conditions. The important challenges arethe sensors and computers, CNC lathe and (i) Maintaining the precision,programming. By making a labour to do a same (ii) Making the part without making anywork repeatedly process will require only less measurements at any place ofnumbered artisan labours which makes the less manufacturing,labour cost for the product. The project concerns (iii) Using the artisan labours,with design the best manufacturing method for the (iv) Minimizing the time,the following product (fig I.2) from the given raw (v) Maximizing the accuracy,material (fig I.1). The part is used in the mass (vi
17 Improving Student Learning of Basic Electric Circuits Concepts Using Current Technology Zekeriya Aliyazicioglu, Rajan Chandra, Phyllis Nelson, Jolly Kuo, and Shailesh Sujanani California State Polytechnic University, PomonaAbstractThis paper describes web-based supplemental materials developed at California State PolytechnicUniversity Pomona that enable students at any time during their academic career to review and practicefundamental network analysis concepts. Students interact with these materials via a web browser,making them platform independent. The project targets improving both learning and
ability to track progress. Theapp serves as a powerful reference and a guide for teachers to integrate science and engineeringactivities within their curriculum. Towards the end of June 2013 a workshop was organized forteachers to provide feedback on the project and test the beta version of the app. The project andthe app were favorably received from workshop attendees, with several of the teachersrequesting early access to the database for the 2013-2014 school year. In addition, crucialfeedback and insight was collected from the focus group discussions following the appdemonstration. It is expected as teachers begin to use the app and the content within, feedbackand contributions from user community will further improve the quality and breadth
around $1.7M of research and development grants from various national and international funding agencies. He is a member of the editorial board for a number of professional journals as well as an Editor-in-Chief of the International Journal of Online Engineering. He is active with various professional organizations (IEEE, IET, ASEE, and ISA) as well as a member of board of Trustees of CLAWAR Association. He has served as Chair and Co-Chairs of numerous conferences and workshops, in addition to serving on the program committees of around 30 international conferences. Dr. Azad is a project proposal reviewer with various national and international funding agencies in US, Europe, and Australia.Pramod P Kaushik, Northern
out occasionally for conversations during ethics classes or service learning projects, butspeaking – and living – our values of faith as engineers and engineering education researchers isstill uneasy territory for many. This paper is a multivocal autoethnographic dialogue betweenthree graduate researchers in engineering education that explores how each individual stands inthat uneasy territory. It addresses the intertwining of spirituality with both teaching and researchpractices in engineering education, investigates the discomfort of conducting such a dialogue in asecularized technical culture, and explores the tensions of multiple and often conflictingperspectives of faith on each topic. The authors are Roman Catholic, Evangelical
of American companies, and real-time embedded systems.Ms. Doris M Munson, Eastern Washington UniversityDr. Donald C. Richter, Eastern Washington University DONALD C. RICHTER obtained his B. Sc. in Aeronautical and Astronautical Engineering from The Ohio State University, M.S. and Ph.D. in Engineering from the University of Arkansas. He is currently a Full Professor at Eastern Washington University. He holds a Professional Engineer certification and worked as an Engineer and Engineering Manager in industry for over 20 years before teaching. His inter- ests include engineering education, project management, robotics /automation and air pollution dispersion modeling.Prof. Terence Geyer, Eastern Washington University
InterfaceIntroductionFor students to succeed in engineering design (and engineering practice) they must be able tomake design decisions that are grounded in data and analysis. The potential danger, however, inintroducing analysis and calculations too early in the design process is that this may lead thedesigner to become “fixated” on the current design idea and not explore other, potentially betterideas1, 2. This can be problematic as engineering education endeavors to teach students to bemore innovative. Thus, while it is important to teach students how to support their designdecisions with analysis, it is likewise important to help them engage in analysis without leadingto limited exploration of alternative ideas. The overarching goal of this project is to
, globalization, leadership, project management, ethics, and manufac- turing processes. Gregg has lived in numerous locations within the USA and Europe and has worked in many places including North America, South America, Europe, Asia, and Africa. Prior to joining BYU, Gregg worked for Becton Dickinson, a Global Medical Technology fortune 500 Company. In this capacity he worked as a product development engineer, quality engineer, technical lead, business leader and pro- gram/project manager managing many different global projects. Gregg received his PhD in Educational Leadership and Higher Education from the University of Nebraska-Lincoln with a Master of Technology Management degree and a BS in Manufacturing Engineering
Munich University of Applied Sciences. His engineering education interests include collaborating on the Dynamics Concept Inventory, developing model-eliciting activities in mechanical engineering courses, inquiry-based learning in mechanics, and design projects to help promote adapted physical activities. Other professional interests include aviation physiology and biomechanics.Dr. Edward J. Berger, University of Virginia Edward Berger is the Associate Dean for Undergraduate Programs in the School of Engineering and Applied Science at the University of Virginia. He was one of the co-leaders for the Mechanics VCP in 2013
, plumbing, fire protection and lighting. Also, he supervises many courses in the frame of interprofessional projects (IPRO) program. Areas of Interests: - Zonal modeling approach, - Integration zonal models/building energy simulation models, - Zero Net Energy (ZNE) building, - Airflow in Multizone Buildings & Smoke Control, - Thermal Comfort & Indoor Air Quality, - Predictive modeling and forecasting: Support Vector Machine (SVM) tools, - Energy, HVAC, Plumbing & Fire Protection Systems Design, - Computational Fluid Dynamic (CFD) Application in Building, - BIM & REVIT: application to Architecture and Electrical/Lighting Design systems
in collaboration with industry within and between cloud data centers. A new approach topartnerships. Student labs using resources such as GENI, network administration has emerged known as software-NetFPGA, and the New York State Cloud Computing Center will defined networking (SDN) [3]. Although the term SDN wasbe presented. We also outline SDN student projects includingfirewalls, load balancers, and redundant failover systems. first introduced in 2009, there has always been some level of software control within data networks, so the
different from what it used to be even four to fiveshort years ago. There are fewer, but riskier and more complex projects. The prevailingdifficulties of last several years have made it extremely challenging to succeed in the globaleconomy. It is anticipated, however, that the global construction output will recover to grow 70percent by 2025 – to $15 trillion.10 In view of aforementioned challenges and globalization, andin light of emerging construction technologies, the Construction Management (CM) Program inthe Lyles College of Engineering at Fresno State has recently revamped its curriculum to betterprepare future leaders of the construction industry. Accordingly, the CM program hasincorporated leadership and entrepreneurship development as an
% of the students who did not change inSR and 25% of the students who decreased in SR. Common themes of the courses that werediscussed by the students were international, community, ethics, service learning projects, anddevelopment. The survey also gathered information about students’ participation in volunteeractivities. Students who showed a positive change in SR had the highest average volunteerfrequency scores of 11.1, compared to average volunteer frequency scores of 9.9 and 9.0 forgroups of students with no change or negative changes in SR scores, respectively. The resultssuggest that courses and volunteer experiences may be effective ways to positively influencestudents’ views of SR. On-going research will explore changes in students as
– Module DevelopmentABSTRACTDue to the increasing prevalence of cardiovascular and orthopedic disorders in today’s modernsociety, there is a necessity to engineer biomaterials that improve the quality of life for peoplewith painful and debilitating diseases. This will require educational institutions to providespecialized instruction in these areas. Yet, there have been relatively few published reports onbiomaterials and tissue engineering-related lab activities, and existing activities lack a foundationin materials science. A primary deliverable of this project is to address this need and thusstrengthen science, technology, engineering and math (STEM) education by developinginteractive experiments that introduce tissue engineering through a
, she has been involved in research projects to develop, refine, and apply innovative assessment tools for characterizing student knowledge of sustainability. Her ultimate goal is to use this assessment data to guide the design and evaluation of educational interventions to improve undergraduate sustainability education. In the area of bioprocessing, Dr. Watson has experience using bacteria and algae to convert waste materials into high-value products, such as biofuels.Joshua Pelkey, AirWatch Joshua Pelkey is currently a product manager at AirWatch in Atlanta, GA. He completed his MS in Elec- trical and Computer Engineering at Georgia Tech and his BS in Computer Engineering from Clemson University. He has
Paper ID #8971Assessment of Product Archaeology as a Framework for Contextualizing En-gineering DesignDr. Kemper Lewis, University at Buffalo, SUNY Kemper Lewis is a Professor of Mechanical and Aerospace Engineering at the University at Buffalo - SUNY. He is the project PI for the collaborative NSF TUES grant, ”Assessment of Product Archaeology as a Framework for Contextualizing Engineering Design”. The project is a collaborative effort between the University at Buffalo - SUNY, Arizona State University, Penn State University, Northwestern University, Bucknell University, and Virginia Tech.Dr. Deborah A. Moore-Russo
includingteamwork, presentation skills, leadership skills, self-assurance, and breaking gender stereotypes.Women professionals in various science and engineering fields also met and discussed with theparticipants helping them visualize a future career in STEM and gain exposure to the variety ofoptions available to them. As a culminating project the girls who participated in the camp createdmulti-media video presentations with robotics, similar to the RoboPlay Video Competition, andmade presentations in front of parents and peers. The girls were given robotics kits to take backto their middle schools so they can start computing and robotics clubs of their own. Coaches andassistant coaches continue to mentor girls over the academic school year to facilitate
). Page 24.1293.1 c American Society for Engineering Education, 2014 Understanding Teaching Assistants’ Assessment of Individual Teamwork PerformanceA team-effectiveness inventory of behavioural competencies was used as a conceptualframework with which teaching assistants were asked to assess each students’ individualteamwork skills. The reliability and confidence of teaching assistant assessments as well as theway in which teaching assistants used these assessments to support students to become moreeffective team-members is presented.1. IntroductionTeam-based projects have become a common teaching practice in engineering courses as ameans to simulate real-world environments and meet
as an Associate Editor of Math Horizons. Levy facilitates project-based learning for students at all levels, from end-of-class projects in first-year differential equations to yearlong industrial projects for teams of seniors. She encourages her research students to share mathematical fluid mechanics with a variety of audiences through conferences, outreach programs, and formal research papers. Her online project Grandma got STEM shares the power and talent of geeky grannies with its international readership.Dr. Darryl H Yong, Harvey Mudd College Darryl Yong is an Associate Professor of Mathematics and Associate Dean for Diversity at Harvey Mudd College.Prof. Karl A Haushalter, Harvey Mudd CollegeDr. Rebecca Eddy
Paper ID #9278Electric Circuit Analysis in MATLAB and SimulinkDr. Asad Yousuf, Savannah State UniversityDr. Mohamad A. Mustafa, Savannah State UniversityMr. William Lehman, Bill’s Robotic Solutions William Lehman is President of Bill’s Robotic Solutions which he started in July of 2013. He has had over twenty years of experience in software and hardware development. He has worked on numerous projects in digital communication systems, robotics, and aerospace applications. For the past seven years he has taught technology education mainly at the high school level. Mr. Lehman received his Bachelor of Science degree in
– concept generation through volume production in less than three hours1. AbstractDesign for manufacturability (DFM) is the practice of engineering products such that they aremore easily produced in volume. DFM is traditionally taught by lecture and students aresubsequently encouraged to utilize the underlying concepts in their engineering design coursesand capstone project. One of the problems with this approach is that the design is rarely taken tovolume production, giving students little chance to see firsthand the benefits of employing DFMin their work. To address this, we have developed an in-class activity which allows studentteams to design a widget and take it to volume production all within the span of a single three-hour
coolant systems, fuel transfer systems for aircraft, Advanced Life Support systems and power distribution systems for NASA. He has also initiated new projects in health management of complex systems, which includes online algorithms for distributed monitoring, diagnosis, and prognosis. More recently, he is working on data mining for diagnosis, and developing methods that combine model-based and data-driven approaches for diagnostic and prognostic reasoning. This work, in conjunction with Honeywell Technical Center and NASA Ames, includes developing sophisticated data mining algorithms for extracting causal relations amongst variables and parameters in a system. For this work, he recently received the NASA 2011
Assessment (i2e2a). She ob- tained a B.S. in mathematics from Spelman College, a M.S. in industrial engineering from the University of Alabama, and a Ph.D. in Leadership and Policy Studies from Peabody College of Vanderbilt Univer- sity. Her teaching interests relate to the professional development of graduate engineering students and to leadership, policy, and change in STEM education. Primary research projects explore the preparation Page 24.302.1 of graduate students for diverse careers and the development of reliable and valid engineering education assessment tools. She is a NSF Faculty Early Career (CAREER
laboratoryand research experiences in the emerging nanotechnology area. Examples of assigned freshmanengineering projects include solar cell and fuel cell cars. In these labs students assemble a modelcar and use solar panel and fuel cell to power the cars. A series of experiments that studentconduct include measurement of open and short circuit current and efficiency of solar panel, andperformance of the car with varying light intensity. In the fuel cell car project, students use solarpanel for the electrolysis of water and use the generated hydrogen and oxygen as fuel to powerthe car using a fuel cell device. Students conduct a series of experiments with the fuel cell thatinclude measurement of electrolysis and fuel cell efficiencies. These
equations of motion for con-servative systems. This formulation of dynamics is typically reserved for courses in which it canbe derived, which students encounter in their senior years at the earliest. However, while diffi-cult to derive, Lagrange’s equations are easy to use for conservative systems, even for sophomorestudents. They perform the functions of uniting energy methods with Newton’s second law andintroduce students to the concept of equations of motion that will be used consistently in juniordynamic systems. An example project is presented along with student feedback.SolidWorks for VisualizationWork integrating SolidWorks examples into the course can be broken into two categories: in-classexamples and student assignments. In-class
interested in a career in STEM. A summer camp for high school students, designed toincrease interest in STEM, was hosted at the University Oklahoma during the summer of 2013.Amongst the many engineering-focused projects available for the students to complete was theCapacitive Touch Sensor Workshop, which was created by the ECE department. During thisproject, students constructed a functional touch keypad using only an Arduino and householdsupplies, such as cardboard, aluminum foil, and tape. At the conclusion of the project, studentswere able to take their completed keypads home along with a flash drive that included all of thesoftware and information they would need to improve or modify their device. This workshop notonly allowed students to create
trying tofacilitate innovation in their employees, but students are not learning how to be creative in arapidly changing world 1. For solving this problem it is necessary to project the integrativeeducational system (cluster) for training creatively thinking students.For this objective an innovative educational model, new methodology and technology, newthinking, and higher level of consciousness become necessary. Models of contemporaryengineering education and activity must be based on general models which take intoconsideration the unity of the world in its complex connections, and ecological, ethical,aesthetical principles. In the process of developing the model an attention was focused on thefundamentalization of education, which is based
Paper ID #9047MEMS-based Educational LaboratoryDr. Tim Dallas P.E., Texas Tech University Tim Dallas is a Professor of Electrical and Computer Engineering at Texas Tech University. Dr. Dallas’ research includes MEMS packaging issues with an emphasis on stiction. In addition, his research group designs and tests SUMMiT processed dynamic MEMS devices. His MEMS group has strong education and outreach efforts in MEMS and has developed a MEMS chip for educational labs. His group uses com- mercial MEMS sensors for a project aimed at preventing falls by geriatric patients. Dr. Dallas received the B.A. degree in Physics from
doing (problem formulation and problem solving), and design andengineering learning (focused on change in the student’s conceptual understanding of design).Research Methods and ParticipantsTo best address the research questions, this study uses multiple methodologies to collect andanalyze data around engineering students’ learning. Empirical evidence of what design andengineering thinking looks like and how it changes over time, and how students conceptualizedesign and engineering, comes from two participant groups: (1) a spread of undergraduateengineering students across fields of engineering, and (2) a homogeneous group of MechanicalEngineering graduate students in a project-based learning course in design and innovation forMaster’s students
and projects, and working with faculty to publish educational research. Her research interests primarily involve creativity, innovation, and entrepreneurship education.Ms. Mary Lynn Brannon, Pennsylvania State University, University Park Page 24.953.1 c American Society for Engineering Education, 2014 Online modules enable prerequisite review and mastery during design courses.AbstractAll engineering capstone courses are designed with the expectation that students will useknowledge they have obtained in prerequisite classes to design an engineering