courses,interactive example problems, thermodynamic property tables with an on-line calculator,historical and biographical notes on the evolution of thermodynamics, a rich archive ofgraphics, animations and movies illustrating thermodynamic principles and applications, andlinks to other sites of thermodynamic interest. Conceptual and detailed design of ThermoNet,implementation of a server-based data acquisition system to collect data on student usepatterns, and evaluation of student learning styles and reactions to ThermoNet are discusssed.IntroductionEngineering thermodynamics, typically introduced at the sophomore level in mechanical,aerospace and chemical engineering curricula, is often anticipated with a degree of dread bystudents, who
] Engagement Model [23]The model shown in Figure 23 places the deliverable in the middle not to signify more value onthe deliverable but in recognition that in many engineering design or project experiences this ismade to be the main focus. The model acknowledges the importance of the completed projectwhile also expanding the user’s view outward to include the process elements. The outer circlerepresents the project process, which binds the stakeholders together. A goal of any kind ofcommunity engagement is to create reciprocal partnerships where each partner is respected,brings expertise, and resources and receives value from the partnership. The process creates ashared relationship in the experience and connects the stakeholders. The process
questions are detailed.IntroductionCapstone design courses and projects represent the culmination of an engineering or engineeringtechnology undergraduate curriculum; they are a key aspect of a technical education experience.The goal of these courses is to move students away from theory and more towards the practicalproblem solving that they will encounter in industry 1-3. Capstone projects are oftenmultidisciplinary 4, further replicating the types of projects students will experience in industry.Capstone projects can be defined as project-based learning. Project-based learning brings skillsand knowledge together to solve an ill-defined or poorly formed project 5. This is epitome of thecapstone experience. Students generally have their capstone
projects Instructional methods 12 Implementing flipped learning, deductive learning, and active learning Integration of design activities 11 Experiential learning, evaluating engineering and learning opportunities practices in bioengineering prototypes, new laboratory experiences (including virtual experiments), exploring bikeability in Montreal Development of instructional 10 Videos to support laboratory experiments resources or materials Assessment methods 4 Implementing formative assessments, using GenAI
of the mouse. 1 The tutorials can be accessed on the WWW at http://www.engin.umich.edu/group/ctm or Page 2.2.2http://www.me.cmu.edu/Matlab/html.The elimination of time-consuming and error-prone typing and editing greatly facilitates thelearning process by reducing frustration and decreasing the time before something useful canbe done. Students can immediately see the result of an actual computation, compare it tothe result shown on the tutorial, and quickly experiment with modifications of the commandsand changes of parameters. Compared with currently available books for teaching studentshow to use Matlab for control system design [5, 6
the faculty in the Civil and Environmental Engineering (CEE)department have participated in these workshops. To encourage “buy-in” from the departmentsand to ensure better integration of EML, each department has a designated “EML Champion”that is a veteran of the EML faculty workshop and has implemented EML into their own classes.At Villanova University, the reticence on the part of some CEE faculty could be attributed toseveral misconceptions: EML is about start-ups, making widgets, and the faculty does not havethe appropriate experience. The responses that had the largest impact to dispel thesemisconceptions were: EML is not about start-ups and widgets: it is about thinking creatively and creating value for society, which are
writing, to solicit immediate feedback regarding student comprehension, and toencourage students to think critically about their learning during the course.Elements of the projects, homework assignments, and exams were associated with the courseoutcomes, and student learning was evaluated using rubrics designed for each outcome and wasvalidated by another faculty member. The results of this assessment were then used, along withstudent evaluation data, to formulate specific improvements for future offerings. They alsoprovided a rich source of data for assessment of some of the more challenging criteria of ABETEC2000: the ability to communicate effectively, and the ability to engage in lifelong learning. “Proceedings of the 2001 American Society
through a transition in higher education for thecreative development and leadership of technology which is beyond the “technology is applied science” paradigm.12As Wulf, president of the National Academy of Engineering, has pointed out, “Engineering is not applied science”— nor are creative engineers applied engineering scientists. Wulf further noted that, “Science is analytic — it strivesto understand nature, what is. Engineering is synthetic — it strives to create what can be.”13Whereas, Bush recognized that the primary responsibility for scientific progress is dependent upon that small bodyof high caliber men and women in the research universities and in the government research laboratories, whounderstand the fundamental laws of nature and are
implementations of ML algorithms and the compilation ofaccompanying documentation; the creation of an on-line ML Repository via thearchiving of the developed products; the authoring of 3-4 chapters of anundergraduate ML textbook, ii) the introduction of ML research in theparticipating institutions’ curricula and iii) the dissemination of the developedmaterial through the on-line outlet, affiliated academic institutions and industries.The project’s objectives are achieved by a team of faculty with strong teachingand research experience in ML, as well as extensive experience on supervisingsenior design teams. EMD-MLR’s objectives will impact 80 students in a span of2 years, some of which are members of underrepresented groups (in particularUCF and SCC
dissemination of an Embedded System Course through activeparticipation of students in the virtual environment.The VLES has been designed to deliver technical instruction and course materials in embeddedsystem design course through audio-video based distance learning. The supporting distancelearning curriculum and laboratory modules, using modular instructional materials along withVLES training, will be presented. The curriculum has been tested through summer workshopswhich demonstrated that VLES can be used for real-time teaching and learning hands-ontechnical subjects. A curriculum focusing on embedded system programming and utilizing thedeveloped training system, with lessons focused on Assembly Programming with peripheralsinterfacing modules, will
focus of a typical engineering technology curriculum isaimed at developing skills for students in particular areas. While we do focus on building criticalthinking skills, we often have a “silo” approach to technology education that primarilyemphasizes discipline specific knowledge opposed to integrated learning across curricula. Wemust do more to give the student experience that is relevant to the complex problems they willface in the real world. This paper explores the use of problem-based case studies to help solvethis problem.Collin County Community College has begun using a problem-based case study approach to givestudents experience solving real-world problems in the new Convergence Lab. Students workin teams to design and implement
transmitterand receiver may be placed on push carts, while for higher mobility they may be placed onuniversity owned golf carts moving at faster speeds on the designated campus routes.Furthermore, mobile transmitters and receivers may also be placed in cars driving on the campusstreets and through the university parking lots/garages to enable experiments simulating vehicle-to-vehicle (V2V) and vehicle-to-infrastructure (V2I) communications.2. IntroductionOver the past 20 years software defined radio (SDR) platforms have become increasinglyconsidered by researchers and educators alike due to their flexibility, reusable hardware forvarious set-ups, open source software, short design cycle and accessibility 1. Hardware prices arewithin the budget of any
AC 2012-5224: TEACHING-TO-LEARN SESSIONS TO ACHIEVE SUB-JECT RELEVANCE IN AN INTRODUCTION TO BIOMEDICAL ENGI-NEERING COURSEDr. Steve Warren, Kansas State University Steve Warren received a B.S. and M.S. in electrical engineering from Kansas State University in 1989 and 1991, respectively, followed by a Ph.D. in electrical engineering from the University of Texas, Austin, in 1994. Warren is an Associate Professor in the Department of Electrical & Computer Engineering at Kansas State University. Prior to joining KSU in Aug. 1999, Warren was a Principal Member of the technical staff at Sandia National Laboratories in Albuquerque, N.M. He directs the KSU Medical Com- ponent Design Laboratory, a facility partially
becoming engineers or as an activity they were now enthusiastic about doingin upper-level coursework. Related to the design of physical objects was softwareimplementation. In other cases, being able to “tinker” with an object was an appealing aspect ofelectrical engineering or a rationale for entering an engineering program. In a few cases, theywere finally achieving their goal of being able to take everything they had been learning in classand building a car, robot, or other device. In one case, a student identified signal processing astoo theoretical, and her interest in bioengineering stemmed from the applied nature of the courses(e.g., more laboratory experiences and real-life problems). Students’ responses about difficultand important
implementation,design & development, application, operation, & management of projects.According to the authors, in order to prepare engineers to meet these challenges, engineeringeducation & training must be revised and modernized based on industrial requirements.General Education ModelThe role of a teacher in the process of imparting education is always challenging and dynamic.Over and above transmission skills, the teacher should have an aptitude to engender in hisstudents the skill to receive knowledge systematically. The professionalism which is the demandof the day is passed on to the students through the teacher. In the fast changing technologicalsociety, following skills are required for an engineer in addition to his knowledge, for
), (2), some exposure(3), (4), expert understanding(5). 9. What is your level of understanding of ICS hardware/software, critical infrastructure, and the control of physical processes? Almost none(1), (2), some exposure(3), (4), expert understanding(5). 10. How likely are you to pursue a career that involves critical infrastructure cyber-security? Not likely(1), (2), unsure(3), (4), very likely(5).8. Final discussionThe outline for course modules and laboratory experiments has been presented, including thediagram for a hardware trainer. The key problems to be addressed are the gaps in CIS educationof ICS-specific cyber-security, the gaps in engineering education of cyber-security principles,and the siloed
. Booker and E. Boysen, Nanotechnology for Dummies, Wiley Publishing, Inc., Hoboken, NJ, 2005.6. I.E. Alcoma, DNA Technology: The Awesome Skill, 2nd ed., Harcourt Academic Press, San Diego, CA, 2001.7. Mosquito’s eye, http://www.mos.org/sln/sem/intro.html.8. J.J. Brophy, Basic Electronics for Scientists, 3rd edition, p. 148, McGraw-Hill, New York, 1977.9. M. Mendelson, “Molecular Bio-Nanotechnology Experiment in the Classroom,” 87th Annual Meeting of theAmerican Association for the Advancement of Science (AAAS), Pacific Division, Proceedings Vol. 25, pp. 44, 80,University of San Diego, CA, June 18-22, 2006.10. Sandia National Laboratories, http://www.mems.sandia.gov.11. T.A. McMahon, J.T. Bonner, On Size and Life, p. 39, Scientific American Books
question:How did the implementation of a gamification platform impact students’ academic motivationtowards homework within a freshman design course?MethodsGamification Platform DesignThe 3D Game Lab platform was originally designed in the fall of 2015, and was created withnine different levels that students could move through by acquiring experience points (XP).Each quest provides students with a number of experience points (XP) that combine together toachieve students overall XP within the 3D Game Lab platform. This platform builds off anexisting beta software platform that has been developed by GoGo Laboratories.19 3D Game Labconsists of a software platform that allows individual instructors to build in quests (or activities)for students to complete
classoffered twice per week for 3 hours. It was a combined lecture and “hands-on” experience for thestudents allowing access to classroom, field and/or laboratory facilities as necessary. Initialenrollment was 14 students. Biology and Chemistry Applications for Engineers presented students withfundamental biology and chemistry concepts in the context of engineering and scienceapplications. Based on the expertise of the two faculty teaching the course (achemical/environmental engineer and a biologist and wetland ecologist), the class focused on thestudy of a freshwater aquatic microcosm. Based on the expertise of the faculty, this courseoffering was focused in civil/environmental engineering. Skills developed in the class areappropriate for the
of the 2008 Midwest Section Conference of the American Society for Engineering Education 2 Figure 1. Typical Engine Head Flow Test Data .[2].The primary focus of this project was to design, build and test a flow-bench for use in amechanical engineering laboratory while keeping the system within reasonable financial limitswithout sacrificing experimental performance. Standard components of a flow-bench are: testpiece, air-flow measuring device, air temperature measuring device, flow control mechanismand a device to measure the pressure drop across the test piece [3]. The unit should also be safefor the experimenters and the
. All eight participating teachers had attended the same school inwhich they teach, have greater than five years of classroom experience, teach about theenvironment and ecology in their science curriculum, and have never learned about or taughtengineering before. They were recruited for the reasons mentioned and because theirsuperintendents were supportive of their teachers learning about and teaching engineering. Theteachers were situated in 4 pairs of teachers who teach in the same grade at the same school.During the workshop, each pair was physically located within their schools in private conferencerooms wearing masks and the workshop was facilitated by the instructors via Zoom. Materialsneeded to participate in the hands-on designs were
analysis. Ability to integrate the topic of structural analysis and design of individual elements and composed systems to the architectural design process. Ability to identify and assess the fundamental qualities of construction materials and systems, and determine appropriate materials and system for an architectural project. Ability to design a system, component, or process to meet the desired needs within constraints incorporating structural stability and safety. Ability to design and conduct experiments, as well as to analyze and interpret data. Understanding of professional codes. Ability to communicate effectively and apply professional and ethical responsibility.Table 1 shows grading
Engineering students traditionally take a subset of courses required for the EE and CSdegrees, along with specialized CE courses in architecture, microcontrollers and digital designand integrated circuit design. From an EE view, they have too little hardware experience touseful interfacing and according to CS, programming embedded microcontrollers in assembly orC is insufficient. This would probably be satisfactory if most CE graduates went to work in hightechnology companies like microelectronic industry, but this simply not the case. A number ofCE students wind up being employed as more traditional engineering doing software design.Many will have careers in digital communications and data acquisition, where signalconditioning, digital signal
AC 2010-1007: A STUDENT PROJECT EXAMINING ALTERNATIVEASSESSMENT METHODS FOR STRUCTURAL COMPONENTSMichael 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 analysis of product
Engineering Undergraduate Laboratory,” IEEE Frontiers in Education, 1997, pp. 350-354.[7] Armarego, J., “Advanced Software Design: A Case in Problem-Based Learning,” IEEE Computer Society: Proceedings of the 15th Annual Conference on Software Engineering Education and Training, 2002, pp. 44-54.[8] Denayer, I., K. Thaels, J. Vander Sloten, and R. Gobin, “Teaching a Structured Approach to Design Process for Undergraduate Engineering Students by Problem-Based Education,” European Journal of Engineering Education, Vol. 28, No. 2, 2003, pp. 203-214.[9] Brodeur, D., P. W. Young, and K. B. Blair, “Problem-Based Learning in Aerospace Engineering Education,” Proceedings of the American Society for Engineering
a designated recorder, notetaker, andinterviewer. After the interview/focus groups were completed, all materials were transcribed foranalysis. Such interview/focus group protocols were used to provide valuable experience for theMercer University students participating in the MOM Belize Program, as well as obtainsufficient amounts of data during the short study period.The faculty and staff interviews included questions related to an understanding of personal andprofessional backgrounds of the interviewees, student outcomes and success, curriculum andinstitutional development, preparation and challenges, transferability and global opportunities,and collaboration and future vision. The student focus groups included questions related to
-university collaboration towards theimplementation of a professional development program for construction students improved theirinterviewing and soft skills, contributing to their professional identity development [22]. Well-designed informal learning programs will provide construction students with exposure to rolemodels, mentors, experiences, symbols and rituals within the architectural-engineering-construction (AEC) professional community to enhance their professional identity development.This occurs because these experiences encourage students’ reflections, interests, persistence, andand bring them to full participation in the construction professional community.BackgroundThrough a formal proposal submission by an HBCU for the development of a
this cooperative learning experiment. Student commentssuggested that this experiment was indeed a success.INTRODUCTIONIn spite of the global nature of senior design projects common to most engineering curricula,many electrical engineering students are plagued by compartmentalized knowledge created by apiece-meal approach to labs. These labs are usually intended to provide hands-on experiencethat reinforces a series of lectures. While the goal is to integrate theory with practice, these labexercises often become isolated procedure-driven tasks.The University of Colorado at Colorado Springs has a one credit-hour, senior-level courseentitled Microwave Measurements Lab. The course goal is to provide students with proficiencyin the use of standard
issues that had to besolved and lessons learned.BackgroundThe UT TeleCampus is an administrative unit of The University of Texas System with a missionto develop and support distance-learning programs across the 15 campuses of the System.Central to the core design of the UT TeleCampus is service, and the necessity to provideincreased access to education without compromising the quality and integrity of the educationalofferings, their tradition or the educational mission of the universities within the System.The UT TeleCampus was launched in May 1998, with a website designated to serve as a centralsupport system for the online educational initiatives of the 15 component campuses and researchfacilities that comprise the UT System. Utilizing a
Paper ID #35461Full Paper: Integrating the iPad Into the Engineering Classroom(Resubmission)Dr. Michael Cross, Norwich University Michael Cross is an Assistant Professor of Electrical and Computer Engineering teaching classes in the areas of circuits, electronics, energy systems, and engineering design. Cross received degrees from the Rochester Institute of Technology and the University of Vermont and began his academic career at UVM where he taught courses in the areas of analog and digital circuits, electronics, semiconductor physics, power electronics, and engineering design.Dr. David M. Feinauer P.E., Virginia Military