Manufacturing and designin a business environment. The key element in this approach is active learning - the combination of curriculumrevitalization with coordinated opportunities for application and hands on experience.University:[ ] UPR-M [ ] PSU [ ] UW [ ] Other__________________Major:[ ] Mechanical Eng. [ ] Chemical Eng. [ ] Industrial Eng.[ ] Other__________________[ ] Graduate student [ ] Undergraduate studentInvolvement with MEEP:[ ] Taken 1 course [ ] Taken more than 1 course [ ] Research Assistant[ ] Other__________________The program courses at your institution were offered as: (Check all that apply)[ ] as part of a minor [ ] as electives [ ] as part of a degree
sensing and mobile heath (mHeath) technology. In 2017, she joined Syracuse University as an assistant teaching professor for a joint position between the Department of Biomedical and Chemical Engineering and the Department of Mechanical and Aerospace Engineering. Since 2020, she becomes a full-time assistant teaching professor in the Department Mechanical and Aerospace Engineering. As an instructor, she teaches courses at different levels, from first-year undergraduate engineering programming course to graduate level technical elective courses. She particularly interests in improving engineering education through enhancing students learning experience, cultivating an active learning environment and promoting diversity
Learners–prefer logical reasoning and solving Social Learners–prefer working with other individuals Solitary Learners–prefer working individuallyStudies summarized by P. Rosati have shown engineers to be active, sensing, visual, andsequential learners.2 Rosati recommends improved teaching in engineering related coursesthrough more active, sensing, visual, and global teaching components. In addition, Rosatimentions that the most effective single improvement to engineering related courses is to includepractical laboratory and design applications. Felder and Spurlin report a consistent pattern oflearning style preferences for engineering students.3 In a comprehensive study consisting ofmultiple universities and consecutive
Session 2 2 5 1 Engineering Education by An Application Oriented Design Ron K. Bhada, Abbas Ghassemi, J. Derald Morgan New Mexico State University Waste-management Education & Research ConsortiumIntroduction: Efficient and safe management of a sustainable environment is an increasingly critical national goal. It is a b r o a d i s s u e which c a n n o t b ea d d r e s s e d b y a n y o n e entity a n d r e q u i r e s a multi-disciplinary, multi-organizational a p p r o a c h . In 1990, the U . S . D e p a r t
in surveying, soil mechanics, site engineering, and stormwater management for over 30 years. He has research interests in urban hy- drology, stormwater management, and enhancement of student learning. He is in his thirteenth year of service on Delaware’s Engineering Licensing Board, the DAPE Council, and has been active on several NCEES committees. c American Society for Engineering Education, 2017 Pedagogical Considerations in Use of Online Problem Sets in Technical CoursesAbstractThis paper discusses the author’s experience with using the LON-CAPA learning managementsystem (LMS) for on-line problem set delivery in seven civil and environmental engineering,engineering technology, landscape
Toronto. He is currently an Associate Professor of Mechanical Engineering at Memorial University, teaching mechanics and design. His research areas are automated modeling, vehicle dynamics and control, vibration-assisted drilling, and nondestructive testing of power transmission line poles. c American Society for Engineering Education, 2016 Challenges and Logistics in Flipping a Large Classroom for Junior-Year Mechanical VibrationsA junior-year Mechanical Vibrations course with 110 students was “flipped” to increase studentengagement and learning outcomes. Each week, a gapped notes handout was created. Theoryand derivation videos were generated using open-source software
1995, respectively.Mr. Nephi Derbidge, Cal Poly, San Luis Obispo, CA After completing my undergraduate studies at Cal Poly, San Luis Obispo, I worked for a private geotech- nical consulting firm in California for over 15 years. My consulting career provided a broad range of experience on mostly public works projects. Over the last 10 years I have managed the geotechnical laboratory which served more than 5 offices throughout the state for domestic and international projects. I have been teaching mostly geotechnical laboratory courses at Cal Poly for over 10 years. Utilizing Cal Poly’s ’Learn by Doing’ mantra, I share my practical project experience with my students during laboratory activities
subject had been reported with regard to the teaching ofDSP to students. However, the teaching of DSP was mainly devoted to ECE (Electrical andComputer Engineering) students 4-6. For mechatronics students, it was believed that givingthem some insight to the fundamentals of DSP and data acquisition would benefit them inthis advance computer era.This paper describes the work produced by a team of 3 students. They were put together fora hands-on learning experience in Mechatronics engineering. The rationale for hands-onlearning in engineering had been widely studied by many researchers and in one particularstudy conducted by Ferguson and Hegarty7, they carried out an experiment and investigatedon how college students learned the mechanics of pulley
: Curricular ProblemsAs any reputable engineer knows, understanding the problem is critical to proposing successfulsolutions. The problems in this case were complex and longstanding. Primarily, there was aproblem of redundancy. Before the fall semester of 2002, both the Mechanical Engineering andthe Civil Engineering departments at the University of Memphis presented separate Mechanicsof Materials classes to juniors in their respective departments. Students from each departmentwere allowed to register for either class to satisfy departmental graduation requirements.Material covered by both departments had a significant overlap but with emphasis on problemsmore typical to each discipline. Each department had a laboratory course loosely linked to
) Every student team is required to maintain either a design folio or a design journal in which team members gather and record information as they complete the design challenge. (4) Every student team is required to prepare a final design report in which team members’ work and findings are summarized. The final design report is a written report in which at least two product styles are compared. For example, a team might look at a drawer-type CD holder versus a flip-lid type. The report should include an evaluation of possibilities presented by various manufacturing methodologies studied in this course. In addition, the design decisions made by the
graduates. A study outlined byPalazolo, et. al, identified that students felt they lacked sufficient leadership/management skillsand overwhelmingly desired to develop these skills, more than any other (including technical andanalytic skills), before graduating3. Reflective practice was employed successfully byMartinazzi, et. al in an engineering technology program, to help students develop leadershipskills4. That course was different, however, in that the subject of the course was Leadership.This course, as outlined in this paper, attempted to develop these traits in the context of asimulated real world industry MBSD project focused on automotive emission control
National Academy of Engineering‟s (NAE) 2004 report, TheEngineer of 20201, several aspects of the future of engineering have been undeniable. The worldpopulation is changing in mostly known ways and changing with it are the kinds of stakeholderneeds typically addressed by engineers. Government studies project population worldwide toincrease from 6 billion currently to 9 or 10 billion within the lifetimes of today‟s beginningengineers1 and this massive increase will bring with it more than the challenges of sheer volume.The demographic diversity of the global population is changing just as radically. To give oneexample, according to a US Census Bureau study, “If current trends continue . . . the percentageof whites will decline from the 2000 value
courses. In the assessment process, we found surprising results,particularly in the summative assessment process of collecting data for continuous improvementand ABET outcomes. Some possible explanations for the results will be offered.BackgroundIn the late 1990’s, engineering and technology educators received perhaps the greatest shock oftheir careers – accreditation was changing to outcomes-based assessment from a decades-old listof topics. After the shock wore off, it took several years of hard work for most educators just tounderstand outcomes-based assessment, let alone perform any meaningful assessments.The difficulty most engineering and technology educators have with outcomes-based assessmentcan be easily understood by studying the mental
takeadvantage of summer employment opportunities within their major to provide work experiencein their field of study and assist in financing their education. Some students find positions withconsulting firms or contractors. A large number of students however, take advantage of theEngineering, Scientific, and Technical Internship (ESTI) program sponsored by the PennsylvaniaDepartment of Transportation (PennDOT). Students completing their freshman year inEngineering Technology are eligible for the program. PennDOT Interns work on variousprojects throughout the state. Most are assigned to inspection positions on construction fieldprojects near their homes. Advantages of this program are the professional work experience, theminimum amount of education
Paper ID #7659Teaching Undergraduate Introductory Course to Mechatronics in the Me-chanical Engineering Curriculum Using ArduinoDr. Jose Antonio Riofrio, Western New England University Jos´e A Riofr´ıo received his B.S. in Engineering Physics from Elizabethtown College in 2003, and his M.S. and Ph.D. in Mechanical Engineering from Vanderbilt University in 2005 and 2008, respectively. At Vanderbilt, Jos´e focused his research in controls, mechatronics and mechanical design. After obtaining his Ph.D., Jos´e worked in the Fluid Power industry designing servo-pneumatic control systems for various motion-control applications
Paper ID #45309Designing an AI-Enhanced Module for Robotics Education in MechanicalEngineering TechnologyDr. Wenhai Li, Farmingdale State College Assistant Professor in Department of Mechanical Engineering Technology, Farmingdale State College, Farmingdale, NY 11735Dr. Yue Hung, Farmingdale State College Dr. Yue (Jeff) Hung holds degrees in engineering and technology disciplines (Ph.D. in Materials Science and Engineering, M.S in Mechanical Engineering, and B.S in Manufacturing Engineering Technology). He has over 20 yearsˆa C™ experience in Computer-AidedMr. Reiss Guttman, Farmingdale State College Research AssistantSen
team’s stated goal and objectives. Each design project should involve the collaborative development and evaluation of a “product” that contains and embedded computer.As of 2001, more than 300 students had enrolled in this course. Extremely positive feedback wasreceived about this course from these students; from perspective employers of these students;from former students who had taken the course and graduated; and, finally from the 1998-99ABET site-visit team2, 3. Because of this feedback, the faculty in the Department of Electricaland Computer Engineering voted in 2001 to drop the department’s five separate capstone designcourses and replace these with a single course that would serve students majoring in bothelectrical engineering
theory to engineering practice, a differential-equation perspective is often perceived as “too mathematical,” or “too disconnected” to beof any value. It is our view that the differential-equation view does have value in facilitatingthe fundamental understanding of fluid flow, but it needs to be made accessible to the stu-dents with a reasonable level of effort. The intent of this paper is to describe how we haveincorporated computational fluid dynamics (CFD) into fluid-mechanics courses, especiallyat the advanced levels. In graduate-level fluid mechanics, the students must work with theoretically and math-ematically complex vector and vector-tensor concepts. While such concepts and operatorsare understandable in a purely mathematical sense, it is
computational speed allowsstudents to analyze a large number of solutions which provides them practice in designoptimization, while the powerful visualization and graphic tools of these symboliccomputation software packages allows getting deeper inside the problems studied. Mostcomputer algebra systems can provide solutions to problems involving algebra, calculus,linear algebra, differential equations, vector computation, data analysis and statistics.Hence, they can be applied to solving a large number of different engineering fields [2].Computer algebra systems have from their earliest days been concerned with providingtools with which researchers and scientists in other fields can determine new results. Acomputer algebra system (CAS) in itself is no
,changes have been made to the project requirements in an effort to increase the level ofinterdisciplinary engineering within the groups.It is well known that multidisciplinary teamwork is a valuable part of engineering education andthat ABET requires engineering programs to demonstrate that their graduates demonstrate “anability to function on multi-disciplinary teams“2. The problem faced by many engineeringprograms and their faculty is how to get students to truly engage in interdisciplinary interactionas part of a multidisciplinary team. Felder and Brent state that "Little in their (faculty's)background or experience provides a basis for knowing how students might show an ability towork effectively in multidisciplinary teams"3 Many researchers
2006-1732: DEVELOPMENT OF HIGHLY INTERACTIVE, ON-LINE COURSE ONENERGY CONSERVATION: LEARNING STRATEGIES USED ANDEXPERIENCE GAINEDSarma Pisupati, Pennsylvania State University SARMA V. PISUPATI is an Associate Professor of Energy & Geo-Environmental Engineering Department and a Faculty Fellow of the John A Dutton e-Education Institute of the College of Earth and mineral Sciences. He is Chair of the General Education Program of the EGEE Department and has been teaching undergraduate and graduate courses at Penn State University since 1992.Wendy Mahen, PennSylvania State University WENDY L. MAHAN is Instructional Designer in the in the Teaching and Learning with Technology (TLT) wing of
, 2001. 4. Geankoplis, C. J.; Transport Processes and Separation Process Principles, 4th Edition, Prentice Hall, Upper Saddle River, NJ, 2003. 5. Kranz, W. B., “Pediment Graduate Course in Transport Phenomena,” Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exhibition. 6. Thompson, K. E., “Teaching PDE-Based Modeling to ChE Undergraduates,” Chemical Engineering Education, 34, 146 (2000). 7. Sinclair, J. L., “CFD Case Studies in Fluid-Particle Flow,” Chemical Engineering Education, 32, 108 (1998). 8. Besser, R. S., “Spreadsheet Solutions to Two-Dimensional Heat Transfer Problems,” Chemical Engineering Education, 34, 160 (2002). 9. Zheng, H.; Keith, J
of alliances with threegroups of stakeholders: educators, counselors and parents.21Science courses can provide the opportunity to generate an interest in engineering andtechnology. A study of science and technology should be intended to help students developabilities associated with technological design and problem solving. The instructionalcomponent includes the development and implementation of what we call CurriculumIntegrated Modules. These modules are adaptations, enhancements, or newly developedunits, meant to create connections between the science and mathematics used in engineeringapplications in the modern workplace and standards-based science. The curriculum materialsare designed to fit the instructional classroom needs of grades 6
course (this has held consistent for courses taught in Python and MATLAB).Additionally, our students have complained they are disadvantaged because their instructionused different languages and was missing deep study in a single language relevant to industry.Our introductory programming course switched to Python five years ago, and thus our studentshave even less preparation and familiarity with MATLAB than they had previously, this being amajor impetus towards migrating the BME curriculum to Python. We recently reached out to aMedTech industry executive who hires biomedical engineering graduates who estimated that ittakes 6 months for students to become proficient in a new language and having studentsalready trained in Python would give them a
Copyright © 2005, American Society for Engineering Education Session 1368A design case study of a hoist structure is included at the conclusion of each topic to reinforcethe concepts presented.Analysis A primary goal in this course is to show the student that force and elastic deformationanalysis of single or multiple connected bodies is based on the application of only threefundamental sets of equations: • rigid body equilibrium equations, • material load-deformation equations derived from Hooke’s Law and • equations defining the known or assumed geometry of deformation.The commonality of a general approach to all problems is
all three types ofinteractions were included. Senior and graduate level students took the course through the Webfrom different geographical locations near Northern Illinois University. The course covered thelife cycle of information systems including both theory (indexing, data modeling, processmodeling, relational database design, validation, relational algebra, etc.) and application(application development and implementation, data manipulation, SQL, etc.). The class metonline twice a week for two hours each time in a chatroom during the semester. Apart fromsynchronous discussions online, course activities included homework assignments submitted viaemail, asynchronous discussions through newsgroup and listserv, collaborative class projects
Paper ID #41145Board 110: Portable Solar-Powered Wireless Display BoardGian Carlo Fuentes, New Jersey Institute of TechnologyJonathan Mike Milov, New Jersey Institute of TechnologyTruong Vu DoJames Steven GarciaMilad Shojaee MILAD SHOJAEE (Graduate Student Member, IEEE) received the B.S. degree in electrical engineering from the Hamedan University of Technology, Hamedan, Iran, in 2012, and the M.S. degree in electrical engineering from the University of Tehran, Tehran, Iran, in 2016. He is currently pursuing the Ph.D. degree with the Department of Electrical and Computer Engineering, New Jersey Institute of Technology
semiconductor had afacility in Portland Maine. IBM famously left the microelectronics industry in 2015 by givingboth its manufacturing plants in New York and Vermont to Global Foundries2. DEC closed in1998 and the fabrication facility was sold to Hewlett Packard which was eventually acquired byCompaq then to Intel. Fairchild was acquired by ON semiconductors in 2017.It would seem having major players like IBM, DEC and Fairchild leave the industry would meanless demand for engineering technology graduates with integrated circuit design skills; such astesting and analysis however the exact opposite is currently the case in New England.Fewer and fewer companies can support owning and operating a fabrication facility so in theabsence of a manufacturing
kits, one a model for teacher use and the othera model for student use.Applying the Engineering Design ProcessFollowing the engineering design process, research about x-ray diffraction was first completed inorder for the first-year engineering students to have a good grasp of the topic themselves. Theentire class of 30 students first researched the physics of x-ray diffraction of a single crystallinesolid and the concept of rotational symmetry of cubic crystals. Following consultation with theteacher customer and the university course instructor, the students generated an extensive list ofconstraints (project limitations) and criteria (goals for the end-result), an important aspect of theengineering design process.3The common specifications
AC 2008-1260: EFFECTIVE USE OF INTEGRATED LECTURE AND LAB TOTEACH CIVIL ENGINEERING MATERIALSClaude Villiers, Florida Gulf Coast University CLAUDE VILLIERS is an Assistant Professor of Civil Engineering at Florida Gulf Coast University. He received his Ph.D. in Civil Engineering with a concentration in Materials and Construction from the University of Florida in 2004. Previously Dr. Villiers was an Assistant Professor at The City College of New York. Prior to this position, he was employed by the Florida Department of Transportation (FDOT) as a research engineer. Dr. Villiers also was employed by The University of Florida and worked on several projects sponsored by the FDOT and the