writing progress for a myriad of reasons. Good intentions to write can besidetracked by competing obligations and pressing deadlines11. For students enrolled in classes,serving as teaching or laboratory assistants, and perhaps trying to balance family or other offcampus obligations, finding time, structure, and motivation to write can prove challenging. Inresponse, they may succumb to unhealthy habit of ‘binge writing’, mistaking believing that theywill be more creative and productive if they write sporadically in bursts that lead to exhaustion4.A simple way to create effective writing habits and ensure steady progress is to set writing goals.A goal is simply an articulated desired end-state. Goal setting has received intense scholarlyattention
faculty as the expertise needed to teach each course was developed. Active learning is used in many of the core robotics courses [14]. Progressive increase in level of autonomy in each course. The robots developed in each course progress from tele-operation to line-following to total autonomy. FIGURE 2. Robotics Engineering laboratory late at night Tight integration of laboratory before a term project is due. assignments with lecture material [12]. Community-building. Many activities serve to build a sense of community amongst Robotics Engineering majors. These include
logistics associated with credit-hour limitation and student contact hours provideenormous challenges to faculty to cover all fundamental concepts and assess student outcomesthat demonstrate their readiness to move on to engineering mechanics courses that follow.Recognizing the difficulty students have in Statics, engineering faculty have discussed aboutintroducing an additional laboratory hour in the curriculum to motivate students and provide aphysical framework to demonstrate the abstract concepts. While additional contact hours willcertainly enhance learning; credit hour limitation of curricula is also a “realistic constraint”around which engineering curricula has to be designed. Integration of realistic computersimulations in and
Paper ID #8129The LowCost Vertical Axis Wind Turbine Project: An exercise in learningacross disciplinesDr. Narayanan M. Komerath, Georgia Institute of Technology This is a student-led paper guided by Professor Komerath. Dr. Komerath is a professor of aerospace engineering at Georgia Institute of Technology, and director of the Micro Renewable Energy Systems Laboratory. He has over 300 publications, over 120 of them peer-reviewed, plus 3 US Patents, and has guided 15 PhDs , 50+ MS and over 160 undergraduate research special problem projects. He is a former Chair of the Aerospace Division.Akshay Milind Pendharkar, Georgia
nanotechnology, and hownanotechnology relates to the real world. While the results in Table 2 indicated gains inknowledge about NSE concepts, we wanted a more rigorous assessment of student learning.These data were still self-reported and not focused on actual concepts and ideas of NSE andscience. In 2008, we did a complete overhaul of the summer camp. We developed a studentworkbook that provided introductory information on each activity along with a completedescription of laboratory procedures. Students also had assigned reading each night related tothe next day’s topic. The camp was designed to be much more laboratory-focused but stillincluded visits to research labs tied to the day’s topic. Each day had its own topic/theme whichincluded: intro/unique
- ble for failure analysis of thin film materials. She also managed collaborations with national laboratories, Air Force and Navy research groups, and universities. She invented new quality control tools and super- vised interns from local universities and community colleges as part of a $5.0 million technical workforce development initiative funded by New York State. She has published diverse articles on topics ranging from engineering education to high temperature superconductors and has spoken at many national and international conferences. Her doctorate in materials science and engineering are from the University of Wisconsin, Madison, and she has four patents issued and one patent pending.Dr. Larysa Nadolny, Iowa
, which effectively limits access to the class to senior students only. MechanicalEngineering core courses are taught in the evening starting after 5pm to allow full-timeworking students to attend classes at a convenient time. Evening classes meet one timeper week, with the four instructional hours associated with a 4-credit class being taught ina continuous block.The Mechatronics course, which includes lecture and experimental laboratories, wastaught in a hybrid format. Students and instructor met in-class for 60% of the course andonline for the remaining 40%, which allowed for more flexibility in students‟ schedules.The senior students taking the course had mature study habits and abilities, and they
Design.Dr. S. Keith Hargrove, Tennessee State University c American Society for Engineering Education, 2013 Paper ID #6357 Dr. S. Keith Hargrove currently serves as professor of Mechanical & Manufacturing Engineering and Dean of the College of Engineering at Tennessee State University (TSU). He received his B.S. in Me- chanical Engineering from TSU, his M.S. from the Missouri University of Science & Technology in Rolla, MO., and his Ph.D. from the University of Iowa. He has worked for General Electric, Battelle Pacific Northwest Laboratories, NIST, Oak Ridge Laboratories, and General Motors. Dr
-basedprojects now constitute about 40% of the current course curriculum, with the remainder of thelabs/projects consisting of both standard “follow the procedure and report a result” style oflaboratory and skills development labs, such as basic welding and machining. It should be notedthat the „design challenge‟ hovercraft project has been implemented without additional staff orspace resources.The purpose of this paper is to examine the effects of design-based projects referred to as „designchallenges‟, on the retention of students in the Mechanical Engineering program, as well as toexplore the preferences of engineering students towards design-based projects versusconventional laboratories. In the first section of the paper, the original lab sequence
and Mold Making program, leadingto an Associate of Applied Science degree.Identifying linkage to outcomes such as these is fairly common at the program and course level.In this study, the relevant skills are integrated at the assignment level as well. In courses whereassignments did not support these skills, assignments were added or modified as appropriate.For example: communication, critical thinking, and teamwork were integrated into laboratory(machining) sections through the use of individual and team based projects. These projectsrequired written plans, written evaluations at the conclusion, a reflective paper to cementlearning, and a presentation to the class and others.This paper will provide a detailed description of how this
Paper ID #6716Collaborative Development of Internet-Accessible, Interactive, Medical Imag-ing Teaching Courseware and Application to Undergraduate CurriculaDr. Weizhao Zhao, University of Miami Dr. Weizhao Zhao’s fields of study include medical imaging and image processing, image-guided surgical intervention, medical imaging simulation for BME training. At the University of Miami, Dr. Zhao has been the director of the Bioimaging Laboratory; the co-director of the Medical Physics Graduate Program; and an associate professor of Biomedical Engineering, Neurology and Radiology.Ann G Bessell PhDDr. Nurgun Erdol, Florida Atlantic
attitudes and perceived learningopportunities (research question 3).Description of Study Abroad Experience The study abroad course was developed in conjunction with the institution’s Engineerswithout Borders chapter. Students participating in the experience completed a total of four credithours – three hours for an interdisciplinary course entitled Engineering for DevelopmentWorkers, and one hour for a structural or geotechnical engineering laboratory course. Prior to thetrip, participants attended a seminar series which included four half-day sessions led by subject-matter experts from other academic departments, including Development Patterns in LatinAmerica, The Ethics of Assistance, Technical Challenges in Development, and Social
. Because of the integrated multidisciplinaryapproach, the scope for innovation in product engineering is ever increasing. With rapidchanges in technology and more applications becoming real-time and embedded, teaching themechatronics course only through laboratories or course projects is not sufficient. The leapfrom the traditional sequential design approach to the mechatronics philosophy is very big.Added to this are the various definitions that have evolved and the various methodologiesdeveloped for the mechatronics system design. Mechatronics is at a stage of evolutionaryprocess of modern engineering design and involves systems thinking. “V-cycle” is aprescribed industrial process for mechatronics. It is a graphical construct used tocommunicate
Paper ID #7252A Computer-Controlled Biodiesel ExperimentDr. William M. Clark, Worcester Polytechnic Institute William Clark is an associate professor in the Chemical Engineering Department at Worcester Polytechnic Institute. He holds a B.S. from Clemson University and a Ph.D. from Rice University, both in Chemical Engineering. He has taught thermodynamics, separation processes, and unit operations laboratory for over 25 years. In addition to research efforts in teaching and learning, he has conducted disciplinary research in separation processes.Mr. Nicholas Janeiro Medeiros, Worcester Polytechnic InstituteDonal James
implemented - and studied how students used - online videodemonstrations related to solid modeling software instruction. The latter found better learningoutcomes in those students who watched more of the videos during the semester. In addition,video-taped Electrical Power and Machines lab experiments had been used as a virtual substituteexperience for distance learning students, and it was concluded that the video-taped laboratory wasas effective as the traditional laboratory in attaining the desired course outcomes, while thestudents’ overall evaluation was very positive9. Secondly, recorded videos of entire lectures or else short video clips of lecture-relatedmaterial (e.g., topical summaries or illustrative demonstrations or solving
coursework in Calculus were also contacted about the program.ResourcesThe program was conducted by two engineering faculty, one in electrical engineering and theother in materials engineering. Each faculty member spent one week with the participants,presenting brief lectures and supervising laboratory activities. Five undergraduate students,majoring in electrical or mechanical engineering, were hired to assist with laboratory sessions.An important resource for the program was LabVIEW Lessons2 which features activitiesdesigned to develop students' computational thinking and engineering design skills through thepresentation of open-ended problems. Page
27 years as a teacher and researcher. He has extensive research and curriculum development experience in STEM disciplines. His research includes the study of thinking processes, teaching methods, and activities that improve technological problem-solving performance and creativity. He has expertise in developing technology education curriculum that integrates science, technology, engineering and mathe- matics (STEM) concepts. Currently, Dr. DeLuca’s research includes projects to develop curricula to teach STEM concepts associated with renewable energy technologies by providing a living laboratory of perfor- mance data from numerous renewable energy systems. The overarching goal of the project is to develop middle
-DEAS, or SolidWorks. Other math tools such as MatLabSimulink, MapleSim, etc., are also available to study planar mechanism kinematics. Finally, thestudents in India used the available laboratory experimental apparatus to verify some of thetheoretical calculations. The performance metric is a final report that included the learningoutcomes and recommendations for further work.Introduction and literature reviewThe Course Learning Objectives (CLOs) of the course are: 1. Apply the integration of the fundamental concepts of rigid body kinematics in relative motion, solid mechanics and computer aided engineering through computational and design tools. 2. Apply fundamental mechanics principles to the kinematic, dynamic and fatigue
for past grammatical expertise Page 23.676.8Junior ME 332 – Fluid Mechanics ME 371 – Machine Design IYear Laboratory Reports: (Approx. 9 @ 4-6 pages each) Short Technical Reporting Brief narrative of procedure, measured data, Design Analysis Reports (2 @ 4- deduced and analyzed data, plotted results with 6 pp. Individual); Technical discussion and conclusions. Analysis, Economic Analysis, Recommendation for Action
Technology, Sweden. 1Teaching of writing skills can be, arguably, the most difficult communication skill to teach.Engineering students need to master writer, genre, and reader-oriented composition, thoughnot necessarily to equal levels or at the same time. In Years 2 and 3, engineering studentsneed to master ‘genre-oriented composition’; in other words, they need to be able to matchthe expectations for diverse, yet specific, writing types: cover letters, laboratory reports,design reports, engineering drawings, and oral presentations. In Years 3 and 4, engineeringstudents, to varying degrees, need to focus more on reader-oriented composition andrecognise the
product and the final report, peer evaluations and faculty/industry finalpresentation evaluations.The decision to change the Capstone course from a “Production Laboratory” to a “Research andDevelopment Project”, to better meet the needs of the MET and ME students, was firstimplemented in the fall of 2010. This was possible because the course was split into two separateCapstones, an R&D based course for the MET & ME students and the traditional productionbased course for the Applied Technology students. During the 2010-11, the new R&D capstonecourse was taught to the MET students since none of the ME students were sophomores andjuniors. The switch to an R&D focus allowed the department to reach out to industry partners towork on
classrooms and laboratories according to our vision of good practiceand needs. One of the ECE faculty temporarily based in the Physics department developed anapplied electrostatics laboratory from scratch to be used in the ECE program and taught thePhysics capstone course twice using the lab facilities. The Applied Electrostatics Laboratory wasthought to allow for great flexibility of projects related particularly to nanotechnology by meansof electrospraying, electrospinning, and gas discharges. The main available equipment consistsof a couple of high voltage power supplies (one high voltage amplifier), single syringe anddouble syringe pumps, a high speed camera system, a Keythley picoammeter, a modified Veecosystem for studying electrospray
education, and teacher professional development. For ten years she served on the Board of Examiners for the National Council for the Accreditation of Teacher Education. She was also at the University of South Carolina for 17 years where she taught undergraduates, had an active research program in paleo-oceanography, and numerous graduate students. She has a B.S. in Zoology from the University of Rhode Island and an M.S. and Ph.D. in Geological Sciences from the University of South Carolina.Lynn Charles Rathbun, National Nanotechnology Infrastructure Network, Cornell University Dr. Lynn Rathbun is the Deputy Director of the National Nanotechnology Infrastructure Network and the Laboratory Manager of the Cornell Nanoscale
, Proposed Solution Resumes, email, short engineering focused Paper, Justified Evaluation Paper, Writing Profile reports, engineering writing demands, problem Paper solving, speaking, ethics, and orientation to the university/college/majorsSoph. ME 201 – ThermodynamicsYear Student communication survey, refresher for past grammatical expertiseJunior ME 332 – Fluid Mechanics ME 371 – Machine Design IYear Laboratory Reports: (Approx. 9 @ 4-6 pages each) Short Technical Reporting Brief narrative of procedure
midterm exams. As a result thestudents do not put a uniform effort in learning during the course but, under pressure from theirother courses, apply themselves to the EFW course for only a short period of time just before theexams, resulting in an uneven and incomplete learning.To overcome the problems described above we are developing a conceptually novel one-semester EFW course for engineering junior undergraduate students and establishing a newundergraduate EFW laboratory. This course is a four credit-hour lecture/lab course (three credithours are for the lecture component and one credit hour for the lab component of the combinedcourse). A novel style of teaching this EFW course is based on the interactive approach –experiment – theory
masters and is now working with Prof. Page 23.1195.2 c American Society for Engineering Education, 2013 The Embedded Development Tools You Did Not Have When Growing UpAbstractIn this paper we give a broad overview of the embedded tools that engineering technologystudents at the Rochester Institute of Technology (RIT) have been discovering and using forcourses, laboratories, senior design and in their personal projects. By no means is this anextensive but a comprehensive list of embedded debugging tools used by students and faculty inour department. The important
commercial thermal cycle, analyze its performance and discuss thedifference between the actual device and the theoretical model. Students were also required tobuild a small physical model of the device using straws, wires, plastic cups and paper. By doingthat students could better visualize the device and its components.Toro et al.40 presented a desktop scale Rankine cycle with a solar-powered boiler for use as ahands-on laboratory experiment. Patterson41 collected real-life thermodynamics examples in abooklet. The examples were intended to enhance teaching of thermodynamics by increasing theaccessibility of thermodynamics principles, and to raise the appeal of thermodynamics tostudents. The examples were designed using the 5Es approach: Engage
favored by academics, and practitioners second that opinion. Laboratory andTeamwork also receive special mention. In total these illustrate the importance of education thatincludes exploration in the lab, through projects, and in the workplace. Given the widespreadagreement, the question is not ‘if we should’, but ‘how should we’? Recommendation: Explore new methods for education that involves work in laboratories, projects, and workplaces.8. Conclusions Page 23.19.11In general the community is positive about the value of manufacturing education, but continuesto perceive a lack of social and political support
, California. She received her B.S. in Physics from Istanbul University, M.S. in applied physics from Bogazici University, and Ph. D. in Physics from Istanbul University, Istanbul, Turkey. She joined the faculty of Bogazici University in 1979 and Istanbul Technical University in 1983. After- wards, she taught undergraduate and graduate level courses in both materials science and physics depart- ments at various universities in Europe and USA. She worked as a staff scientist at Lawrence Berkeley National Laboratory and as a research faculty at UC Berkeley in USA before starting as a MESA Engi- neering Program director of San Francisco State University in the School of Engineering in 2001. Her research focuses on the
Paper ID #7191Using Educational ”Hands-On” Experiential Tools to Introduce Math, Sci-ence and Engineering Concepts to K-16 Students (Research to Practice)Ms. Kelly Doyle P.E., University of Nevada, Reno Kelly Doyle is a licensed professional engineer and has B.S. and M.S. degrees in Civil Engineering from University of Nevada, Reno. She currently works as Administrative Faculty at the University where she recently managed a large research project on curved bridges in the Large-Scale Structures Laboratory. In addition to her research and management capacity, Doyle handles educational outreach for the Center for Civil