot projects and demonstrate at the robot contests are implied in the concept of engineeringaptitude. The engineering aptitude characterizes readiness of the individual to master engineeringand technology or to pursue an engineering/technical career [11]. Aptitude tests includeengineering and technological problems, which require understanding theoretical concept andability to use them in practice [12].For example, the questions posed in the NEAS tests for secondary school students who did notstudy technology/engineering subjects cover the following topics:• Mathematical reasoning. Students solve practical problems and use mathematical methods studied in school algebra
skills, and prepares them for careers in the international marketplace eitherin the US or abroad. The current status of the program is also detailed along with the advantagesand challenges of creating such a program at a small, primarily liberal-arts institution.IntroductionWith the continued emphasis on globalization in industry, companies are seeking graduates in allareas who have some form of international experience. While liberal arts and business studentsare more likely to have these experiences, engineering students typically stay on campus duringtheir undergraduate years. The main factors in keeping engineering students resident have beenthe inflexibility of the engineering curriculum and the lack of international opportunities
virtual systems enables students engaged in distance learning tomaster practical skills at any time and at any place. This paper presents an introduction to“Active Learning Suite (ALSuite)” software developed for interactive simulations and virtualexperiments, and discusses its application for Telecommunication (Fiber Optics and WirelessCommunications) Courses, for onsite, online and hybrid delivery modes.I. IntroductionTo achieve success in learning and in pursuing a successful career, a student in the 21st centuryneeds to attain proficiency in science, technology, and culture, in addition to the reading,writing and calculating skills. The Digital-age literacy requires students to gain understandingof information in all its forms: basic literacy
successful.”11. Final comments?When asked for final comments students gave their overall view about the entrepreneurshipcourses, which is mostly positive: “This minor is one of the most enjoyable and most valuableexperiences of my college career.” “Yes, the Minor has exceeded expectations so far, and thestaff are tirelessly helpful in helping entrepreneurial efforts outside of classes as well; I really Page 11.590.7can’t say enough about them.”Table 2 summarizes the responses to question 12, which was quantitative in nature. Results ofthe analyzed preliminary data indicate that in all three issues build and sell project has been themost effective
reflect on the development and maturation of the young engineer – the process fromyoung student with a dream, to a student fully realizing her or his potential. This growth mayoccur naturally, but the value added by excellence in teaching surely has some impact on the rateof development and level of success enjoyed by the students who experience excellenceteaching.Enabling student judgment Increased student enthusiasmMastery of the material Added tools to the tool-box – value addedGood student evaluations Instill a holistic viewMinimize effects of negative elements Help evaluate/focus career objectivesAttracting students to follow-on courses General improvement
2006-1396: TEAM WORK EXPERIENCES IN PROCESS AUTOMATION FORPRECISION CHEMICAL DEPOSITIONJeffrey Evans, Purdue University Jeffrey J. Evans is an Assistant Professor of Electrical and Computer Engineering Technology at Purdue University, West Lafayette, Indiana. He has a B.S. in Electrical Engineering Technology from Purdue University, and M.S. and Ph.D. degrees in Computer Science from the Illinois Institute of Technology in Chicago, Illinois. Prior to joining Purdue he held engineering positions over a 20-year career developing hardware, software, and systems in several industries including automotive control systems, consumer and industrial warning and safety, medical, and
Education, January 1999.2. Burton, L., Parker, L., and LeBold, W.K., “US Engineering Career Trends,” ASEE Prism, May-June 1998.3. Morgan, R.P., Reid, P.P, and Wulf, W.A., “The Changing Nature of Engineering” ASEE Prism, May-Hune 1998.4. Engineering Criteria 2000, Criteria for Accrediting Engineeering Programs: Effective for Evaluations during the 1999-2000 Accreditation Cycle: Engineering Accreditation Commission. Accreditation Board for Engineering and Technology; http://www.abet.org/download.htm, 30th November 1999.5. Curricula 2002; Manufacturing Education for the 21st Century; Volume I: David L. Wells, Editor, Society of Manufacturing Engineers, 1995.6. Panitz, Beth, “The Integrated Curriculum,” ASEE Prism, September 1997.7