Use of Knowledge and Skill Builders (KSBs) in a Measurements Laboratory Course Charles H. Forsberg Hofstra UniversityKSBs (“Knowledge and Skill Builders”) have been successfully used in design activities formiddle and high school students. This paper discusses their use in a college level engineeringlaboratory course. Suggestions are also given for their potential use in other courses.BackgroundDesign activities greatly enhance the technological knowledge of students of all grade levels.A typical design process includes the steps of: Problem definition, including constraints;Research and investigation of possible solutions; Generation of alternative
AC 2007-620: DEVELOPMENT OF A RADIOCHEMISTRY LABORATORY FORTHE PRODUCTION OF TC-99M USING NEUTRON ACTIVATIONSheldon Landsberger, University of Texas-Austin Dr. Sheldon Landsberger is the Coordinator of the Nuclear and Radiation Engineering Program at the University of Texas at Austin and teaches a graduate course in Nuclear and Radiochemistry.Jessica Rosinski, University of Texas-AustinPaul Buckley, Lewis-Clark State CollegeDan Dugan, Washington State UniversityJames Elliston, Washington State UniversityRoy Filby, Washigton State UniversityJeremy Lessman, Washington State UniversityAlena Paulenova, Oregon State University
AC 2007-1284: A NOVEL LABWORK APPROACH FOR TEACHING AMECHATRONICS COURSEIoana Voiculescu, City College of the City University of New York Professor Ioana Voiculescu received a Ph. D. degree in Mechanical Engineering from Politehnica University, Timisoara, Romania, in 1997 in the field of Precision Mechanics. She finished her second doctorate in 2005, also in Mechanical Engineering, but with the emphasis in MEMS. She has worked for five years at the U.S. Naval Research Laboratory, in Washington, DC in the area of MEMS gas sensors and gas preconcentrators. Currently, she is developing a MEMS laboratory in the Mechanical Engineering Department at City College of New York. She is an IEEE
, three exams are given including a comprehensive final exam that assessesstudents’ achievement of items 1, 2, 3, 4, 7, 8, and 9.2.1 DSP System DesignA separate, but related course, Real-time DSP System Design, was taught for the first timein 2005 at Georgia Tech. This course had a much smaller laboratory component and wasdesigned to expose students to real-time DSP concepts and system design trade-offs.3 Proposed FPGA DSP CurriculumHaving covered previous courses in DSP hardware design and system-level design, a refinedfixed-point DSP hardware design curriculum that uses a system design approach will be pre-sented. Teaching fixed-point hardware design is most natural within a hands-on, laboratoryenvironment where real-world obstacles
Massachusetts Institute of Technology-Lincoln Laboratory. He co-authored two textbooks on microcontrollers and embedded systems and authored over 70 journal and conference papers. He is a member of Eta Kappa Nu, Tau Beta Pi (faculty advisor), IEEE (senior), and ASEE. He is a registered Professional Engineer in Colorado. In 2005, Pack was named “Colorado Professor of the Year” by the Carnegie Foundation for the Advancement of Teaching. His research interests include cooperative UAVs, intelligent control, automatic target recognition, and robotics. Email: daniel.pack@usafa.edu Page 12.1586.1
results demonstrated thatthe new teaching improvement is capable of adding students’ GIS knowledge.1. INTRODUCTION The GIS courses for graduate and undergraduate students are offered in Old DominionUniversity (ODU) via distance education mode. The distance courses are delivered to 15 states,50 higher education centers, and 4 oversee navy bases (Japan, Koera, Mid-East, and Canada) viaboth the regular classroom and ODU’s TTN (Tele-Tech-Net) system (active satellites, streamvideo, video tapes, DVD, etc.). One of the problems in the distance courses is that the remotestudents have difficulty to access the large volume of geospatial data for their homework anddistance laboratory via internet. The GeoBrain system, which is funded by NASA
-19 December 2000. 3. Sigurd Skogestad, Multivariable feedback controls. John Wiley & Sons, Inc., New York 1966. 4. Francis J. Doyle III, E. Scott Meadows, An Interdisciplinary Control Engineering Laboratory Course. IFAC/IEEE Symposium on Advances in Control Education. 17-19 December 2000. 5. Vojslav Kecman, Affordable Lab and Project Based Teaching of Control. IFAC/IEEE Symposium on Advances in Control Education. 17-19 December 2000. 6. Blondel, V., M. Gevers and A. Lidquist (1995) Survey on the State of Systems and Control. European Journal of Control Vol. 1, No. 1, pp 5-23 September 7. Kheir, NA.; K. J. Astrom, D. Auslander (1966), Control Systems Engineering Education. Automatica. Vol.2
aproject-centric teaching paradigm to engage students. In this project, the faculty and theirstudents at Bluefield State College (BSC) were introduced to the concepts of CI. The coursemodules were further modified by BSC to fit the students’ and training objectives. We reporthere the first implementation and assessment of the CI course using BSC’s Center for AppliedResearch and Technology (CART) Course Management Service (CMS). The second project wascarried out to involve current scientists through similar project-centric approach using theconcepts of CI. The Bioinformatics and Genomics Research Core (BGRC) at VBI, as part of theMid-Atalantic Regional Center of Excellence (MARCE) provided training and support to overhundred researchers working in
technology education which helps to impart the hands-on aspect of thesubject area. To achieve this objective of providing practical knowledge skills, precisioninstrumentation with controlled environment is needed which may not be easily available inuniversity laboratories.This paper describes an innovative approach of team-teaching this new course in metrology. Aworking relationship has been established with a local A2LA-certified (American Associationfor Laboratory Accreditation) calibration laboratory where students get to learn the practicalaspects of precision measurements. The paper describes the course structure and gives somesample theory and experiments that students learn. The paper also discusses the lessons learnedfrom the students
principles which form the basis of the author’s methods for effective teaching arediscussed. Additional topics covered in this paper include using lecture time effectively,conducting a laboratory course, administering assignments and exams, and grading consistentlyand fairly. The effective use of helpers such as homework graders and laboratory teachingassistants is discussed. The author also addresses the use of technology for teaching, specificallywarning about becoming overly reliant on such technology.IntroductionIn today’s university environment, much is expected from professors regarding the education ofstudents. One primary duty and responsibility of the university professor is to teach effectively.Specifically, the engineering professor is to
curriculum offered is a group of independent and unrelated laboratoryactivities that provide information on classical biochemical and molecular techniques. Thisproject will develop lab activities from data collection, molecular techniques of isolation,transformation, gene cloning to bioprocessing of the gene product and applications and is basedon research conducted by Dr. James Wild and Dr. Melinda Wales at Texas A & M University3.These lab exercises will then be the foundation of two proposed laboratory courses for theundergraduate biotechnology program. The first lab will teach basic molecular techniques andits applications and the second lab will concentrate on bioprocessing of recombinant productincluding upstream and downstream processing
objectives of themechanical engineering program conformed to the ABET Accreditation standards of “keepingabreast with current technology.” As a result of this slow loop assessment, the Dean of theAcademic Board approved a comprehensive change to the mechanical engineering program,incorporating additional disciplines in the biological sciences, mechatronics, energy systems, andsystems engineering. Furthermore, in order to continually teach the recent technologicaladvances in society, a slow loop assessment was also conducted in each of the courses taught inthe mechanical engineering program. As a result, the Engineering Materials course at WestPoint incorporated the study of newer classes of materials such as biomaterials, nanotechnology
difference solutions. Educationally, distance learning classes offer unique challenges to teaching of numericalanalysis for engineers. While it is very common to use programs such as MATLAB for teachingnumerical analysis, licensing this type of program is expensive and therefore not alwaysavailable at the distance learning site. Using more conventional programming languages such asC or FORTRAN are also not as useful for distance learning for the same reason that compliersare expensive and not generally accessible to industrial distance learning sites and freewarecompilers are not always robust enough for class work where time is limited. The need for arobust programming platform for industrial partners at distance learning sites is critical
AC 2007-598: PROJECT GUISE: CURRICULAR INTRODUCTION ANDRESOURCES FOR TEACHING INSTRUMENTATIONDavid Beams, University of Texas-Tyler Page 12.1201.1© American Society for Engineering Education, 2007 Project GUISE: Curricular Introduction and Resources for Teaching InstrumentationAbstractProject GUISE (General-purpose, Universal Instrumentation System for Education) is acomputer-based laboratory instrument combining LabVIEW virtual-instrumentationsoftware and custom external hardware developed with support of the National ScienceFoundation under grant DUE 9952292. Descriptions of its development have beenpreviously published. However, an opportunity to
AC 2007-1170: A PROJECT-DRIVEN APPROACH TO BIOMEDICAL SIGNALSAND SYSTEMSJoseph Tranquillo, Bucknell UniversityDaniel Cavanagh, Bucknell University JOSEPH V TRANQUILLO is an assistant professor of biomedical and electrical engineering at Bucknell University. Dr. Tranquillo teaches courses primarily in bioinstrumentation. His research focuses on theoretical and computational models of electrical activity in the heart. Page 12.101.1© American Society for Engineering Education, 2007 Biomedical Signals and Systems Design Course 1 A Project-Driven Approach to Biomedical
field of interests includes Digital and Image Processing, Medical Applications of Lasers, Embedded Controllers. Dr. Barrett received Carnegie Foundation for the Advancement of Teaching, Wyoming Professor of the Year, 2004 and John P. Ellbogen Meritorious Classroom Teaching Award, University of Wyoming, 2004 awards. Dr. Barrett published several books on embedded systems design and applications. Page 12.932.1© American Society for Engineering Education, 2007 1 Integrating Wind and Solar Electric Energy
an opportunity to practice projectmanagement skills, and the cost of building a small demonstration bioreactor module is veryreasonable.Two different closed bioreactor systems are described, a ‘stepped’ reactor that was studentdesigned and built, and a 700 liter in-line unit developed by the authors with student assistanceduring construction. Detailed cost and schedule estimates for the 700 liter reactor are presented,along with actual funding and time expended on the project, as an example of these aspects ofproject management. The results provide an illuminating example useful when teaching costingand scheduling as part of a project management module.Typical Algal Bioreactor RequirementsAlgae must be well aerated, with an air flow rate of
AC 2007-2819: DEVELOPING BASIC CRYPTOGRAPHY LAB MODULES WITHOPEN SSLEd Crowley, University of Houston Page 12.490.1© American Society for Engineering Education, 2007 Developing Basic Cryptography Lab Modules with OpenSSLPerceived topic: Innovative TeachingKeywords: Security, Cryptography, Open Source, Lab Development, NetworkingWhile there has been a recent proliferation of quality cryptography texts, there remains ashortage of quality applied laboratory exercises and related support materials. In part, thisis due to the cost and availability of commercial cryptographic software. In part, this isdue to the time and resource commitment required to develop laboratory
AC 2007-1114: IMPROVING TEACHING TECHNIQUE FOR OUTCOME BASEDFLUID MECHANICS COURSE AT AAMUZhengtao Deng, Alabama A&M University Dr. Z.T. Deng is an Associate Professor of the Department of Mechanical Engineering at Alabama A&M University in Huntsville, AL. Dr. Deng has an extensive background and research experience in Computational Fluid Dynamics numerical simulation in particular high-speed aerodynamics/flows with heat transfer phenomena. He earned his Ph.D., Aerospace Engineering, University of Tennessee, 1991. He is currently teaching fluid Mechanics, thermodynamics, heat transfer, gas dynamics and senior design classes.Cathy Qian, Alabama A&M University Dr. Xiaoqing (Cathy
feedback is extremely positive with requests for similarmaterial to be developed for other courses. Although this approach is by no means universallyemployed within engineering disciplines at RMIT, the author has worked with other lecturerswithin the School of Electronic and Computer Engineering at the request of the Head ofSchool, to assist them in developing similar material. In addition, building on the success ofthis approach for first year lecture classes and in an effort to overcome many of the problemsassociated with laboratory instruction, the author set out last year to undertake a pilot projectto see if quasi interactive video could also be introduced to aid student learning in thetraditionally challenging area of laboratory teaching
AC 2007-3105: A PROJECT-BASED APPROACH TO TEACHING THE NUCLEARFUEL CYCLEErich Schneider, Dr. Schneider received his PhD in Theoretical and Applied Mechanics from Cornell University in 2002. During the final two years of his graduate study at Cornell, he held the position of Lecturer. From 2002-2006, he was a Technical Staff Member in the Nuclear Systems Design Group at Los Alamos National Laboratory. In January, 2006, Dr. Schneider joined the Mechanical Engineering faculty at the University of Texas at Austin. He is affiliated with the Nuclear and Radiation Engineering Graduate Program at that institution
AC 2007-2420: A SMALL, HIGH-FIDELITY REFLECTANCE PULSE OXIMETERDavid Thompson, Kansas State University David Thompson is a Fulbright Fellow currently studying in Japan. He received his B.S. in Electrical Engineering from Kansas State University University in May, 2006. His areas of research interest include biomedical sensors, neural prosthetics, embedded systems design, and analog & digital circuitry.Steve Warren, Kansas State University Steve Warren is an Associate Professor of Electrical & Computer Engineering at Kansas State University. He teaches courses in linear systems, computer graphics, biomedical instrumentation, and scientific computing. Dr. Warren manages the KSU Medical
AC 2007-1465: USING INDEPENDENT-STUDY PROJECTS IN YOUR RESEARCHAND TEACHING PROGRAMEdward Gehringer, North Carolina State University Edward F. Gehringer is an associate professor in the Department of Computer Science, North Carolina State University. His research interests include hardware and software support for memory management, architectures for security, object technology, and educational software for collaborative learning. Page 12.1550.1© American Society for Engineering Education, 2007 Session
University in 1985 and is a registered PE in Wisconsin. He teaches courses in circuits and communications.Owe Petersen, Milwaukee School of Engineering Dr. Petersen is Department Chair and Professor of Electrical Engineering and Computer Science at the Milwaukee School of Engineering (MSOE). He is a former Member of Technical Staff at AT&T Bell Laboratories and received his Ph.D. degrees from the University of Pennsylvania in 1971. He is a Senior Member of the IEEE and an ABET EAC program evaluator in Electrical Engineering.Holger Dahms, Lübeck University of Applied Sciences Dr. Dahms is Professor of Electrical Engineering at the Lübeck University of Applied Sciences since 1991. He
lecture sections allowed information to be rapidly delivered to the REU students allat the same time rather than have each mentor teach each pair of students in parallel. This, inturn, freed up time for the mentors to prepare the laboratory sections of the program. There wasa response from a student that had previously taken an introductory power electronics courseprior to the REU program and they stated that the lectures help clarify the lessons learned in theirprevious power electronics course.In the survey there were also several questions that pertained to the mentoring portion of theREU program. In summary, the students expressed the notion that the hands on laboratoryexperience of the REU program far exceeded any other traditional
a dedicated facility with the requisite teaching,office, and laboratory space required to support the educational and research programs andpersonnel.ConclusionsLANL’s investment in the EI is building a firm foundation for coupled education/researchprograms that are defining innovative approaches to workforce development. These sameprograms will directly address economic competitiveness issues through the new educationprograms and exploratory research being developed with the partner universities. With furtherinvestments, these Institutes can expand their education/research portfolio, establishcollaborative efforts with additional university partners and government laboratories, increasethe technology focus areas, and address a variety of
. IntroductionTwo digital design courses are offered at Bucknell University: one is entitled “DigitalSystem Design” and the other is called “Advanced Digital Design.” Both courses consistof three hours of lectures and laboratories weekly. Digital System Design, offered to thejunior class, focuses on logic synthesis; schematic capture is used for design entry.“Advanced Digital Design,” offered to senior and graduate students, addresses system-level design methodologies; the detailed breakdown consists of VHDL, register-transfer-level design methodologies, advanced topics in logic synthesis, and technology mapping.This paper addresses the pedagogic considerations of teaching “Advanced DigitalDesign” using VHDL.The design description of a digital system may
cooperation between the fields on engineering and criminology – two fieldsthat have traditionally been almost completely independent.Students enrolled in the program at IUP have science and math backgrounds appropriate forstudents in analytical social sciences, including algebra and statistics, as well as basic courses inthe natural sciences. The challenge is not to teach traditional engineering courses to thesestudents, but rather to develop and deliver these materials in a manner consistent with theirbackgrounds. The educational model that will be followed is closely aligned with the problembased learning approach utilized by Sandia National Laboratories for delivery of physicalsecurity courses to a range of audiences, both within the federal
AC 2007-134: MECHANICAL ENGINEERING FOR MIDDLE SCHOOLSTUDENTS: AN OVERVIEW OF THE MECHANICAL ENGINEERING PORTIONOF MST AT MSUJeffrey Rhoads, Michigan State University Jeffrey F. Rhoads is a Graduate Research and Teaching Assistant in the Department of Mechanical Engineering at Michigan State University. To date, he has taught in the areas of mechanical engineering analysis and mechanical design. Mr. Rhoads’ research interests include the nonlinear behavior of dynamical systems and the predictive design and analysis of resonant microelectromechanical systems (MEMS). He received his B.S. in 2002 and his M.S. in 2004, both in mechanical engineering from Michigan State University. He is presently
course or its equivalent. ManyTeaching Assistants work in laboratories or do grading of papers; the course also discussesinterpersonal skills. For international students, ESL courses can be taken simultaneously withthis course. The course is continually updated by its instructor to keep pace with the improvinglanguage skills of new doctoral students and changes in technology. The course covers issues ofacademic integrity, professional behavior, e-mail protocol, meetings leadership and participationskills and others that all contribute to both professional and instructional effectiveness.EvaluationAll instructors, including Teaching Assistants are regularly evaluated at NJIT, through acarefully monitored and student-controlled process