. Roberts, West Virginia University Dr. Jeremy G. Roberts is a Teaching Assistant Professor of Global Supply Chain Management at the John Chambers College of Business and Economics at West Virginia University. He received his Doctorate from the University of Phoenix in 2015. In addition, he also possesses the PMI Project Management Professional and Lean Six Sigma Black Belt certifications. His teaching interests include supply chain management, project management, and continuous improvement practices. American c Society for Engineering Education, 2020 Work-in-Progress: Integrate a conflict resolution session into the freshman engineering problem
to 60% lecture, 20% weekly activity (which includesweekly quiz and discussion activity), and 20% team project. Figure 1 is a roadmap for the onlinecourse structure. Figure 1: Roadmap for the online courseOne important principle the instructor applies is to use more low bandwidth and lowasynchronous teaching techniques. Figure 2 shows the four teaching techniques categories basedon the bandwidth and immediacy. Teaching techniques with high bandwidth and highsynchronous, such as live-stream lectures would have high requirements for electronicequipment and the internet stability and speed. An online course that relies heavily on thoseteaching techniques would place extra stress to students who have limited access to
Teaching Assistant for the first year engineering design course with an enrollment of 1400 students across all engineering majors.Dr. Cedrick Kwuimy, University of Cincinnati Dr. Kwuimy is currently Assistant Professor - Educator in the Department of Engineering Education - CEAS at the University of Cincinnati. His has a background in the area of applied nonlinear dynamics and applied physics. Prior to joining the University of Cincinnati, Dr. Kwuimy was Research Fellow at the African Institute for Mathematical Sciences (AIMS) in South Africa and then worked for over 4 years on ONR funded research projects focus on the development nonlinear dynamics approaches for the detection of faults in bearing and gear systems at
disciplines to develop a curriculum forService Systems Engineering that integrates business, engineering, and the sciences and serves asa model for other universities. This is an exciting degree program that takes curriculumdevelopment beyond its current boundaries and branches into a new direction. In this paper,efforts related to the development of the curriculum will be described, as will the challengesfaced by the project team to facilitate interdisciplinary education. The successes to date will behighlighted along with the lessons learned, and collaboration experiences with other universityfaculty members on curriculum development.IntroductionIn the next decade, the role of services will continue to grow and skilled individuals are neededto
at least one new course (i.e. “Introduction to Infrastructure I”), which willspecifically address infrastructure needs and the non-technical issues (such as financing, po-litical process, etc.) that are often crucial to successful engineering projects. However, unlikemany implementations of curriculum reform4, our proposed changes will go well beyond thecreation of a class or classes. Infrastructure concepts will be interwoven throughout the re-mainder of the curriculum to provide students with a better understanding of the challenges tobe faced in improving, securing, and maintaining the national infrastructure.In addition to learning about infrastructure in classes, students will evaluate infrastructurecomponents in local communities using
supply.Thereafter, the students work on two multi-week projects: a 4-week project in which they design a dual-supply electrocardiogram (ECG) amplifier with microcontroller measurement of the cardiac activity anda second 4-week project in which they develop a single-supply electromyogram amplifier systemcoupled with actuation of light and sound indicators controlled by the intensity of the muscle activity. Lab 1: Virtualbench instrumentation – electronic measurements – basic op-amp circuits Lab 2: diode characteristics (students develop procedures) Lab 3: Multisim circuit simulator – comparison between virtual and real circuits Lab 4: Linear regulated power supply (students develop and validate design) Project 1: Dual-supply ECG amplifier with
systems for the company’s Combustion Monitoring and Control Group. Dr. Scire joined NYIT in 2013. His research interests include optical sensors, combustion, numerical simulation, and optimization. c American Society for Engineering Education, 2017 Dynamic Balancing System with 3D-Printed Components James J. Scire, Jr. New York Institute of TechnologyAbstractThis paper describes a project in which students designed, built, and used a small dynamicbalancing machine with 3D-printed components. This project was found to be very effective inkeeping its student designers engaged and invested. They immediately understood the need
project that has been integrated into presents lectures, concerts, exhibits, readings, dramaticthe course, and institutional retention data. performances, etc. that promote greater appreciation of the fine arts and better understanding of diverse ideas and world STUDENT LEARNING AND SUCCESS cultures. Faculty in the course session remind students ofSeveral of the student learning objectives and program goals upcoming events sponsored by the Athletic Programs.for the Connections courses deal with first-year retention and College of Engineering students are required to attend anoverall academic success
of researchers to create a program to improve learning STEM in elementary grades, and the team was awarded an NSF Math and Science partnership called Science Learning Through Engineering Design (SLED). Kelley is cur- rently the PI on an NSF I-Test project called Teachers and Researchers Advancing Integrated Lessons in STEM (TRAILS). TRAILS prepares science and technology education teachers to integrate STEM content through biomimicry inspired engineering design within the context of entomology. Dr. Kelley the program coordinator for the engineering/technology teacher education program at Purdue. Dr. Kelley is also leading the second year Design Thinking course for the Purdue Polytechnic Insti- tute. The course
for women in STEM fields. Under Susan’s leadership, both Stevens and WEPAN were recog- nized by the White House with the prestigious President’s Award for Excellence in Science, Mathematics and Engineering Mentoring. She has substantially contributed to the national STEM diversity policy agenda through participation on boards including the National Academy of Engineering Diversity Task Force, National Science Foundation Engineering Directorate and consultant to the National Academy of Engineering’s Center for Advancement of Scholarship in Engineering Education. As PI or Co-PI on multi-institutional collaborative projects, Susan has secured nearly $10 million in grant funds and published or contributed to dozens of
- tainability and life-cycle thinking in design, manufacturing, use, and recovery. Specific research thrusts include: transforming manufacturing quality monitoring and remanufacturing core condition assessment via automated laser line scanning systems; remanufacturing core management considering uncertain core quality, quantity, and timing; and integrating design for disassembly and remanufacturing into CAD/CAM tools. He has collaborated in the past with industrial partners on projects involving residual stresses in lightweight aluminum alloy side rails, manufacturing process simulation, and enhancing end-of-life truck acquisition decisions. Dr. Rickli is also actively involved in outreach activities with Athletes for Charity
engineering from McGill University, Montreal, MS degree in electrical and computer engineering from Carnegie-Mellon University and his Ph.D. from Drexel University Pennsylvania. He is currently a professor of Electrical and Computer Engineering at San Francisco State University and the Engineering graduate program coordinator. His areas of interest are communication networks, sensor networks, and IoT. Dr. Shahnasser has been a research faculty consultant to NASA Ames Research Center projects since 1990 and has collaborated on several research grants with that organization since then. He has received grants from NASA, NSA, Department of Education, National Science Foundation and various private companies carrying out
undergraduate and graduate levels. His tremendous re- search experience in manufacturing includes environmentally conscious manufacturing, Internet based robotics, and Web based quality. In the past years, he has been involved in sustainable manufacturing for maximizing energy and material recovery while minimizing environmental impact.Sowrirajan Sowmithran, Drexel University (Eng. & Eng. Tech.) c American Society for Engineering Education, 2019 Vision-based Object Tracking Experiment for Students to Perform Simple Industrial Robotic AutomationAbstractThe paper describes the details of a student vision project at Drexel University for a robot to pickup parts from the conveyor
and ideal outcomes are not routinely communicated to the wholeteam.This work-in-progress paper examines an industry multi-disciplinary engineering design team.Specifically, this study investigates the communication channels between industrial designinterns and an engineering team at an aerospace company in California. Members of this teamwere interviewed to record their experiences during this three-month project. At this initialresearch stage, methods of communication used, how effectively they communicated with eachother, and what was learned about different design methodologies was captured.The purpose of this study was twofold as we sought to satisfy questions from the industrial andthe academic perspectives. From the industrial viewpoint
graduate with little development of leadership skillsand engineering educators do not currently have sufficient understanding of how engineeringstudents develop into leaders.This NSF ECE supported project seeks to close that gap by improving our understanding of therole leadership plays in the process of becoming an engineer. Specifically, this work investigatesthe role of leadership as a component of the development of an engineering identity inundergraduate students. By building on the idea that seeing oneself as an engineering leaderrequires the development of an engineering identity in combination with the development of aleadership identity, this work investigates the process of becoming an engineering leader andleverages the central role
,through the interactions of students, faculty, and industry, through participation in engineering-related activities, and through reinforcement of shared similarities. The goal of this project is todevelop a mechanical engineering program where students and faculty are immersed in a cultureof doing engineering with practicing engineers that in turn fosters an identity of being anengineer. This culture of “Engineering with Engineers” is created through changes in four areas:shared vision, reflective faculty, relevant curriculum and pedagogy, and supportive policies. Ineach, a variety of actions create the cultural change, address barriers to change, and ensuresustainability. A common theme unifying these changes is a significant connection to
Session Design of a Universal Robot End-effector for Straight-line Pick-up Motion Gene Y. Liao Gregory J. Koshurba Wayne State UniversityAbstractThis paper describes a capstone design project in developing an end-effector for robotic arm thatis capable of grasping objects of varying sizes. The design parameters are as follows. Thecenter point of end-effector should remain as close as possible to the same location, i.e. astraight-line path, over the range of gripper motion. The selected size and shape of the graspedobject are
be laid, including recruiting and training atall of the necessary experience needed to perform the job every level. The university recognized all of the advantageswith a high level of competence. Simulating this real-world that the competition brought to the school as well as to theexperience in a classroom or lab becomes difficult when it students involved, so there were design projects available forhas to be squeezed into a class like senior design. While for seniors to receive credit
], BroadeningParticipation in Engineering [8], the National Aeronautics and Space Administration (NASA) MinorityUniversity Research and Education Program [9], and others. The NRT solicitation advancesinterdisciplinary research in data sciences and encourages projects that address underrepresentation inSTEM. The NCSU-NCCU collaborative project utilizes NRT funding to expand on existing researchcollaborations and leverages resources to develop a formal inter-institutional pilot program thatcontributes to diversifying the STEM community. 1The NCCU-NCSU Bridge-to-Ph.D. Program is inspired by the well-established, Fisk-Vanderbilt Masters-to-Ph.D. program, which aims
, and assorted forms. Classdiscussions, conferencing, forums and real-time project reviews will utilize current “chat-room”technology and newly emerging conference software applications. Testing opportunities will bedevised through models similarly employed by our own CART CMS allowing online mine sitevignettes and projects. The research will determine the extent and volume that portfoliomaterials will be allowed to be used as submissions for program requirements.The research will analyze the hardware needs required by the institution for the delivery of theprogram and by students taking the individual courses. Cost analysis will include the cost ofdelivery of the program, individual courses, and impacts on faculty resources. Research
arearriving to school already familiar with communication technologies. A recent Pew Internet andAmerican Life Project study found that in 2004, 62% of the internet users between the ages ofeighteen and twenty-seven had used IM4. This number will only continue to rise as thetechnology becomes more and more popular.A trend towards the use of IM over face-to-face meetings is already taking place in the businessworld. In addition to personal use, 10% of the IM users in 2004 were business people5 and theRadicati Group predicted half the IM users to be business users by 20064. The use of IM in thebusiness world leads one to believe that students should be exposed to IM as a tool for groupcollaboration. However, inclusion of IM as a tool for group
tools, innovative manufacturing techniques, and design teaching aids at the college, pre-college, and industrial levels. Contact: wood@mail.utexas.edu.Richard Crawford, University of Texas at Austin Dr. Richard H. Crawford is a Professor of Mechanical Engineering at The University of Texas at Austin and is the Temple Foundation Endowed Faculty Fellow No. 3. He is also Director of the Design Projects Program in the Department of Mechanical Engineering. He received his BSME from Louisiana State University in 1982, and his MSME in 1985 and Ph.D. in 1989, both from Purdue University. He teaches courses in mechanical engineering design and geometric modeling for design. Dr. Crawford’s research
is working with Dr. Mohammad Elahinia on a project to develop "Multipurpose Educational Modules to Teach Hybrid Vehicle Technologies". Specifically Christopher says I am "working with colleagues to make hydraulic hybrid vehicles more suitable for commercialization…. I am excited and thrilled to be part of a university and a project which have the potential to make big changes in the automotive industry."Walter Olson, University of Toledo Walter Olson is a professor of Mechanical Engineering specializing in dynamics in the Department of Mechanical, Industrial, and Manufacturing Engineering at the University of Toledo. His research on Hydraulic Hybrid Vehicles is sponsored by the US EPA
energy and fewer natural resources, causelittle impact on the environment (directly and indirectly), and cost less to operate. Thesefacilities also provide healthier indoor environments for the people who live and work inthem, leading to increased productivity. Indeed, high-performance buildings benefitbuilding users, owners, communities, states, and our nation. The following steps assist inplanning the project: Proceedings of 2008 ASEE Gulf-Southwest Annual Conference The University of New Mexico – Albuquerque Copyright 2008, American Society for Engineering Education • Use the whole building design approach • Evaluate building purpose and uses and set project goals
AC 2008-2331: NOVEL TECHNOLOGY FOR ELECTRONICS INSTRUCTION –AN ELECTRONICS STUDIOArunachala Nadar Mada Kannan, Arizona State University Research focus is in the field of Alternative Energy Technologies, more specifically in fuel cells. Developed a brand new undergraduate course on Electronics projects and has been using the e-Studio as an effective teaching tool.Barbara Rempel, Arizona State University, Polytechnic campus An Edicator in the field of Electronics Engineering Technology for the past 17 years. Cureently involved in creating electronics embedded systems concentration for the undergraduate degree program. Her expertise involves, design and development of electronic circuits FPGA systems
progressed in steps over timeto where we are today. Perhaps even early technologies were misunderstood by the people of thetime and today’s lack of understanding is just a continuance of that tendency. This may even bethe case for today’s engineering students. For the most part, current technologies are included inthe engineering and engineering technology curriculum. However, technologies from the past arenot. To remedy the situation, a project was initiated to enhance the engineering student’sknowledge of how past technologies were developed. The objective was to improve theirawareness of technology’s historical heritage and foundation. In order to accomplish this anactive learning hands-on component was added to a traditional lecture based course
call option.Real options analysis is based on the same mathematics, but a new set of definitions: C value of a deferral (or delay) option S0 present value of the future cash flows ф(dx) cumulative standard normal distribution of the variable dx X project cost r risk-free interest rate T time to option expiration σ volatility of the project’s rate of returnUnfortunately, the translation from financial options to real options adds several layers ofambiguity. In determining the present value of the future cash flows (S0), what interest rate andwhat compounding technique should be used? In determining volatility, what method should beused? The answers depend on where you
Digital Simulator (RTDS) is an effective tool for modeling andsimulation of power and control systems. RTDS hardware employs high-speed DSP (digitalsignal processor) chips, operating in parallel, to compute simulation results with simulation stepsizes as small as two microseconds. This paper discusses projects and activities used in bothteaching and research activities to provide exposure of the Real Time Digital Simulator (RTDS)for power system applications.IntroductionThe approach to teaching traditional power system topics needs to be revisited to ensure that thenew graduates are equipped with the required knowledge needed in a more competitive industry.Also these new pedagogical approaches need to renew interest in power engineering to
data was supplied to them. An example of the questions is shown inTable 1. Table 1. Student Performance in Design An Open Ended Problem of Designing a Signalized Traffic Intersection Conduct 6 computer optimization runs using HCS 2000 (latest edition). Submit individual reports. You are provided with options in choosing the following variables on the open ended problem. 1. Signal phasing duration: Red, Green and Yellow timings 2. Design strategy for minimizing the global average vehicle delay of the intersection Answer the following. 1) What is the global minimum intersection delay? 2) Write a report on the project including a critique on the process, progress and results. East-West: Green time= 25-50 Sec., Cycle time
,demonstrate and teach the components of CIM which they have learned in class, to off-campus audience. This allows them to obtain a deeper understanding of the topics. It will also givethem the opportunity to play mentoring roles to the younger students. The CIM on WHEELS wasdisplayed at SME-AutoFACT ’96 Exhibition in Cobo Hall, Detroit, Michigan, November 12-14,1996.II. Introduction CIM on Wheels (CIMoW) provides a facility for capstone hands-on projects in the CIMand Robotics courses to enhance the standard of education at GMI and better prepare thegraduates for the highly technical, automated work environment of the future. It furnishes anarena for the integration of CIM fundamental principles and technology. "...workers must have