is required before taking this course. Thecourse meets every week for three one-hour lectures and one two-hour laboratory session withthe professor. Besides weekly laboratory sessions that enhance the weekly lectures,demonstrations and examples presented in lecture serve important roles in the teaching andlearning process in this course.Fe88Zr7B4Cu1, also named Nanoperm® by Alps Electric in the power electronics industry, is Page 9.683.1made via a rapid solidification process called melt spinning. Melt spinning allows for cooling Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition
Division of Experimentation and Laboratory-Oriented Studies Session 1526 Development of a Slow-Speed Engine for Enhanced Understanding of Thermodynamic Concepts Tim Cooley Purdue University Today’s engineering and technology students are often challenged to understand thefundamentals of thermodynamics and the devices that use these principles to power our society.A significant part of the problem lies in the fact that operational systems don’t easily lendthemselves to integration into the majority of traditional classroom environments. Bydeveloping a small, slow-speed internal
lab system.The MAF results will also be compared to mass air flow measurements taken from standard flowrate devices such as an orifice meter, rotameter or other reference flow rate devices. This labequipment was designed to be used by the engineering students in courses ranging from thefreshman introductory class through senior level courses.IntroductionThe faculty of the electrical and mechanical engineering departments at Arkansas TechUniversity is constantly trying to improve the laboratory experiences of their students. Thestudents who use the equipment range from the inexperienced first semester to the seasonedjunior and senior engineering students. Sometimes laboratory equipment that satisfies theeducational needs of this diverse group
nation’s overallinformation security defense.A joint MS/PhD class was used during the fall 2003 semester at GMU to test possible exercisesfor the capstone course as well as provide a pool of teaching assistants and mentors for theundergraduate program. The curriculum was also expanded in the spring 2004 semester jointlyby JMU and GMU. The capstone course, which will be taught in a closed laboratory setting,will be piloted by faculty from both institutions in the summer semester of 2004 at GMU. Page 9.273.1Proceedings of the 2004 American Society for Engineering Education Annual Conference & ExpositionCopyright © 2004, American Society for
authorizationon his campus.1. Introduction The author created, in 1992, a device dissection laboratory for incoming first yearengineering students. As “It seemed desirable to base a new lab on some modern andemerging technologies”, the course was developed around six light-based devices: barcode scanner, compact disc player, optical fiber communications and probes,photocopier, video camera (and VCR recorder), and ultraviolet (UV) light driven waterpurification.1,2 This inexpensive lab was assembled for less than $3,000, and has beenutilized in the following formats over a ten year period: (1) two week summer camp1,2 (1993-1994) (NSF-SUCCEED) (2) semester length “device dissection” lab3,4 (1995-1996) (3) in combination with
PLANNING FOR THE FUTURE: DEVELOPMENT OF AN ASSOCIATEDEGREE IN NANOTECHNOLOGY MANUFACTURING TECHNOLOGY AT PENN STATE UNIVERSITY Robert Walters and Albert Lozano Commonwealth College The Pennsylvania State UniversityWhile not long ago nanotechnology was confined to university research laboratories,nanotechnology techniques are today becoming integrated into mainstream industries. A sharpincrease is predicted in the number of industries and processes that will use differentnanotechnology approaches for their products in the near future. In fact, the NSF predicts thatnanotech innovations will create a $1 trillion business within the
., MicroSat Systems, NationalInstitute of Standards and Technology (NIST) and the Air Force Research Laboratory(AFRL) participated in this planning effort. The skills identified for the next generationof manufacturing engineers include the following: 1. Ability to understand as well as design manufacturing processes and systems 2. Ability to develop information oriented models of processes, manufacturing systems and computer based systems (which are used to automate or help accomplish the manufacturing / engineering activities) 3. Ability to work as part of distributed cross-functional teams, which rely on network based communication. This includes knowledge of distributed collaborative / concurrent
Session 1426 GAS ADSORPTION INDICATOR METHOD: AN INNOVATIVE EXPERIMENTAL APPROACH FOR NDT LABORATORY INSTRUCTION OF ENGINEERING STUDENTS. Guido W. Lopez College of Engineering Northeastern University, Boston, MA 02115 Nadezda G. Berezkina, and Ilya O. Leipunsky Russian Academy of Sciences Institute of Energy Problems of Chemical Physics
Session 1133 Experimental Apparatus for Demonstrating Thermo-siphon Heat Recovery System Concept Hosni I. Abu-Mulaweh Department of Engineering Indiana University-Purdue University Fort Wayne Fort Wayne, IN 46805, USAAbstractA portable thermo-siphon heat recovery system experimental apparatus was designed, developed,and constructed for the undergraduate mechanical engineering laboratory at Indiana University-Purdue University Fort Wayne. The purpose of this experimental apparatus is to demonstrate
Session 1153 A Freshman Design Experience Using RPT Robert Crockett, Martin Koch, Dan Walsh California Polytechnic State University, San Luis ObispoIntroductionCalifornia Polytechnic State University has an earned reputation as a proponent of the hands-on,laboratory-based, learn-by-doing approach to education. We have also won a reputation as acollege whose students are steeped in open-ended problems and underpinned by anunderstanding of design and the process of design. Design exposures for General Engineeringstudents start in the second quarter of the freshman year. This early exposure
Session Number: 3532 Teaching Software Engineering Bottom Up R. E. K. Stirewalt Software Engineering and Network Systems Laboratory Department of Computer Science and Engineering Michigan State University East Lansing, Michigan 48840 e-mail: stire@cse.msu.eduAbstractA typical CS curriculum contains a course on software engineering, which introducesprinciples and heuristic methods for designing large software systems subject to desirableproperties, such as maintainability and extensibility
systems. The positions of each of the degrees of freedom are acquiredusing optical linear encoders and a National Instruments data acquisition board using aLabVIEW interface. The experiment uses the theoretical values that are calculated during thepre-laboratory section for comparison purposes. The uncertainty behind the measurementsystem is analyzed. Plots of input force vs. output amplitudes and phases are generated for thevarious operating frequencies of the system. These results are finally compared to thepredicted results and conclusions are drawn. A sample laboratory handout is presented. Page 9.927.1 Proceedings of the 2004 American
perceived by students as reinforcing rather than redundant. Examplesof such experiences include field trips, hands-on laboratory exercises, modeling, technicaldesigns, experimental designs, independent laboratory research projects, and research papers.This paper links the U.S. Military Academy Environmental Engineering curriculum, ABEToutcomes a-k, and ABET Environmental Engineering Program Criteria to selected noteworthyexperiences. Assessment results are presented, which attempt to evaluate the effectiveness ofsignificant experiences. The drawbacks associated with omission of several desired experiencesfrom the curriculum are also addressed.Introduction Besides providing a discipline-specific undergraduate education, the United
Session # 3559 Virtual Labs in the Engineering Curriculum D. M. McStravick and M. K. O’Malley Both of Rice UniversityAbstractComputer simulations have been developed for use as student exercises to illustrate conceptsrequired for various engineering courses. These simulations or Virtual Labs are highly graphicaland interactive to help undergraduate students understand basic concepts by graphically solvingproblems and by visualization of real-time parametric changes. These Virtual Labs (or VL’s) canbe used productively in conjunction with existing laboratory experiments as pre-lab exercises,but the more
). Taught by engineeringfaculty, the course will include lecture, laboratory and recitation components. Using anapplication-oriented, hands-on approach, the course will address only the salient math topicsactually used in a variety of core engineering courses. These include the traditional physics,engineering mechanics, electric circuits and computer programming sequences. While the abovecore courses are traditionally reserved for the sophomore and junior years, it is proposed to movethem earlier in the curriculum, with EGR 101 as the only math prerequisite. It is finally proposedto develop a new Engineering Calculus sequence to be taught by the Math department later in thecurriculum, in concert with college and ABET requirements. By removing
. Calc. III (3) MATH 320 Ord. Diff. Equations (3)PHY 231 Physics II (3) PHY 310 Modern Physics (3) 16 15WCU will initially assume responsibility for the two network analysis courses (EE 201 and EE202) as well as the Laboratory courses (EE 211 and EE 212). To complete the offerings, UNC-Charlotte will be responsible for the Digital logic course (EE 221) and the Engineering Designcourse (EE 222). In this manner, the students will have access to both faculties. The studentsresiding at WCU will have access outside of class hours to the labs and to mentors for allcourses.Admission standards to the program shall
mode was significant. The moresuccessful the program became, the more pressure there was to add additional courses, and themore it cost to run the program. The cost per student taking a course via the distance mode wassignificantly greater than the cost for a student sitting in a classroom taking the same course.More students, but at greater cost, doesn’t necessarily improve the balance sheet. Luckily thesolution was just around the corner, for the nation was moving rapidly toward a “wired”economy based on the spectacular advances in the field of microelectronics. The computer agewas dawning. There will be more about that later.Where’s The Lab?Engineering Technology prides itself on the emphasis placed on laboratory experiences.Through the
courses, to sophomore laboratories, to junior co-operativeeducation experiences, to the capstone experience in the senior year. Therefore, this center has catalyzed the collaboration of multiple participants withinterests in a variety of curricular features. Innovations are proposed in the form of new ordifferent content, new delivery methods, and expanded points of delivery. This center is alsohelping to redefine interactions with institutional entities such as the Office of Grants andSponsored Programs, the Center for the Advancement of Teaching and Learning, the UniversityAssessment Council, and the Office of Professional Practice. This center will createdopportunities to streamline the undergraduate curriculum and share resources more
Unit Operations for Bioprocess Engineers Chenming (Mike) Zhang Department of Biological Systems Engineering Virginia Polytechnic Institute and State University Blacksburg, VA 24061Abstract Unit Operations in Biological Systems Engineering was introduced into thecurriculum at Virginia Tech in 2000. It is a lecture and laboratory combined course. Thelectures and experiments covered in the course had a narrow focus before the author tookover in 2002. To broaden the education for students selecting the BioprocessEngineering option within the curriculum, the author has revised the content of the courseto give the
, the study of telecommunications systems is today recognized as an academicdiscipline in its own right. The University of Oklahoma (OU) - Tulsa is one of a select few thatoffers a Master of Science degree in Telecommunications Systems under the aegis of the Schoolof Electrical and Computer Engineering. The degree has been designed with a common set ofcore courses: Telecommunications Industry Overview, Telecommunications Technology,Network Design and Management, Telecommunications Laboratory, and Professional Project.In addition, students may choose technical electives from among electrical and computerengineering, computer science, mathematics, and telecommunications systems courses. Studentsmay also choose up to six credit hours of approved
equations course), 12 credit hours of physics courses with a lab component, and7 to 8 credit -hours of chemistry. The chemistry requirement is flexible and varies dependingupon the chemistry background of the student. All students must take Chemistry I, which has alab component, for gaining the associated experimental skills. Students then may take the secondcourse in the sequence with or without the lab component. The latter option is for those, who areinterested in acquiring more laboratory skills. Further, as the courses with lab component areoffered every semester as opposed to the limited offering of the course without the labcomponent, several students prefer the latter sequence.Several courses in the major also contain the basic-sciences
school year studying in state-of- the-art science,mathematics, computer laboratories and smart classrooms. The program goal is toenhance the participants' academic ability and interest in technology by providinghands-on opportunities to work on research projects with university faculty andmentors. We will also examine the influence of incorporation of Technology on bridging theDigital Divide and Computer Equity for groups under-represented in science,technology, engineering and mathematics. A review of the effects of technology on ourparticipants in their educational attainment at the secondary and post-secondary levelsis presented.2. Introduction The Center for Pre-College Programs at the New Jersey Institute of Technologyhouses an Upward
University of Hartford in 1999 byadding a community sponsored environmental engineering research project. Semester longgroup projects on a relevant environmental topic typically include fieldwork, sample analysis,design and construction of laboratory bench scale tests, computer modeling, oral presentation,and written report. An important aspect of these studies is for the students to meet the sponsor sothat they clearly understand how their results will benefit the community. This helps to reinforcethe student’s appreciation for the importance of a life-long commitment to civic responsibility.Assessment tools used in evaluating service learning have been student surveys, informalfeedback from project sponsors, and acceptance of abstracts at
co-op sections. • Registering for the summer quarter following their BSME degreeThe specific details of how the foregoing is accomplished are described in the followingsections.In consonance with College policy, MNE-ACCEND students will be required to participate in amandatory co-operative educational program. Co-op professional practice assignments will be atNational Laboratories, Nuclear Power Plants, or various nuclear industry vendors and will have amechanical-nuclear engineering orientation. The normal length of the MNE-ACCEND co-opprogram [for “on schedule” students] is five quarters.Students for the MNE-ACCEND program are recruited from well-qualified and well-motivatedhigh school graduates and first year ME program students who
development for mobile computers d) Enhance active learning and instruction e) In laboratory data collection and document viewing f) In class assessment and evaluation of students, by means of electronic quizzes and polls. g) The wireless connectivity facilitates collaborative and interactive learning, and promotes in class participation for the students. With the integration of this technology in our classes we have made the learning experiencemore interesting and dynamic, and made difficult topics more accessible and easier to understandto the students. The wireless computer provides each student with immediate access to coursematerial such as lecture slides, examples and quizzes. In addition, the use of the
) identify thecompetencies and characteristics that are needed for incoming students to succeed in thecapstone semester; and (2) assess the alignment of the capstone semester outcomes withexpectations of industry. The initial results of this study have already been used in a variety of ways. Forexample, a standard process is now being used to certify that prospective students possessthe academic experience and personal characteristics necessary for success in thecapstone semester. The results have also been used to improve the design of capstonesemester instructional material and laboratory experiences, and to strengthen theclassroom interaction and teambuilding that takes place as part of the capstone semesterlearning experience
computer andInternet resources such as gigabits network, video conferencing and remote control software. Butwe found that it could be adapted to minimal IT resources such as cable modem at 1 Mbps andaudio-only feedback between teacher and students. System performance and student feedbackfor the first 7-week class period are reported herein. IntroductionOne of the thrusts in the UGA/Biological & Agricultural Engineering Department curriculum isto enhance the experiential learning aspects for our engineering students during class lectures aswell as during laboratory experiments needed for the course. Based on Student Technology feesand departmental funds, the Collaborative Distance Education (CDE
, upgrading, repairing and testingmechanical systems. The goal of laboratory part of “EDTE 341-Power and Transportation”course is to service small and/or large internal combustion engines. The purpose of this projectwas to service the gasoline engine, the engine dynamometer attached to it, and carry out someengine performance tests. If successful, the engine performance testing will be incorporated intothe “EDTE 341-Power and Transportation course” or the “ETME 301-Thermodynamics andHeat Power” course as one or more laboratory experiments. EDTE 341 and ETME 301 aretechnical elective and required courses, respectively, for Mechanical Engineering Technology(MET) students. The gasoline engine was disassembled and serviced as a requirement for
temperature rise time and overshoot, and the steady-state disturbancerejection capabilities of each strategy.The test results showed that the MPC strategies controlled the sugar cooking process better thanthe traditional PID control method in regards to the target parameters. The tests also showed thatthe PLC-based MPC strategy was comparable to the PC-based commercial MPC applications.This strategy has several benefits such as requiring no external hardware, software, andcommunications protocols, which may result in a less expensive implementation than thecommercial MPC strategies. This is of particular interest for implementation in an educationalsetting due to the lower cost, use of standard laboratory equipment, and relevance to
each course. Toreinforce the integration, the course titles have been changed to TFSE I (ME 312), TFSE II(M341), and TFSE III (ME 441). The fourth course, Energy Conversion, has become a technicalelective in thermal systems design. A common text is used in all four courses. The goal of thisnew pedagogical approach is for the cadets to learn the fundamentals of thermal fluids systemsintegrally as they occur with mass, momentum, and energy transfer processes in nature. Thecourse sequence is also supported by a thermal fluids laboratory consisting of a variety of fluiddynamic, thermodynamic, and heat transfer studies. This paper also contains details fordevelopment and implementation of the TFSE pedagogy.IntroductionThe thermal-fluids coverage in