image processing” book starts with the assumption that the reader hasaccess to an image. It generally does not cover on how to select/develop an imageacquisition system for a given application. This gap was addressed in this course.In summary, this designed course designed was to cover the four key segments ofcomputer vision systems, i.e. a) image acquisition, b) image processing, c) imageanalysis, and d) image understanding (pattern recognition). Table 1 illustrates thefour learning objectives of the course and their associated Bloom’s taxonomy. Toachieve these learning objectives, active teaching and learning techniques alongwith modified conventional lectures and hands-on laboratory activities were used.In addition to the assignments, and
. Students learned aerodynamicsconcepts in the course and how it affects wind turbine energy extraction. In labs, thestudents subsequently mount a 3D printed wind turbine blade in a wind tunnel to evaluateits aerodynamic effectiveness.Wind tunnel instrumentation and 3D printer augmented fluid dynamics instruction andlabs were examined. It was hypothesized the technology could be used to rapidlygenerate designs of energy extraction components in laboratory-based fluid dynamics andaerodynamics education. As a result, in addition to ensuring that learning was at least aseffective, the instructional process would be more efficient, than the non-augmentedinstruction. This paper presents the results of student performance and comparisons of theaugmented
called a lecture-and-labenvironment. This environment traditionally uses lectures on subject matter and is supplementedby laboratory experience. If the laboratory experiments are not generating the expected results,very often the whole experiment needs to be repeated. The unexpected results could be due tofaulty components, incorrect design specifications, or improper connections. Nonetheless,implementing a circuit in the lab with undesired output might be time consuming. However,having an electronics simulator will enable the students as well as the instructor to analyze theperformance of a circuit prior to implementing the actual hardware components.This paper investigates design, simulation and implementation of a decade counter using
its efficiency in terms of theprogram’s educational contents, its target audiences, and its outreach impacts.IntroductionInterest is growing in the reorientation of educational programs to make them moreoutcome-based and results-oriented [1-4]. Outreach programs, as parts of recruitmentefforts of educational institutions, are especially appropriate for outcome assessment. Theresults of such assessment allow evaluation of the accomplishment of the objectives andprovide for fine tuning of outreach activities leading to the improvement of the quality ofthe educational programs.Assessment tools used to evaluate the accomplishment of the outcomes of conventionaleducational programs that include class and laboratory activities may not be
our teaching methods, which include real-time signalprocessing laboratories using low-cost DSP processors, and hands-on projects. We will alsopresent a course assessment and outcome, which will include how the students apply their gainedDSP knowledge to their capstone senior projects. Finally, we will address the possibleimprovement of the course content and associated laboratories.I. IntroductionDigital signal processing (DSP) technology and its advancements have continuously impactedthe disciplines of electrical, computer, and biomedical engineering technology programs. This isdue to the fact that DSP technology plays a key role in many current applications of electronics,which include digital telephones, cellular phones, digital satellites
engineering education argue that educational programs focus too muchon the transmittal of information through static lecture-discussion formats and routine use ofoutdated laboratory exercises. On the other hand, active learning, learning that involves hands-onexperience, significantly improves student comprehension and proficiency. It is clear thatunderstanding and retention are greatly enhanced when students engage in active learning.While theoretical knowledge remains a fundamental component of any comprehension process,the underpinnings of proficiency development seem to increase best through active learningpractices. What remains less clear is the “gold standard” for pedagogical approaches thatcombine theory and hands-on learning.In this article
CourseAbstractWith an increasing emphasis on student learning outcomes and assessment, educators constantlyseek ways to effectively integrate theory and hands-on practices in inventive course designmethodologies. Critics of engineering education argue that educational programs focus too muchon the transmittal of information through static lecture-discussion formats and routine use ofoutdated laboratory exercises. On the other hand, that active learning, learning that involveshands-on experience, significantly improves student comprehension and proficiency. It is clearthat understanding and retention are greatly enhanced when students engage in active learning.While theoretical knowledge remains a fundamental component of any comprehension process,the
Electrical Circuit lab course to face the challenges in Remote LearningAbstract This paper presents our practice to adjust to distance learning in an electrical circuit lab course.Electrical Circuits (EMT 1150) is a first-year engineering gateway course for ElectromechanicalEngineering Technology (EMT) Associate in Applied Science (AAS) students. It is a five-creditcourse with a combined 4-hours lecture session and 3-hours laboratory session every week, whichintroduces students to the physical basis and mathematical models of electrical components andcircuits. Laboratory work is performed on a breadboard using the digital multimeter, oscilloscope,and function generator. This course had a high failure and
AC 2008-1700: OUTCOMES ASSESSMENT IN A HANDS-ON MANUFACTURINGPROCESSES COURSEMukasa Ssemakula, Wayne State University Page 13.958.1© American Society for Engineering Education, 2008 Outcomes Assessment in a Hands-On Manufacturing Processes CourseAbstractIndustry has consistently identified lack of experience in manufacturing processes as one of thekey competency gaps among new engineering graduates. This paper will discuss a laboratory-based Manufacturing Processes course that provides hands-on manufacturing experience tostudents. In addition to standard theoretical concepts, the course uses team-based projects thathelp students gain hands-on experience with selected
Education, 2017 Identifying and Addressing the Gap in Covering Safety Related Topics in Hydraulic and Pneumatic Lab ActivitiesIntroductionOne of the important missions for academic institutions is to prepare students for an employmentin industry upon graduation. To fulfill this mission, it is essential for institutions to align theirprogram contents with those knowledge and skill sets vital to prospective employers. Moreover,the engineering technology discipline within academic institutions typically emphasizes onapplied concepts and laboratory activities so students learn about how to apply the lessonslearned in lectures upon graduation. Yet, this is where safety is often overlooked because themain purpose of these lab
like to divedeep into learning abstract concepts and theoretic materials. Several educators tried to usepractical applications and simulation tools to enhance student learning in control systemscourses1-7. Others found that laboratories and course projects are important ingredients that canhelp students make the connection between the dry and abstract math concepts and practicalapplications8-14.Due to the multidisciplinary nature of control systems, it is common for students in capstonecourses to apply control theory to their projects15-16. However, many students do not realize theimportance of control systems and other basic math and science materials and how these can fitinto other engineering courses20. They tend to hit a “reset button
incorporate new technologies throughout their career. The paperrelates not only the professor’s view of the experience but a student view as well.IntroductionNew paradigms are required for undergraduate teaching in Engineering and EngineeringTechnology that are “student centered” [1]. In forming these new directions within the laboratoryexperience, we need to rethink traditional methods to become more flexible and challenging tothe individual student. Accomplishing this requires a new method of delivery that is differentfrom the traditional laboratory instruction [2, 3, 9 and 10]. Allowing the student to use higher orderleaning including problem development, experimental planning and most importantimplementation all though the use of active learning
online, with laboratories being offered in a ‘low-residency’format. This low-residency format will require students to complete a group oflaboratory assignments on two or three Saturdays during the semester. Weanticipate future efforts to offer both the lectures and laboratories completelyonline.SPSU’s approach, in collaboration with the TCSG, to the development of thesecourses was to require consistency in the format of each of our courses byimplementing a standard template. This will facilitate courses to have the samelook, feel, tools, and structure. Faculty developing these courses must havecompleted our Teaching Academy for Distance Learning (TADL) training courseprior to writing courses. To ensure quality course development and structure
Warminster, PA where he estab- lished an optical communications laboratory for development and characterization of optical components, systems, and protocols for high-performance avionics data networks. Dr. Rosen is currently an assistant clinical professor at Drexel University, where he is responsible for developing and teaching courses in microprocessors, microcontrollers, FPGAs, and optics. Dr. Rosen has carried out research sponsored by the National Security Agency, National Science Foundation, the National Oceanic and Atmospheric Administration, DARPA, the Office of Naval Research, Air Force Office of Scientific Research, and the Missile Defense Agency. Dr. Rosen is the author or coauthor of over 80 publications and
about 10% weight of the course. Students spend timefor this project beyond scheduled hours. Although the project announcement is done at thebeginning of the semester and is due at the end, the actual work needs about three weeks to Page 25.1377.3finish.Digital Electronics (ENTC 219): In this introductory course to Digital Logic, students design andimplement hardware into an FPGA that controls a mobile platform. It is a team project consistingof two members. It spans over the last 4 weeks of formal laboratory time and carries a weight of15% of the course.Advanced Digital Circuits (ENTC 249): This course primarily involves digital system
AC 2010-308: A PLATFORM INDEPENDENT METHODOLOGY FOR TEACHINGSTUDENTS TO LEVERAGE THE POWER OF PARAMETRIC DESIGN TOOLSMichael Johnson, Texas A&M University Johnson is an assistant professor in the Department of Engineering Technology and Industrial Distribution at Texas A&M University. Prior to joining the faculty at Texas A&M, he was a senior product development engineer at the 3M Corporate Research Laboratory in St. Paul, Minnesota for three years. He received his B.S. in mechanical engineering from Michigan State University and his S.M. and Ph.D. from the Massachusetts Institute of Technology. Johnson’s research focuses on design tools, specifically, the cost modeling and
Real Time Communication Systems With PCsAbstractCommunication system classes have been traditionally taught with a lecture-only format.However, the proliferation of new concepts and algorithms in communication systems makes itincreasingly hard for students to master them only through mathematical derivations.Furthermore, without a hands-on demonstration of how the algorithm is used in real-lifeapplications, students without strong mathematical skills can become frustrated and generate aretention problem in EET/CET/EE programs. To overcome this problem, the theory taught inlecture has been complemented with laboratory experiments and class projects. However, manytraditional communication systems’ laboratory experiments are related to various
corresponding improvement efforts will be reported.BackgroundStrength of materials consists of stress, strain, and stability, and how material properties andgeometry affect them. This sector of mechanics serves as the foundation for several disciplines.As a result, strength of materials knowledge is required for accreditation in several engineeringtechnology disciplines, and is often included in a variety of affiliated programs, as listed in Table1.1 Engineering technology’s foundational focus is on practical application of engineeringprinciples and sets it apart from engineering.2,3 Traditionally, this focus on application has reliedon the existence of well-equipped industrial-type laboratories. As equipment costs increase,corporate donations dwindle
. The hardware-based laboratories have been successfully integrated into the digital signal processing course at many universities. However, most labs were designed only for very common signal processing problems such as the FIR/IIR filter design, FFT and so on. In this paper, a system for real-time EEG (electroencephalograph) signal acquisition, processing and presentation was proposed and will be implemented with the Texas Instrument’s TMS320C6713 DSK being used as the hardware platform. As a practical application of C6713 DSK in biomedical signal processing, this project is designed as a complement of the current DSP laboratories of the Digital Signal Processors course for senior level undergraduates/graduates
courses are taught by individuals with extensive academic knowledge butrather limited industrial experience. They are theoretical experts but often lack the practicalexposure that is also required to be a successful practicing engineer. Even the assignments,laboratory experiments, and projects reflect this academic slant to their engineering education.Traditionally this is how engineering classes are taught focusing on theoretical solutions tohypothetical problems. The real world engineering perspective is classically absent or minimal atbest from the coursework and curriculum. However, the importance of this real worldengineering experience cannot be overlooked.Two seasoned engineering professors in the Engineering & Design (E&D
energy storage, including advanced battery systems for hybrid electric vehicles. Yeh is also experienced in developing formal degree programs and professional development programs for incumbent engineers, community college instructors, and high school science and technology teachers. He is the PI and co-PI of several federal and state funded projects for course, curriculum, and laboratory development in advanced automotive technology.Dr. Gene Yeau-Jian Liao, Wayne State University Y. Gene Liao is currently Director of the Electric Transportation Technology program and Associate Pro- fessor of engineering technology at Wayne State University. He received a B.S. in mechanical engineering from National Central University
analyses of mechanism configurations.Typically, students are more energized and motivated to learn and retain concepts when coursescontain computer laboratory experiences. A new course in mechanisms analysis was designedby the author and included within the curriculum of a newly created baccalaureate program inmechanical engineering technology at Miami University. The program was officially approvedin the spring of 2003 and course offerings were begun in the fall of the same year. Hence thedata confirming and/or refuting the above premise is limited.While many mechanisms courses currently being taught within the curriculums of mechanicalengineering technology programs make use of computer enhanced project assignments, theauthor believes that this
Administration requirements, andeven taking attendance at schools. The compact size of the readers (the size of a text book),affordability of the tags (less than $1 each), and usability of the reader software makes this anideal technology for use in the teaching laboratory. Introducing RFID into the ECET curriculumserves two purposes: it teaches modern tools of the industry, and it gives a practical way to teachimportant radio frequency concepts.How RFID worksThere are four main components in an RFIDsystem: the interrogator or reader, the antenna(s)connected to interrogator, a computer interface,and the tag. (See Figure 1) The interrogator,antenna, and interface will all be part of aninstallation or a handheld system, while the tagwill be attached in
software course. Traditional courses of this nature have 4 credithours (3 credit hours for lecture and 1credit hour for laboratory). The intended purpose of thelecture is to introduce the concepts of programming a microprocessor to accomplish tightlyconstrained tasks using the peripheral features of the device. Once in the lab, the students applythe concepts covered in lecture to actual devices as they conduct a series of exercisesdemonstrating their ability to accomplish specific tasks. Figure 2 shows a weekly composition ofa traditional microcontroller class. Figure 2: Traditional Microprocessor Course TimelineThe arrangement of the traditional course has several drawbacks. First it is challenging to for theinstructor to
ofassessments, on laboratory experiments and written/demonstration examinations. To enablestudents to be self-directed, the documentation must be thoroughly organized. Each of the one-credit courses is broken down into several modules, called units. Each unit represents a majortopic area. The unit consists of a study guide, worksheets, laboratory experiments, handouts ontheory not covered in the book, etc. The study guide is an assignment sheet that is a list oflearning activities to be performed in sequential order. These activities include: Read particular pages in the textbook. View videos (that take the place of live lectures) Ask the instructor for a demonstration or an introduction to the laboratory equipment. Fill out
Electronics as part of the AASTechnology degree, and to Cyber Systems Technology as part of the BS degree. Students take ittypically in their sophomore year. This lecture and laboratory-based course require students toconfigure, manage, secure, test, and troubleshoot computer network devices. There are two 2-hour meetings per week. Laboratory equipment, primarily Cisco switches and routers, determinethe class size. It has ten workstations and associated network device racks, with studentstypically forming sub-groups of two per workstation. Through structured readings in thetextbook, students learn about core Ethernet networking models, protocols, and IP networkaddressing. Additionally, the course includes network device configuration using the text
labs. Each developed lab requires bothMATLAB simulations and real-time DSP using a floating-point digital signal processor,TX320TMS67C13 DSK. In addition, students are required to develop comprehensive real-timeDSP projects and demonstrate their working projects in class.We will outline our course learning outcomes and DSP laboratories with both MATLABsimulations and hands-on real-time DSP. Then, we will focus on describing real-time DSPpedagogies for our laboratory implementations. We will also examine the course assessmentaccording to our collected data from course evaluation, student surveys and student course work,and finally we will address improvement of the course based on our assessment.I. IntroductionThe application and use of digital
process, butoftentimes engineering technology students have few opportunities to develop their skills in thisarea as they matriculate through their chosen degree program. Many programs require only oneor two writing courses outside of the major. In addition, courses that require communication inthe form of laboratory reports often provide minimal feedback regarding appropriate writingstyle, the effective support of results with analysis, and maintaining efficiency in writing.In this paper, a new approach is presented that unburdens some of the responsibility from theinstructor to peer tutors outside of the engineering technology major who are skilled writers.Although this effort has been ongoing, with engineering technology students required to
University, India, and his Ph.D. in mechanical engineering from the Bharathiar University, India. He is currently a profes- sor and director of engineering technology at the University of Texas Rio Grande Valley (UTRGV). Prior to joining the UTB (A legacy university) faculty he was a visiting professor at the Rochester Institute of Technology and an associate professor of production engineering at the PSG College of Technology, Bharathiar University, India, where he served as the director of the Computer Vision Laboratory and National Cadet Corps – Engineering Division Director. With over 33 years of teaching and research ex- perience in manufacturing/mechanical engineering and engineering technology, he currently teaches
lighting is growing at least as fast as overall electricity demand. If a coordinatedeffort such as this market transformation program by Pacific Northwest National Laboratory(PNNL) is not successful, then lighting will remain a major cause for increased consumption ofelectricity.Further more the demand for electricity to meet the lighting needs is continuing to rise, allowingincreased energy bills, air pollution, and emissions of greenhouse gases. The fact is energyefficient lighting offers one of the best energy reduction opportunities. With efficient use ofexisting lighting technologies and controls, better residential/light commercial lighting design,better attention to energy efficient recessed CFL downlight fixtures, could cut the