AC 2012-4681: SELECTION OF EFFECTIVE GROUPS IN ENGINEER-ING PROJECTS USING MANAGEMENT THEORY PRACTICEMr. Brian Robert Dickson, University of Strathclyde Page 25.1148.1 c American Society for Engineering Education, 2012 Selection of Effective Groups in Engineering Projects using Management Theory PracticeA study that is a work in progressIntroductionMany engineering courses incorporate group projects as standard. The challenge for mostacademics is selecting groups that are well balanced and will produce a fair result for allgroup members, that measure their technical abilitie,s and their
of the Food Science and Technology Ph.D. program. The teaching, research, and outreach activities of this program focus on the safety and quality of poultry, seafood, and produce. Schwarz is focusing his research and teaching activities on food processing, food safety, and food defense. Schwarz received a M.S. degree in food engineering from Hohenheim University, Stuttgart, Germany, and a Ph.D. in food science and technology from Cornell University, Ithaca, N.Y. Prior to his academic career, he worked as a Project Manager in the Technical Research Department at a General Foods subsidiary in Bremen, Germany, on product and process development projects.Dr. Lurline Marsh
. Albert Edward Sweets Jr., iSTEMS Albert Edward Sweets, Jr., is a Senior Engineer/Scientist with 15 years of experience and increasing responsibility in high volume Electronic Manufacturing Service (EMS), development, and customer en- vironments. He has several leadership experiences that include 21 years of Military Service (honorably Page 25.1280.1 discharged), being an Entrepreneur Lead Engineer, and being an educator. He has a broad engineering c American Society for Engineering Education, 2012background that encompasses project engineering, process engineering, test engineering
AC 2012-3041: SUMMER PROGRAM FOR TRANSITIONING STEM MI-NORITY STUDENTS FROM TWO-YEAR TO FOUR-YEAR COLLEGEDEGREESDr. Aurenice Menezes Oliveira, Michigan Technological University Aurenice Oliveira is an Assistant Professor in the Electrical Engineering Technology program at Michigan Technological University. She received the Ph.D. degree in electrical engineering from the University of Maryland, Baltimore County, USA, in 2005. Her current research interests include communication sys- tems, digital signal processing, optical fiber systems, and engineering education. Oliveira is the Michigan Tech Project Director of the U.S.-Brazil Engineering Education Consortium funded by FIPSE - U.S. De- partment of Education
Solving (CPS); and to communicate the potential impact of thisscaffolding on underserved minority students’ higher-order skill development through Project-Based Service Learning (PBSL). It contends that adoption of engineering design process inexperiential learning could promote students’ demands for cognitive and metacognitive strategiesof Self-Regulated Learning (SRL) and Creative Problem Solving (CPS), and scaffolding withquestion prompts based on cognitive research findings could better facilitate SRL and CPSprocess of underserved minority students, and lead to their enriched metacognitive experience,meaningful accomplishment, and improvement of self-efficacy and higher-order skills. Theoverall goal of the presented scaffolding instruction is
develop online environments that promote democratic and equitable learning in secondary and higher education. Nilakanta has worked closely on national and international projects funded by the NSF and FIPSE-EU.Dr. Giada Biasetti, Iowa State University Giada Biasetti is an Assistant Professor of Spanish at Iowa State University. Her areas of interest are 20th century Latin American literature, as well as translation and interpretation studies. She obtained her Ph.D. in Spanish at the University of Florida and an M.A. in comparative literature at Florida Atlantic University. She also holds a B.A. in foreign languages and linguistics with a double major in Spanish and Italian and a degree as a professional translator and
. Page 25.423.4Proposed ProcessThere are several team project experiences built into most engineering curricula. These arenatural opportunities to learn, think about, and apply leadership skills. The essence of ourproposed process is for students to use these experiences to develop their own skills in acontinual process - from one team project to the next - of practicing, receiving feedback, makingplans for improvement, and then practicing again. However, since most courses have but oneproject experience, the process has to be programmatic - spanning several semesters - so thateach student experiences multiple cycles.We have designated one course in each semester beginning in the second semester of thesophomore year and continuing through the
math and engineering courses, contextualized teaching approaches thatincorporate NASA-related content as hands-on activities and projects are developed. A ten-weeksummer research internship program specifically designed for community college students hasalso been developed to provide research opportunities on various engineering topics includingperformance-based earthquake engineering, circuit design for biomedical applications, andembedded systems design. Additionally, a group of community college students are selected toparticipate in year-long upper-division and senior design courses at San Francisco State Universityto help develop skills and attributes needed to succeed in a four-year engineering program. Resultsfrom the first year of
technicalachievement in minority populations, and have cultural perspectives that are essential to the Page 25.1127.2successful conduct of many forms of research involving minority populations.Partnership between Virginia State University, Louisburg College & NASAIn 2010, Virginia State University and Louisburg College were funded by NASA-CIPAR(Curriculum Improvement Partnership Award for the Integration of Research) for a projectnamed “Establishing an Undergraduate Interdisciplinary Curriculum Incorporating NASARelated Research." One of the objectives of the project is to retain underrepresented minoritiesin STEM disciplines (especially in NASA-related
that was held at Texas A&M International University (TAMIU)on July 18-22, 2011 and is similar to a program held in 2010 [4]. Creating a program website,program brochures, application materials, and conducting visits to middle and high schools in thearea were used to recruit students. The application form requires basis contact and schoolinformation and a 200-300 word essay addressing future career and academic interest.This program featured team competitions, project presentations, field trips, industry site visits,and panel discussions with professional engineers and scientists, information for the parent/guardian that covers Texas university application process, financial aid system, and scholarshipopportunities. The program sessions and
opposed to theinformal mentoring they received from MESA teachers and advisors. Participants spoke aboutmentoring not only their fellow underclassmen but also volunteering with local middle andelementary schools:…instead of doing the competition and competing, we get to volunteer -- we get to help with theum middle schools and um help them make their projects and give them advice. (Group One)We tutor elementary schools too, so there's a lot of elementary schools around. (Group Three)Also prevalent was the tutoring and mentoring of other MESA students by returning MESAmembers who took it upon themselves to assist their fellow underclassman duly noted in thisexcerpt from Group Four:…but we've done enough projects between us that we've probably done
researchers, especiallythose from groups that are underrepresented in the engineering population. The College ofEngineering at the University of Puerto Rico, Mayaguez Campus (UPRM) has an enrollment ofabout 5000 students (approximately 98% are Hispanic), 67% males and 33% females. Becauseof this, UPRM researchers have an excellent opportunity to impact both Hispanics and women,who are traditionally underrepresented populations in engineering.Currently, there are three active research endeavors funded through the BRIGE program atUPRM. The objective of this paper is to disseminate the broadening participation initiatives thathave been designed and implemented at UPRM through these projects. The first project seeks toprovide research experience to
sponsored research andeducation programs in conjunction with NCA&TSU faculty expertise. The mission of NASA and its four directorates (Aeronautics, Exploration Systems, Science,and Space Operations) requires STEM content that includes the bio-chemical sciences, physicalsciences (earth and atmospheric sciences), engineering and mathematics. This project hasdeveloped and implemented innovative pedagogical concepts of integrating the associatedNASA STEM content into the related courses at NCA&TSU. Page 25.609.2Goals and Objectives The vision of the INSTRUCT project is to integrate NASA content into STEMundergraduate courses with a primary
these REU’s give students a tasteof research and some of the technical components of conducting research, technical skillsalone are not enough to be successful in a research or academic career. Researchexperience connected with leadership building experiences will give students a definiteadvantage as they continue through their graduate and professional careers. ThisResearch and Leadership Experience for Undergraduates (RLEU) grouped a set ofminority students on the verge of starting their graduate programs in a project to conductresearch in optimization with various engineering applications. The group consisted ofstudents with little to no experience in optimization, students from industrial, mechanical,and civil engineering backgrounds, and
Department of Engineering Education at Utah State University. Lawanto holds B.S. and M.S. degrees in electrical engineering and a Ph.D. in human resource education. His research interests include areas in cognition, learning, instructions, engineering design, and e-learning. Currently, he is working on two research projects that investigate students’ cognitive and metacognitive activities while learning engineering. Both projects are funded by the National Science Foundation (NSF). Page 25.989.2 c American Society for Engineering Education, 2012 Offsetting Gender Bias in Engineering
improve graduateengineering education through multi-campus approach. A summary of the diversity portion ofthe ERC’s strategic plan and progress in the past three years in relation to the milestones for“High Quality Diversity Effort” is highlighted. The key performance indicators show that ERCthrough its partnering institutions is making measurable impact in capacity building for a STEMworkforce as seen in the broad involvement of underrepresented minority students and faculty incenter activities. Project CARE was used as case example of college transition program that wasimplemented based on the proposed model activities. The results show that Project CAREcontributed to 86% educational growth and performance improvement among URM studentswho
inequity mentioned above, a BDP program is proposed to help increasethe size and diversity of the graduate student population. The BDP program described herein wasinitially proposed as part of an NSF research project funded within the Network for EarthquakeEngineering Simulation (NEES) program, but it can be applied as a model for any multi-institutional research proposal. The proposed BDP model, based on the participants of the NSFproposal, is shown schematically in Figure 2. As shown in this figure, the proposed BDP iscentered around the University of Puerto Rico at Mayaguez (UPRM), a predominantly Latinoinstitution, and involves connecting the Latino students from UPRM with academic institutionsin mainland USA which in this case are the ones
. Page 25.748.1 c American Society for Engineering Education, 2012 Improving Recruitment and Retention for Engineering Degree Students in a Rural Highly Underserved Community AbstractThis paper presents an ongoing STEP-NSF and Department of Education-CCRAA fundedproject and recent findings. The project promotes the increase of engineering enrollment fromsecondary schools through the baccalaureate level among students from Northern New MexicoCollege (NNMC). NNMC is a minority serving institution located in a rural area with povertylevels below the level established by the Federal Government. Hispanic and Native Americanstudents constitute 73% and 11% of
for the ASCE Concrete Canoe competition team. She teaches a two-quarter technical elective course, which integrates not just the technical components of the concrete canoe project, but vital project management skills. Professionally, Van Den Einde is a member of ASCE and is currently the Secretary and Treasurer for the San Diego Earthquake Engineering Research Institute (EERI) chapter. Van Den Einde has her heart in the students’ interests.Mr. Terrance R. Mayes, University of California, San Diego Terrance Mayes serves as Director, Student Life and Diversity, for the University of California, San Diego, Jacobs School of Engineering. In this role he founded, alongside the school’s diversity advisory council, the
average ACT scoresthan Caucasians, the proportion of these minorities that become engineers from the proposedprogram is expected to be larger than that of current graduating classes of engineers. Thissolution can be implemented immediately and is projected to be cost neutral to the US taxpayerbecause of additional federal and state taxes paid by the new engineers relative to those taxesthey would have paid (in some other profession) without this program.Keywords: retention rates; graduation rates; ACT; summer programs; engineer pipeline;Background The solution proposed to the well-documented United States engineer pipelinechallenge[4,5,6,7,8,9,10] has been revisited and revised as a result of another year’s data. [1] Thesolution previously
AC 2012-3600: MIND LINKS 2012: RESOURCES TO MOTIVATE MI-NORITIES TO STUDY AND STAY IN ENGINEERINGDr. Maria M. Larrondo-Petrie, Florida Atlantic UniversityDr. Ivan E. Esparragoza, Pennsylvania State University Ivan E. Esparragoza is an Associate Professor of engineering at Penn State, Brandywine. His interests are in engineering design education, innovative design, global design, and global engineering education. He has introduced multinational design projects in a freshman introductory engineering design course in collaboration with institutions in Latin America and the Caribbean as part of his effort to contribute to the formation of world class engineers for the Americas. He is actively involved in the International
areasincluding: why a BS in engineering, why engineering, how is an engineering discipline chosen,how is an undergraduate degree in engineering financed, why pursue an engineering degree at aparticular institution, how important is a mentor, how important is research, what important skillsare required of an engineer, how important is graduate school, what is an MS thesis, why get aPhD, how is a company started, and what factors should be considered in choosing a job. Eachof these areas includes many sub-questions.A list of 136 questions was compiled to begin the project of providing answers to the criticalengineering student questions. The answers to these questions will eventually be posted on thewebsite of an engineering transfer student program
. Note the projection for computer networks (network systems and datacommunications).The proposed model also targets retention, breaking up long-term goals (e.g., obtaining abachelor degree) into milestones, where a milestone can be the completion of the 4 courses in thearea of computer networks. By doing so, the model provides a safety net to students, who areable to acquire skills demanded by the job-market early during their studies. Moreover, theprogram helps in avoiding high dropout rates during early semesters, where institutions havehistorically experienced higher dropout rates because of lack in incentive for students and limitedhands-on experience. The model is also articulated with the 2008 ACM and IEEE ComputerSociety Guidelines for
theretention-graduation rates of URM students in engineering, as well as the cultivation of middleand high school, community college students’ success in STEM.Topics that will be addressed include:–Developing innovative partnerships to increase the capacity and capability of academicinstitutions to recruit, admit, retain, educate and graduate underrepresented minority students inengineering–Establishing regional pilot projects across the United States–Measuring the impact of XXX’s STEM Integration Model Page 25.606.2 BackgroundThis is a critical time for our nation. While the United States has led the world in globalinnovation, economic competitiveness
success. Thecurriculum components integrate project-based learning and team-based design challenges withstudy skills development, time management strategies, and personal and professional skillsenhancement. Those will be discussed in another paper that focuses on First Year programs. Forthe remainder of this paper we will present another cornerstone of our college’s programs tosupport student success.Far too often, students who enter college aspiring to careers in engineering progress successfullythrough their freshman courses but do not survive the rigorous sophomore courses. Some of thesophomore engineering courses (e.g. Thermodynamics, Mechanics I, Chemical Processes,Applied Electromagnetics and Circuit Analysis) have pass rates in the range
, are not considered mainly because there is no access to them. Therefore, there is aneed to measure the efficacy of ECIs among underrepresented populations to determine itsvalidity and reliability. Traditionally, underrepresented populations score below nations’average on these instruments.5, 6To address this concern, in 2010 the National Science Foundation (NSF) funded a project whoseprimary objective is to test the efficacy of the Concept Assessment Tool for Statics (CATS)among bilingual engineering students from the University of Puerto Rico at Mayagüez (UPRM)(EEC-1032563). This study is composed of a 3-phase mixed method design, in which eachphase is guided by a specific objective and research question. Also, for this study we havedefined
attempt to get the new and at risk students to mingle with mature students and facultywithout enrolling them in a "special" program. The program's key objective is to get students toteach each other with mentors available to intervene only when necessary. In the Fall 2011 term,the project was started with virtually no funding. Laboratory space that was only being used20% of the time was made available to students to study in during the unused 80% of the classschedule.The motivation for this program and its objectives are discussed. Data collected following thefirst semester of operation is presented and discussed. Conclusions are drawn regarding theprograms impact on participating students.IntroductionStudents at every academic level are prone to
program followed by enrollment in a summer schedule composed of CollegeAlgebra or Chemistry I, a kinesiology course, and a university experience course for a total offive to six hours of classes. During the six-week summer session, MAPS students learned aboutthe biofuel industry and developed engineering projects on biofuel topics. MAPS students werehoused in university dormitories and supervised by engineering student mentors and MAPSadministrators. Evenings were spent in study halls, mentored by university students. Additionalactivities included a high ropes challenge, cultural trips, community activities, and professionaldevelopment. Field trips to an industry research facility and biofuels plant allowed students tomake connections with
AC 2012-4060: IDENTIFICATION WITH ACADEMICS AND MULTIPLEIDENTITIES: COMBINING THEORETICAL FRAMEWORKS TO BET-TER UNDERSTAND THE EXPERIENCES OF MINORITY ENGINEER-ING STUDENTSMs. Kelly J. Cross, Virginia Tech Kelly earned her bachelor’s of science in chemical engineering from Purdue University in 2007. She earned her master’s of Science in materials science and engineering from the University of Cincinnati. Cross is currently in the second year of the engineering education Ph.D. program at Virginia Tech and is currently involved with multiple educational research projects with faculty at Virginia Tech.Dr. Marie C. Paretti, Virginia Tech Marie C. Paretti is an Associate Professor of engineering education at Virginia Tech
confidence in recognition memory. NeuroImage, 29,1150-1160.[3] Rowe, H., (1988). Metacognitive skills: Promises and problems, Australian Journal of Reading, 11(4), 227-237.[4] Redding, R. E. (1990). Metacognitive instruction: Trainers teaching thinking skills, Performance ImprovementQuarterly, 3(1), 27-41.[5] Hartman, H.H., Sternberg, R.J., (1993). A broad BACEIS for improving thinking. Instructional Science 21,401-425.[6] Schraw, G., (1998). Promoting general metacognitive awareness. Instructional Science. 26, 113-125.[7] Wang, M.C.,Haertel, G.D.,Walberg, H.J., (1993). What helps students learn? Educational Learning 51(4), 74-79.[8] Lawanto, O., (2010). Students’ metacognition during an engineering design project. Performance ImprovementQuarterly