unmanned systems. He introduced an industry-sponsored model for capstone design with a favorable IP policy, established a student machine shop and introduced global humanitarian design projects as an option for students. Prior to Virginia Tech he was an Associate Professor at the Rochester Institute of Technology and developed a multidisciplinary design course that included students from Business, Arts and Sciences as well as Engineering.Chris Gewirtz, Virginia Polytechnic Institute and State University Graduate Student at Virginia Tech. The following ideas fall under the umbrella of my interests, humanitar- ian engineering, tolerance of uncertainty, engineering with community - instead of for industry, empathy
AC 2008-1277: FRESHMAN-LEVEL MATHEMATICS IN ENGINEERING: AREVIEW OF THE LITERATURE IN ENGINEERING EDUCATIONWendy James, Oklahoma State University Wendy James is a PhD student in the College of Education at Oklahoma State University. Currently she has a fellowship promoting collaboration between the College of Education and OSU's Electrical and Computer Engineering department on an NSF funded curriculum reform project called Engineering Students for the 21st Century. She has her M.S. in Teaching, Learning, and Leadership from OSU, and her B.B.S. in Mathematics Education from Hardin-Simmons University in Abilene, Texas. She has taught math and math education classes at both the high school and
criteria were developed for this outcome.For each performance criteria, detailed guide for assessing the performance criteria were alsoprovided. The five performance criteria developed for this outcome, are based on1. Ability to define the problem This performance criterion is assessed by determining if students are able to (i) identify the customer and the needs, (ii) identify and list the design objectives, and (iii) identify the design constraints.2. Ability to plan the project This performance criterion is also assessed by determining if students are able to (i) define the design strategy and methodology, (ii) identify and break down work into tasks and subtasks, and identify the personnel and deliverables for each, (iii) develop a
different aspects of their work. This reveals that about 60% is spent oninteractions with other people either face to face, on the telephone, or through writtendocuments, showing the dominant role of social interactions in engineering practice.IntroductionUnfortunately there are few reliable reports of research on engineering practice1, 2. Very fewobservations have been reported, for example, on the actual work performed by engineers,technical managers, planners, technologists and technicians. Certain processes in engineeringpractice such as design and project management have been extensively studied, yet many otheraspects such as maintenance have hardly received any attention at all. This is all the moresurprising given the extensive debates and
engineeringand other fields have traveled twice a year to the same network of villages in Peru. UMLstudents in service-learning projects in more than 20 different courses have designed and helpedinstall over 80 systems, most running on renewable energy, in 43 villages and towns in theAndes Mountains of Peru for medical clinics, schools, and town halls. The villages in generalhave no grid electricity, one pay telephone (or none) per village, no space heating, houses madeof adobe, and elevations up to 3600 m (11,500 ft.). The indigenous Quechua, or Inca, people inthe villages survive on subsistence agriculture. The systems utilize solar energy to powertransceiver radios, lights, computers, vaccine refrigerators, and other medical equipment inclinics as
applied technologies including distributed, component-based software architectures, software and systems engineering process models, intelligent control, the semantic web, and real-time artificial intelligence. Dr. Hawker has been a faculty member teaching software engineering and computing topics at the University of Alabama and RIT. His work with the NASA Technical Standards Program applying semantic web, formal modeling, information retrieval, and other advanced information technologies inspired his work to better create, manage, find, deliver, and use learning content in software engineering courses and projects. Dr. Hawker is also co-director of the Laboratory for
Presentation demonstrates the different delivery styles used in the course topresent information pertaining to lean manufacturing principles. In IT 214, a variety of deliverystyles are used such as lecture, lab, plant tours, and case studies. The variety helps to keep theinteraction between the instructor and learners interesting. Problem Solving explains how thelearners engage the phase of learning that requires an application of the skills learned. In thisphase, teamwork is used to solve lab-based problems, which usually involve software forproblem resolution. In addition, students partake in independent study, which provides studentsthe experience of role assignment and research. Lastly, the Evaluation component containsexams and a final project
Dr Bill Gaughran is a Senior Lecturer in the Department of Manufacturing and Operations Engineering at the University of Limerick. He leads a number of research groups, including one in sustainable design and engineering, which includes sustainability strategies for SMEs, waste minimisation in manufacturing, and sustainability in schools and colleges. He is a research partner with the EU INTERREG IIIC/DQE project (Towards a Sustainable Region), and contributes to developing strategies, which inform environmental sustainability policy in EU states. He has developed educational intervention modules for SMEs as well as for engineering and design undergraduates for Interregional EU
underrepresented minority students in science and engineering whohave demonstrated excellent academic records in math and science. This paper describes thescience and engineering course offered by the program including its objectives, teachingphilosophies, and its mentoring process for design and research projects. Assessment isperformed using the Force Concept Inventory (FCI) and shows excellent student gains whencompared with other college-level physics courses. Student surveys and feedback on theprogram, the course, and general science and engineering attitudes are also discussed, andrecommendations for future courses are provided.IntroductionPre-college science and engineering programs offer students an opportunity to explore careers inscience and
. Thesethreads will include robotics, software/wireless defined radio, and core electronics. Theoretical,hands-on and open-ended team-based project elements of each thread will appear in multiplecourses, tying the curriculum together, thereby adding coherence. From the freshman to senioryears, they will expand in both breadth and depth, culminating in an enhanced two-semester cap-stone senior design course.Rationale for a ChangeBased on our positive experiences with a new-to-us freshman-level course Introduction to Robot- Page 11.614.3ics1 we set out to perform a comprehensive curriculum review of core courses in our ECE pro-grams. We felt that the
software tools.In this project, we integrated a Digital Image Processing program into a real-time control systemin order to accomplish the fast image processing required to control the navigation of the robot.The image processing program developed for this project was able of processing imagescovering a sufficient width for the 5’ by 2’ mobile robot, at a processing speed of 2-5 imageframes per second. This allowed a 4-5 mph ground velocity for the mobile robot. In order toaccomplish other of the navigation requirements, we added and implemented a field-level Page 11.934.3Geographic Positioning System (GPS), which integrated multiple reference
available to study the individualeffects that may contaminate the measurement system in a controlled fashion.The actual measurement system has variable mechanical parameters—it changes every time it isoperated so that no two sets of data are alike (variable input, variable mass, variable stiffness).This forces each student to process his/her own data, as it will be slightly different from data setscollected by other students. The RUBE (Response Under Basic Excitation) is described alongwith the supporting tools that assist the student in the evaluation of the acquired data.Assessments of the first three semesters of the project clearly indicate that the students enjoyedthis hands-on project and clearly felt that they understood the material in much
awareness of teaming. Theseassignments included developing and ratifying a team charter and submitting biweekly reports onbarriers to success and team dynamics. Category III teams received both the LCI training andparticipated in the structured writing assignments, while Category IV teams served as a controland participated in none of the activities.At the beginning of the semester, each person was surveyed to determine their perception of theirteaming skills, their opinion of teams, and their level of interest in learning about teaming. Theparticipants were surveyed again at the end of the semester and were also asked to evaluate theusefulness of the strategies. In addition, final project reports were collected and evaluated usinga system of
prevents a lengthy divergence into these the arena of arts based researchand design thinking, we briefly define them next. Class assignments were developed within adesign thinking framework of human-centered design developed by the global design firmIDEO (Ideo, 2015). We developed assignments--Projects and Provocations (more on thoselater) keeping in mind IDEO’s Mindset elements of Empathy, Iteration, Creative Confidence,Making, Embracing Ambiguity, and Learning from Failure. Course activities also incorporateddesign thinking concepts of Ideation and Implementation methods to evaluate research, defineproblems, establish audience/s, and develop solutions. In addition to design thinking methods,we were inspired by the methods of the emerging field
groups in mathematics, science and engi- neering.Mr. Nicholas Patrick Langhoff, Skyline College Nicholas Langhoff is an associate professor of engineering and computer science at Skyline College in San Bruno, California. He is also a co-investigator for multiple grant projects at Ca˜nada College in Redwood City, California. He received his M.S. degree from San Francisco State University in embedded electri- cal engineering and computer systems. His educational research interests include technology-enhanced instruction, online education, metacognitive teaching and learning strategies, reading apprenticeship in STEM, and the development of novel instructional equipment and curricula for enhancing academic suc- cess
and hydraulics. Two core undergraduate mechanical engineeringcourses were modified to enhance fluid power content: Thermodynamics and Fluid Mechanics.Based on existing course content, Thermodynamics modifications focused on pneumatics whileFluid Mechanics modifications focused on hydraulics.Starting in Fall 2016, the authors developed the fluid-power based modules and piloted them intwo sections of Fluid Mechanics and two sections of Thermodynamics classes. Modules includea mix of low-effort in-class ACL activities, in-class demonstrations, individual homeworkassignments, and larger-scale PBL design projects. Preliminary direct and indirect assessmentwas performed after Fall 2016. Direct assessment via rubrics, to be reported in future work
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.Dr. Yalcin Ertekin, Drexel University (Tech.) Dr. Ertekin received his BS degree in mechanical engineering from Istanbul Technical University. He received MS degree in Production Management from Istanbul University. After working for Chrysler Truck Manufacturing Company in Turkey as a project engineer, he received dual MS degrees in engi- neering management and mechanical engineering from Missouri
widely [2], [3]. The shift, over the last few decades, to morepracticed-based experiences through project-based learning (PBL) has resulted in a number ofpositive learning outcomes [1]. However, there is still a call for more practice-based experiencesthroughout the curriculum [4]. Instead of focusing on packing more into engineering curriculum,we explore the idea of leveraging the many design experiences students are already engaging inby advocating for the development of a “bridging language”.Students are already engaging in a breadth of design experiences throughout their lifetime.Engineering students engage in a number of formal design education experiences - such ascornerstone and capstone classes or design electives - throughout
effects of unconsidered energyconsumption, a knowledge of the physical laws governing and technologies behind conventionaland alternative energy production, and an array of tools to evaluate and implement energyconservation strategies on personal and corporate levels.To achieve these objectives, several projects were implemented calculating heat usage and heatloss during a winter month for a campus building, performing energy audits for the residences ina neighbouring community and calculating estimated energy savings. In addition, a term paperresearching atmospheric pollution and its sources and effects was required. This activity helpedstudents gain a deeper appreciation of the impact of energy-related choices, behavioral actions,and human
Aerospace Engineering from Sharif University of Technology and MSc and PhD degrees in Mechanical Engineering from Michigan State University. Before joining Iowa State University, she was an Assistant Professor of Mechanical Engineering at Kettering University in Michigan. Sheidaei’s main research area is ”multiscale characterization and computational modeling of advanced material systems such as polymer reinforced composites”. During her graduate study at MSU (2007-2015), she worked at Composite Vehicle Research Center (CVRC) where she worked on numerous research and industrial projects. Those span over the areas of structural integrity of composites, develop- ment of constitutive models and computational tools to
learning. c American Society for Engineering Education, 2018 Effective Design-Based Implementation Research using Complex Systems Modeling (Fundamental)IntroductionEducational research conducted in conjunction with newly-designed educationalinterventions has evolved over decades, with increasing consideration on the effectsof school and school system variables on project implementation. Design-BasedImplementation Research (DBIR) provides a framework that recognizes thevariability inherent in authentic school settings and embraces the complexities ofthe educational system. Modeling educational systems as complex systems, itfollows, should provide useful information for designers of
students on their course projects. He was given an Outstanding Advising Award by USF and has been the recipient of numerous teaching awards at the department, college, university (Jerome Krivanek Distinguished Teaching Award) and state (TIP award) levels. Scott is also a member of the executive com- mittee of a Helios-funded Middle School Residency Program for Science and Math (for which he taught the capstone course in spring 2014) and is on the planning committee for a new NSF IUSE grant to trans- form STEM Education at USF. His research is in the areas of solution thermodynamics and environmental monitoring and modeling.Dr. Sylvia W. Thomas, University of South Florida Dr. Sylvia Wilson Thomas is currently an
Paper ID #16227Sustainability Education in a Global EraMiss Paula Alvarez Pino, UAB Sustainable Smart Cities Research Center Paula Alvarez Pino is the Center Coordinator and Research Assistant of the Sustainable Smart Cities Research Center at University of Alabama Birmingham (UAB). Paula coordinates and communicates work effort and development within the center. She obtains, evaluates and processes materials related to different research projects, as well as, assists in publication of papers and grant proposals. Paula constantly collaborates with the City of Birmingham as liaison in several projects related to the
vSphere is that it lackssome of the basic functionality that is readily available on the standalone VMware Workstationsoftware. Also, it limits the ability for each student or group to have their own hardware networkinterfaces when they need to integrate external physical networks with the virtual machines undervSphere. The vSphere suite was not designed to have dynamic networking where each user wouldbe able to control and manipulate multiple VM’s and appliances internal and external to thevSphere Operating System (ESXi). As a result we embarked on an aggressive re-purposing of thevSphere suite to take advantage of its efficiency, while also increasing its robustness to match thatof what is available on a VMware Workstation, in a project known
analyzes the development of Wild Sound, a musical workcomposed by Glenn Kotche and performed by Third Coast Percussion, with custominstruments designed and built by engineering students at the University of Notre Dame,that has been performed for national audiences. Using theories of design from Simon’sSciences of the Artificial and current views of Design Thinking, the paper examines thecomplex multidisciplinary design process behind the development of this work. It alsoexamines the learning experiences of the design team and suggests ways that futureacademic design projects may benefit from this experience.Introduction“Wild Sound” has been described as challenging “the distinctions that exist betweenmusic and noise, instrument and everyday object
-Dunn served as President of CVID Consulting, build- ing on years of experience as engineer and project manager in human crashworthiness and safety design, development and testing, working for contractors in commuter rail, aerospace and defense industries. VanIngen-Dunn has an MS degree in Mechanical Engineering from Stanford University and a BSE degree in Biomedical Engineering from the University of Iowa. She serves on the University of Iowa’s College of Engineering Advisory Board, the YWCA Metropolitan Phoenix Board of Directors, and the Maricopa Community College Workforce Development Leadership & Innovation Council, among other advisory committees.Ms. Anita Grierson, Science Foundation Arizona Anita
among the RED teams and to study the processesfollowed by RED teams. This work in progress provides a brief overview of the program andcurrent progress of some projects. We highlight the diversity of current RED projects throughupdates from eight projects across the three cohorts: four from Cohort 1: Arizona StateUniversity, Colorado State University, Oregon State University, and the University of SanDiego, three from Cohort 2: Boise State University, Rowan University, Virginia Tech, and onefrom Cohort 3: Georgia Tech. Updates are also included from the REDPAR team about theRED Consortium (REDCON) and research that crosses the consortium. We hope that this paperwill help the engineering education community to learn how these projects are
for new hires in the engineering field. However, the growth of IoT is outpacingthe current workforce with necessary knowledge and skills, such as IoT transceiver and software-defined radio (SDR), the two key and highly demanded techniques for IoT communications. Inorder to blaze a path to introduce these two advanced techniques to future entry-levelcommunication engineers, a project based learning module using affordable SDR platform wasdeveloped with experiential learning pedagogy. The learning materials were developed based onwell-defined objectives. Rubrics were also developed to assess the learning outcomes. Throughthis module, the students will not only gain valuable knowledge of the state-of-the-art IoTwireless communications, interact
-management Certificate, Pan American University at Edinburg, TX 1975 Teaching Certification, Pan American University at Edinburg, TX Appointments 09/2018-present RET Master Teacher Coordinator; Special Projects, The University of Texas at Austin; Cockrell School of Engineering, NASCENT Education Research Center 11/1/12-2018 Evaluator, Chemical Engineering, The University of Texas at Austin Cockrell School of Engineering, NASCENT Education Research Center 09/1/11-present External evaluator, Chemical Engineering, The University of Texas at Austin Sustainable Grid Integration of Distributed and Renewable Resources (IGERT) 09/2003-08/2005 Principal Investigator, College of Natural Sciences, The University of Texas at
REU as either “very satisfied” or“satisfied” (average 4.79 on a Likert scale). Evaluations of specific program objectives andmentoring were similarly high. In terms of impact on long-term goals, 88% of respondents saidthe REU helped solidify their interest in STEM, and 75% said that the REU encouraged them topursue further education, as well as solidified their interest in a research or academic career,while 50% said the program helped solidify interest specifically in systems bioengineering.In this paper, the recruitment process, lab matching, student training and enrichment activities,selected projects, program outcomes, and lessons learned from the past three years will bepresented. We will also discuss challenges we faced – e.g. managing