Soil Mechanics Courses Engineering Fluid Mechanics Water Resources Dynamics Project Management TransportationBefore these changes, the faculty grew concerned about the lack of dedicated structural orenvironmental laboratory sections in the CEE curriculum. The reorganization into the two-semester lab sequence allowed both topics to be included in required CEE courses. Therestructuring of the labs also alleviated some of the teaching load for CEE faculty. The newsequence allows two faculty members to share one laboratory course with one faculty
response of the students in the final anonymous class evaluation of MMAE 546in Fall 2008 to some survey questions on the lab session of the class.The following are some comments from the students on the experimental section:• “Laboratory experiments were very helpful in understanding course material “• “The labs are extremely helpful”The comments above and Figures 2 and 3 have shown that most of the students strongly agreethat adding an experimental section has improved the class quality, and also the lab session hasbeen well organized.Figure 4 and Figure 5 show the students’ evaluations on the author’s teaching quality (in theofficial class survey organized by the university at the end of the semester) for MMAE 546 inFall 2007 and Fall 2008
of activities with students from local high schools. He regularly teaches courses for the Mechanical Engineering, Engineering Education, and Materials Science and Engineering Departments at Virginia Tech. Dr. Clark has instituted a laboratory course at VWCC based upon the Lab-in-a-Box concept and is involved in the development of the learning materials that will support the circuits and electronics courses within the Engineering and Engineering Technology degree programs offered by the Virginia Community College System.Carl Shek, Virginia Tech Page 14.828.1© American Society for Engineering
theUniversity of Florida. The group identified the following issues and later we were asked to rankthem: Required good teaching Technology Better teaching Laboratories Better with less Research Florida Engineering Society active involvement Break up classes 12 hours teaching load per semester Faculty stress Support to faculty We were divided to two groups to rank the above issues:First group ranking results: 1) reward good teaching, count good teaching equally to research activities and publication during promotion and tenures 2) Provide good laboratories equipped with a) Teaching support b) Quantity and quality of space c) Scheduled equipment and facility maintenance
many educators feel that the effectivenessof scenes/sources instructor can switch of remote learning is hampered because ofbetween seamlessly via custom transitions that. There are many barriers to studentallows for a learning experience like that of engagement including, but not limited to,a regular classroom experience. The scenes financial challenges [8], students dealingwere broadcasted via Zoom to teach ECE with stress and trauma [9], lack of support2010, a laboratory-based engineering and structure at both the technology andcourse, and summer pre-college programs course design level [10], and teachingat WPI, and the feedback from students was practices that simply don’t work
7 35% Close faculty supervision and/or limited lab times 5 25% Other (please specify)* 2 10%*Two specific answers were given to this questionWireless capability will only be available in and around our new Technology Building. Studentswill have to register IP addresses and students who use the wireless will not be able to access ourcampus network.We began with teaching 802.11A; we now tone down the AP and use the available security toprevent unauthorized access.4. Would your capital budget support a shielded wireless laboratory environment includingwireless equipment and laboratory exercise supporting 12 students
American Society for Engineering Education Annual Conference & Exposition Copyright À 2005, American Society for Engineering Education Session [2]. The student will demonstrate competencies in experimental testing, error analysis, laboratory safety, data acquisition, instrumentation and laboratory report writing. [3]. The student will demonstrate computer competency and an intelligent use of computers as a tool for developing solutions to engineering problems.The objective of each course has to be designed to meet the overall program objective and bemeasurable by criteria (a-s
twenty or thirty years, consulting and applied research arenecessary to keep up with the many changes that take place in technology. Skills learned fromprojects can be applied as case studies in the classroom or as exercises in the laboratory. Severalmodels for successful applied research centers are presented. Introduction The mission of a technology program is to produce graduates who are ready to beproductive in the workforce when they graduate. Besides teaching general principles andconcepts, it is imperative that students are introduced to technology used by industry. This isfundamental to the mission of technology. Although industrial experience is a precondition for technology faculty
laboratories, and freehand sketching tutorials. The threecomponents run in parallel: lectures introduce new topics; labs develop CAD and solid modelingskills; and tutorials teach technical freehand sketching and visualization skills. While each waseffective, students had some difficulty resolving the connection between each component. Thedissection approach was introduced to tie lecture, laboratory, and tutorial into a cohesive targetto enhance motivation and overall learning.2.2 McMaster Engineering CornerstoneThe McMaster Engineering Cornerstone project uses the dissection/reverse engineeringapproach. Groups are restricted 3 members within the same lab section and the dissectionproduct is assigned based on laboratory day. There are ten lab sections
wireless sensor networks, intelligent agents, agent-based manufacturing scheduling, systems control and automation, distributed control of holonic systems and integrated manufacturing, agile manufacturing, virtual reality and remote laboratory applications in edu- cation. He has authored or co-authored various journal and conference publications in these areas. Mert Bal is currently the Chair and Associate Professor at the Miami University, Department of Engineering Technology, Ohio, United States of America. American c Society for Engineering Education, 2021 Developing Robotics Engineering Technology Program to Address the Workforce Skills Gaps in
Pedagogical and Andragogical Validity of Capstone Projects,” http://www.asee.org/acPapers/20476.pdf. 4. S. Brookfiel, “Understanding and Facilitating Adult Learning,” San Francisco, CA. Jossey-Bass, 1986. 5. R. Zemke, “In Search of Self-Directed Learners” Training, May 1998. 6. J.E. Stice, “A First Step Toward Improved Teaching,” Engineering Education, 1976 7. W. Ibrahim, R. Morsi, “Online Engineering Education: A Comprehensive Review,” Proceedings of the 2005 ASEE Annual Conference 8. L.D. Feisel, A. J. Rosa, “The role of the laboratory in undergraduate engineering education,” Journal of Engineering Education, vol. 94, No. 1, January 2005. 9. N.Y. Bengiamin, A. Johnson, M. Zidon, D. Moen, D., and D.K. Ludlow, “The
employed in the teaching ofElectronics and Network Analysis. The analysis of this paper follows comparable studies onmedia-based instruction. Cohen et al1 who found that students learned additional informationfrom such instruction techniques in contrast to traditional modes of instruction. Moreover,Powell et al2 further explored this analysis and found that such instructional techniques werehelpful in raising the GPAs of the students.PSpice, an acronym for Personal Simulation Program with Integrated Circuit Emphasis, is ageneral purpose analog circuit and digital logic simulation software used to check the reliabilityof circuit designs and to predict circuit behavior. SPICE3 was originally developed at theElectronics Research Laboratory of the
Ownership—2013 Update. http://pewinternet.org/~/media//Files/Reports/2013/PIP_Smartphone_adoption_2013_PDF.pdf3. Gartner, Inc. Gartner Says Worldwide PC, Tablet and Mobile Phone Combined Shipments to Reach 2.4 Billion Units in 2013. http://www.gartner.com/newsroom/id/24085154. Delale, F., Liaw, B.M., Jiji, L.M., Voiculescu, I., and Yu, H. Infusion of Emerging Technologies and New Teaching Methods into The Mechanical Engineering Curriculum at The City College of New York. Advances in Engineering Education, Summer 2011.5. Greenwood, M.S. Using Videotapes to Study Underdamped Motion of a Pendulum: A Laboratory Project. Am. J. Phys 55, pp. 645-8, 1987.6. Marcuso, M., and Webber, R.M. Kinematical Measurements Using Digital Image Capture
philanthropicindividuals and organizations. Recent events have clearly demonstrated that state support cannotprovide the resource necessary for laboratory based education or for capstone studentexperiences. In our era of fast-paced scientific discovery, spectacular engineering achievement,and complex social systems, it is clear that everything is connected to everything else. We havelearned what we attempt to teach our students, the best way to move ahead is in partnership andcollaboration. Academe, industry, individuals and government all have played a critical role inmaintaining educational quality, but the world is changing rapidly, and we need to keep pace withthose changes. This partnership is the sine-qua-non in engineering education, it has passed from
the internet but so do their teachers. Additionally, their teachers have years of experience teaching through a lecture format, reinforcing lectures as an established habit for instruction. Furthermore, many of the software programs currently available to support secondary instruction contain examples which are culturally irrelevant to Ugandan students. According to Hodson [12], efforts to make science education more learner-centered must build on knowledge and experiences of the learners, which requires an understanding of the impact of different perspectives and experiences of dissimilar cultural groups. The purpose of the project described here is to develop a simulated science laboratory experiment, as a pilot for future software
APPROACHWhile many other approaches have implemented teaching tactics focused principally on eitherexperimental or computer methods, the approach adopted at USAFA was hybrid in nature using both. Itmay be accomplished as either a demonstration in the normal sequence of class lectures, or as a moreformal laboratory. No separate heat transfer laboratory course exists in the curriculum at USAFA, sothese laboratories experiences for our students are conducted within the allotted lesson times for eachcourse; many are, in fact, performed as demonstrations, with students performing data reduction on theexperimental results. Still, the authors recognize that it is always desirable that students have a hands-on experience whenever possible, rather than having
this paper is organized as follows: Section 2 discusses course development anddescribes the context, course objectives, references, and laboratory exercises. Section 3 presentsour teaching experiences and reflections and, finally, Section 4 presents conclusions.2. Course DevelopmentA. Context and ObjectivesWith the exception of this new course, there are a few existing courses in the ECET curriculumpertinent to communication techniques and networking. They include Electronic Communications,Digital Communications, and RF Communications together with Computer Networks and a threecourse sequence in Telecommunications.The first introduction to communications concepts occurs at the sophomore level in ElectronicCommunications. This course focuses on
Page 22.563.1 c American Society for Engineering Education, 2011 Energy efficiency and sustainability in engineering design curriculumAbstractThe knowledge and skills for the future workforce of an energy efficient industrialsociety are not fully nurtured in our current educational programs. Energy efficiency andinnovative design practices need to be an essential part of the learning experience inundergraduate engineering design programs. Current engineering design curriculum isreformed to teach the theoretical knowledge and hands-on practices in an integratedfashion. To study energy loss and overall energy efficiency of a system and itscomponents, laboratory
· Design for Manufacturing· Chemical Technology & History· Signal Processing· Ethics in Engineering· Quality Management· Intellectual PropertyLaboratory work covers many disciplines. The undergraduate teaching assistants help freshmenget familiar with new technical tools and concepts. The primary weekly laboratory activitiescover:· Word/Excel/PowerPoint· AutoCAD/MS Project· Hardware Tests· Hardware Analysis/ Reverse Engineering· Boom Construction Competition· LabView 1· LabView 2 / Sensors and Robot Programming· Thermal Insulation Competition Page 7.745.2· Microphone Proceedings of the American Society for
practitioners areeducated for their new professions”4(p52). According to Shulman, signature pedagogies have threestructural dimensions – surface (operational acts of teaching and learning), deep (assumptionsabout how best to impart knowledge) and explicit (moral dimension that comprises a set ofbelieves about professional attitudes, values and dispositions). Signature pedagogies inprofessional disciplines also have three temporal patterns: an initial pedagogy that frames andprefigures professional preparation, capstone apprenticeships and a sequenced and balancedportfolio4. Engineering, with its mix of analysis courses, laboratories and design studios, ischaracterized by the latter. Shulman also notes that a signature pedagogy can also be illustratedby
the Joe. J. King Professorship and was a Distinguished Teaching Professor.Previously, Dr. Bishop was a practicing engineer on the technical staff at the MIT Charles StarkDraper Laboratory.Dr. Bishop is a specialist in the area of guidance, navigation and control. His research sponsorshave included the NASA Jet Propulsion Laboratory, NASA Goddard Space Flight Center,NASA Johnson Space Center, Oerlikon-Contraves of Switzerland, NEC Corporation of Japan,National Instruments, Air Force Research Laboratory, Emergent Space Technologies, LockheedMartin, and the Charles Stark Draper Laboratory. He is currently working with NASA ontechniques for achieving planetary precision landing to support human and robotic missions. Dr.Bishop also initiated
Paper ID #11641Pre-defined roles and team performance for first year studentsDr. Jess W. Everett, Rowan University Jess W. Everett has worked in four distinct areas: waste management operations research, contaminated site assessment and remediation, education innovation, and sustainable engineering. He has employed a wide variety of techniques, including computer modeling, laboratory experiments, field testing, and surveys. His current research focuses on energy conservation, alternative energy generation, engineering learning communities, and hybrid courses (courses with classroom and on-line aspects).Dr. Jenahvive K Morgan
://www.measurementsgroup.comBiography:WILLIAM K. SZAROLETTA, P.E.Professor Szaroletta is an assistant professor of mechanical engineering technology at Purdue University. A member ofASEE, he has 18 years industry experience in engineering and project management positions, with 12 awarded patents.He has 6 years university teaching experience, where his current applied research interests are rapid product designengineering, experimental mechanics laboratory automation, and optimization utilizing genetic algorithms.NANCY DENTON, P.E., CVS IINancy L. Denton is an associate professor of mechanical engineering technology at Purdue University. She regularlyteaches courses in design documentation, solid mechanics, controls, and machinery diagnostics. She has chaired theWomen in Engineering
also by highschool students through Wentworth’s outreach programs. The outreach program for high schoolstudents has been designed to teach students nanotechnology along with other STEM subjects atthe Summer STEM Discovery Program. The principle aim of this project is to give students, atundergraduate level, a fundamental understanding of nanoscale science. Wentworth Institute ofTechnology has received multiple government and private funding to initiate an undergraduatenanotechnology education and the establishment of a nanotechnology laboratory. The laboratoryis used to supplement the nanotechnology courses, undergraduate research at senior levelsthrough senior design offerings, and for teaching across engineering disciplines. This
-the-art teaching laboratory, two higher levelbioprocessing courses, a seminar course, and a multidisciplinary graduate trainingprogram. An undergraduate-run student chapter of the International Society ofPharmaceutical Engineers (ISPE) was also initiated and has provided extracurricularbenefits for the students. The department has obtained both equipment donations andfederal grants for these efforts. One of the authors (CP) is currently a graduate studentwho was involved as an undergraduate in almost all phases of this program and willprovide his perspectives on the program effectiveness and its benefits to a student. Theother two authors are faculty members who have been involved in the development of thecourses and coordination of the
various aspects of laser-tissue interaction related to our curriculum. Lab and Design CoursesA 900 square foot laboratory has been acquired adjacent to the research laboratories ofDrs. Rastegar and Coté, which is currently being re-structured with extra sinks, extraelectrical outlets and chilled water for use as a Biomedical Optics teaching laboratory.Over $70,000 dollars have been spent purchasing various optical equipment, opticalcomponents, electronic equipment, electronic components, and computers for the lab.Nine of the ten labs to be performed by students have been fully written as defined belowand the tenth lab, on microscopy, is currently being completed. The laboratory course,along with the semester design projects, will be taught
software simulation lab offered due to COVID-19 isolation. The slight deteriorationcan be seen in AM lab and ECEN 325 total lab grade during COVID-19 isolation. One majordifference between hardware lab and software simulation is that hardware lab was held in STC(Scott Technology Center) 120 laboratory class with oscilloscope, spectrum analyzer andfunction generator. However, software simulation lab was offered on-line. One teaching assistant(TA) was assigned for in-class lab classes. However, there was no TA for software simulation on-line classes. The duty of the TA in lab class was (1) to check attendance (present, absent, or late),(2) to check every milestones during the lab process. (3) to check successful completion of thelab. (4) to
functionalprototype for teaching students in their lab. This project deviates from typical program structurein that the sponsor company is a non-engineering department at the same academic institutionrather than a true industry sponsor. Functionally the roles remain the same with the addedcomponent that engineering students are now designing for an end-user they share traits with:undergraduate students.The University of Florida’s Food Science Department boasts an impressive laboratory wherestudents and professors explore the complexities of food science. Since many machines andsystems in the pilot plant are highly technical and modern, the department decided it was time toreplace their vacuum evaporation system, whose year of origin is unknown. Since the
. Page 4.218.8An assessment of the success that this interdisciplinary approach has had in promoting technicalwriting skills is very subjective. Students still complain about the amount of work for minimalcredit but there appears to have been a notable improvement in their attitudes toward theemphasis on writing in this laboratory. The faculty that teach the subsequent courses report theyhave seen a vast improvement in the professional quality of the reports from the veterans of thelinked courses. Unfortunately, some students tend to avoid the difficult logical thought processthat is required to generate a professional report in favor of things that they want to do and givethem immediate gratification. Inordinate amounts of time may be spent
are developingalternative energy related curricula such as classes, projects, training, and certification programs.Renewable energy (RE) teaching systems and projects help students to better comprehendcomplex concepts by including a renewable energy project or series of laboratory experiments.The importance of experiential activities such as laboratory sessions is highlighted by manyauthors [4-8].Energy knowledge and renewable energy based projects are important in order to preparestudents to be competitive for careers in the growing fields of energy related engineering,science, and technology for the future. Preliminary projections from the Bureau of LaborStatistics state that the number of expected energy related green jobs is expected to