, “Bioinstrumentation and Controls” waslisted as a discipline core course of biological and agricultural engineering (BAE),together with “Properties of Biological Materials”, “Transport Phenomena”, and“Capstone Design Experience”. This report “expresses the collective opinion of theCommittee concerning the future direction of the undergraduate engineering programs”(ASAE, 1990). A decade has passed since the publication of this report. When we read ittoday, we are so much impressed by the vision of the people who participated in thewriting of the report.Computer and electronics-based instrumentation and control technologies have beenapplied in all areas within the discipline of BAE, including power and machinery, soiland water, food- and bio-processing
presentations, and the oral exams was conducted using fairly small subsets of the cri-teria contained in each rubric. The outcome levels, in conjunction with other material covered inclass, were used to structure midterm and final oral exams. In these exams, each student met withtwo faculty members who assessed the student development relative to the course content andcomponents of the outcome levels. Each oral exam was preceded by a written student self assess-ment exercise in which they described their progress in areas related to the outcomes associatedwith the course. The final self assessment exercise also included questions to gauge the studentsunderstanding of the outcome structure and to obtain feedback relative to the effectiveness withwhich
the challenges of each assignment to this fictional setting. The company named TDI was founded in the late 1960s by a mechanical engineer who served in the army during the Vietnam War. It grew over the next 50-years to approximately 500 employees and $60M in sales from military shelters, enclosures, high mobility special forces vehicles, and simple electro-mechanical robots, the latter being part of a TDI acquisition. TDI’s CEO recognized that in order for the company to flourish and grow, it would need to expand beyond currently served market segments and product offerings. With its small success in robotics, TDI looks to enter into the expanding demand for robots across applications such as hazardous operating
. These modules communicatethermal-transport concepts to undergraduate engineering students. In the past, use of themodules has been shown to increase student cognitive gains [6] and the implementationsincorporative active learning techniques into the classroom. Two fluid mechanics modules,the hydraulic loss as shown in Fig. 1, and the venturi meter in Fig. 2 have standpipes thatoperate as monometers for direct visual interpretation of the pressure head along the lengthof the pipe. The hydraulic loss module has a consistent diameter pipe to convey concepts ofcontinuity and skin friction head loss, while the venturi meter has a contraction at the throatand gradual expansion to the same diameter as the incoming pipe for demonstrating fluidflow
and mechanisms to design microprocessor components; Apply logic concepts and mechanisms to analyze microprocessor components; Formulate a specific hypothesis of microprocessor architecture. Thoroughly analyze the logic components required for microprocessor architecture. Carefully design and evaluate the functionality of each logic block; Use schematic based tool to design and conduct experiments, as well as to analyze and interpret data; Proceedings of the 2015 American Society for Engineering Education/Pacific Southwest Conference Copyright © 2015, American Society for Engineering Education
reverse engineering project where students select aconsumer electro-mechanical product for redesign. Here the students carry out steps 1-5 of Ottoand Wood’s reverse engineering methodology (Otto and Wood, 1998). Doing so exposes thestudents to the concepts of gathering customer needs, deriving a functional model of the product,disassembling the product, generating a bill of materials, identifying solution principles for theproduct’s functions and benchmarking the product through completion of a Quality FunctionalDeployment (QFD) chart. Many of these concepts are rather abstract and presenting thetechniques just in time for the students to apply them to their product provides an immediateconcrete experience to assist in learning. At the end of the
educationthrough an intensive program the summer before a student’s freshman year of college. Programstraditionally have three components: Academic preparation through coursework and training in study skills Institutional acculturation and cohort development Improvement of student self-esteem and self-efficacy10Aims, structures and goals of bridge programs vary, and time allotted to each componentdepends on the goals of the program. Some programs focus on retention and broad degreecompletion for specific student populations while others focus on retention in a particularprogram or course of study. Some programs try to ‘catch students up’ by reviewing critical pre-requisite technical material, whereas others focus entirely on acculturation and study
visibility has impacted the way in which the CEEDepartment approaches diversity. The poster will also illustrate how the RevED team has madechanges since the first year and what future plans are being made.IntroductionThe College of Engineering at Rowan University was established in 1992 through a multimilliondollar gift by an engineering entrepreneur [1]. The engineering college is divided into thefollowing departments: Civil and Environmental, Electrical and Computer, Chemical,Mechanical, Biomedical Engineering and the Engineering Entrepreneurship Program. Throughthe National Science Foundation’s Revolutionizing Engineering and computer scienceDepartments (RED) grant, the Civil and Environmental Engineering (CEE) Department isattempting to change
instructors with no-programming experience to produce appealing andpedagogically sound interactive online activities. Presented materials have been developed with partial support from theNational Science Foundation (NSF).Keywords: Virtual laboratory, e-learning, performance-based assessment. I. IntroductionToday, with many colleges offering distance education programs in engineering and technology, the demand fortruly interactive simulation-based online labs is on the rise. An interactive lab is capable of partially substituting orextending conventional hands-on laboratories. Virtual labs have great potential for facilitating the active learningmode and transforming “e-learning by reading and watching
workplace.An unfortunate organizational mindset—one that graduate engineering students take to heart—stresses getting just one more data point over crafting the documents that communicate theresearch results. Add to the situation resistance to allocating funding to support communicationpedagogy and you have a system that falls short of adequately preparing these students for therigors of writing at the graduate level as a precursor to professional practice.The cumulative result is a pattern of faculty advisors attending to writing issues (e.g.,mechanical, organization, and expression) at the expense of time assessing the student‘s work fortechnical accuracy and completeness. In fact, it is not uncommon for graduate advisors to ―help‖the student draft
Functionality • An Electronically Controller Container for Secure Package Delivery • Raspberry Pi Controlled Irrigation System • Automated Garage Door Opener • Voice-Enabled IoT Bartender - Drinkautonic • Industrial Wire Cutting Machine**The last project listed (**) received some industry support in terms of provision of materials andsurplus parts, and access to tools for the project. The project was the brainchild of one member ofthe team, who had utilized industrial wire cutting machines in his work and was looking at waysto develop a more up-to-date and cost-effective wire cutting machine. Some of these projectsrequired significant software programming effort by team members, whereas others were morehardware oriented. The scope
. Schematic sketch of the modeled shaft and loadings in the x-y plane. Similarloadings are allowed in the y-z plane.Torque and Force calculator pageMost shaft design problems do not start with known normal and shear forces. They mustbe computed from various power requirements. With a known power, specified angularvelocity and pitch diameter, the model contains modules for computing forces andtorques associated with spur, helical, bevel and worm gears. The model can also calculateforces and torques with standard chain, v-belt and flat belt drives. Students can easilybuild this page as the material is covered. These parameters may be manually ported tothe main input page.X-Y, X-Z and resultant forces computations pagesThese pages contain the heart of
Paper ID #39391WIP: Skip the Lecture: A Decoding First Approach to IntroductoryComputing EducationDavid Zabner, Tufts UniversityTrevion S Henderson, Tufts University Trevion Henderson is Assistant Professor of Mechanical Engineering at Tufts University. He earned his Ph.D. in Higher Education at the University of Michigan. ©American Society for Engineering Education, 2023 (WIP) Skip the Lecture: A Decoding First Approach to Introductory Computing Education David Zabner Trevion Henderson david.zabner@tufts.edu
understanding of thefactors influencing the strength of soils and the importance of the techniques that are used in performing suchexperiments and data collection. Relevance of the TTT Project to Clarkson CEE Program Civil Engineering Laboratory (CE403) and Geotechnical Engineering 11: Foundations (CE415) are thecourses of interest in this project. CE403 is a required course for a B.S. Degree in Civil and EnvironmentalEngineering at Clarkson University and is usually taken in the senior year. It is the goal of CE403 to apply thestudents’ education from previous classes in Geotechnical Engineering (Soil Mechanics I and II), Structures andMechanics (Statics, Strength of Materials, Structural Analysis, Steel Design, and
itsweight, the center of gravity location, and the longitudinal and lateral (roll and pitch) moments ofinertia, as well as the relationship of these moments to the mass around the lateral axis. 1In contrast, the unsprung mass consists of components not supported by the suspension springs,such as the rims, tires, and control arms. A lighter unsprung mass responds more quickly to terrainchanges, resulting in improved traction and steering due to better contact with the terrain. 1 Figure 1: Quarter of Vehicle Sprung and Unsprung Representation“A vehicle suspension system is made of four main components: mechanism, spring, shockabsorber, and bushings”.2 Mechanisms of a suspension are all the components that physicallyconnect a wheel
AC 2010-555: AN APPROPRIATE TECHNOLOGY PROJECT: A SOLARPOWERED VACCINE REFRIGERATORCraig Somerton, Michigan State University Craig W. Somerton is an Associate Professor of Mechanical Engineering at Michigan State University. He teaches in the area of thermal engineering including thermodynamics, heat transfer, and thermal design. Dr. Somerton has research interests in computer design of thermal systems, transport phenomena in porous media, and application of continuous quality improvement principles to engineering education. He received his B.S. in 1976, his M.S. in 1979, and his Ph.D. in 1982, all in engineering from UCLA
David Reeping is an undergraduate research assistant with a major in Engineering Education and a minor in Mathematics. He is a Choose Ohio First scholar inducted during the 2012-2013 school year and the recipient of the Remsburg Creativity Award for 2013 and The DeBow Freed Award for outstanding leader- ship as an undergraduate student (sophomore) in 2014. David is a member of the mathematics, education, and engineering honor societies: Kappa Mu Epsilon, Kappa Delta Pi, and Tau Beta Pi respectively. He has extensive experience in curriculum development in K-12 and develops material for the Technology Stu- dent Association’s annual TEAMS competition. His research interests involve the analysis and refinement of the
Paper ID #43392Board 425: Work in Progress: Initiating a Research Experience for TeachersCentered on ManufacturingProf. Marian Kennedy, Clemson University Marian Kennedy is an Associate Professor within the Department of Materials Science & Engineering at Clemson University. Her research group focused on the mechanical and tribological characterization of thin films. She also contributes to engineering education with a focus on developing early career researchers and faculty.Dr. Kristin Kelly Frady, Clemson University Kristin Frady is an Assistant Professor and Founding Program Director of the Human Capital Education
are not done in the presenceof the instructor. The most difficult issues are kept hidden because team members believe thatthey have the power to resolve them without outside intervention.Problems are not always identified early in the teaming cycle2, which goes through forming,storming, norming and performing stages. Most teams reach the storming stage within threeweeks. If the project is longer than this period of time then the instructor should infuse strategiesfor team development throughout the curricular materials. This will provide the framework formost teams to work out team differences and begin to build a structure that will move their teaminto becoming a super-performing team where the sum of the efforts is much better than what
AC 2012-3830: TEACHING CREATIVITY AND INNOVATION IN THECLASSROOMDr. Kenneth W. Van Treuren, Baylor University Ken Van Treuren is a professor in the Department of Mechanical Engineering at Baylor University, cur- rently serving as the Associate Dean for Research and Faculty Development for the School of Engineer- ing and Computer Science. He received his B.S. in aeronautical engineering from the USAF Academy in Colorado Springs, Colo., and his M.S. in engineering from Princeton University in Princeton, N.J. After serving as USAF pilot in KC-135 and KC-10 aircraft, he completed his D.Phil. in engineering sci- ences at the University of Oxford, U.K., and returned to the USAF Academy to teach heat transfer and
well in the present system. Thus, thecritical elements in today’s design education are familiarity with modern CAE tools and theirthoughtful application to the conceptual design process. The lack of these factors has been foundto impede the efficient development and evaluation of various alternative aircraft/space vehiclesystems in both academia and industry, resulting in a less informed final design decision.In the School of Aerospace and Mechanical Engineering at the University of Oklahoma, thisproblem is being addressed on various levels: by moving the CAD course to the junior year,students will have better retention of the material; the junior-level aerospace structures course isbeing redesigned to include a major finite element component
our telescope by compensatingfor the effects of atmospheric turbulence. This effect is simulated in Section 4.0 of this paper. As can be seen by the preceding discussion, a multi-disciplinary team is required tosuccessfully develop an ATC & AOS. Expertise is required in diverse areas such as opticalsystems design, image and signal processing, atmospheric physics, electrical and computerengineering, electromagnetism, space sciences, mathematics, control systems, electro-opticaldevices, systems engineering, mechanical engineering, and material science to name a few. Assuch, this project serves as an excellent illustrative example of a technically complex, multi-disciplinary, integration oriented project that spans many academic terms. The
]. whose responsibility was to mentor and develop the junior • An ability to apply knowledge, techniques, skills and engineer’s talent through on-the-job training. The first few modern tools of mathematics, science, engineering, decades of the 1900’s saw engineering students begin working and technology to solve well-defined engineering directly with mechanical machinery, test equipment and problems appropriate to discipline. undertaking design drafting roles. Dedicated lab space with specialized equipment was slowly being introduced in • An ability to design solutions for well-defined
Paper ID #17001BYOE: A Desktop Apparatus for Demonstrating Convective Heat TransferDr. Gerald W. Recktenwald, Portland State University Gerald Recktenwald is an Associate Professor in the Mechanical and Materials Engineering Department at Portland State University. His current research interests are in improving engineering education, and in the numerical simulation and measurement of fluid flow heat transfer in electronic equipment, energy efficient buildings, and other industrial applications. c American Society for Engineering Education, 2016 BYOE: A Desktop Apparatus for
Michigan Tech, has one of the nation’shighest rates of unemployment. Yet, Michigan has an unmet need for workers in robotics jobs26, Proceedings of the 2018 Conference for Industry and Education Collaboration Copyright ©2018, American Society for Engineering Education Session ETD 40648 . Filling these jobs, however, requires workers trained and certified in the following skill sets:designing, testing, maintaining, and inspecting robotic components; troubleshooting robotmalfunctions; using microcomputers, oscilloscopes, hydraulic test equipment, microprocessors,electronics, and mechanics; and reading blueprints, electrical
Copyright 2001, American Society for Engineering Education • an understanding of the technical challenges and decisions for the project (Design Reviews) • an appreciation for the realities of acquiring necessary components and materials (Purchasing assignment) • and a well organized plan for the total project execution (written Project Proposal)The Design Reviews are the most important activity above and present the students withthe most uncertainty. The Design Review guidelines (which are also available athttp://engineering.lssu.edu/senior) stress that the major purpose for design reviews is to: • Communicate Proposed Designs/Plans • Solicit input on Design/Plans • Finalize Design IssuesThe Design Review
course University Success 100. He is Co-Principle Investigator for an ongoing CCLI-Phase I Project funded by NSF and has participated in new course module development for CCLI-Phase I project.HuiRu Shih, Jackson State University Dr. HuiRu (H.R.) Shih is a Professor of Technology at Jackson State University (JSU). He received his Ph.D. degree in Mechanical Engineering from the University of Missouri. Dr. Shih is a registered professional engineer and a member of the American Society of Mechanical Engineers (ASME). He serves as Co-Principle Investigator for an ongoing CCLI-Phase I Project funded by NSF and has participated in new course module development for the CCLI-Phase I project and
Education,TechBoston has provided high-tech skills training to over 5,000 students and 150 teachers. ThePrivate Industry Council works closely with TechBoston to place high school students inindustry internships with area companies.The Argosy Foundation has generously agreed to fund the purchase of the LEGO robot kitsneeded for this project. Established in 1995 by Boston Scientific co-founder John Abele, theArgosy Foundation supports the diverse charitable interests of its trustees, with a focus onscience literacy for children, education, and technology.FocusAn innovative, hands-on robotics curriculum forms the foundation for all workshop andclassroom materials. The curriculum has been carefully aligned with state and national
videos.Figure 7: Example video explaining how to use the oscilloscope to measure the frequency responseof the system.most effective to present this material. Students can quickly select the video by topic and then canquickly jump to the desired section of the video. If the videos are too long, students will oftenforego viewing the video in favor of asking their classmate or TA/faculty, or they may get lostwhile viewing the video. The goal is to make the videos the “go-to” instructions so that labs arecompleted consistently, year to year, and to help the students learn to be independent learners andproblem-solvers.5 ConclusionsMaintaining a PBL curriculum of this size and complexity remains an ongoing yet reasonabletask, even in its fourth year
Engineering Students (ENGR 180) is a one-credit hour coursethat meets two hours a week and features both campus and outside speakers. The goal of thiscourse is to aid minority students in making the adjustment to the college environment whileexploring career opportunities.Engineering Problem Solving (ENGR195T) is a one credit hour honors course that focuses onthe fundamentals of problem solving. During the weekly one-hour lecture and one-hourlaboratory, students receive a broad-based education in topics of concern to engineers (e.g.statistics, engineering economics, material balances, statics, and energy).Engineering Career Planning (ENGR 185) is a one credit hour course of eight weeks durationthat includes a two-hour laboratory and an hour arranged