the credit hour load of students in a liberal education environment where generaleducation requirements are sizeable. This course has added new learning outcomes toaccommodate laboratory experience as well as use of simulation software to enhance studentengagement and at the same time provide the students with multiple options that encouragedifferent learning styles. The course has been designed for four credit hours consisting of 180minutes of lecture time, 120 minutes of laboratory time and 60 minutes of tutoring time everyweek of the fourteen week semester. The contact time has been distributed so as to promotescaffolding of the learning process. The learning outcomes established for this course includeABET1 outcomes ‘a’ and ‘e’ as well as
Project. Page 14.1215.1© American Society for Engineering Education, 2009 The Engineering of Everyday Things: Simple Experiments for the Thermal and Fluid SciencesAbstractA series of demonstrations and laboratory exercises have been developed to teach fundamentalconcepts in the thermal and fluid sciences of the undergraduate engineering curriculum. Thismaterial is part of an educational research project called the Engineering of Everyday Things.The title reflects the use of common technology like hair dryers, blenders, toasters and bicyclepumps, which are used to demonstrate principles of thermodynamics
meetonce per week for 110 minutes each. The instructional team is composed of faculty membersfrom each of the nine engineering programs in the College. Each member of the team develops Page 15.589.10and presents at least one of the lecture sessions during the semester. In addition, graduatestudent teaching assistants are charged with conducting the laboratory sessions. A group of threeundergraduate mentors per lab section (juniors and seniors in their respective majors) aid thestudents with homework and projects during the laboratory sessions. Lectures are held in atraditional auditorium, whereas the laboratory sessions are held in a
simultaneously so that each group could work on an individual experiment. Each session consisted of an introduction to the principles of the experiment followed by an explanation of the safety procedures. For each experiment, a group leader was chosen and the students were assigned specific tasks involving data collection and analysis. The scholars were requested to obtain specific information and then encouraged to attempt additional work of their own design. Most of the experiments required the students to make a plot of their data, which was done on the computer. Some of the laboratories required "sophisticated calculations" and the teaching assistant prepared a spreadsheet for these calculations. The engineering laboratories and major equipment are
students’ understanding of physical phenomena as well asanalytical and creative thinking skills. Another study4 investigated the effects of computersimulations to the students prior to performing laboratory experiments helped students predictthe physical phenomena in subsequent laboratory experiments, and that the computer simulationsadded depth to students’ theoretical understanding of scientific principles. Proceedings of the 2014 American Society for Engineering Education Zone IV Conference Copyright © 2014, American Society for Engineering Education 431Need of Innovative Teaching PracticeThe developed computer
technologies, Quincy College (MA) has combined effortswith the Massachusetts based company ATeL for developing a highly interactive,comprehensive, online learning environment for teaching and learning the latest industrial scale,disposable biomanufacturing technologies. This project is partially supported by a Department ofLabor TAACCCT Grant.Web-based Virtual EnvironmentA set of interactive online modules and simulation-based virtual laboratories (v-Labs) form thecore of this e-learning environment. The environment also includes online lessons, assessments, aglossary, and supporting materials.The e-learning system design adapts and integrates cognitive information processing, systemsanalysis, and adult learning theories. It employs effective
two weeks of the semester are devoted to discussing the basic fundamentals and programming of microprocessors and microcontrollers. < The next 7 weeks of the semester are devoted to teaching microcontrollers, with Page 6.491.6 emphasis on laboratory experimentation. < The last 6 weeks of the semester will be devoted to teaching microprocessors, without lab exercises.The instructor is also considering a project-based approach for the course. Projectsdrawn from real-world industrial control applications will allow students to improvemany of the skills they
). Page 22.913.1 c American Society for Engineering Education, 2011 Integrating Professional Practice into the Engineering Curriculum: A Proposed Model and Prototype Case with an Industry PartnerAbstractWe present a case for a dramatic shift in the university-industry relationship for engineeringprograms, following recommendations from two 2008 reports on the future of engineeringeducation. The Carnegie Foundation for the Advancement of Teaching report1 EducatingEngineers: Designing for the Future of the Field established the “imperative for teaching forprofessional practice” in engineering education by providing the “engineering equivalent of theclinical
the student encounters.Administrative problems can be solved with appropriate levels of funding. To successfully usecommercial tools like the Cadence products, a high-end workstation laboratory with enough seatsto support engineering courses is required. Although it is possible to run these Cadence tools on aSparc II, it is recommended that as least a Sparc 5 is used with 32MB of memory. The laboratorywill require systems administration for maintenance and software upgrades. Cadence providesCNU with regular upgrades as part of our annual agreement which costs $5,000/year. Usersshould plan regular upgrades to keep current with EDA technology, but be careful not to upgradeduring the semester in case something goes wrong.The learning curve
.2.1 Web-based Learning and Instruction Support System.A web-based learning and instructional support system and materials will be developed forthese two courses. The support system for these courses will include course materials, remotedata acquisition modules, and simulations/laboratory experiments1,2. The course materials arein a HTML format and accompanied with text, diagrams and images, simulation programs,and computer aided analysis and design tools. This Web-based learning and instructionsupport will be used to assist with the instruction, distance learning, laboratory practice andhybrid power systems, computer aided analysis and design. There are many reasons to use theInternet as a support in teaching this course. First, the
beam port shortly after construction of thebeam hall has been completed. Other equipment purchases (i.e., crane control upgrades, facilitypower modifications, reactor control modifications, etc.) will take up the remainder of the fundsbudgeted for reactor equipment this fiscal year. Construction of irradiation facilities for BeamPorts #1 and #2 is planned over the next three years.WNSA funds will also be used to upgrade and refurbish nuclear instrumentation used inundergraduate and graduate teaching laboratories at the OSU Radiation Center. To facilitate thisprocess, Nuclear Engineering and Radiation Health Physics, Chemistry, and Radiation Center staffhave reviewed the operational status of existing equipment and discussed equipment
. and Boles. M.A., Thermodynamics: An engineering approach, 4th Ed., Mc Graw Hill, 2003.7. Ertugrul, N., “Towards virtual laboratories: a survey of LabVIEW-based teaching/learning tools and future trends,” Int. J. of Engineering Education, Vol. 16, No. 3, pp. 171-180, 2000.8. Turbine Technologies, http://www.turbinetechnologies.com/9. Pourmovahed, A., Jeruzal, C.M., Brinker, K.D., “Development of a jet engine experiment for the energy systems Laboratory,” IMECE2003-43638.10. Armfield Inc., http://www.armfield.co.uk/ Page 9.923.11Proceeding of the 2004 American Society for Engineering Education Annual Conference & Exposition
before. It’s time to come up with some new ideas to revolutionize that corecourse in ways that will amaze students and maximize learning, right? Or perhaps themaxim about “an hour in the library is worth a month in the laboratory” might bemeaningful in the context of teaching. This paper summarizes the authors’ selection ofthe most effective, innovative approaches reported recently in the literature or discussedat previous conferences for lower-division core courses in chemical engineering, aspresented at the 2007 ASEE Summer School for Chemical Engineering Faculty. Thechallenges associated with particular courses and solutions successfully applied toaddress those challenges will also be described. Courses covered in this paper
Development of the ability to respond critically to scientific and technological issues in civic affairs . Understanding the interactions among science, technology and values.Course modification to include lab componentsWe adapted our “take apart” lab of consumer electronic and household devices to teachyoung engineers the both the vocabulary and modes of thought of their profession, inSpanish, and to demonstrate the lab to be an effective teaching tool in the class: Spanish:Language, Technology, and Culture”Following the format of our original product and process laboratory for engineeringstudents1 our language students worked in teams of four, beginning by researching thehistory and principles of their device, both in English and
modes of thought of their profession, inSpanish, and to demonstrate the lab to be an effective teaching tool in the class: Spanish:Language, Technology, and Culture”Following the format of our original product and process laboratory for engineeringstudents1 our language students worked in teams of four, beginning by researching thehistory and principles of their device, both in English and Spanish. They used the deviceto evaluate its functionality and disassemble and reassemble it to study its optics,mechanics, and circuit boards. Subsequently, they presented their device to otherstudents, in Spanish. Thus, they furthered their knowledge of device, language, andculture. In doing so they derived all the benefits of the original language program
Session 1302 The CDIO Capstone Course: An Innovation in Undergraduate Systems Engineering Education David W. Miller, Doris R. Brodeur, John E. Keesee Massachusetts Institute of TechnologyAbstractIn February 1999, the Department of Aeronautics and Astronautics at MIT initiated a new three-semester capstone laboratory and space systems design experience taught in the context ofauthentic engineering practice, i.e., Conceive, Design, Implement, and Operate (CDIO). Theobjective of CDIO is to teach the basic concepts and disciplines of engineering in the context
AC 2007-1528: A COLLABORATIVEUNIVERSITY-COLLEGE-INDUSTRY-GOVERNMENT TECHNOLOGYTRANSFER PROJECTAaron Ball, Western Carolina University Dr. Ball is an Associate Professor of Engineering and Technology within the Kimmel School at Western Carolina University. Dr. Ball served as the PI on three year funded project by Oak Ridge National Laboratory to help develop a new product with the collaboration of a College-Industry-Government partnership.Duane Dunlap, Western Carolina University Dr. Dunlap is Professor of Engineering and Technology within the Kimmel School and has the honor of serving as the Director for the Kimmel School and Associate Dean for the College of Applied Sciences at Western
Page 23.253.13a specific laboratory component.ASSESSMENTIn the University of Texas at Tyler Civil Engineering department, assessment of programoutcomes is taken very seriously, both to satisfy ABET (Accreditation Board for Engineeringand Technology) accreditation requirements as well as to simply improve the teaching andlearning that occurs within the program. One of the key mechanisms for performing thisassessment process is the collection of embedded indicators, a graded event or a portion of anassignment that directly demonstrates student accomplishment of a program outcome.19Embedded assessments are more efficient than many other methods because they rely on datathat already exists within the academic program.20 Embedded indicator
2020 Report (2) as well as alumniand employer data.Recommendations from the Engineer of 2020 ReportSeveral recommendations on engineering curriculum as well as skills engineers need to gainduring their undergraduate career were given in the report from the National Academy of Page 14.280.2Engineering. Below are some of these recommendations [2]1. Students and professors should be the primary actors in the learning process.2. Engineering curricula must be better aligned with the challenges and opportunities graduates will face in the workplace3. The teaching, learning, and assessment processes should move a student from one state of knowledge
. Some of statistics are due to teaching approaches that are not suitable for currentpopulations of students that learn and acquire new knowledge quite differently from those ofearlier generations. Several new pedagogical paradigms have been proposed to improveengineering education, such as the use of “hands-on” tools to change the learning style in theengineering classroom to more engaging teaching pedagogies. An approach that is being usedto engage and inspire the electrical and computer engineering freshman students is the ElectricalEngineering Practicum. In this paper, the researchers discuss the various laboratory experimentsperformed by the students, the knowledge and skill learnt by the students, the lessons learnedwhile introducing
classroom.Furthermore, with availability of so many integrated circuits and systems-on-chip, the electronic design inindustry has become more system oriented than before. This paper presents a sequence of two courses tomeet the above needs in the undergraduate electronics courses: Analog Electronics and Digital Electronics.The courses use top-down instruction starting from the system level followed by component levelunderstanding. The first course is oriented to teach the system level input-output characteristics of analogelectronic components and subsystems. The second course focuses on teaching the modern digital ICs andtheir applications, the design of high speed switching circuits using the modern electronic design automation(EDA) tools. The topics in the
development and evaluation of student design projects.EXAMPLES OF THE HANDS-ON APPROACHLaboratory InstructionThe engineering curriculum at Cal Poly is laboratory intensive. As shown in Table 1, five of theten geotechnical engineering courses have a laboratory component. The geotechnicallaboratories are commonly held in the field, in one of two well-equipped teaching labs, or in oneof two modern computer-aided design studios. During a typical ten-week quarter, a laboratorycourse will have six to eight organized lab sessions, each lasting anywhere from two to threehours. The lab sessions, designed with help from industry, simulate situations that students willeventually see in professional practice. Required laboratory reports or term projects are
microwave, to optical domain. In this class has a laboratory component to allow students start utilizing the requested equipment. The purpose is to teach students the type of equipment that is available and even look at the compare and contrast of some electronics vs. photonics measurements. A strong component of this class is education students with time based and frequency analysis of signals, systems and the related issues with measurement. 2. High speed system characterization: In this class we cover the ideas that are used in high speed system integration, and measurement. It is known that the design and characterization criteria for high speed systems are different than those of DC and low frequencies
A Transient Experiment to Determine the Heat Transfer Characteristics of a 100 W Incandescent Light Bulb, Operating at 48 W Lauren Cole, Lindsay R. Hoggatt, Jamie A. Sterrenberg, David R. Suttmiller, W. Roy Penney and Edgar C. Clausen Ralph E. Martin Department of Chemical Engineering University of ArkansasAbstractA simple and inexpensive experiment that illustrates a number of heat transfer principles ispresented for use in either the laboratory or the classroom. The purpose of this paper is todescribe a transient experiment which determined the heat transfer characteristics of a 100 Wlight bulb, operating
connected learning experiences. Thissequence of activities was designed to enhance participants’ understanding of the role of IT indoing, teaching, and learning science. These activities build on intense experiences in authenticscientific research environments that participants have with scientists in their laboratories, whichoccur in two three-week periods during two summers. In scientists’ laboratories, participantsengage in day-to-day scientific research experiences using the IT that scientists use to seek Page 10.1173.3answers to scientific questions (Ia). Participants then adapt their authentic research experiences Proceedings of the
Network of K-5 Educators and Engineering Researchers in a RET Gayle Evans , Kent Crippen , Chelsey Simmons , Renee Simmons 1 1 2 1 1 School of Teaching and Learning, University of Florida, 2Department of Mechanical & Aerospace Engineering, University of FloridaIntroductionResearch Experience for Teachers programs (RET) are an established form of professional developmentfor K-12 teachers in which they are invited to work as members of a laboratory research team in order toincrease their enthusiasm, knowledge and experience in STEM fields. Historically, bringing teachers
Introduction toEnvironmental Engineering and Laboratory courses based on the application of the ASCEExCEEd teaching model2. The ASCE ExCEEd teaching model is based on the works ofLowman4, Wonkat and Oreovicz,9 and Felder and Brent3, as well as strategies used in Civil andMechanical Engineering courses at the U.S. Military Academy. Lowman's two-dimensionalmodel of effective college teaching is comprised of intellectual excitement and interpersonalrapport. Intellectual excitement includes clarity through technical expertise, organization, andcommunication effectiveness and stimulation through instructor enthusiasm, engaging students,and eliciting motivation. Active learning can be used to stimulate intellectual excitement fromstudents. Interpersonal
Department of Biosystems and Agricultural Engineering. His extension appointment to assist the MI food industry gives opportu- nities to visit many food factories and hold workshops on various food safety issues. His research and teaching are in thermal processing, inverse problems, and parameter estimation under dynamic conditions. He teaches an undergraduate engineering class on biological fluid processing and a graduate engineering class on numerical techniques and parameter estimation using MATLAB.Dr. Yinjie J Tang, Washington University I did my PhD in chemical engineering at University of Washington. I worked on DOE GTL projects during my postdoctoral period in Lawrence Berkeley National Laboratory (with Dr. Jay
working in the Office of Undergraduate Education, School of Engineering and Applied Science at SUNY-Buffalo. Previously, he held a position of post- doctoral research associate in the Department of Electrical & Computer Engineering at the University of Nebraska-Lincoln. He formerly held a position of teaching assistant in the Engineering Education Department at Utah State University. He also worked as a laboratory instructor of Telecommunication Engineering at Technological University of Honduras teaching courses of Transmission System to senior students. He received his B.S. in Electrical Engineering from the National Autonomous University of Honduras and his Ph.D. in Engineering Education at Utah State University
Mutiplexed LED’s Pushbutton Potentiometer External access to all MCU pins User’s guide with 7 coding tutorialsCourse Format In the curriculum, the robot laboratory is a one-hour credit course that meets formallytwice each week. On Monday afternoons, all students meet in a lecture format, conducted bythe laboratory coordinator, for discussion of major issues and policies. In this way, allstudents get the same information early in week for consideration. During the week, sessionsof 10 – 14 students meet in the laboratory room under the direction of teaching assistants towork directly on their implementations