criteria, the portfolio demonstrates how that is achieved. Forexample, the ability to apply knowledge of mathematics, science, and engineering (Outcome A)and the ability to design and conduct experiments, as well as to analyze and interpret data(Outcome B) may be demonstrated by enrollment in laboratory or design classes and inprofessional employment. However, the portfolio provides in-depth discussion of these projects,as well as significant applicable projects in others classes in some class projects activities.In addition, the discussion of professional employment experience and inclusion ofsupplemental materials, such as reviews by employers, project assignments, and finalpresentation materials give ABET reviewers a far greater understanding
, laboratories,libraries, an updated educational model as well as to use proper technological tools for education[3,4].Also important are the academic programs that are offered by universities which have to bedesigned based on the needs of employers and society, education, discipline and technologicaltrends as well as on the requirements of national and international accreditation agencies relatedto such academic programs. In addition, well-designed operation processes must be designed andimplemented to ensure that the students receive courses with high academic quality.A very important process that accreditations agencies pay attention to, and that universities haveto comply with, is to show that a well-defined continuous improvement process is
Campus Sustainability: A LEED-Based Case StudyAbstractNorthern Kentucky University is committed to being a student-centered institution, prioritizing thewell-being and learning experience of our students. Therefore, it is essential to measure thesustainability level of the campus. The goal is not only to enhance the students' experience but alsoto create an eco-friendly environment that nurtures the health and productivity of faculty and staff.It provides valuable learning experiences, specifically for construction management students,while empowering them to carry firsthand sustainable practices into their careers, therebycontributing to a more sustainable future.Utilizing the Leadership in Energy and Environmental Design (LEED) criteria, a
, pointed out that “... many of the CEDP students through their work experiences have already developed a number of the competencies that the criteria requirements were designed to assure. It makes no sense to require such students to repeat experiences that develop skills they already possess. A more reasonable approach would be to assess the competencies of entering students in the areas addressed by the criteria and to tailor educational experiences that fill the gaps in each student’s background. Portfolios of student work could then be used to demonstrate to an accreditation team that a student has, indeed, acquired the competencies specified by the criteria.”In February, 1995, UND received
: Experience as the Source of Learning and Development,, Prentice-Hall, Englewood Cliffs, N.J.Lobo-Guerrrero, S., and Vallejo, L. E. (2006). "DEM as an Educational Tool in Geotechnical Engineering." Conference Proceeding- GeoCongress 2006: Geotechnical Engineering in the Information Technology Age. Geotechnical Engineering in the Information Technology Age, Feb 26 - Mar 1, 2006, Atlanta, GA, 1-6Magin, D. J., and Reizes, J. A. (1990). "Computer Simulation of Laboratory Experiments: An Unrealized Potential." Computers Education, 14(3), 263-270.Mosterman, P. J., Dorlandt, M. A. M., Campbell, J. O., Burow, C., Bouw, R., Brodersen, A. J., and Bourne, J. R. (1994). "Virtual Engineering Laboratories: Design
through the Use of CommonTeaching Tools ................................................................................................................................................................... 173Integration of State-of-the-Art Low Cost Components into Embedded and Digital Systems DesignCourses .................................................................................................................................................................................. 182Hands, Mind and Hearts-on Design Experiences .................................................................................................. 194 Proceedings of the 2014 American Society for Engineering Education Zone IV Conference
synthesis using the VHDL.Based on our experience from an “Advanced Digital Design” course, the methodology is veryinstructive. The students appreciated the power of digital synthesis with the VHDL in a veryshort period of time.1. IntroductionSeveral Electronic Design Automation (EDA) companies 12, 15, 22 offer synthesis tools supportingthe VHDL and Verilog languages 2, 3, 5, 7. Most of these programs are designed for RTL andlogic synthesis; as a matter of fact, behavioral or high-level synthesis is still in an experimentalphase for the design communities. The main difference between high-level synthesis andRTL/logic synthesis is on the conceptual modeling of digital systems.High-level synthesis assumes a micro-architectural view for digital design
Design Lab Homework Solutions, Design Lab 2 Exam Consolidation The Monday/Wednesday laboratory activities take place in the ITLL. Student teams aresimultaneously involved in experimental laboratories and design projects. Graduate teachingassistants supervise student teams as they are rotated through the experimental apparatus. Groupsnot involved in experiments are usually involved in design activities. The faculty teaching teaminterviews each design group. The interview schedule is coordinated with experimental groupactivities. The faculty team plays the role of project consultants to keep the
exercise, requiring cadets to combinecomponents of their broad academic experience into one academic endeavor. This courseaddresses the complex, unfamiliar environments in which officers must operate. The new three-course engineering sequences will be offered in the same disciplines thatoffer the current five-course sequences. In an effort to standardize these sequences the StrategicAssessment Working Group crafted an engineering and technology goal, a list of outcomes, alearning model and a common design process. 5Engineering and Technology Goal The revised Engineering and Technology Goal is for graduates “To anticipate andrespond effectively to the uncertainties of a changing technological, social, political andeconomic world
Copyright © 2002, American Society for Engineering Educationproduction tools and yet there is still a problem with them. New students are frequently notallowed to use even the development-scale apparatus due to their cost, complexity, and thehazards they pose to the student operators should their parameters be improperly set. Anequipment philosophy that addresses these issues has recently become available on thecommercial market. The tools offered by one company in particular 3 allow students to fabricatethin films, perform lithography, and carry out chemical processes in a generally safe andeconomical manner. This laboratory equipment enables students to perform experiments andexecute designs based on a minimum geometry of roughly 50 micrometers
certificate.In fall 2009 “Robotics Automation” 4 credit hour course was developed. Course consists ofrecitations conducted 3 times a week, multiple simulation projects utilizing FANUCROBOGUIDE software package, and 3 hour laboratory exercises straightening expertiseworking with real robots. The course is suitable for the students working towards their bachelor’s Page 22.9.4degree as well as students interested in obtaining an industrial certificate in robotics6. Featuring acareful balance of theory and application techniques, the students learn how to design and build arobot-driven automated work cell - from selection of hardware through programming of
Effectiveness and Promoting Undergraduates' Innovation Experiment by CDIO Management", Research and exploration in laboratory, vol. 29, no. 6, pp. 90-92, 2010[7] M. Zhou, "Chinese university students’ acceptance of MOOCs: A self-determination perspective. " Computers & Educations, vol. 92–93, pp. 194-203, 2016[8] C. M. Santos, R. A. Franco, D. Leon, D. B. Ovigli, and P. D. Colombo Junior, "Interdisciplinarity in Education: Overcoming Fragmentation in the Teaching-Learning Process." International Education Studies, vol. 10, no.10, pp. 71-77, 2017.
The Static Stability Factor – A Dynamic Introduction to Engineering Thomas V. Edgar, Michael A. Urynowicz and Jerry C. Hamann University of Wyoming Laramie, WY 80271AbstractMost students want to become engineers so they can design and build things. An introductorycourse in engineering should pique those interests and provide information and activities whichshow the breadth of the field of engineering. This paper presents a series of laboratory activitiesbased on the Static Stability Factor (SSF), used in vehicle design to determine under whatconditions a vehicle will spinout or rollover.The
forMechanical Engineering Technology students. It combines the basic aspects of a traditionalrotary viscometer with a purely mechanical measurement system that allows students to clearlyvisualize and experience first-hand the reaction to viscous shear stress on a stationary drum inresponse to a concentric rotating cup containing the test fluid. This paper describes importantdesign features of the device, constructed from an “antique” Garrard turntable, and the majorconceptual topics students must understand in order to complete their laboratory exercise.The Rotary Viscometer SystemThe rotary viscometer system combines a Garrard turntable, used in a previous lifetime toexperience and enjoy LP albums, with a custom designed support structure containing
and learning to learn. The current status of incorporatingthe fourth criterion, ethical behavior, into the curriculum is probably adequate. The finaltwo criteria still need increased effort. Results of a survey of practicing engineers showsthat laboratory and design courses and practical work experience are the most importantsources for learning to satisfy the soft criteria.I. IntroductionFor many years our industrial colleagues have been telling us that several soft skills suchas communication and teamwork are vitally important for the success of engineers inindustry. Many engineering schools have incorporated these skills into their curricula tovarying degrees.With the advent of ABET 2000 the soft skills have assumed a greater
nanotechnology. The program is designed to cater to incomingstudents with diverse backgrounds, to prepare the students for new challenges in theworkplace, and to provide a curriculum with strong multidisciplinary foundation that canevolve with changing technology. The new curriculum consists of a set of core coursesand several focus research areas. It provides students with extensive hands-onexperience, a comprehensive experience in teamwork and technical communication, andthe opportunity to exercise and develop their creativity and innovation.I. IntroductionThe integration of entire systems into micron scale devices and the sensing technology tointerface these devices to the real world is and will be core disciplines required for nextgeneration
experiences with the vehicle based on their area ofdiscipline.Western Carolina University:WCU is a four year, regional comprehensive university, offering bachelor’s degrees inElectrical and Computer Engineering Technology (ECET), Engineering Technology(ET), and Electrical Engineering(EE). As part of the student’s program, there is in place acapstone design project 2 semester sequence including both proposal and hardwaredesign and fabrication. ECET students come prepared with basic knowledge ofautomated systems, both embedded and P.C. based systems. In addition, they are familiar Page 11.853.5with
chemistry inseveral universities13. POGIL has received NSF Course, Curriculum, and LaboratoryImprovement (CCLI) funding to continue the growth of POGIL implementation throughout thecountry by presenting cost-free workshops, funding the development of new teaching materials,and evaluation of student learning14.While a true POGIL implementation replaces the traditional lecture classroom with POGILactivities, we were intrigued by the exploration part of the POGIL process and how it mightimprove the student's laboratory experience. In thinking about how we, the educator, prepareourselves to be able to teach our students a new microcontroller, for example, we realized that
show an input sinusoid and the resulting outputsinusoid. The application can be used for in-class demonstrations of circuit behavior or can bedownloaded for direct student use. It has low computer requirements and can be run on bothWindows and Linux operating systems. The design goals were that selected circuit behaviorcould be easily displayed and explored.KeywordsUndergraduate Student Poster, Programming, Software, Virtual Laboratory.IntroductionVirtual tools for instruction provide flexible options in the learning environment. Lectures canbe supplemented quickly and inexpensively with multimedia content. Laboratory preparationcan be done with interactive simulations. Virtual instrumentation in electrical engineeringcourses has long been
well as management skills of the students. The data is categorized in thefollowing areas • Real Project Experience • Customer Interaction • Research Skills • Writing Skills • Presentation Skills • Hardware Skills • Leadership Skills • Team Player Skills • Professional EthicsThe following data is taken in form for a carefully designed Beginning of the SemesterSurvey [See Appendix 1] and End of the Semester Survey [See Appendix 2]. Thesesurveys provide the data and metrics to measure the growth of the students in the abovementioned skill areas and gives a direct estimate of the knowledge perceived by thestudents. Real Project ExperienceThis class provides them an
created for completion by students and fourexternal faculty. The latter were invited to participate in the project based on their expertise ineducational research and prior work on NSF Course, Curriculum, and Laboratory Improvement(CCLI) and Transforming Undergraduate Education in Science (TUES) projects. The ComEx Student Survey was co-developed by ComEx project personnel and the E&ACenter and administered online. This instrument consisted of three subscales with a total of 29items designed to obtain information about students’ experiences in using the ComEx Studios.The “Effectiveness of the ComEx Exercise/Activities” subscale consisted of nine items on a 5-point Likert-type scale ranging from strongly disagree (1) to strongly agree (5
entrepreneurial mindset.Furthermore, the paper seeks to determine if this activity, by its direct and indirect variables, willcreate entrepreneurial learning experiences for the engineering students.The Academic Model embraces engineering education awareness of the importance ofdocumenting and validating product ideas using real world techniques and tools. Some studentcompetitive projects offer an opportunity to develop innovative solutions to vehicle design andengineering. As a result of this, students have developed new technologies leading to vehicleenhancement. This has lead to product development that may require protection by the UnitedStates Patent and Trademark Office. The student’s entrepreneurial learning experience incompetitive project may
students with diverse characteristics in e-learning environments. Pass/fail policies should be carefully designed and implemented tominimize negative impacts on motivation. Employers should expand orientation and mentoringprograms for entry-level employees, particularly for laboratory-based tasks. Research is neededto improve the delivery of STEM laboratory e-learning experiences. Findings inform futureresearch, as well as best practices for improved institutional adaptability and resiliency. Thesewill minimize disruptions to student functioning and performance, reduce attrition, andstrengthen progression into the STEM workforce during high-risk conditions such as pandemics.With caution, findings may be extended to non-STEM and non-student
: A pivotal component of our course involves regular laboratory exercisesthat not only improve hands-on skills but also integrate theoretical concepts thought during theclass with practical device applications. We have designed a series of exercises that providestudents with hands-on experience with various IoT devices and technologies.A brief description of each exercise follows:Lab 1: In this initial laboratory, students establish an I2C connection between a Raspberry Pi 3and a BME280 sensor, following a detailed wiring scheme provided by the instructor. Utilizing abasic sensor application, they read and print the sampled data, which are then transferred to amicro-web-service. This lab offers insights into secure communications, micro-web
research in the coastalengineering group at the University of Queensland. The students worked on a number of projectswith different faculty members on topics such as cleaning a local river, beach profiling withphotogrammetry, the movement of coral rubble under varying wave conditions, and conductingdrag experiments with varying airfoil designs. The project experiences were tied to the localcoastal environment, and thus were unique from the types of research projects available atVirginia Tech. In addition to their research experiences, the IRES students attended regularresearch meetings and gained experience presenting the progress of their research work. Theyalso received mentorship from PhD students, post-docs, and various faculty members within
connections between bookmaterial and engineering reality.For these reasons, we have initiated pedagogy to augment the traditional introductorythermodynamics course in the School of Engineering and Applied Science (SEAS) at theUniversity of Virginia2. Our course complements its classroom settings with weekly workshopsintended to illustrate principles by hands-on experiments, computer-assisted modeling and studyof energy systems, visits to full-scale sites, and team problem-solving activities. We createdmost of these exercises ourselves since, except for some expensive commercial apparatuses,there can be found very few laboratory/workshop exercises in the thermodynamics educationliterature. For example, among the publications and web sites of the
manufacturing”and “continuous quality improvement”. “Just-in-time” refers to context in which core disciplinesubjects will be delivered. Rather than presentation of theoretical concepts followed by application,often in separate courses, “just-in-time” dictates concurrent instruction in theory and application,within the context of realistic projects or problems. The comprehensive curriculum design processis addressing the integration of core disciplines with the delivery of instruction in a project centeredcontext. Instruction will be based on projects provided by industry partners or designed by faculty incollaboration with industry personnel, with students assuming greater responsibility for their ownlearning. Work experiences for students will
Laboratory Content: It is generallyaccepted that laboratory experiences are prominent in engineering technology programs1,3. Theyare essential to the learning style of most engineering technology students, especially early intheir academic programs. Laboratory experiences have been given more emphasis inengineering programs since EC2000. Hence, in general, the importance of laboratoryexperiences in engineering and engineering technology programs have become more aligned andis not the distinguishing factor that it was pre-EC2000.Using Mathematics to Learn About Technology: This attribute has wide variation among currentengineering technology programs. Many ET programs integrate mathematics education for theexplicit use in applied engineering
, reducing the size andcomplexity of a manufacturing process into a laboratory experience in a classroom. The lab usesMr. Potato Head toys, allowing students to focus less on the complexity of the product andincrease the emphasis on the manufacturing process and practice skills in evaluating andimproving this process. With this design, students spend more time working with the process topractice it due to the small team sizes, simple team roles, and the four runs used to experiencedifferent types of manufacturing processes. The learning objectives of the lab focus on the ISEtopics of the lab, directing students toward the skills important to learn from this experience. Byadapting this lab to their own courses, other first-year engineering programs
correctresponse, and 3) understand the construction interrelationship of building components andsystems. Students were directed to employ both the 2D construction drawings as well as theSketchUp models to answer the questions. These exercises were created to formally impose theuse of the SketchUp models.During class presentations and exercises, the author utilized the images to reinforce the 2Ddrawings and to emphasize the inter-relationship of the building systems. In addition, alternativemethods of construction were shown in the same format to show how other systems could havebeen employed by the designer. Based on 20+ years of design and construction experience, theauthor was able to draw on his knowledge of building systems to explain design