experiments, interpret and analyze data, and report results. 4. Graduates will demonstrate the ability to design a mechanical system, component, or process that meets desired specifications and requirements. 5. Graduates will demonstrate the ability to function on engineering and science laboratory teams as well as on multidisciplinary design teams. 6. Graduates will use modern engineering software tools and equipment to analyze mechanical engineering problems. 7. Graduates will demonstrate an understanding of professional and ethical responsibility. 8. Graduates will be able to communicate effectively in both verbal and written forms. 9. Graduates will have the confidence for self-education and the ability for
Methodology While there is a broad literature related to engineering education in first-year engineering[9], [10], [12] , there is gap in the literature regarding the development of narrative pedagogies inthese settings. This research provides practical perceptions and experiences about theresearcher’s experience implementing a new pedagogy in first-year engineering and the findingsfrom this study will be used to foster further discussion about FYE and story-based pedagogy.Therefore, this study is designed to investigate the following research question: To what extentdoes narrative pedagogy influence the development and implementation of the curriculum infirst-year engineering courses? The research methodology selected for this
and extracurricular activities.4 The overall competence and effectiveness of faculty members may be judged by such factors as the level of academic achievement; the diversity of their backgrounds; the extent to which they further their own education in relevant areas; industrial experience; teaching experience; being technically current; interest in and enthusiasm for improving instruction; involvement in laboratory development; publication and other scholarly activities; active participation in professional and scientific societies; favorable evaluations from students, graduates, and peers; the ability to
Behrend College, and the School of Engineering in Fall 2010. He is a lecturer in the Electrical and Computer Engineering department and holds a B.S. in electrical engineering from Carnegie Mellon University. Steve comes to Penn State Behrend with more than thirty years experience in designing and programming embedded systems and has multiple patents for both hardware designs and software algorithms. Page 24.1056.1 c American Society for Engineering Education, 2014 RFID Reader System ProjectAbstractAs part of the requirements in a junior-level wireless
Paper ID #15666Adjunct’s Contribution in Bringing the Practice to the Classroom: A CaseStudyDr. Waddah Akili, Iowa State University Waddah Akili has been in the academic arena for over 40 years. He has held academic positions at Drexel University, Philadelphia, Penna (66-69), at King Fahd University of Petroleum & Minerals, Dhahran, Saudi Arabia (69-87), and at the University of Qatar, Doha, Qatar (87-00). Professor Akili’s major field is geotechnical engineering and materials. His research work & experience include: characterization of arid and semi arid soils, piled foundations, pavement design & materials
the maturation of arelationship initiated in the cooperative education experience which blossomed into project workat the university, participation on advisory boards, sponsored laboratories, distance learningactivities, help retaining faculty and the development of a consortium to support student projectsand Accreditation Board for Engineering and Technology (ABET) learning outcomes.IntroductionAll too often the plethora of opportunities presented by cooperative education programs gounrealized. In the minimal case the university perceives the coop program only as a tool toprovide students the opportunity to gain professional work experience, and earn money. Again inthis minimal case, industry perceives coop only as a “try-out” for potential
oftenhave two 3-hour lab sections per course. We developed labs that reinforced some importantsubject of the week. We even published a couple of our experiments in The Physics Teacher.To insure the students would understand the lab activities, we would lecture to them for 40 to 50minutes on the experiment they were about to perform. The experiments were not just designedto reinforce the week’s subjects but also to progressively develop laboratory and reporting skills.Each student was required to turn in a carbon-copied lab report by the next lab meeting. Wenearly drowned in the sea of yellow paper!An Impulse HitsIn May of 1993 we attended The Conference on the Introductory Physics Course1 at RPI inTroy, NY. The conference, held in honor of Robert
Texas A&M University. His areas of interest in research and education include product development, analog/RF electronics, engineering education, and entrepreneurship.Dr. Michael Johnson, Texas A&M University Dr. Michael D. Johnson is an associate professor in the Department of Engineering Technology and In- dustrial 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. 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. Dr. Johnson’s research focuses on design tools; specifi
more hands-on experience in database design and programming. The informatics student had designed different cases for medical error, including drug-drug interaction, wrong lab orders, and invalid lab test results, improper dose of the prescribed medicine prescription. The technology student had implemented a database system prototype to incorporate these medical error rules and automatically check potential medical errors for new incoming insurance claims.[4] Harmonized project progress: The next step is the harmonized work on the project. Weekly group meetings will be held, featuring mentor presentation for general background education, student progress report for the specific tasks they were working, and group
expendable electives (electrical circuits theory course and statistics); • incorporation of applied statistics and experiment design into our laboratory courses; Page 9.816.7 ✁ ✂ ✄ ☎ ☎ ✆ ✝✞ ✟ ✠ ✂ ✡ ☛☞ ☎ ✌ ✍ ✍ ✎ ✏ ✑ ✒ ☎ ✁ ✝✄ ✓ ✞ ✔ ✂ ✄ ✝☎ ☛✕ ✡ ✂ ✁ ✖ ✞ ✟ ✝✞ ☎ ☎ ✁ ✝✞ ✟ ✖ ✆ ✗ ✄ ✓ ☛✝✂ ✞ ✑ ✞ ✞ ✗ ✓ ✘ ✙ ✂ ✞ ✡ ☎ ✁ ☎ ✞ ✄ ☎ ✚ ✖ ✛ ✜ ✂ ✠ ✝ ☛✝✂ ✞ ✙ ✂ ✜ ✕ ✁ ✝✟ ☞ ☛ ✢ ✌ ✍ ✍ ✎ ✏ ✑ ✒ ☎ ✁ ✝✄ ✓ ✞ ✔ ✂ ✄ ✝☎ ☛✕ ✡ ✂ ✁ ✖ ✞ ✟ ✝✞ ☎ ☎ ✁ ✝✞ ✟ ✖ ✆ ✗ ✄ ✓ ☛✝✂ ✞ • a
coordination is vital. There are several precedents for this level of coordination. First, there are severalcapstone exercises that draw cadets from both departments. The capstone exercise is a finalculminating project for first-class cadets (seniors) which allows them to work within aninterdisciplinary team to design, build, and test a system. Examples of two such projects, Page 10.18.3 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationMAGIC (Multi-sensory Autonomous Ground vehicle Intercollegiate
clearly a need for students in control systems course in electrical engineering tobe exposed to these new technologies and systems. According to a report from the CoordinatedScience Laboratory at University of Illinois [5], "there is a strong need for curriculum reform inundergraduate systems and control engineering education. Moreover, it is the responsibility of theentire control engineering community to undertake this reform and to develop curricular materialsto support it." The reason for the need is that "most engineering curricular provide opportunity forundergraduates to be exposed to control engineering through only a single course… with a focusprimarily on analysis and design of linear time-invariant systems. This course often does
outcome of the analysis of data is the apparent differentfunctions of auxiliary verbs between the sources in communicating information regarding designof roundabouts. This research explores textual resources from a situated learning lens allowingidentification of concepts that are relevant to engineers as they design a specific transportationfacility. It also initiates the identification of contexts relevant to the day-to-day work ofpracticing engineers. Students are viewed as “newcomers” as they transition from academia toindustry and are poised to learn and be mentored by “old timers” through firsthand andsecondhand experiences. As such, newcomers tend to learn via the perspective of their mentors,and- as cited by studies of newcomers to
Session 2651 Community-Based Approach to Environmental Education Vivian Chang, Eliot S. Metzger, Michael Payne, Sonya M. Havens, Wade R. Peerman, and John M. Lendvay University of San Francisco, San Francisco, CAAbstractThe Bayview-Hunters Point neighborhood in San Francisco, California, is a diverse communitythat experiences an inordinate amount of pollution. Within this five square mile area, heavyindustry, the city’s sewage treatment plant, and the former Hunters Point Naval Shipyard(HPNSY) all act as concentrated and diffuse pollution sources. This research project focuses
Christine Haas brings over ten years of experience working in marketing and communications with a focus on the science and engineering fields. She’s held positions as the director of marketing for Drexel’s College of Engineering and director of operations for Worcester Polytechnic Institute - Engineering. Now, as Principal of Christine Haas Consulting, LLC, Christine travels around the world teaching courses to scientists and engineers on presentations and technical writing. She has taught clients across gov- ernment, industry and higher education, including Texas Instruments, Brookhaven National Laboratory, European Southern Observatory (Chile), Simula Research Laboratory (Norway) and the University of Illinois-Urbana
the Department of Electrical Engineering and Computer Sciencebuilt on their success of using robotics in the classroom to integrate computer science, electricalengineering and information technology students on project teams. Each project used a standardkit of equipment to design, build and test a robot that could complete a specific task. Theseprojects, conducted at three overseas locations in foreign languages with local faculty andstudents, were a tremendous success. In this paper, we describe our methodology for integratingmultidisciplinary and multicultural project members on undergraduate project teams andexporting this type of experience to distant locations while minimizing costs. In addition tomeaningful project work, the students
NC State. His areas of research, in addition to digital circuit design, include systems integration for biological applications, electrical techniques for studying plant behavior and physiology, and the development of smart e-textiles. ©American Society for Engineering Education, 2025 Paper ID #47554Jay F Levine, North Carolina State University at Raleigh Dr. Levine is a professor in the Department of Marine, Earth and Atmospheric Sciences at North Carolina State University. For more than two decades Dr. Levine’s laboratory has focused research efforts on understanding the basic biology of
insider knowledge as a member of a farming community in the Central Valley. As a member of the community, Lorena understands the needs of her community, which is useful in understanding how to develop a better design for people. In fact, Lorena’s grandfather had used the knowledge of his Black Mexican ancestors to create a homemade version of the seed plotter that Lorena helped him build and others in the community replicated their design. There was one experience that had a dramatically different impact on Lorena: The only time others saw me as an engineer and I could be myself was when I worked with an Afro-Boricua community near the school. The community spoke
theprinciples of Valentino Braitenberg (from his famous text Vehicles1) and the BEAM concept ofMark Tilden2.In the end, our students construct a fully functional analog robot, and are able to draw valuablenew insight into the fundamental nature of computation for mobile systems, as opposed to thedevice used for these computations. This new knowledge allows students to design mobile robotcomputational suites that are more appropriate for given sets of objectives, and gives them amore global perspective of robot control systems. The discussion and experiments can be Page 10.199.1integrated easily into course segments involving artificial intelligence
Ability to design and conduct experiments, as well as to analyze and interpret data ENVIRONMENTAL c. Ability to design a system, component, or process to meet desired ENGINEERING needs ASSESSMENT INPUTS d. Ability to function on multi-disciplinary teams e. Ability to identify, formulate, and solve engineering problems f. Understanding of professional and ethical responsibility g. Ability to communicate effectively h. The broad education necessary to understand the impact of
orientation to the university/college/majorsSoph. ME 201 – ThermodynamicsYear Student communication survey, refresher for past grammatical expertise Tools: MS Word, Email, WWWJunior ME 302 – 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 @ 4-6 pp. + App., deduced and analyzed data, plotted results with Individual); Technical Analysis, Economic discussion and conclusions. Analysis, Recommendation for Action
integrative. For example, in one lab period students synthesize severalpolymers. The next lab period, they test various material properties of those polymers, relatingthese observations back to the structures they now know well. The course material is technicaland challenging. Students enjoy the challenge, whereas the course previously taken by second-semester freshmen bored many students because they found it too simple, and repetitive of thefirst-semester freshman design course. The new interdisciplinary course has been successful intwo years of being taught. Students particularly appreciate the lab, saying it makes the lecturemore interesting, relevant, and easier to understand. Faculty see more student engagement withthe material. Initial data
Paper ID #46920Graduate Researchers as Educators: How Presenting to First-Year StudentsSparks Interest in Teaching CareersMiss Elisa Schlesner AlvesNathalie Lavoine, North Carolina State University at Raleigh Since 2018, Nathalie Lavoine has been an Assistant Professor in the Department of Forest Biomaterials at NC State University (Raleigh, North Carolina, US). She received her PhD degree in 2013 from the Laboratory of Pulp & Paper Sciences, and Graphic Arts under the supervision of Dr. Julien Bras and Dr. Isabelle Desloges, in Grenoble, France. She then conducted two postdoctoral research experiences under the
disciplines. However, this coursedoes not target the familiarization of non-engineering undergraduates to engineering concepts.WSU’s Colleges of Business, Health Professions, and Education graduate many future leadersthat could benefit from hands-on experience and knowledge of the engineering process that theywill spend their careers supervising.Our country glamorizes lawyers and doctors on television, yet engineers are viewed somewhatwith wonder and contempt. The closest media icon for engineers is, “Dilbert.” While humorousto most engineers, the icon likely does not improve our image. If undergraduate students wereexposed to basic engineering principles early in their degrees, more would appreciate the effortinvolved in the design and manufacture
the “almost” latest equipment available.VIII. Positive Side EffectsFor schools with cooperative education programs (co-ops), there can be lots of additionalbenefits. Co-op jobs with donating companies, or companies in a related field, is a realizablepossibility. In addition, permanent professional employment with companies such as these is alsoa real possibility for graduates.Once your laboratory has been established and turning out competent students, the possibility forcorporate supported “capstone” projects is also a positive side effect. Companies are alwayslooking for new ideas and ways to develop applications to support their equipment products andprocesses. These ideas can be designed and tested within your laboratory. In fact, if
curricula • To develop team skills through the use of collaborative, learning-based assignments • To introduce students to various problems (areas of interest) within the agricultural engineering and technology field • To experience hands-on laboratories related to the AE and AST options • To increase involvement in professional societies and student branch • To introduce technical writing skills during the first year of study • To make the first-year composition courses more meaningful to the students • To establish career development/job preparation • To receive academic guidance related to curriculum issuesThese general and specific ABE LC objectives were designed to help our department meet thefollowing college and
programs areaccredited by the Computing Science Accreditation Board, Incorporated (CSAB); (3) managementinformation systems and interdisciplinary computing programs are generally offered by businessand liberal arts departments, the resulting degrees can be either a Bachelor of Science (BS) or aBachelor of Arts (BA), often not accredited by either ABET or CSAB; and (4) a few institutionsoffer programs in both computer science and computer engineering, and are jointly accredited byCSAB and ABET.Accreditation ensures that these degree programs satisfy some established criteria. These criteriaare comprehensive and cover: program design, intent, faculty, curriculum, laboratory andcomputing resources, students, and institutional support. Also, the CSAB
to minimize glitches causedby standing waves. Similarly, in order for bypass capacitors to effectively function, their leadlengths must be a minute fraction of a wavelength.In this paper we describe some simple experiments that demonstrate the limitations of basiccircuit theory and thereby enable students to experience a more accurate and higher order modelof a resistor, capacitor and inductor. Our objective is to develop in students more critical thinkingand an instinctive sense of when a component no longer functions as expected. The techniquesdescribed have been used in our EE program’s electromagnetics course at the U.S. Coast GuardAcademy. However we may incorporate these into our circuits and digital design courses. Ourfocus will be
work.Previous Work Practical laboratory experiences including engineering labs and projects represent essentialelements of learning [1], [2]. As part of intensive laboratory experiences, robots have had alongstanding positive impact on education of students at all levels. Small, wheeled, programablemobile robots like LEGO Mindstorm series have been used as motivational tools to attract studentsto STEM fields in general [3], as well as to help students (and teachers) learn how to program [4]- [6]. However, at the practical level of industrial robot programming, the use of industrialmanipulators for teaching programming robotic tasks was often the only option. Expensivehardware, proprietary software, and required safety measures made programming of
by industries but also, at least in theUnited States, by accreditation boards, such as ABET, and agencies, such as NSF. In fact, thestrategic goals set for engineering education institutions by ABET, stated in a recent report enti-tled “ABET Criteria 2000” [2–5], include • the ability of applying knowledge of mathematics, science and engineering; • the ability to apply advanced mathematics in engineering problem solving; • the ability to design and integrate contemporary analytical, computational and experi- mental practices; • the ability to work in teams and to effectively communicateas standard skills to be mastered by students by the completion of their undergraduate degree.The demand for team and computer