Paper ID #36858Internships’ Impact on Recognition for First-Generationand/or Low-Income StudentsJerry Austin Yang (Student) Jerry A. Yang (he/him/his) is a doctoral student and graduate research assistant at Stanford University pursuing a Ph.D. in Electrical Engineering and a MA in Education. He received a BS in Electrical Engineering from the University of Texas at Austin with a certificate in LGBTQ+/Sexualities Studies. Jerry is currently researching novel two-dimensional materials for conventional and quantum computing applications. In addition, Jerry’s research interestsinclude diversity, equity, and
AC 2011-41: DEVELOPING AN INSTRUMENT TO MEASURE THE IM-PACT OF SERVICE ON TECHNICAL AND PROFESSIONAL LEARNINGOUTCOMESAdam R. Carberry, Arizona State University Adam R. Carberry received his PhD. in Engineering Education from the Tufts University Math, Science, Technology,and Engineering Education program in 2010. He holds an M.S. in Chemistry from Tufts University and a B.S. in Material Science Engineering from Alfred University. He is currently work- ing as a Postdoctoral Research Associate in the College of Technology and Innovation, Department of Engineering at Arizona State University investigating engineering student conceptions of modeling.Christopher W. Swan, Tufts University Chris Swan is an associate
true for many small companies on which an engineer maybe required toperform many tasks that go beyond his/her originally field of study. To help college students tolearn the latest multidisciplinary approach to product design, in the fall 2010, the departments ofmechanical engineering technology and computer engineering technology introduced a hands-ondesign project in their respective capstone courses as well as in extracurricular undergraduateresearch projects. These hands-on design projects contained mechanical design,electrical/electronic design as well as software design components.In previous studies, various embedded systems such as Compact real-time controller (cRIO)from National Instruments, NXT brick from Lego Mindstorm, and Arduino
Paper ID #19665Impact of biomechanics-based activities on situational and individual interestamong K-12 studentsProf. Carrie A Francis, University of Northwestern-St. Paul Carrie Francis is an Assistant Professor of Engineering at the University of Northwestern-St. Paul. She received her Ph.D. in Biomedical Engineering from the University of Wisconsin-Madison. She has pre- viously received degrees in biomedical engineering from Washington University in St. Louis (B.S.) and the University of Wisconsin-Madison (M.S.). Her teaching interests include general physics, statics & dynamics, and mechanics of materials. Her
user can get lost among many pages of a site going from one link to another. Therefore, in our design we minimized usage of hyperlinks within the text of the chapter forcing navigation with the menus.IV. Robotics chapterThe eLabBook is a two year project. The first and only chapter we developed so far is onrobotics. The main goals of the chapter are to (1) Supplement the material covered in thelectures of ME442 Robotics course, (2) Provide a self study guide to learn general programmingrequirements of an industrial robot and, (3) Provide “hands-on” laboratory experience with anactual robot for remote students. The following table
Paper ID #29325Outcomes & Lessons Learned from a NSF-REU Site on Metrology &Non-Destructive InspectionDr. Mathew Kuttolamadom, Texas A&M University Dr. Mathew Kuttolamadom is an associate professor in the Department of Engineering Technology & In- dustrial Distribution and the Department of Materials Science & Engineering at Texas A&M University. He received his Ph.D. in Materials Science & Engineering from Clemson University’s Int’l Center for Au- tomotive Research. His professional experience is in the automotive industry including at the Ford Motor Company. At TAMU, he teaches Mechanics
unusualrepresentations of data, knowledge, and opinions.”Purpose of the PaperThe purpose of this paper is to present the findings of a formative pilot study conducted toinvestigate the preliminary effectiveness of an interactive, multi-media supported, inquiry-basedcurriculum module developed for use with engineering students in the materials handlingdomain. The primary variables under study were student perceptions of the process of learningvia this technique; more specifically, it addressed their perceptions of the relevance of themodule to learning and applying course specific content, the relevance of module use to learningin general, and the impact of module use on their general learning affect.The Module Under StudyThe module developed for this pilot
Session 1280 RIDING WITH THE SUN: MTSU’S EXPERIENCE IN SOLAR CAR DESIGN AND THE IMPACT ON COMMUNITY Saleh M. Sbenaty Department of Engineering Technology and Industrial Studies Middle Tennessee State UniversityABSTRACT This paper describes Middle Tennessee State University (MTSU) efforts in:x promoting its Basic and Applied Sciences programs in general and the Engineering Technology program in particular,x demonstrating the impact of engineering physics and technology on the community, andx boosting environmental awareness in the Middle Tennessee area.The
AC 2012-3123: SURVEY AND ANALYSIS OF COURSES ON THE SUB-JECT OF INFORMATION RETRIEVAL AND WEB SEARCHDr. Xiannong Meng, Bucknell University Xiannong Meng is a professor of computer science in the Department of Computer Science at Bucknell University in Lewisburg, Penn., USA. His research interests include distributed computing, data mining, intelligent web search, operating systems, and computer networks. He received his Ph.D. in computer science from Worcester Polytechnic Institute in Worcester, Mass., USA.Dr. Song Xing, California State University, Los Angeles Song Xing received his B.S. and M.S. degrees in electrical engineering from Southeast University, China, in 1985 and 1990, respectively, and his Ph.D. degree
Paper ID #33698A Study on the Effectiveness of the CLICK Approach in an OperationsResearch CourseChristian E. Lopez, Lafayette College I am an Assistant Professor of Computer Science with an affiliation in Mechanical Engineering at Lafayette College. I completed my Ph.D. from the Harold and Inge Marcus Department of Industrial and Manufacturing Engineering at the Pennsylvania State University, and a Master of Science in Industrial and Systems Engineering from the Rochester Institute of Technology, NY. I worked in the Service and Manufacturing sectors before pursuing m yPh.D. I am interested in the design and
Morris University which afforded him the opportunity to research, teach, and advise in numerous engineering roles. He served as the mechanical coordinator for the RMU Engineering Department for six years, and was the Director of Outreach for the Research and Outreach Center in the School of Engineering, Mathematics and Science. In 2019, Dr. Kerzmann joined the Me- chanical Engineering and Material Science (MEMS) department at the University of Pittsburgh. He is the advising coordinator and associate professor in the MEMS department, where he positively engages with numerous mechanical engineering advisees, teaches courses in mechanical engineering and sustainability, and conducts research in energy systems
Session 2526 The use of the Oscilloscope as an Educative Tool on a Network Installation and Maintenance Unit D. Veal, S.P. Maj, G. I. Swan Computing Science / Computing Science / Physics Program Edith Cowan University (ECU). Perth. Western Australia.AbstractNetwork Installation and Maintenance (NIM) is a first year single semester unit in the Schoolof Computing at ECU. This unit consists of a two-hour lecture and two-hour hands-onworkshop. The creation of the NIM unit was based upon a survey of the needs of employersin the field of network installation and
to train each engineer for every possible situation, dueto the high dynamism that these professionals are usually involved. This causes thatexperiences should be shared for allowing mutual learning between the members of theengineering crew.By other hand, the profile of competences required by maritime industry, as emphasized bySimonsen et al.2, is T shaped, as these engineers should have a multidisciplinary profile –horizontal competences–, but their training should also give them the possibility to specializein one or more specific areas –vertical competences–. In this regard, the survey by the DanishMaritime Foundation, at Andersen et al.3, describes the competences profile requirednowadays by the maritime industry, clarifying the link
few engineering curriculum reform in Taiwan to implement ABET EC-2000 intocurriculum planning.2. Features and Learning Difficulties of the Course “Mechanisms”The course “Mechanisms”, or used as another name “Kinematics” in curriculum of mechanicalengineering, belongs to a typical traditional course in comparison with the other courses onnewly developed technologies, such as “Biomechanics”, “MEMS” or “Nano-technologies” andso on. In general, the course “Mechanisms” is one of the “machine design” or “mechanism andmachine theory” series courses4. It and the other courses together, such as “Mechanics” and“Material Science”, provide the students fundamental knowledge and analysis abilities for“machine design” as Fig. 1 illustrated.The contents
. Interactivity is anotherimportant element of the engineering classroom experience. One of the challenges in developingthe online course was to develop an approach that can effectively capture these classroomelements. In addition, the rock lab provides a hands-on, kinesthetic experience for the students,as well as a writing experience in the form of laboratory reports. The second challenge was todevelop an innovative approach to capture these important laboratory experiences.Several innovative multimedia components have been adapted to meet the challenges describedabove. For the lecture portion of the course, an approach that utilizes streaming audio and vectorgraphics was adapted. The streaming audio comes from actual lectures, and animated
helping the fields achieve its May 1994. • Math & Physical Sciences; appreciation for academic expertise February 1994. Academics: Nick Safai received his PhD degree in engineering from the Princeton University, Prince- ton, New Jersey in 1979. He also did a one year post-doctoral at Princeton University after receiving his degrees from Princeton University. His areas of interest, research topics, and some of the research studies have been; • Multi-Phase Flow through Porous Media • Wave propagation in Filamentary Com- posite Materials • Vertical and Horizontal Land Deformation in a De-saturating Porous Medium • Stress Concentration in Filamentary Composites with Broken Fibers • Aviation; Developments of New Crash
, electrical, and computerengineering. The first of these three courses is Introduction to Mechanical Systems with CAD,which is run by the Mechanical and Materials Engineering Department. The broad goals of thecourse are to introduce the students to basic mechanical concepts, CAD software, engineeringdrawing basics, engineering design, and to develop their skills within teamwork and technicalwriting. DU operates on a quarter system, so this is done during a ten-week period.In order to aid in the teaching of engineering design a 3D-printing design project was developedabout seven years ago and implemented in the course[4]. While it was received well by thestudents overall, there were some limitations due to time and equipment available.Project
of the Pacific. He received B.S. degree in Information and Computer Science from the Georgia Institute of Technology, and his M.S degree in Computer Science and his Ph.D degree in Computer Science and Engineering from the University of South Florida. While working on his bachelor's degree and prior to graduate studies he worked in the computer industry for firms in the Atlanta area. He joined the University of the Pacific in 1993. His research interests include computer graphics, robotics, AI and embedded systems.Megan Kalend, University of the Pacific Megan K. Kalend is a student of Engineering Management at the University of the Pacific. She is currently on co-op at E. & J. Gallo Winery in
Mentoring of Middle Grade Math and Science Teachers research study. Her teaching interests include assessment and appraisal, instrument construction, education research methodology, and research ethics.Courtney LambethDr. Cindy Waters, North Carolina A&T State University (Eng)Devdas M. Pai, North Carolina A&T State University (Eng) Devdas Pai is a Professor of Mechanical Engineering at NC A&T State University. He serves as Director for Education and Outreach in the NSF ERC for Revolutionizing Metallic Biomaterials. His research and teaching interests are in the area of manufacturing processes and materials engineering
-learning-pltl.pdf[6] Foroudastan, S. (n.d.). Solar Power and sustainability in developing countries.https://files.udc.edu/docs/cere/Solar%20Power%20and%20Sustainability%20in%20Developing%20Countries.pdf[7] Foroudastan, S. & Cambell I. (n.d.). Student Projects: Hands-on Experience with Mechanical EngineeringTechnology. student-projects-hands-on-experience-with-mechanical-engineering-technology.pdfBiographySAEED FOROUDASTAN is the associate dean for the College of Basic and Applied Sciences at Middle Tennessee StateUniversity, which oversees 10 departments. He is also the current director for the Master of Science in ProfessionalScience (MSPS) program and a professor of engineering technology at MTSU. Foroudastan’s academic experienceincludes
(HFSS) with its full 3Dcapability (Ansoft Ensemble only handles a modified form of this structure at best, as it is limitedto continuous substrate materials). Thus, senior Messiah College engineering student DavidWatson spent the early part of his 8-week term learning HFSS (aided by tutorials, consultationwith a few more experienced users at MSB and performing some trial-and-error simulations).Design calculations of the inner and outer radii parameters for the circular microstrip patchantenna, based on Bessel functions, were facilitated by Excell and MATLAB computations.Comparisons were made between antenna patterns obtained for a single probe-fed SAR-RSW at 2GHz and measurements made for a hand-cut prototype in the lab. The SAR-RSW prototype
tounderstand STEM topics and sustainability education in the state of WV.Introduction The STEM (science, technology, engineering, and mathematics) methodology emerged inthe United States in the 1990s after students showed a lack of interest in science topics. Schoolsplay a fundamental role in the education and information of children and teenagers, offeringstudents the opportunity to do their part for a better and healthier world. STEM implementationcan and should be indispensable in students’ daily lives, with educational and practicalapplications. STEM learning with hands-on resources allows children to explore, build and share anunderstanding of the world around them. In contrast, the fun aspect of such resources keeps themconstantly
,making the renewable energy based electricity one of the alternative. Today the renewableenergy is one of the most rapidly growing rapidly energy industry. Over the last decades therenewable energy has gone through significant technological advances and extended uses forelectricity and other industrial applications. One the other hand, the industry has significantlyincreased its demands for qualified engineers who can understand and cope with the difficultiesinherent in the wide range of disciplines involved in these technologies. Universities areintroducing renewable energy courses into their curricula, to empower students to work in thisrapidly developing industry. Renewable energy technologies are highly interdisciplinary and arecrossing over
of gages, and basic materials science, and covered the theory of a varietymanufacturing technologies, reinforced with extensive hands-on projects. The technologiesincluded manual milling, lathe, surface grinding, CNC machining and turning, CAM, and EDM.The wide selection of technologies was chosen to provide the student with as many jobopportunities as possible upon graduation. Welding was not included due to time constraints andthe unavailability of this technology at the MAC. The combination of manual and automatedmachines was employed to provide students with an understanding of the basics of machine toolsand the future requirements for machinists and tool and die makers.Given the content, the accelerated nature, and the limited time
mechatronicsystem modeling and simulation, and sensors and actuators are being developed and delivered astechnical electives for upper-division engineering students. Materials developed for the sensorsand actuators course will be adapted for use in hands-on pre-college learning modules. Animportant feature is a plan for assessing the outcomes of the project. In fact, the project teamincludes a professional evaluator who will work closely with the co-PIs of the grant, who arefrom two different engineering disciplines.Project GoalsThe University of Detroit Mercy (UDM) is uniquely situated to play a major role inmechatronics instruction in the local region. The predominance of the auto industry in the Detroitarea, the mandatory cooperative education program
federal agencies will be sought. TheResearch Experience for Undergraduate (REU) program by the National Science Foundation(NSF) is at the top of the list. Future projects will include other topics in the area of materialsand on other topics in civil engineering as well. The experience from the first pilot project willbe very helpful in conducting subsequent undergraduate research projects.Conclusions and recommendationsUndergraduate engineering research can be challenging at some university campuses forseveral reasons. One of these reasons is the absence of junior and senior engineeringstudents. Penn State Fayette, The Eberly Campus is one of these campuses. A pilotproject was conducted at this campus in the area of civil engineering
institutions inthe United States and around the world moved some or all of their courses to fully online back inApril of 2020. Faculties and students faced new challenges with new tools that each had to learnand use effectively to deliver and receive the lecture material as efficiently as possible. The impactof COVID19 on engineering courses is going to go beyond the Spring semester of 2020. The aimof the study is to highlight the real impact of COVID19 on engineering students for aThermodynamics I course during the pandemic where half of the semester was delivered onlineand a Thermodynamics II course during the Summer semester of 2020 which was fully online.The study illustrates how the lockdown impacted the students’ learning outcome for both
Relevance on Product Design and Manufacturing CoursesAbstractThis paper presents the research work of a NSF CCLI project for analyzing the impact ofmedical device-related active learning pedagogies in two courses within the engineeringcurriculum: New Product Development and Manufacturing Processes. The main focus of thestudy is on the impact of these approaches on students’ engagement and conceptualunderstanding of course material. A project-based learning (PBL) approach was incorporatedinto both courses through real medical device projects to provide students with hands-onexperiences on the challenges of medical device design and development. The courses wereenhanced to provide a combination of lectures on theoretical concepts
Paper ID #10411Evaluation of Impact of Web-based Activities on Mechanics Achievement andSelf-EfficacyProf. Sarah L. Billington, Stanford University Sarah Billington is Professor and Associate Chair of the Department of Civil & Environmental Engineer- ing at Stanford University. Her research group focuses on sustainable, durable construction materials and their application to structures and construction. She teaches an undergraduate class on introductory solid mechanics as well as graduate courses in structural concrete behavior and design. Most recently she has initiated a engineering education research project on
created14 with support from NSF for avariety of topics in Bioengineering15. The method was shown to improve students’ performancewith open-ended problems16,17,18. Inquiry-based learning approaches, such as CBI, have beenfound to be “more effective than traditional science instruction at improving academicachievement, and the development of thinking, problem-solving and laboratory skills”11, and toenhance understanding of critical engineering concepts19,20. A key facet of the CBW approach in heat transfer instruction is the integration of hands-on workshops into the existing course. The integration of hands-on activities into courses hasshown significant learning gains for students across several domains. Faculty have usedinteractive learning