framework of a socio-economic-political matrix withan emphasis on insightful understanding of the social and ethical consequences of engineering andtechnology that they will, one day, design and create.In this paper, we present the argument that integrating information literacy content into anundergraduate research project provides a successful model for first-year students to develop andacquire transferable skills for lifelong learning . This integrated approach, we argue, not only enablesthe students to engage with concepts of sustainability as an ethical prerogative, but facilitates a betterunderstanding of information literacy principles within a research context.We draw our inferences from our qualitative and preliminary quantitative
, syngas produced by the gasifieryielded a hotter flame than did direct wood chip combustion because the gasifier’s fuelconsumption rate was higher and neither system adiabatically contained the flames.IntroductionAccording to DeWaters and Powers [1] and to Condoor [2] lack of energy-related knowledgeamong American students and the general public is endemic. As the world transitions toward arenewable energy future, familiarity with energy and sustainability concepts will becomeincreasingly important. For example the U.S. Bureau of Labor Statistics projects 505,000engineering positions across all disciplines opening by 2016, a 10.6% increase over 2006 levels
involved in research programs at such places as Oak Ridge National Laboratory and the Universities of Texas and Wisconsin in the U.S., Kyoto and Nagoya Universities in Japan, the Ioffe Institute in Russia, and Kharkov Institute of Physics and Tech- nology in Ukraine. He was ECSE Department Head from 2001-2008 and served on the board of the ECE Department Heads Association from 2003-2008. He is presently the Education Director for the SMART LIGHTING NSF ERC.Dr. Dianna L Newman, University at Albany/SUNY Dr. Newman is Professor in the Dept. of Educational and Counseling Psychology and Director of the Evaluation Consortium. She has serve as Principal Evaluator for numerous national and international projects related to
community collegeengineering programs to support all the courses needed by students to transfer. Meanwhile,transfer admissions have become increasingly more competitive because of budget cuts in four-year universities. As a result, prospective engineering students who attend community collegeswith limited or no engineering course offerings are at a disadvantage for both transfer admissionas well as time to completion upon transfer. This paper is a description of a collaborative projectamong community college engineering programs in California to address this problem byaligning engineering curriculum, enhancing teaching effectiveness using Tablet PCs, andincreasing access to engineering courses through online education. The project includes aSummer
: continuous improvement of astandalone manufacturing course for mechanical engineers, and a new application of the fourpillars model of the manufacturing engineering body of knowledge. Having seen an example ofthe four pillars applied to evaluation of a manufacturing engineering program also presented atthe 2012 ASEE conference (paper)3, this method showed promise for also critiquing themanufacturing content within a mechanical engineering concentration.Project GoalThe goal of this project was to evaluate the content of a manufacturing processes course formechanical engineering students using the content areas of the four pillars, in the context of therest of the program course requirements, to help identify opportunities for improvements. Theresults
natural inclination todesign and build things, and to take things apart to see how they work3. Beginning in elementarygrades is also important since it is before students develop many of the stereotypes that so oftendiscourage girls and minorities from pursuing courses and careers in technical fields4. It is duringprimary school that students establish first impressions of possible career options5. Finally, at alleducational levels, technology projects can help make mathematics and science content relevantto students by illustrating these subjects’ application in real-world projects6.To build the foundation for the next generation of technicians and engineers, we need elementaryteachers who are introducing their students to technology and
- building in instructional technology.Alana Unfried, North Carolina State University Alana Unfried is a Graduate Research Assistant at the Friday Institute for Educational Innovation at North Carolina State University. She works on the Data Analytics team for the MISO Project (Maximizing the Impact of STEM Outreach through Data-Driven Decision Making), funded by the National Science Foundation. Alana’s responsibilities include the development of statistically sound evaluation instruments for teachers and students involved in these campus outreach programs. She also analyzes survey results and related data to understand the collective impact of these pre-college outreach programs. Alana is also a full-time Ph.D. student
thinking. One wayof doing this is to facilitate interactive classroom experiences and learning. As part of a four semester long course curriculum improvement research grant funded bythe National Science Foundation Transforming Undergraduate Education in Science,Technology, Engineering, and Mathematics (TUES) Program, the use of interactive classroomtools referred to as Geotechnical Concept Tools (GCT) have been developed and are in theprocess of being evaluated. This project involves a required undergraduate GeotechnicalEngineering course at the University of North Carolina at Charlotte. The intent is to createstudent-centered learning activities and interactive classroom models and/or visuals to evaluatetheir effect on comprehension and
networks, among other areas. He also focuses on enhancing recruitment and retention of underrepresented minorities in the STEM areas in general, engineering in particular.Dr. Deborah Walter, Rose-Hulman Institute of Technology Dr. Deborah Walter is an associate professor of Electrical and Computer Engineering at Rose-Hulman Institute of Technology. She teaches courses in circuits, electromagnetics, and medical imaging. Before joining academia in 2006, she was at the Computed Tomography Laboratory at GE’s Global Research Center for eight years. She worked on several technology development projects in the area of X-ray CT for medical and industrial imaging. She is a named inventor on nine patents. She has been active in
runs in a browser, though it can also be a standaloneapplication, which the user interacts with to configure experiment, send experimentspecification and retrieve result from the Lab Server via the Service broker. The client is thefront end of the system. The client program interacts directly with the Service broker throughweb services. The design and development of a functional Mobile Client for iLab is the aimof this project and it is an improvement over the originally used clients for desktopcomputers.Lab ServerThe Lab Server is the backend, a server connected to the remotely located lab equipment (orlaboratory model in the case of a virtual lab). It executes the experiment based on theexperiment specification and notifies the Service
Paper ID #8011Engaging Community College Students in University ResearchDr. Maria Teresa Napoli, UC Santa Barbara Dr. Maria Teresa Napoli received a Ph.D. degree in Mechanical Engineering from the University of California at Santa Barbara, in 2004. In 1999, she also earned a Ph.D. degree in electrical engineering from the University of Padova in Italy. Currently, she holds positions as project scientist in the Mechanical Engineering Department, and as Community College education coordinator at the University of California at Santa Barbara. Prior to this appointment, she worked for several years as a microsensors system
). Page 23.213.6An example (that was assessed for this study during the course) of a decision-making problem isdescribed in Figure 3. In this case students had to decide (and justify their decision) the order forplacing both reactors, based on their reactor and kinetic knowledge, as well as 10 MAI items(they had to answer items numbered 2, 6, 8, 11, 21, 22, 23, 34, 41, and 42 on Appendix A)related to regulation of cognition, most of them particularly associated with planning andmonitoring, were used as a form of coaching.Additionally, a design problem (Appendix B) was implemented as final project, which wasassigned for teamwork (groups of two students) on the last week of the semester and studentshad a period of one week to develop their proposal
way. I can never see you doing that, and I took that as an insult. Like, it hurt my feelings because … he's, like, I picture you going into fashion design or something like that. [92208_430]In other cases, biases manifest themselves in subtle ways as women find themselves workingwith men who don’t seem to quite trust them or have confidence in their abilities, but don’t makeovert comments: I just got a lot of felling a lot of times, like, I did a good bit of that project, and I feel like a lot of times the stuff I did was, like, second guessed, like a lot of them went back and checked it. There was one guy in the group particularly that never took any of my ideas…..[In another group] we had to come up with a list of solutions
research and teaching interests, Dr. Sankar has published more than 100 papers in journals, book chap- ters, and conference proceedings. He has won many awards for research and teaching from the Society for Information Management, NEEDS and John Wiley and Sons, Decision Sciences Institute, American So- ciety for Engineering Education - Southeastern Section, American Society for Mechanical Engineering, Auburn University, and the Project Management Institute. Page 23.1063.1 c American Society for Engineering Education, 2013Serious Games to Improve Student Learning in Engineering
,fundamental, and extremely pervasive‖ motivation of humans to fulfill needs for attachmentthrough social bonds (Baumeister & Leary18, p. 497).However, reaping the benefits of connection to community can be especially challenging inintrovert-dominated19 engineering and similar STEM fields because sense of community hasbeen shown to be moderated by level of extraversion,11 thus making it substantially harder forintroverts to develop these connections. Service learning programs and other projects thatprovide motivation for interactions while allowing work that may be individualized can supportthe development of a sense of community in introverted students.Social capital can be defined as resources gained from relationships. In the context
Paper ID #6686Seeing the Big Picture: The Role that Undergraduate Work Experiences CanPlay in the Persistence of Female Engineering UndergraduatesMs. Cate Samuelson, University of Washington Cate Samuelson is a Doctoral Candidate in Education and Leadership Policy Studies at the University of Washington. She also works as a Research Assistant at the University of Washington (UW) Center for Workforce Development (CWD), where she conducts qualitative research and analysis on the Project to Assess Climate in Engineering (PACE) project. Her research interests include P-20 school-community relations and community capacity
three times in the student‟spreparation: after their undergraduate work, immediately after a graduate level program, or afterMasters-Level graduation and the first few years of experience. This study addresses in somedetail how well the Masters-Level structural engineering education, supplemented with theknowledge increase expected from the initial professional experience, meets the expectations ofthe structural engineering profession in the United States. The outcomes of this research project include an assessment of the competency level(using Bloom‟s taxonomy [1]) expected to be achieved by the conclusion of the Masters-Levelprogram and after the initial five years of professional practice following the graduate program ineach of the
the role as FLL Operational Partner for Georgia, I am involved in two NSF funded research projects that use engineering design and robotics in STEM education. The NSF projects are SLIDER:Science Learning Integrating Design, Engineering, and Robotics and the recently awarded AMP-IT-UP:Advanced Manufacturing and Prototyping Integrating Technology to Unlock Potential.Prof. Cher C Hendricks, Georgia Institute of TechnologyMr. Norman F. Robinson III, Georgia Institute of Technology - CEISMC Norman Robinson is a seventeen year STEM educator currently serving as an Education Outreach Man- ager for the Center for Education Integrating Science, Mathematics and Computing (CEISMC) since June 2011. Prior to his service at
after working 60-90 hours, three hours a day, fivedays a week for four-six weeks. This is an increase in efficiency compared to the number ofweeks that students spend on math courses either at the high school or in remedial math classesat the college. Although other summer boot camps for minority students focused on strategies tobuild a sense of self-confidence, this one is focused on improving the student math skills in avery expedite way and this helps indirectly to build their self-confidence.I. IntroductionThis paper presents the strategies implemented and the promising results of a successful summermath accelerator program that the Department of Engineering has prepared for studentscategorized as not ready for Calculus.The project has been
and motivate more adolescent learners topursue careers in Engineering. Recently multiple initiatives have been undertaken to raiseinterest in STEM education in the United States2, 3. Many of these initiatives are outreachprograms to engage high school students in projects which focus on cultivating their aptitude inSTEM related disciplines. Most of these programs appear to be focused more on Science orMathematics rather than on Engineering and Technology (besides the use of computers) 4. Evenin those rare K-12 outreach programs where Engineering is the primary area of focus, it isusually introduced through problems or activities related to the application fields of Robotics,Manufacturing, Computer-aided-design (CAD) etc. Most of these
Paper ID #6261Nuclear Workforce Development Scholarships and Enhancements ProgramPhase I: Outreach and RecruitingDr. Hayrettin B Karayaka, Western Carolina University Hayrettin Bora Karayaka, PhD Assistant Professor of Electrical Engineering Western Carolina University Department of Engineering and Technology Belk Building 339 Cullowhee, NC 28723 Bora Karayaka is an Electrical Engineering faculty at Kimmel School, Western Carolina University. With his over ten years of industry experience, he has extensive experience in project management, and a clear understanding of deadlines, industry requirements, safety and
(eitherimplicitly or explicitly) that the public does not understand or appreciate engineering becausethey are uninformed or misinformed and that, consequently, the provision of more information(in the form of scientific literacy or the benefits of engineering) will lead to increasedunderstanding and support for engineering. In that way, such initiatives are enactments of thedeficit model. The deficit model (DM) is a term from the field of Science and TechnologyStudies (STS) used to describe initiatives/projects that are based upon a belief in the public’slack of knowledge and scientific literacy and seek to remedy it by providing more, and correct,information. However, a large body of literature has now identified significant problems with thedeficit
Paper ID #6352Three Training Programs for Preparing Undergraduates to Conduct ResearchDr. Susan L. Burkett, University of Alabama Dr. Susan L. Burkett earned the B.S., M.S., and Ph.D. degrees in Electrical Engineering from the Univer- sity of Missouri in Columbia, Missouri in 1985, 1987, and 1992, respectively. She joined the University of Alabama in 2008 as the Alabama Power Foundation Endowed Professor in Electrical and Computer Engineering. From 2005 to 2007, she served as program director at the National Science Foundation in the Division of Undergraduate Education. She has funded research projects with the National
Page 23.569.5welcomed the opportunity to complete some of the work for the course in a remotelocation at a time of their choice. The class met face-to-face for six weeks and online forfour weeks out of the 10-week quarter as shown in Table 1. The first in-class meetingtook place during the first week of school to discuss in detail the format and all therequirements of the course. The final two weeks the class also met in-class so thatstudents were able to completethe laboratories and the final design project. In betweenthese weeks the class met every two weeks face-to-face,and every two weeks online.Table 1. Schedule of Hybrid Mechatronics CourseWeek Class Format Topics1 In-class Introduction to Mechatronic
State University and the current director for the Center for Engineering Education Research (CEER) which examines innovative and effective engineering education practices as well as classroom technologies that advance learning and teaching in engineering. He is working on several National Science Foundation (NSF) funded projects in- cluding a project exploring engineering design knowing and thinking as an innovation in STEM learning. His areas of research include engineering design thinking, adult learning cognition, engineering education professional development and technical training. He has extensive international experience working on technical training and engineering projects funded by the Asian Development
laboratory projects for teaching topics inprototyping, fluid mechanics, chemical kinetics, electrochemistry, separation science, heat andmass transfer, process control, biotechnology, materials science, and image processing.Microfluidicis is also an useful gateway for introducing engineering students to biotechnologyand biomedical fields, since many chemical and biotechnology processes done on the chemistrylab bench can be translated to microfluidic formats. Moreover, microfluidics is emerging as animportant commercial technology, and engineering students will be well served by gainingknowledge and experience in this field. A typical microfluidic system is centered around a credit-card sized plastic ‘lab on a chip’ thathosts a fluidic network of
Information Graphics and Engineering DesignAbstractDocumentation for engineering design requires succinct project descriptions, often withinformation and data visualizations. In an effort to expose students to these types ofvisualizations students were asked to summarize each individual chapter of a technology-basedbook of their choice using a different visualization method. This exercise exposed students to awide range of methods and gave them tools for future engineering project document design. ThePeriodic Table of Visualization Methods1 website was used as a starting point for the types ofvisualizations students could explore. This site is an e-learning site focusing on visual literacy:the ability to evaluate, apply, or create conceptual visual
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 University. Teaching interests relate to the professional development of graduate engineering students and to leadership, policy, and change in science, technology, engineering, and mathematics education. Primary research projects explore the preparation of engineering doctoral students for careers in academia and industry and the development of engineering education assessment tools. She is a National Science Foundation Faculty Early Career (CA- REER) award winner and is a recipient of a Presidential Early Career Award for Scientists and Engineers
CoachingPeer mentoring and reciprocal peer coaching are integral components of our project, as weexpect the engineering peer mentors to provide real-time, instructive feedback as well asguidance on efficient study habits to students enrolled in calculus and who are consideringengineering as an academic major. Moreover, we use peer mentors to connect students to campusresources as well as to one another. Peer mentoring is regarded as a successful intervention toaddress issues of student retention in academic programs12. Peer mentoring, as defined byKram13 is “a helping relationship in which two individuals of similar age and/or experience cometogether … in the pursuit of fulfilling some combination of functions that are career-related andpsychosocial
the viewer’s attention and conveying explanations more effectively22. On the otherhand, the Internet’s interactive feature is usually utilized well but its advantage to learningevaluation is often neglected. For example, the Internet provides the teaching-learning process anefficient and automatic means to receive un-biased feedback by designed assessmentfunctions19,26. A dynamic tracking system embedded in the Internet accessible interactivityteaching software is highly desirable to use the Internet’s un-biased and online feedback featureto influence evaluation.Educational Hypothesis and Project ObjectiveThe motivation to start the project was to match student’s learning style10, “I hear and I forget, Isee and I remember, I do and I