design education.Miss Laura J. Segedin, Virginia Tech Laura J. Segedin is a Graduate Research Assistant for the Transforming Teaching through Implementing Inquiry project. She earned a Masters degree in Curriculum and Instruction with a specialization in Integrative STEM Education at Virginia Tech in the Spring of 2013. Laura has 12 years of teaching experience at the middle school level in Technology Education.Dr. Aaron C. Clark, North Carolina State University Aaron C. Clark is a Professor of Technology, Design, and Engineering Education within the College of Education and is the Director of Graduate Programs and Associate Department Head for the Depart- ment of Science, Technology, Engineering and Mathematics
Emergency Management Course to Promote Computational ThinkingABSTRACTAt Jackson State University (JSU), an innovative module has been developed and integrated intoan existing “Emergency Management Technology” course. This course module involved fourfaculty members. Faculty from several different departments (Computer Science, English, andTechnology) developed teaching materials for the module. Through this course, students haveopportunities to explore the exciting world of computer science from the perspective of mobilecomputing. This course module is part of a project, Computational Thinking as an Approach toRefining the Critical Thinking and Analytical Reasoning Skills of Undergraduates, sponsored bythe National
tested for real-time responsiveness, amount of energy that may one day allow for independencereliability, stability, and safety. from nonrenewable forms of energy. The system is designed to be stable while it is operating. It is This paper provides the description of a senior designalso designed to be resistant to weather, temperature and minor student project including the goal of the project and the designmechanical stresses. Furthermore, the system is fail-safe; it can specifications. Feasibility and merit criteria detailing therecover from failures or at least indicate that it is in that critical and desired attributes of the design are included
process. Chalupnik4 also concluded that industry will benefitfrom engineers who have better understanding of uncertainty, how it impacts projects, and howprocesses could be made less sensitive to the effects of uncertain events. According to the aboveclaims and others, it has become extremely apparent that the concept of uncertainty isunavoidable in the area of engineering design. Hence, there is a need to train engineers with anappreciation of uncertainty in the design process and for DUU to be part of the undergraduate Page 24.468.6engineering curriculum.Thunnissen5 indicated that in the last two decades, research in uncertainty in the field
at Syracuse University from 2006 to 2007. He is currently working as an assistant professor in Electrical Engineering and Computer Science department at Texas A&M University at Kingsville. His current research interests include adaptive array processing, signal processing, and smart antennas.Prof. Reza Nekovei, Texas A&M University, Kingsville Dr. Reza Nekovei is a Professor of Electrical Engineering and Computer Science at Texas A&M University- Kingsville. He has many years of experience in developing graduate and undergraduate programs. Prof. Nekovei is currently co-PI for two NSF projects related in teaching by design research and development, one in Nanotechnology (NSF-NUE) and another in Robotics
students and theircommunity partners and other stakeholders is important [6], [7]. Research suggests that criticalexperiences, where design assumptions are confronted, and immersive experiences are needed todevelop more comprehensive ways of understanding design [8].This past summer, EPICS offered an immersive design experience to a group of 13 students (12undergraduate, 1 graduate) from a variety of majors. Another publication provides a broaderdescription of this course and includes data from the participants’ reflections [9]. The designteam’s goal was to make the camp more accessible to children with physical disabilities throughtwo projects: the design of an accessible tree house and the adaptation of a sailboat to allowcontrol of the steering
they have, among other things, conflicting goals, various solutions, and different types of constraints; they then pointed out that solving workplace problems requires comprehensive collaboration and teamwork4. By interviewing 17 newly hired engineers, Korte, Sheppard and Jordan (2008) identified four subthemes describing the problem solving process in engineering workplace: “organize, define, and understand a problem; gather, analyze, and interpret data; document and present the results; and project-manage the overall problem- solving process”6(p. 6). Buckingham Shum, MacLean, Bellotti and Hammond (1997) listed some important features of wicked problems, noting that they: Cannot be easily defined so that all stakeholders agree on the
Paper ID #9463Energy Inquiry: Hands-on, Inquiry Learning Methods to Enhance STEMLearning by Engaging Students in Renewable Energy Solutions (Research toPractice)Leslie Wilkins, Maui Economic Development Board Leslie Wilkins has served as the Vice President of the Maui Economic Development Board since 1999. She was hired to design, launch and direct the Women in Technology Project with a mission to en- gage girls/women and underrepresented populations into the Science, Technology, Engineering and Math (STEM) pipeline. In its 13th year, the program serves annually more than 14,000 students, educators and industry members
Paper ID #10116Construction Contract Language; a Growing Impediment to Trust and Co-operationProf. Brian William Loss JD, Purdue University, West Lafayette A 40 year construction industry veteran with a Juris Doctorate, Brian transitioned in 2010 to academia where he now focuses on photovoltaic research, project-based learning, and high-performance building techniques. Page 24.316.1 c American Society for Engineering Education, 2014Construction Contract Language
, Mechatronics and Industrial Engineering. The workaddresses applications of inexpensive 3D printers in support of many engineering and non-engineering courses and activities at our university. Challenges of running a successful 3D-printer lab are addressed. A number of student projects are described. Based on the shear amountof 3D prints and their quality it can be concluded that the acceptance of this technology is highwithin the undergraduate engineering student population.Introduction Early laboratory demonstrations of additive rapid prototyping systems were conductedthirty years ago (1984). However, the acceptance of these systems in undergraduate engineeringcurricula was relatively slow due to the high cost of the equipment, the high cost
several research projects focusing on competencies- based curriculum redesign and implementation aimed to integration across curricula; increasing the re- tention rate of early engineering students; providing opportunities for STEM graduate students to have mentored teaching experiences.Dr. Mark Urban-Lurain, Michigan State University Mark Urban-Lurain is an Associate Professor and Associate Director of the Center for Engineering Edu- cation Research at Michigan State University. Dr. Urban-Lurain is responsible for teaching, research and curriculum development, with emphasis on engineering education and, more broadly, STEM education. His research interests are in theories of cognition, how these theories inform the
, as well as the Next GenerationScience Standards. Specific engineering outcomes include the ability to design, plan, and managecreative projects and products with respect to principles of sustainability. Liberal studiesoutcomes addressed in the Engineering Literacy course include accessing and using informationsources, as well as the application of humanities and social sciences to engineering solutions.Common goals such as developing critical reasoning, effective communication, and recognitionof life-long learning are emphasized. Students understand how an engineering solution workswithin technical and economic as well as social and political constraints.In this course, students experience development of an engineering project from inception
details of a National Science Foundation (NSF) sponsored project todevelop multimedia educational material to enhance the educational experience of undergraduatemechanical and manufacturing engineering majors. The project approach departed from thetypical practice of developing supplementary instructional material for individual courses infavor of a scaffolded architecture which features scalable content for use in course groupings.Courses ranging from the sophomore to the senior level were arranged on thematic linesresulting in four groups or studios, namely: Materials, Thermo-Fluids, Design andManufacturing, and Dynamics, Vibrations and Controls. For each group, learning modules thatconnect experimental methods with foundational course content
% graduated ina STEM major in 4 ½ years. Eight 2009 cohort students remain enrolled in the university (3STEM and 5 non-STEM majors) and seven or 29% of the 2009 cohort have left the universitywithout graduating. An analysis of the 2010 summer cohort reveals that seven studentscompleted Senior Design I in Fall 2013 and are projected to graduate in four years (7/37 or 19%)in May 2014. We believe these emerging graduation rate data imply that first time freshmanengineering majors with math ACT scores from 17-25 may achieve six year graduation ratesnearly comparable to those with higher scores with the benefit of a summer bridge programfocusing on enhancing mathematics readiness and becoming a community of engineeringlearners. In summary, evidence is
factors that contribute tothis phenomenon, including societal bias and the environment of the STEM classroom. As asociety, it seems to be a natural assumption that the subjects of math, science, and engineeringare traditionally “male” subjects. Research has been done to show how “stereotypes can lowergirls’ aspirations for science and engineering careers over time.”2 In order to eliminate societalbias, the environment and manner in which STEM subjects are taught to girls must change. “Ifgirls grow up in an environment that cultivates their success in science and math with spatialskills training, they are more likely to develop their skills as well as their confidence andconsider a future in a STEM field.”2 This project was designed to target
techniques and software may be more effective inincreasing spatial abilities.Finding an effective approach to improve spatial ability is considered an important research andpedagogical imperative for the profession of engineering. Research by Charyton et.al., (2011)10explored the relationship between spatial visualization and creativity in engineering design tasksand found convergent validity between assessments for creativity and the Purdue SpatialVisualization Test-Rotations; this infers that improving spatial abilities may improve studentcreativity which, in turn, may help students meet today’s engineering challenges. Seminal workby Sheppard et.al., (2009)11 in Educating Engineers, Designing for the Future of the Field founddesign projects that
development processes in thestudied Design and Development of Food Products and Processes capstone course2-5.Assessment of creativity was grounded on the Consensual Assessment Technique6 (CAT), whichis based on the idea that the best measure of creativity regardless of what is being evaluated, isthe assessment by experts in that field. Therefore, a group of experts in the FE field were invitedto evaluate capstone course final projects and developed food products by means of the CreativeThinking VALUE Rubric, which is made up of a set of attributes that are common to creativethinking across disciplines1, 7. Possible performance levels were entitled capstone or exemplar(value of 4), milestones (values of 3 or 2), and benchmark (value of 1). Instructor
c American Society for Engineering Education, 2014 Developing a Minor Program in Nuclear Science and EngineeringAbstractThe Department of Mathematics and Computer Science at Fort Valley State University (FVSU)has recently developed an academic minor program in Nuclear Science and Engineering forstudents majoring in science, technology, mathematics, and engineering (STEM).The minor program is structured around four courses that will feature progressively moreadvanced topics, and hands-on laboratory-based projects and experimental analysis. Thesecourses are: a two-course sequence in Nuclear Science and Engineering with laboratorycomponents, a course in nuclear radiation, and an introductory course in health physics.This paper describes
satisfactoryatomization [5]. However, if biodiesel is blended with jet fuel, kerosene or diesel, fuel preheatmay not be necessary because of the overall low viscosity of the blended fuel. In this work, amicro gas turbine was operated on jet-A and kerosene as baseline fuels. Then, the fuels weremixed with 20 % of biodiesel and the blended fuels were evaluated in the micro-turbine in termsof performance and emissions characteristics. This project was done as part of a courseassignment and eventually became a successful experiment to integrate alternative energy andturbine research in an undergraduate classroom in aerospace engineering.Experimental Methods in Aerospace Engineering The Mechanical Engineering Department at the New Mexico Institute of Mining
Paper ID #10120Investigation of Digital Three-Dimensional Representation: Results of a Faculty-Undergraduate Student Engagement GrantMs. Shahnaz J. Aly, Western Kentucky University Shahnaz Aly, LEED AP, M. Arch. is a Registered Architect in India and an Assistant Professor in the Department of Architectural and Manufacturing Sciences at Western Kentucky University. She has ten years of professional experience in the architecture and construction industry in residential, commercial and mixed-use projects. She has five years of experience in teaching and research in areas of architectural design, sustainable design
Electrical Power Project/Service Engineer from 1994 to 2000. His research interests include Electrical Power System Analysis, Electric Machine Drives, Renew- able Energy Technology, and Numerical Techniques in Electromagnetics. He is a senior member of IEEE and a member of ASEE. Page 24.388.1 c American Society for Engineering Education, 2014DEVELOPING A RENEWABLE ENERGY COURSE FOR A MASTER OF TECHNOLOGY PROGRAMAbstract:A course on renewable energy has become more of a requirement in MS programs. This is theresult of continuously shrinking global energy resources. The importance of
, and her current work is focused on understanding engineers involved specifically with Engineers Without Borders-USA.Dr. Amy Javernick-Will, University of Colorado, Boulder Amy Javernick-Will is an Assistant Professor at the University of Colorado, Boulder in the Civil, Envi- ronmental, and Architectural Engineering Department. She received her Ph.D. from Stanford University and has focused her research efforts on knowledge mobilization in global organizations and projects and increasing diversity in engineering.Dr. Daniel Knight, University of Colorado, Boulder Dr. Knight is the Program Assessment and Research Associate for the Design Center (DC) Colorado at the University of Colorado Boulder. Dr. Knight supports
courses were taught six times each (over six years) and were taught twice at twocampuses simultaneously. More recently, the course sequence was also offeredsimultaneously in house and on-line using lecture capture facilities. The purpose of thispresentation is to provide information about the effectiveness of using web-basedmodules for enhanced learning of the in-class material and inform the audience about theavailability of the course material for use at other institutions. (All course materials areposted on line and is available free of charge.) Assessment of usability of course weband of student learning through their projects and course grades was also presented anddiscussed.INTRODUCTION Understanding particle transport, deposition and
and the administration of SIIP. Inspired by the successful, sustainedrevisions and improvements to the introductory physics sequence by a cohort of physicsprofessors and a recent collaboration between the COE and the math department to reviseintroductory calculus, SIIP focused on creating teams of faculty dedicated to executing reforms.To be eligible for funding, projects required the collaboration of at least three faculty members toincrease the chance that reforms would extend beyond a single instructor. Similarly, while non-tenure track faculty were encouraged to participate in, or even lead, efforts, each team needed atleast two tenure-track faculty as well as the endorsement of the department head so that theefforts would have the
available to users with software typically used in astrophysical research. Data in theaccess to standard, mass-market software. This project examines FITS format includes photometric and spatial calibrationthe advantages of using ImageJ, a popular free software from information, which may not be readily useable to researchersNIH, for comparative fractal analysis of the 2013 November 5 having little time to invest their effort to read FITS files withmultiple solar eruption images in the Solar Dynamics dedicated programs, especially when the researchers areObservatory Database. The Fokker-Planck equation based working with self-calibrated comparative approaches. Thisdescription of brightness
mining, bio- informatics and advanced manufacturing. Dr. Tseng published in many refereed journals such as IEEE Transactions, IIE Transaction, Journal of Manufacturing Systems and others. He has been serving as a principle investigator of many research projects, funded by NSF, NASA, DoEd, and KSEF. He is currently serving as an editor of Journal of Computer Standards & Interfaces.Mr. M. Eric Carr, Drexel University Mr. Eric Carr is a full-time Laboratory Manager and part-time adjunct instructor with Drexel University’s Engineering Technology program. Eric assists faculty members with the development and implementa- tion of various Engineering Technology courses. A graduate of Old Dominion University’s Computer
[9-11], andinstructional design [12-14]. Studies suggest that metacognition not only enhances learningoutcomes; it also encourages students to be self-regulated learners who are “metacognitively,motivationally, and behaviorally active participants in their own learning process” [15, p. 329].A recently completed STEM Talent Expansion Program (STEP) project [16], whichimplemented a number of projects in first-year engineering courses at Texas A&M University,found that students lacked the abilities needed to manage learning and problem-solving.While there is growing interest in metacognitive research, few assessment tools have beendeveloped in the context of engineering design, particularly within classroom environments. Theobjective of the
hands of the instructor to deviseexperiments and projects (instructional activities and materials) to achieve the course outcomes.Whetton [1] stated that most important professing of a professor involves his thoughtful choiceof reading materials, assignments, activities and most of all learning objectives. This ispronounced even more in this course because the instructor has to choose few experiments and aproject from a wide variety of mechanical engineering applications. The objectives, instructionalactivities and material and the assessments he develops have to be in alignment. Students at theUnited Arab Emirates University normally complete their Bachelor’s Degree in MechanicalEngineering in ten semesters. They take the Design and
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.Ms. Namratha Siripragada, Northern Illinois
, Boca Raton, FL 33431 E-mails: ravivd@fau.edu and aradzins@fau.eduAbstract This paper describes an undergraduate-level problem-based design project that relates toeasing a real annoying experience for most drivers: the speed bump. It focuses on an engaging,mentoring-based learning process from inception to prototyping, while bearing in mind aspectsof commercialization. The process starts with observation – an essential first step in problem solving – of whatwe take for granted, in this case, the solid, static, annoying speed bump. The next step isdiscussing and thinking critically, identifying pros and cons of existing solutions. It is followedby a more broad definition of the problem as a “vehicular speed