programs in the next two years. Throughpartnership with industry and our advisory boards, several areas were identified for improvementor incorporation into the curriculum. Within the automation course, one major area that wasidentified as either lacking or weak was the applications of machine vision in manufacturing. Asa result this structural reform sought to examine this area critically and incorporate it into thecurriculum. In addition, this restructuring has led to major laboratory developments and tostrengthen the vision area, several state of the art vision systems were acquired throughpartnership with DVTSensorsä. Another major motivation for the curriculum reform activities has been the regionalimpetus. NIU is strategically
at thefreshman level with the objective of maintaining a common design thread through the entireprogram. In addition, by introducing design as early as possible there is an opportunity topromote early interaction between students and faculty and generate excitement aboutengineering at a time when the curriculum is heavily loaded with basic math and science coursesand relatively little perceived engineering. Page 7.746.1 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering EducationAs a first step in
Session 1448 Teaching State Variable Feedback to Technology Students Using MATLAB and SIMULINK Kathleen A.K. Ossman, Ph.D. University of Cincinnati I. IntroductionThis paper describes a course and laboratory in State Variable Feedback developed as a t echnicalelective for students in the Electrical and Computer Engineering Technology (ECET) program atthe University of Cincinnati. Students pursuing the EET degree are required to take courses inSignals and Systems and Feedback Controller Design. They learn to design lead
casestudies discussed in class. Coverage of treatments is normally presented in terms of the designof medical devices or systems used in patient treatment.Most BME curricula are limited in experience gained in patient observation and diagnosis.However, to meet ABET accreditation requirements all programs must include a “hands-on”laboratory experience with living system elements. A medically relevant experiment set mightrequire the measurement and analysis of bio-electric signals or the use of a signal simulator (e.g.the University of Tennessee’s course BME 430: BME Laboratory). The development of manualdexterity useful to the performance of specific medical procedures is typically not possible in thecontext of a typical undergraduate BME laboratory
Session 1447 DEVELOPMENT OF AN APPARATUS FOR TESTING INJECTION VALVES FOR LIQUID MOLDING APPLICATIONS Vladimir Sheyman, Mulchand S. Rathod, Christopher P. Karas Division of Engineering Technology Wayne State University, Detroit, Michigan Tel: (313) 577-0800, Fax: (313) 577-1781 E-mail: rathod@et.eng.wayne.eduSUMMARY switch was added to the system. A twenty-four
competitive world of manufacturing. Industry needs engineerswho have the understanding of basic manufacturing engineering theory and the ability toapply their knowledge to the real world of manufacturing. Today’s integratedmanufacturing environment requires a work force possessing strong technical and peopleskills. Therefore, the graduates of manufacturing engineering technology programs musthave the knowledge and skills to direct, organize, motivate, and be able to work withtoday’s multicultural workforce. The changes in the manufacturing field created the needto update the Manufacturing Engineering Technology programs. Therefore, to keep upwith these trends and technological developments in the manufacturing fields there is aneed for assessing and
bereferred to as CIM lab or robotics lab 1,2,3. CIM/robotics laboratories are typically equipped witheducational, and in many instances, commercial grade machine tools and instruments. At theundergraduate level, the laboratory is primarily used for soft automation education. That is,teaching how to program computer-controlled equipment such as computer numerical control(CNC) machines, robots, and programmable logic controllers (PLC). However, a soft automationapproach should be coupled with a hard automation learning approach if a full spectrum offactory automation education is desirable. Hard automation is a full or near full scale development of an actual automatedmanufacturing and/or assembly workcell using capital equipment such as CNC
Vision” course, we were designing for a curriculum emphasizing the“pre-imaging” technologies and techniques rather than image-processing techniques as in atraditional computer-science oriented course (which was already being taught at the UGADepartment of Computer Science). We were planning to introduce concepts of appliedspectrometry in order to later develop into a color vision model as an application of multi-spectral imaging instead as a technology mimicking human color vision. We were also lookinginto lighting schemes, both structured and non-structured, and also at real-time image acquisitionmethodologies. Early in the development stage, we realized that we could not adopt the standardmode of laboratory design where groups of 2-3 students
. · Curriculum development was a collaborative effort between participating industrial benefactors/supporters and the university, which was very valuable in helping to gain important insight as to what industry felt was important with respect to class material. Further insight was gained as to how this material should be presented. In addition to supplying hardware and software, industrial corporate donors also supplied CDs and associated manuals and text materials to help support this instruction effort. 3, 4 Page 7.663.3 Proceedings of the 2002 American Society for Engineering Education Annual Conference and
pathway; has produced award winning curriculum design and reform for secondary and post-secondary Career and Technical Education programs; and provides a variety of professional development for STEM and techni- cal educators focused on advanced technologies. She earned a B.A. in Chemistry at Agnes Scott College and both a B.S. in Engineering Science and a Ph.D. in Civil Engineering (Environmental) from the Uni- versity of South Florida, where her research focused on membrane separation science and technologies for water purification. She has over 20 years of experience in developing curricula for engineering and engineering technology for elementary, middle, high school, and post secondary institutions, including
than 25,000 teachers, EiE is a research-based program that reinforces elementary science topics, creativity, problem solving, and teamwork skills through hands-on engineering design challenges. Dipa also helped establish proof- of-concept for Engineering Adventures, a new engineering curriculum being designed specifically for use in after-school and camp settings. Dipa previously served as a member of the education staff at The Discovery Museum and Planetarium in Bridgeport, Connecticut. There, she trained and supervised science instructors, developed and taught hands-on physical science labs for Grades 3-8 in the museum and in after-school programs, and managed various grant-funded projects. Dipa received
initiated Technical Education Quality Improvement Program inpromoting engineering education in India. The programme focuses on Faculty Development,Technical and Support Staff Development, Equipment and Facility Improvement, CurriculumImprovement, Curriculum Implementation, Course Flexibility, Student Evaluation, LearningResources, Interaction with Industry, Research, Distance Education, Academic Sharing, StaffDevelopment, Human Resources Sharing, Learning Resources and Library Facilities Sharing,Physical Resource Sharing, Expertise Sharing, Joint Ventures and System ManagementCapacity Improvement.Learning Instruction, Material and Infrastructure The universities are undertaking several remedies to correct the challenges. For instance,on the
potential for improvement of the Civil &Construction Engineering Technology curriculum at the institution. Because the project wasinitiated in conjunction with some undergraduate research on masonry walls, the student’s initialwork references some masonry-specific items such as wall bracing. This paper presents an Page 13.1195.2edited condensation of his effort and is intended to demonstrate the depth and breadth ofunderstanding developed by the student. The body of work is a review of the topic andrepresents in important topic that should be added to programs in civil and constructionengineering technology.Student Developed MaterialThe design
and complexity. The key question he is investigating is what are the principles underlying rapid and robust concept exploration when the analysis models are incomplete and possibly inaccurate? His quest for answers to the key question are anchored in three projects, namely, Integrated Realization of Robust, Resilient and Flexible Networks Integrated Realization of Engineered Materials and Products Managing Organized and Disorganized Complexity: Exploration of the Solution Space His current education focus is on creating and implementing, in partnership with industry, a curriculum for educating strategic engineers—those who have developed the competencies to create value through the realization of complex
issues.The specific aims of the grant are three-fold: 1) Establish new and strengthen existing trainingprograms in biomedical engineering in sub-Saharan Africa; 2) Train biomedical engineers andmedical doctors to evaluate newly developed HIV-related and other testing and therapeuticdevices; 3) Train post graduates from business schools to scale-up development and launch newhealthcare practices. In support of these specific aims we have created four distinct annualtraining sessions: 1) week-long annual planning meetings hosted by either UNILAG or UI andfacilitated by the NU team; 2) ten-week long biomedical engineering training programs at theUniversity of Cape Town (UCT) facilitated by UCT and NU faculty ; 3) participation in two-week long Kellogg
AC 2008-238: DEVELOPMENT OF AN EET LECTURE COURSE IN IPOD©FORMATJohn Hackworth, Old Dominion University John Hackworth is an associate professor and director of the Electrical Engineering Technology program at Old Dominion University. He holds a B. S. Degree in Electrical Engineering Technology and a Master of Science Degree in Electrical Engineering, both from Old Dominion University. Prior to joining the Old Dominion University faculty, John had approximately 20 years of industrial experience in test engineering and plant automation with General Electric Company. He is the co-author of two textbooks which are currently in use by several electrical engineering technology programs at
Session 2632 Development of an Under gr aduate Cour se in Biometr ic Signal Pr ocessing Rober t W. Ives, Delor es M. Etter , Yingzi Du, Thad Welch Electr ical Engineer ing Depar tment U.S. Naval AcademyAbstr act Using an individual’s iris pattern, voice, facial characteristics or fingerprints foridentification enables a high degree of certainty of a person’s identity, especially when usedtogether. This form of identifying people can be used in a variety of applications, includingallowing physical access to
Session 2632 Outcomes-based Concept Module Development for Systems for Smart Communications Robert Caverly1, Moeness Amin1, Ahmad Hoorfar1, William D. Jemison2, Athina Petropulu3 1 ECE Department, Villanova University, Villanova, PA, 19085 2 ECE Department, Lafayette College, Easton, PA 18042 3 ECE Department, Drexel University, Philadelphia, PA 19104 I. Introduction Smart communications technology
Session 1449 Development of a Competency-Based Introductory Course in Fluid Power Jan T. Lugowski Purdue UniversityAbstractA project to develop a novel curriculum for the associate degree in manufacturing engineeringtechnology has been funded by the National Science Foundation. The Sinclair CommunityCollege in Dayton, OH, coordinates the development work of the course. The focus of thecurriculum development process is to create an industry-driven, competency-based, modularlystructured, and integrated curriculum.One of the last modules to be developed is the fluid power module
, multidisciplinary engineering program. At Kettering he received Rodes Professorship award for outstanding teaching. He was one of the authors whose work in developing an introductory level design course received ASME Curriculum Innovation Award. Dr. Jawa enjoys teaching and is always in search of ways to make learning meaningful, relevant, and engaging.uei-jiun Fan, California State Polytechnic University-Pomona Dr. Fan is a Professor of Mechanical Engineering and Associate Dean of the College of Engineering at Cal Poly Pomona. For over fifteen years of tenure at Cal Poly Pomona, he has taught a variety of engineering courses and has diverse engineering experiences in his areas of
Institute of Technology. He led development of the first BS in Software Engineering in the United States. Page 11.1125.1© American Society for Engineering Education, 2006 Sharing Software Engineering Curriculum MaterialsIntroductionIn addition to the usual economies of scale, sharing curriculum materials is particularly importantfor software engineering since the pool of faculty is rather small and software engineeringcurriculum materials age quickly. This means that broad engagement by faculty with thequestion of how to promote material sharing is essential for the growth of software engineeringeducation. This paper is
Mathcad in the Civil Engineering Curriculum Brian L. Houston University of Pittsburgh at JohnstownIntroductionThe core curriculum for civil engineering and civil engineering technology programs has notchanged significantly over time. Courses in statics, dynamics and strengths of materials attemptto teach the same concepts as were taught decades ago. The difference lies in how theseconcepts are visualized, the teaching methods employed by the instructor and the development ofcomputer-aided design.Many institutions have added entry-level courses specifically aimed at providing students withbasic skills in various software packages reflecting the
Session 1526 An Interdisciplinary Curriculum for Microelectronics Robert W. Hendricks, Louis J. Guido, James R. Heflin, and Subhash Sarin Virginia Polytechnic Institute and State UniversityAbstractA group of ten faculty members from four departments and two colleges are developing aninterdisciplinary undergraduate and graduate curriculum in the area of microelectronics,optoelectronics, and nanotechnology. Our goal is to introduce the concepts of microchipfabrication in the sophomore year and then develop an option or minor in microelectronicsengineering, open to students from various branches of
(MAMTC), Rolla, Missouri; Olin Corp., St. Louis, Missouri; SME St. LouisChapter 17; and Visteon Automotive Systems, Dearborn, Michigan. The members expressedtheir strong support for the proposed new manufacturing engineering curriculum and theirinterest in working with us to develop this curriculum. In addition, advisory board members ofFV's program will also be invited to participate in this program.VIII. Conclusion This project is being implemented at UMR and FV. The capstone project course is structuredso that its format conforms to the participating institutions’ basic requirements and that existingresources such as faculty and technician support can be fully utilized. Although the proposedproject is currently aimed at curriculum
Fellow. He has a BSEE and MSEE from the University of Washington. c American Society for Engineering Education, 2017 A Microcontroller-based DSP Laboratory CurriculumAbstractIn this paper, we present digital signal processing (DSP) hands-on laboratory coursework whichwas developed based on a low-cost embedded microcontroller (MCU) platform. Recent advancesin MCUs (e.g. ARM Cortex M MCUs) have made the embedded microcontroller an option formost DSP applications and therefore a practical option for the DSP laboratory. The selected MCUtool uses the same ARM Cortex-M4 platform as used for the embedded microcontroller coursesin our program with the addition of the ARM CMSIS DSP library. Our work was
mechanical ones, are now asked to be further reinforcedby design specific curriculum. The universities, as they conduct the educations for futureemployees of the industrial company, now have to keep up with the needs in order to facilitate itscompetitiveness in the market. In fact, the theme of „capstone design‟ has long been traced as the best curriculum of designeducation for the engineering students in Korea and supported by most universities through the“Specialty Curriculum Development Program”, usually funded by the Ministry of Education, fornurturing qualified engineering students. Since designers and engineers usually have not closelyworked together, however, the design-engineering link is likely to be the most fragile and theirweak
AC 2007-1334: ENGINEERING TECHNOLOGY CURRICULUM REFORM INFLORIDAMarilyn Barger, University of South Florida MARILYN BARGER is the Executive Director of FL-ATE, the Florida Regional Center for Manufacturing Education funded by NSF and housed at Hillsborough Community College in Tampa Florida. She earned a B.A. in Chemistry at Agnes Scott College, and both a B.S. in Engineering Science and a Ph.D. in Civil Engineering from the University of South Florida. She has over 20 years of experience in developing curriculum in engineering and engineering technology for elementary, middle, high school and post secondary institutions. She is a registered professional engineer in the State of
Establishing an Entertainment Engineering Curriculum Robert F. Boehm Mechanical Engineering Department and Joe Aldridge and Brackley Frayer Theatre Department University of Nevada Las Vegas Las Vegas, NV 89154AbstractA new, multidisciplinary program in Entertainment Engineering and Design is being establishedat the University of Nevada Las Vegas. The name of the program could be defined in a numberof ways because few programs of this type exist and the field is so broad. Our