likelihood of theirsuccess in a conventional programming class in a future semester. Equally significant, the coursemaintains student participation in the technical curriculum and will therefore be likely toimprove student retention. Other students seeking Matlab instruction, additional problem-solvingdevelopment, or an introduction to elementary game programming are also invited to enroll. Thecourse has also been accepted as a technical elective for non-engineering majors but is notapplicable toward the college’s Engineering Technology or Engineering Science degrees.The structure, curriculum, and class project used in the initial offering of the course are presentedin this paper. The real centerpiece of the course was a collaborative class project
technology available today. This technology refers to electronic control offluid power systems, computer simulation, data acquisition, programmable logic control, andremote control of the stands over internet.Proposed Objectives for the Motion Control LaboratoryDepartment of Mechanical Engineering Technology offers several courses in fluid power. Therewas an urgent need to upgrade the equipment for all of the courses, due to significant changesand technical advances, which have taken place in the fluid power industry in recent years. Thisproposal was limited to the hydraulic motion control area. However, the proposed equipment,and procedures developed based on it, was to be used in all other fluid power courses. Theequipment was expected to give our
Session Number 1349 New Baccalaureate Degree with a Concentration in Industrial and Enterprise Networking Harold L. Broberg, Paul I-Hai Lin ECET Department, Indiana-Purdue University, Fort Wayne, INAbstractThe curriculum and details concerning specific courses and course content are describedfor this innovative program which was developed by faculty from the Electrical andComputer Engineering Technology and Computer Science departments. Theconcentration in industrial and enterprise networking requires courses in programminglanguages, application programming, local and wide area networking, networkingsecurity, and
students visualize thedynamics and the scope of subject matter that help make the course accessible to theundergraduate student. Matlabœ is used extensively in the course to make the computations lessof an obstacle and to enable visualization.I. IntroductionFew schools teach spacecraft attitude dynamics and control (sometimes called spacecraft attitudedetermination and control) at the undergraduate level, while many teach it at the graduate level.Even fewer require it as part of the aerospace engineering curriculum. It is taught at theundergraduate level at Virginia Tech1, University of Southern California2, Purdue University3,and the United States Air Force Academy4. At Embry-Riddle Aeronautical University, thecourse is taught as a required
Session 1449 Use of Sequencer Functions in Industrial Control Max Rabiee, Ph.D., P.E. University of CincinnatiAbstractIn this paper we will study one of the most commonly used functions in programmable logiccontroller (PLC) systems. This function is called the Sequencer. All programmable logiccontrollers (PLC) have this function. The sequencer function provides powerful capability forthe PLC. This function and its applications are studied as part of a logic controller course inElectrical and Computer Engineering Technology (ECET) programs.Some PLC
Session 1348 A Novel Approach to Integrating Communication and Technical Skills Creating a Seamless Transition into Today’s State of the Art Engineering Technology Industrial Environment Jerome Tapper, Walter Buchanan Northeastern University, School of Engineering Technology, Boston, MAAbstract - Today’s engineering professionals are faced with many technical challenges. It can beagreed that the majority of colleges and universities across the country do an excellent job ofeducating our engineering and engineering technology students. However, not all technicallycompetent students are
and knowledge-based logic, not byoptimization-based refinement of existing designs 5 - 7. Prusak 5 provides compilation of resultsof some studies on persistent underachievements of engineering and technology education in theprocess of teaching how to find core of a problem and solve it in a methodical way that enhanceschances of creating best solutions. The best solutions are again understood as solutions that arenot a result of optimization of the existing state of matter, but solutions stemming from thephysical or chemical core of the problem as described by basic principles of physics andchemistry.Historically, engineer has not been a synonym for inventor, but rather for creator 8. It istherefore unrealistic to expect that engineering and
Annual Conference & Exposition Copyright © 2004, American Society for Engineering"BiographyDAVID E. SWANSON is a Lieutenant Colonel in the United States Air Force assigned to the U.S. Air ForceAcademy as an instructor of astronautics. Lt Col Swanson has a B.S. of Electrical Engineering from SouthernIllinois University, an M.S. in Operations Research specializing in Space Operations from the U.S. Air ForceInstitute of Technology and an M.S. in Electrical Engineering from the University of Colorado.KENNETH E. SIEGENTHALER is an Associate Professor of Astronautics at the U.S. Air Force Academy. Dr.Siegenthaler has a B.S in the Arts & Sciences from the U.S. Military Academy, a B.S. in Physics from theUniversity of
, Nov, 2003.7. Barnhart, David J., Obadiah Ritchey, Jerry J. Sellers, James J. White, and Tim White, “EyasSAT: Transformingthe Way Students Experience Space Systems Engineering,” Proceedings of the 2004 Annual American Society forEngineering Education Annual Conference & Exposition, Salt Lake City, Utah, 20-23 June, 2004.BiographiesKENNETH E. SIEGENTHALER is an Associate Professor of Astronautics at the U.S. Air Force Academy. Dr.Siegenthaler has a B.S in the Arts & Sciences from the U.S. Military Academy, a B.S. in Physics from theUniversity of Utah, and a M.S. and a Ph.D. in Engineering Physics from the Air Force Institute of Technology. Heis a registered Professional Engineer in the state of Colorado.DAVID J. BARNHART is an active
Turn on a FlightSimulator,’ Proceedings of the Hunstsville Simulation Conference HSC2003, Hunstsville, AL, Oct.30-31, 20039. Fostering Research on the Economic and Social Impacts of Information Technology: Report ofa Workshop http://www.nap.edu/readingroom/books/esi/ch4.html10. http://www.wideview.it/\11. http://www.avsim.com/hangar/utils/nav/MOHAMMAD JAVED KHAN is an Associate Professor of Aerospace ScienceEngineering and a member of the American Society for Engineering Education.He has a PhD in Aerospace Engineering from Texas A&M University and holds aprivate pilots license. His experience includes design & development work on amultinational military aircraft program, aircraft field engineering and teaching. Hisresearch is focused
center had a major impact on students taking their first programmingsequence. Freshmen students as well as students from other classes have participated inthe PLC activities. The PLC proved to be successful for both day and evening students.The center offered walk-in hours for students as well as seminars during the lunch houron various topics. This paper discusses the impact of the center on students' learning andsuccess in their first computer programming sequence. The center can be duplicated toserve students in other disciplines.IntroductionSeveral Engineering Technology programs require a sequence of courses in computerprogramming. In particular, computer science technology, computer engineeringtechnology or information technology programs
Session # 2653 TEACHING TECHNOLOGICAL LITERACY K-12“PREPARING FUTURE ENGINEERS & NURTURING A DEMOCRATIC SOCIETY” A CASE STUDY OF EXEMPLARY PRACTICE Jared V. Berrett Brigham Young University Introduction Shelly and Melanie stood outside the school staring at a handheld GPS in one pair of hands, and their “tech notes sheet” in the other. It was a beautiful sunny afternoon in Hailey Idaho. I watched as they discussed how they had seen Mr. Thode, their teacher, set the way points in the GPS to aid navigation around the school for others to follow. Shelly and Melanie
“Technology Based Distance Learning at the University of Florida, College of Engineering – Graduate Engineering Education on Demand” Bob Mason, Dr. Fazil T. Najafi Coordinator of Broadcasting, Outreach Engineering Education Program, University of Florida / Professor, Department of Civil & Coastal Engineering, University of FloridaThe Outreach Engineering Education Program (OEEP) now in its fourth decade began with a onestudio/classroom that transmitted over the State of Florida microwave backbone. The studentshad to gather at the closest facility with a microwave link.The demographic coverage was south eastern Florida, the “Space Coast”, where most of thetechnology companies flourished. The
Session 2004-1557 The Aalborg Experiment University - Industry Interaction: A Means for Stimulating Engineering Excellence in Technology and Learning Systems Sven Hvid Nielsen, Associate Professor Department of Production Aalborg University, Denmark e-mail: i9shn@iprod.auc.dkAbstract: This article presents what an engineering school at a university may do tostimulate the engineering excellence. The Aalborg University experiment will be used as acase example with its unique use of problem-based education methods in connection withproject and group-organised studies – to stimulate
Session 1455 Enabling the U.S. Engineering Workforce to Perform: Building a Culture for Technological Innovation and Leadership in Professional Graduate Engineering Education D. A. Keating,1 T. G. Stanford, 1 J. M. Snellenberger,2 D. H. Quick,2 I. T. Davis,3 J. P. Tidwell,4 D. R. Depew,5 A. L. McHenry,6 S. J. Tricamo,7 D. D. Dunlap,8 University of South Carolina 1 / Rolls-Royce Corporation 2 / Raytheon Missile Systems 3 The Boeing Company 4/Purdue University 5 / Arizona State University East 6 New Jersey
Session 1150 A Mouse Click Away: Information to Help Engineering and ET Educators Elaine L. Craft Florence-Darlington Technical CollegeAbstractThe SC ATE center of Excellence, with funding from the National Science Foundation (NSF), isserving as a National Resource Center for Engineering Technology (ET) education. SC ATEfocuses on success of students in ET programs using "tried and true" strategies, products, andservices that have originated with SC ATE. SC ATE resources are now just a mouse-click awayat www.SCATE.org for review, downloading
Session #3660 Vision for Preparing the Engineering and Technology Students Concerning Entrepreneurship and International Accreditation for Tomorrow and Beyond Around the Globe Dr. Rafiqul Islam Dept. of Engineering Technology Northwestern State University Natchitoches, LA 71497 Tel: 318-357-5352 Fax: 318-357-6145 Email: islamr
Session 3157 Motion-Tracking Technology & Three-Dimensional Displays Provide Leading-Edge Research & Educational Tools to Industrial Engineering Students at Texas A&M University-Commerce Andrew E. Jackson, Ph.D. Texas A&M University-CommerceAbstract In the fall of 2002, a new Industrial Engineering program was established at Texas A&MUniversity-Commerce (TAMUC). A central component of this new undergraduate program is areconfigurable, modularized Human Factors & Ergonomics Laboratory (HFEL) that will providestudents
Session 1331 Scaffolding Transfer Activities Through the Use of Concept Maps to Enhance Adaptive Problem Solving in an Introductory Engineering Technology Course James Jay Houdeshell National Center for Manufacturing Education at Sinclair Community CollegeIntroductionIn the industrial age "knowing what" and "knowing how" to transfer well-structured problemsolving skills learned in one context to another context was sufficient for most job positions.With the movement to an information age, problem solving has expanded into the requiredability to transform domain
Session 22552004 ASEE – Salt Lake CityGraduate Studies DivisionInvited Panel Session:Issues Driving Reform of Faculty Reward SystemsRelevant to Professional Graduate Engineering EducationInvited Panel Paper #1 Draft Issues Driving Reform of Faculty Reward Systems to Advance Professional Graduate Education: The Need for Criteria that Support Engineering Practice and Technology Leadership D. R. Depew,1 G. R. Bertoline,1 M. J. Dyrenfurth,1 A. L. McHenry,2 D. D. Dunlap,3 R. J. Bennett,4 S. J. Tricamo,5
Session 2649 Development and Integration of a New Course in Structural Loads & Systems in a Civil Engineering Technology Program Abi Aghayere College of Applied Science and Technology Rochester Institute of TechnologyAbstractOne of the Civil criteria in ABET TC2K1 is that programs “apply current knowledge and adapt toemerging applications of technology,” such as, changes in the building codes. Structural designfirms also have the expectation that Civil Engineering Technology (CET) graduates should beable to apply current
Session 1648 Assessment Methods for Comparison of On-Campus And Distance Learning Laboratory Courses In an Engineering Technology Program John R. Hackworth, Richard L. Jones Old Dominion UniversityI. Abstract Assessment methodology and results for two Electrical Engineering Technologylaboratory courses are shown. In these cases, courses are offered in both the traditional on-campus and non-traditional distance learning format, assessment methods are prescribed,assessment data are taken, and the results compiled
Session 1109 Collaborative Efforts between the Local Industry and Engineering Technology and Biology Students in Building a DNA Microarrayer Saleh M. Sbenaty, Ph.D. Department of Engineering Technology and Industrial Studies Middle Tennessee State UniversityAbstractThe current paper describes the collaborative efforts between engineering technology students,biology students, and a local industry in building an advanced microarrayer system for DNAtesting. BioVentures, a biotech company located in Murfreesboro, TN and one of the worldlargest suppliers of DNA markers
Session Number: 2547 Development of a Low Cost Laboratory System for Teaching Automation System Integration in the Manufacturing Engineering Technology Curriculum William Ferry and Andrew Otieno, Department of Technology, Northern Illinois University, Dekalb, IL 60115 otieno@ceet.niu.eduAbstract - In many automated manufacturing assembly systems today, several components thatare manufactured by different companies have to be integrated together
Session 3548 A Simple Software and Hardware System Solution for Process Measurement and Control in Engineering Technology Student Design Projects Dale H. Litwhiler Penn State Berks-LehighValley CollegeAbstractMany design projects conceived by engineering technology students involve using a computer tocontrol some form of physical process. These hardware-in-the-loop (HIL) projects involvemaking measurements of some physical quantities, processing the measured data, and producingcontrol signals based on the processed data. Choosing the
criteria were outdated – and that there was too much reliance on“bean counting.” The criteria were burdensome and far too prescriptive. ABET subsequentlyspent a great deal of energy to drastically overhaul the engineering criteria, and the result wasEC2000.3Soon the Technology Accreditation Commission decided that its processes and criteria tooneeded a major overhauling and ultimately the commission, with a great deal of help from thecommunity it serves, developed and published the new criteria for technology programs,currently referred to as TC2K. The new criteria were a move away from input and process(courses taught, faculty credentials, etc.) to outcomes (what students know and are able to do).All eligible engineering technology programs are
employment in industry. This paper describes the unique services of the National Resource Center for Manufacturing Education that helps manufacturing educators overcome these difficulties. The Resource Center is sponsored in part by the Advanced Technological Education program of the National Science Foundation1 and is an extension of the National Center for Manufacturing Education that has been in operation in Dayton, Ohio since 1995.Need For a National Resource Center for Manufacturing EducationIt is imperative for educators in manufacturing engineering technology or manufacturingengineering to maintain currency in their field and to implement novel pedagogies that have beenproven to enhance student learning. The future growth of
Session 1170 Impact of K-16 Programs at New Jersey Institute of Technology on STEM Deran Hanesian, Levelle Burr-Alexander, Rosa Cano, Howard Kimmel, Henry McCloud, Diana Muldrow, Angelo J. Perna, Reginald P. T. Tomkins The Otto H. York Department of Chemical Engineering The Center for Pre-college Programs New Jersey Institute of Technology Newark, New Jersey 07102AbstractOver thirty (30) years ago, faculty at New Jersey Institute of Technology (NJIT) recognized aneed to develop programs directed at
ownership, and student classification has a positive impact onour student’s attitudes and perceptions as well as their academic performances.IntroductionWhen students have limited access to computers outside of structured computer labenvironments, there may exist a need to promote the usage of technology as an essential tool thatis used as an integral part of the engineering curriculum. For some minority engineering students,studies show that access to computers and technology growing up may not be as vast as theirmajority counterparts1. Hence, there may be a fear factor when introducing students totechnology2. Better understandings of what computers are how they work and how information issent and received is an important consideration toward
respond to this demand, the Commonwealth College at Penn State University has developed aunique associate degree in Nanotechnology Manufacturing Technology that was started at fourcampuses in the Fall 2003 semester. This program is a unique and pioneering two-year program,with two different tracks: the engineering technology option (ET) and science option (SC). Bothof these options converge in a hands-on capstone semester that all of the students take at themulti-million dollar Nanofabrication Manufacturing facility at the University Park campus ofPenn State. The goal of this paper is to describe this innovative program as well as to share theauthors’ experiences in developing a cutting-edge degree in engineering technology