professional- quality design.4. It must include industrial linkages so that students will be exposed to the industrial world early in the curriculum.5. It must integrate principles of cooperative learning.6. It must include material of an interdisciplinary nature.7. It must be pedagogically sound. 1 This project is partially funded by FIPSE grant #Pl16A-50067 Page 1.24.1 ?$ihj 1996 ASEE Annual Conference Proceedings ‘..+,El#l,: ‘ 1
projects. Additionalworkstations have not been purchased for students in the control theory courses because of costand space constraints. However, incorporating a laboratory feel into these courses would enhancelearning and retention. The design and use of a low-cost virtual control workstation in the firstundergraduate control theory course will be discussed. The virtual workstation was modeledfrom the physical electrical and mechanical parameters of a Quanser Consulting electro-mechanical system.I. Introduction Two control workstations from Quanser Consulting have been used in over adozen student projects in the Electrical and Computer Engineering (ECE) Department at BradleyUniversity as well as for faculty research 1. The Quanser Consulting
writing, conversation, and critical thinking.Faculty members in both the humanities and sciences have embraced this program. It posedsome unique challenges to integrate the idea of an elective engineering course into thisframework, which emphasizes reading, writing and conversation. The initial results suggest thatthis kind of course can provide much needed exposure to engineering design concepts to thegeneral undergraduate population. It also provided some ideas for improving the introductorypedagogy for engineering majors. The following is a detailed course description that was createdas part of the proposal for this new course to the Alpha program committee of the Office of FirstYear Programs. Some excerpted material from the student syllabus
/distance_learning.htm.[9] Hesselink, L., Rizal, D. and Bjornson, E. (2000). “CyberLab, A New Paradigm in Distance Learning”. Stanford University. Web site: cyberlab.stanford.edu[10] Yapura, C., Griffin, R. and Lagoudas, D. (2000),“Mechanics of Materials Experiments Via the Internet”.Texas A&M University.[11] Bagnasco, A, Chirico, M., Michelis, W, Rossi, A and Scapolla. (2000). “Electronic Instrumentation Laboratories on the Net”. Dept. of Biophys. & Electronic Eng., Univ. of Genoa,.[12] Hellman, J. A. (2003). Distance Education Its Advantages and Shortcomings. UN Chronicle Online Edition-World Summit on the Information Technology[13] The Princeton Review (2004) http://www.princetonreview.com/[14] Gagné, Ellen
/distance_learning.htm.[9] Hesselink, L., Rizal, D. and Bjornson, E. (2000). “CyberLab, A New Paradigm in Distance Learning”. Stanford University. Web site: cyberlab.stanford.edu[10] Yapura, C., Griffin, R. and Lagoudas, D. (2000),“Mechanics of Materials Experiments Via the Internet”.Texas A&M University.[11] Bagnasco, A, Chirico, M., Michelis, W, Rossi, A and Scapolla. (2000). “Electronic Instrumentation Laboratories on the Net”. Dept. of Biophys. & Electronic Eng., Univ. of Genoa,.[12] Hellman, J. A. (2003). Distance Education Its Advantages and Shortcomings. UN Chronicle Online Edition-World Summit on the Information Technology[13] The Princeton Review (2004) http://www.princetonreview.com/[14] Gagné, Ellen
retain the traditional material covered - engineering orientation,engineering graphics, and engineering problem solving with computer programming1 whileoffering several design-build project topics. The current design-build projects include thefundamentals of potential and kinetic energy through model roller coasters, lab-on-a-chip with ananotechnology component2, and fully functional small autonomous ground-based robots.3-5These course sequences are one of the most innovative and successful of its kind, and hasreceived national recognition.6 Each year, approximately 1600 students complete this program.A new sequence, Fundamentals of Engineering for Scholars, was developed in autumn of 2008,with the students in a living/learning community and
/distance_learning.htm.[9] Hesselink, L., Rizal, D. and Bjornson, E. (2000). “CyberLab, A New Paradigm in Distance Learning”. Stanford University. Web site: cyberlab.stanford.edu[10] Yapura, C., Griffin, R. and Lagoudas, D. (2000),“Mechanics of Materials Experiments Via the Internet”.Texas A&M University.[11] Bagnasco, A, Chirico, M., Michelis, W, Rossi, A and Scapolla. (2000). “Electronic Instrumentation Laboratories on the Net”. Dept. of Biophys. & Electronic Eng., Univ. of Genoa,.[12] Hellman, J. A. (2003). Distance Education Its Advantages and Shortcomings. UN Chronicle Online Edition-World Summit on the Information Technology[13] The Princeton Review (2004) http://www.princetonreview.com/[14] Gagné, Ellen
undergraduates) to truly take chargeand execute ill-defined, real-world capstone projects is a significant challenge. The authors havesupervised a wide variety of undergraduate student capstone projects, and this paper first detailssome basic observations about what makes an effective project and then describes the WindPower for Developing Nations project, which is now in its second year at West Point in the De-partment of Civil and Mechanical Engineering.Elements of a Workable Project: The Three PrinciplesMany professors, the authors included, have encountered significant success and failures in theexecution of undergraduate student projects. This variety in performance is probably unavoida-ble, since truly open-ended problems do not have a fixed
concepts in engineering science and helping engineering faculty conduct rigorous research in engineering education.Dr. Robin Adams, Purdue University, West Lafayette Robin S. Adams is an Associate Professor in the School of Engineering Education at Purdue University and holds a PhD in Education, an MS in Materials Science and Engineering, and a BS in Mechanical Engineering. She researches cross-disciplinarity ways of thinking, acting and being; design learning; and engineering education transformation. c American Society for Engineering Education, 2016 Voicing the indescribable: Using photo elicitation as a method to uncover belonging and
Community College (MCC) didnot have direct access to the tools and equipment necessary to work on their assignedcoursework for their engineering classes. While the engineering program provided a room forthem to work in (henceforth called the “Engineering Commons”), this space was only equippedwith a few hand tools, crafting supplies like hot glue guns, leftover raw materials, a few tablesfor work, and some shelves for storage. As a result, students had to determine on their own how,where, and with what to build their required projects.However, two new spaces on campus were introduced in the Fall of 2024, providing engineeringstudents with options they did not previously have. First, MCC established a hobbyist-levelmakerspace equipped with 3D
industrial & systems engineering from Virginia Tech; and his B.S. in industrial engineering from Clemson University.Ms. Malini Josiam, Virginia Tech Malini Josiam is a Ph.D. student in Engineering Education and a M.S. student in Civil Engineering at Virginia Tech. She has a B.S. in Mechanical Engineering from UT Austin (2021). Her research interests include improving equity in engineering and sustainability.Taylor Y. Johnson, Virginia Tech Taylor Y. Johnson is a graduate student at Virginia Polytechnic Institute and State University pursuing a Ph.D. in Engineering Education, where she serves as a graduate research assistant. Taylor earned her Bachelor’s from The University of Texas at Austin in Biomedical Engineering
Page |1 Using AutoCad Graphics Software for Solving Problems in Statics for Engineering Technology Jamieson Simms [Sophomore Student, Mechanical Engineering Technology] Parthy Iyengar [Professor of Engineering Technology] County College of Morris Center Grove Road, Randolph, NJ 07869 Presenting a study that will create a way for students to enhance their understanding of problemsin statics. The objective of this study is to help students solve problems in statics graphically andanalytically simultaneously. This can be done
. 𝑷𝑳 𝒅 = 𝟏𝟎 𝐥𝐨𝐠(𝑷𝑳 𝒅 𝟎 ) + 𝟐𝟎 𝐥𝐨𝐠(𝒅 𝒅 𝟎 ) (1)1where d0 is a reference distance that satisfies far-field condition.The next step is now to add more realistic view of the signal propagation by adding the path-lossexponent and some probability components to Eq. 1. The students generally have a difficult timeunderstanding statistical behavior of propagating signals. Randomness generated three basicpropagation mechanisms can be used for an explanation as the objects in the signal path candynamically change and produce different paths at a given time. Thus, the signal strength at agiven distance from the transmitter can only be described by its statistical parameters. The firstof the statistical model introduced is log
consist of a combination of sensor, actuator, analog-to-digital converter, digital-to-analog converter, and some small system to control. The proposaland review process goes through a couple of iterations until a project is agreed upon. It is thenthe responsibility of the student to acquire needed materials, construct the prototype, and presentthe results in class presentations. The students have about four weeks to complete the design.For most students, this project ends the semester.Throughout the years, the Intel microcontroller used in this course has changed based onavailability and programming platforms. The variations used have been the Philips 87C750 withCEIBO DS-750 emulator, the P87LPC760 with the EB-76x emulator, the Silicon
College of Engineering consists of approximately 700students, currently divided among six major fields (Biomedical, Chemical, Civil andEnvironmental, Computer Science, Electrical, and Mechanical Engineering). ENGR 100:Exploring Engineering is an introductory course taken by all 170 incoming first-yearengineering students and by 30 additional Arts and Sciences students in their firstsemester. The objectives of the course include: giving the students an overview of basicengineering practice, including ethical obligations; introducing the knowledge base, skillsand problem types for all six majors; developing strategies for addressing open-ended
limited to, the following: enhanced foundational knowledge of disciplines, understanding ofhow and when to apply skills, connection of ideas and approaches, integrated knowledge, andlearning how to learn, which together lead to metacognition and enhanced critical thinking [9].MITT, which specifically incorporates team-based activities, also provides students with theopportunity to work in multidisciplinary teams, a practice that is essential in many disciplines,including engineering [9], [10], [11].Team teaching is one mechanism to provide students with multidisciplinary perspectives in aneffort to promote interdisciplinary thinking [6]. Methods range from “tag-team” approaches,where faculty are responsible for specific class periods or modules
wealth of practical experience to students. Other advantages include1:• Helping students to observe the nature, demands and ramifications of real-world problems;• Assisting students in the development of teamwork and leadership skills;• Increasing student understanding of engineering design processes;• Enhancing students' ability to practically apply course material;• Assisting schools in achieving their educational goalsCombining students from both programs in an applied development project mirrors real-lifeinstrumentation development projects in the Biosciences/Life Sciences Industry, providingstudents with an interdisciplinary product-development team experience. We will report on theexperience and give recommendations for further
Dr. John Flach is a Professor and Chair of Psychology at Wright State University. He joined WSU in 1990. Previously he was at University of Illinois from where he held joint appointments in Mechanical & Industrial Engineering and Psychology. His research interests include experimental cognitive psychology and human factors, coordination and control in cognitive systems, visual control of locomotion, interface design, decision-making, and motor control.Jeffrey Vernooy, Wright State University Jeffrey A. Vernooy is the Director of the Office of Disability Services at Wright State University. He joined the staff of Disability Services in 1977. Mr. Vernooy completed his Master of Science
to these factors except for CN which isdetermined by the course itself. TS is 3 for a lecture section and 2 for a lab section. The 0.5constant and 0.5 multiplier attempt to account for a division between that which is enrollmentdependent and that which is enrollment independent. NS for the department for which this workwas done ranges from 25 for lecture sections to 12 for laboratory sections. The faculty experiencefactor, FE, ranges from +0.6 for the first time an instructor teaches a course to -0.2 for the secondsection of a course taught in the same semester. The uniqueness factor ranges from 0.0 for acourse taught from a standard text up to +0.4 for a course where the instructor has to prepare atleast 50% of the material. TM ranges from
- ies have been; • Multi-Phase Flow through Porous Media • Wave propagation in Filamentary Composite Materials • Vertical and Horizontal Land Deformation in a De-saturating Porous Medium • Stress Concen- tration in Filamentary Composites with Broken Fibers • Aviation; Developments of New Crashworthiness Evaluation Strategy for Advanced General Aviation • Pattern Recognition of Biological Photomicrographs Using Coherent Optical Techniques Nick also received his four masters; in Aerospace Engineering, Civil Engineering, Operation Research, and Mechanical Engineering all from Princeton University during the ©American Society for Engineering Education, 2023
support of Prof. DavidBrandes and Prof. Sharon Jones of the Department of Civil and Environmental Engineering. It isorganized on campus as a student club, and is not directly supported by any of the engineeringdepartments within Lafayette’s Division of Engineering. Currently, there are approximately 40to 50 student members of EWB–LC of all academic years, led by a leadership board (president,vice president, etc.) of 9 students. While a majority of the students are majoring in one of theengineering disciplines offered at Lafayette College (which include chemical engineering, civil& environmental engineering, electrical & computer engineering, mechanical engineering, andengineering studies), students of other majors (such as government &
support of Prof. DavidBrandes and Prof. Sharon Jones of the Department of Civil and Environmental Engineering. It isorganized on campus as a student club, and is not directly supported by any of the engineeringdepartments within Lafayette’s Division of Engineering. Currently, there are approximately 40to 50 student members of EWB–LC of all academic years, led by a leadership board (president,vice president, etc.) of 9 students. While a majority of the students are majoring in one of theengineering disciplines offered at Lafayette College (which include chemical engineering, civil& environmental engineering, electrical & computer engineering, mechanical engineering, andengineering studies), students of other majors (such as government &
AC 2007-1863: HOSTING/PARTICIPATING IN GLOBAL COLLABORATIVEPACE PROJECTSNicole Giullian, Brigham Young University Nicole Giullian is an undergraduate student in Mechanical Engineering at Brigham Young University in Provo, Utah. She will graduate with her Bachelor of Science Degree in Mechanical Engineering in April 2007. While at BYU, Nicole has worked as a research assistant in the ParaCAD lab and as a teaching assistant. She also completed two internships in Hartford, Connecticut with the Structural Methods group of Pratt and Whitney.C. Greg Jensen, Brigham Young University Dr. C. Greg Jensen is an Associate Professor of Mechanical Engineering at Brigham Young University. He has
week for students to learn about topicsincluding career choices, balancing work and family issues, graduate school applications,funding for graduate school, ethics in bioengineering research, use of statistics, writing, and oralpresentations. During a two-week period within the REU program, the undergraduate studentsbecame mentors to middle-school girls for the Bio-Discovery Program. Some training wasprovided on how students learn and how to present material to this age group. This training wasprovided by numerous individuals, including Prof. DiBiasio, who is an expert in experience-based learning and in engineering pedagogy, and staff members from the Office of Counselingand Development and the Office of Women’s Programs at WPI. The main
energy and smart grid.” We discuss the recruitment mechanisms in place (advertisingstrategies, community college visits, and class visits), activities (practicum, research projects, andfield trips), application procedure, and the impact of these scholarships in enabling studentscontinue their studies with a higher quality. Our evaluation results via midterm and exit surveyshave indicated the significant positive impact these NSF scholarships have had on the students’grades, life balance, and even the ability to stay in school.Scholarship ProgramFig. 1 shows an overview of our recruiting strategy. Students pursuing the Bachelor’s degree withan emphasis in electric energy and the smart grid are recruited from one of the two groups. The
modern society and to stimulatestudent interest in academic studies and/or professional involvement in nuclear science.Rather than learning about nuclear science, the course requires students, working incollaborative groups, to solve one of three authentic nuclear problems in five differentdomains, including elemental and content analysis, materials modification, radiation gauging,solid/liquid Interface, and heart imaging. Why Problem-Based Learning?Problem-based learning (PBL) emerged in medical schools as a method for better preparingphysicians to be problem solvers. From there, PBL has migrated to law schools, businessschools, and engineering colleges. In fact, several engineering programs around the world(e.g
that the chair incorporates wore down quickly to the plastic beneath the durable fabric, and required renewal within one year.• Design, construction and implementation of a prosthetic hand laboratory evaluation test.• Power amplification systems for prostheses.• Mechanical test fixtures to evaluate glove and foam materials.• A counter for prosthetic prehensor use outcome measurement.• Carbon fiber brace measurements and material property evaluations.• A portable low-vision system for visually impaired students.• Prosthetic socket pressure transducer validation studies.Students also participate in special machining projects designed to hone their skills, and bebetter prepared to help the next HERE freshmen class with their projects. Students
Paper ID #41555Board 220: CAREER: ’Support our Troops’: Re-storying Student Veteranand Service Member Deficit in Engineering Through Professional Formationand Community Advocacy: YEAR 3Dr. Angela Minichiello, Utah State University Angela Minichiello is a US Army veteran, registered professional mechanical engineer, and an Associate Professor in the Department of Engineering Education at Utah State University. She is a 2021 NSF CAREER awardee and currently serves as Co-Director of Engineering Workforce Development for the NSF-sponsored ASPIRE Engineering Research Center. Her research examines issues of access, equity, and
participates and teaches in the first-year program.Andrew Kline, Western Michigan University Andrew Kline received his PhD from Michigan Technological University and is assistant professor of chemical engineering at Western Michigan University. He is Director of the Engineering Design Center for Service Learning, and coordinates and teaches the college-wide service learning engineering design course sequence.Edmund Tsang, Western Michigan University Edmund Tsang received his BS (distinction) in Mechanical Engineering and his PhD in Metallurgy. He is the Associate Dean for Undergraduate Programs and Assessment, and Co-Director of the Engineering Design Center for Service-Learning at Western Michigan
Center for Engineering and Technology Education (NCETE) providedprofessional development with the following goals: a) increase teachers’ subject matterknowledge in engineering design and strengthen their mastery of pedagogical content knowledgerelated to the infusion of design experiences into their courses; b) apply principles and practicesof engineering design as teachers work individually and in small groups to develop solutions totechnical problems; and c) identify and select design challenges and instructional materials thatwill motivate and enable teachers’ students to move efficiently through learning progressions inengineering design 4