theclient with specific recommendations to save money by reducing energy waste or productioncosts. Each recommendation presents the current state a recommendation of the estimatedsavings, the estimated project cost, and the estimated simple payback. Last year, facilities fromThe University of Dayton Industrial Assessment Center reported savings on average of $136,000per year based on an assessment.II. Student LearningCommunicationA critical element in a successful career is the ability to communicate effectively; transferringinformation clearly and accurately is important for the students to learn. Through the IAC,students are given the opportunity to become effective communicators by extensive practiceconveying written and oral technical
) influence their career choice - students (andtheir parents) who were involved in these activities stated that they loved the activities and parents haveexpressed appreciation to the instructors for explaining engineering to their children in a fun and excitingway.Young ScholarsThe Young Scholars program was established before the starting dateof this grant and was quite successful. The technical portion of theprogram was named as one of the top three programs nationwide inthe IEEE-USA Precollege Education Project Competition. Wehad a series of classes which were all full, and demand for moretechnical content in the program. The Young Scholars program is administered by the School ofEducation, not the School of Engineering and Technology.The courses
implement the projects. The college also partner with area industries toschedule classes and workshops for specific groups of employees wishing to upgrade or learn newskills. As the industries realize the benefits these labs, they will offer research project and financialsupport to our department which grantees our future grow.c. Impact on Curriculum and InstructionThe study of CIM and related advanced manufacturing requires modern equipment that thestudent can utilize in a lab setting. The long run plan is to offer students CIM-related options incomputer science and other pertinent fields. Such advanced offerings can be tailored to thestudent’s individual career goals. Our developing interdisciplinary effort combines engineeringand computer
SESSION 3448 A Recruiting and Retention Strategy Through A Project Based Experiential Learning Course Hirak C. Patangia University of Arkansas at Little Rock hcpatangia@ualr.eduAbstractAn experiential learning course centered on an intellectually inquisitive project has been designedfor the benefit of any freshman student who wants to explore engineering as a career field, andalso to provide the prospective majors with a head start for the beginning engineering
Session 3448 Gateway to Technology Ashok K. Agrawal, Terrence L. Freeman St. Louis Community College at Florissant ValleyAbstract One of the critical challenges in recruiting and retaining students in engineering andengineering technology is overcoming the hurdle of time spent in developmental courses. Many ofthe students who express interest in technological careers find that they must address deficienciesin reading, English, or mathematics before beginning a technological program. During this processmany students are diverted from their original academic goal
from 2002-2006. He is experienced in industry as well as the teaching profession with a career spanning five years in engineering design, several years part time consulting in industry, and 24 total years of teach- ing first high school, then community college and presently university-level courses in the engineering technology subject area. Irwin has a research focus on evaluation of teaching and learning in the area of computer aided design, analysis, and manufacturing subjects introduced in the STEM related courses in K-16 educational levels. From 2009-2010, Irwin served as PI for a Michigan Department of Educa- tion Title II Improving Teacher Quality grant targeting grade 5-12 physics and chemistry teachers’ use of
of programs that develop community and help move faculty and student entrepreneurs from innovative ideas to the launch of products and businesses. Weilerstein began his career as an entrepreneur as a student at the University of Massachusetts. He and a team including his advisor launched a start-up biotech company and took it to IPO. This experience, coupled with a lifelong passion for entrepreneurship, led to his work with the National Collegiate Inven- tors and Innovators Alliance. He is a founder of the Entrepreneurship Division of the American Society of Engineering Education and is the recipient of the 2008 Price Foundation Innovative Entrepreneurship Educators Award
and vision totransform the future.SPSU is a place where students are educated for life and for leadership in anincreasingly technological world. We prepare our students for their very first jobafter graduation, with the skills that make them highly marketable and successful.We feel it is just as important that our education also prepares students for the lastjob in their careers. Thus, our courses and programs are structured to enable menand women to adapt, grow, and continue to learn over the years, developing theleadership skills needed to implement the vision of a technological future.Students at SPSU learn skills beyond the essential technological and scientificknowledge that qualifies our graduates to contribute to some of the
concepts and makes the underlying mathematicalor scientific principles more relevant to the student, and in doing so it generates challenges andexcitement. It is our hypothesis that by adding EBL as an organizing principle to our STEMclasses, this will lead to increased student achievement and interest in STEM education asmeasured by the number of students taking elective science and math classes and the number ofstudents selecting STEM careers. Second, the EBL provides a general framework, skill set andtools that are applicable to any STEM subject or course. That is possible because EBL pedagogyuses the engineering design process (EDP) and the college-level known capstone experience. The paper will cover the details of our implementations
togauge student perceptions. The assessment is broken down into two parts: student ratings of theirpersonal abilities in the learning goals and student perceptions of the importance of these skills totheir career goals. The instrument consisted of Likert items using a scale of 0 (no ability or notimportant) to 5 (excellent ability or very important). A complete list of the survey items can befound in the Appendix. Surveys were completed as a part of a homework grade via Google Docswithin the first two weeks of the semester and will be conducted again at the completion of thesemester. Identifying information was recorded only so that the resulting changes in theindividual student perceptions and self-assessed ability could be compared pairwise.To
AC 2012-4352: INCORPORATING NAHB PROFESSIONAL DESIGNATIONSINTO A UNIVERSITY RESIDENTIAL CONSTRUCTION MANAGEMENTSPECIALIZATIONProf. Eric A. Holt, Purdue University Eric A. Holt is a Graduate Instructor at Purdue University in the Building Construction Management Department. Holt earned a B.S. in building construction technology and spent 19 years in the residential construction industry. His career includes construction material sales and marketing, building inspector, customer home project management, and architectural design for homes and remodel projects. He earned a M.S. in technology from Purdue University, in construction management. He is currently working on his Ph.D. in construction management, focusing on
AC 2012-4460: JUNIOR CYBER DISCOVERY: CREATING A VERTICALLYINTEGRATED MIDDLE SCHOOL CYBER CAMPDr. Heath Tims, Louisiana Tech UniversityProf. Galen E. Turner III, Louisiana Tech UniversityMr. G.B. Cazes, Cyber Innovation Center G.B. Cazes currently serves as the Cyber Innovation Center’s (CIC) Vice President, responsible for its daily operations. In addition, Cazes has devoted countless hours to the development and implementation of a dynamic Academic Outreach and Workforce Development program. This program will assist the CIC in developing a knowledge-based workforce for the future. Cazes has spent his entire career in the information management and information technology sectors. His experience includes working in the
inthese subjects by the conclusion of their formal education. Students’ attitudes with respect tomathematics and science are known to be developed at a young age and become entrenched bymiddle school. In an effort to encourage young students to eventually pursue careers in science,technology, engineering, and mathematics, the Colorado School of Mines has developed theBechtel K-5 Educational Excellence Initiative. This engineering outreach program is beingimplemented in five minority elementary schools located throughout the Denver area, eachschool including grades kindergarten through fifth. One measure of impact of this program is anattitudes survey in mathematics and science. This article presents a study that seeks tostatistically examine
. Page 25.964.3In addition to preparing students for careers where a basic knowledge of nanotechnology isrequired, it is also essential to educate the general public regarding nanotechnology. Society isalready being affected by new developments in nanotechnology and will continue to be affectedin the future. In deciding the future of nanotechnology, both the technical experts and the publicwill participate in the decision making. Therefore it is essential to educate the general public sothat they can make informed decisions2. Although designed with science and engineering majorsin mind, this introductory course is open to and is accommodating to all majors increasing aninformed citizenry.ObjectivesThe objectives for the NanoExposed! course are
students who were not participating. This early comparison provided ahelpful basis for future comparisons and helped clarify assertions about the selection and application process and thedegree to which it might influence the make-up of the participant group. If, for example, the selection processrecruited—by design or by accident—students who were disproportionally interested in STEM careers beforeparticipation, conclusions about the ability of the program to encourage students to pursue such opportunities mightbe reasonably questioned. Independent-samples t tests found no statistically significant differences between thegroups’ mean responses, indicating that even where differences between the Digispired participant group and thecomparison group
Anderson’s career began as a middle school science teacher and an instructor at the post-secondary level, which then led to program administration. She has extensive experience developing precollege academic programs and diversity, retention, and student support programs. Her current role involves es- tablishing and maintaining partnerships with secondary schools, community colleges, corporations, and state and national organizations that help strengthen the University’s outreach, recruitment, retention, and graduation of underrepresented student populations, as well as the recruitment and retention of diverse faculty and staff. Michigan Tech’s ongoing climate study is directed by Anderson. She advises and re- views unit
. Page 15.957.2Efforts to attract students to an engineering career must acknowledge that two-year institutionsor community colleges represent the fastest growing segment of higher education.15 Recent datashows that 40% of individuals earning bachelor or master’s engineering degrees started highereducation in a community college. The trend is higher in some states such as California forwhich more than 48% of graduates with science or engineering degrees started at a communitycollege.16Despite this contribution to the nation’s engineering workforce, engineering education in acommunity college environment presents formidable challenges for both students andinstructors. Most community colleges have small engineering programs with only a few faculty
program is designed to help students whoare • not engineering majors but are interested in understanding “how things work” • looking at directorship, management, technical marketing, sales, and related careers in an industry that continues to involve more technology • possibly interested in public policy decisions impacting government, education, industry, religious institutions, health care, and other areas of societal impact, and/or • thinking about working in bioengineering areas, but not on the technical side.The MES program overall and its constituent classes were designed and implemented in2006. All of the MES courses are designed with no prerequisite classes. In general, theprogram
as amember of an underrepresented group increased to 3.2 percent during that period. Forprofessional staff, the percent of underrepresented minorities increased to 6.4 percent betweenfall 2006 and fall 2008.There are several college level and graduate level programs that support and increase diversityon campus. At the college level, the Ronald E. McNair Post-Baccalaureate AchievementProgram has the objective to increase the numbers of low-income, first-generation andunderrepresented minority undergraduates who pursue doctoral degrees (specifically the Ph.D.)and go on to careers in research and teaching at the University level. Another program at theundergraduate level, the National Science Foundation (NSF) Scholars program currentlysupports
University Dr. Yang is a professor in the department of technology education. Technology education is his major research area. He is also the director of centere for teaching and learning technology. He got his Ph.D from Iowa state university and Master degree from University of North Dakota. Page 15.708.1© American Society for Engineering Education, 2010 In-service Professional Field Expansion Model of Vocational Senior-high Technology Teachers in TaiwanAbstractCoping with rapid knowledge growth, career expansion become an important consideration fortechnology teachers. By getting teacher license
. This paper describes research activities conducted primarily in the mechanicalengineering department by undergraduate students. Projects in biomechanics and biomaterialsintegrate engineering mechanics and materials science with the life sciences to enableundergraduate engineering students to participate in cutting-edge research. These activities areexpected to attract more students, especially female students, to engineering and to expand thefuture career options of mechanical engineering students.There are a number of special circumstances that must be considered when developing researchprojects that are appropriate for undergraduate students. The undergraduate research activitiesare carefully designed to recruit suitable students and to
engineering or aviation majors. So, acomputational mathematics degree was proposed taking the essence of these similar degreeprograms and adapting them to the strengths of our university.Computational Mathematics Degree ProgramAs mentioned earlier our university is a selective private masters granting technical university.The purpose of our university is “..to provide a comprehensive education to prepare graduates forproductive careers and responsible citizenship with special emphasis on the needs of aviation,aerospace, engineering, or related fields…”. To achieve this, the following education goalswere developed for the degree program with focus areas in computational engineering andsciences. a. The degree program will ensure that students
, faculty, and employers alike see passing the FE exam as animportant first step in a Civil Engineering career. Historically, FE pass rates at our Universityhave slightly trailed both national averages and those for our Carnegie classification-basedcomparator group for those students taking the Civil Engineering specific afternoon exam. Therelative difference in pass rates, however, has been quite variable over the years. Recently,department faculty have responded to this situation by conducting an analysis of curriculumissues related to student preparation for the FE exam and by implementing new measuresdesigned to improve student preparation and FE exam pass rates. An analysis of the most recenttest performance found that there was a
nature?This is how casuistic analysis works. The case study is deconstructed into its component moralfeatures. A judgment can then be made regarding whether the actors, be them from real-lifecases or fictional ones, acted morally. We need not be judgmental here: we can entertainquestions about whether the circumstances made it difficult or impossible to have actedotherwise, too. The author’s contention is that this is what makes case studies useful; that is tosay, case studies show us how to analyze the morally salient aspects of paradigm cases, which inturn help us identify similar moral questions in situations and activities we will encounter in ourown lives.In his own career, the author has encountered examples of ethics instruction that
undergraduates must complete three significantprojects, including a third-year interdisciplinary research project called the "InteractiveQualifying Project", or IQP. The IQP is not directly related to the students' major areas of study.Instead, by working on multidisciplinary teams to address problems related to technology,society, and human needs, students come to understand how their careers in technology willimpact, and be affected by, societal structures and values. A central learning outcome of thisproject is an understanding of the social and cultural contexts of technology and science. The Page 10.1065.1 Proceedings of the 2005 American
project, this paper reports the lessons learned in managing this rather large andcomplex project which brings together two quite different educational institutions. The results todate have been quite positive.IntroductionIn 2003 WPI began a three-year project, "K-6 Gets a Piece of the PIEE (PartnershipsImplementing Engineering Education)." This project is funded by the NSF Graduate TeachingFellows in K-12 Education (GK-12) program, the goal of which is to involve engineeringgraduate students with K-12 science and engineering education. Some small number of thesegraduate students will decide to pursue careers in K-12 education, but for most, the intenseexposure provided by the Fellowship program should lead to increased involvement with K
Session 3542 Privatization Initiatives: A Source for Engineering Economy Case Studies Paul Kauffmann Tarek Abdel-Salam Keith Williamson East Carolina University, Greenville, NC Carol Considine Old Dominion University, Norfolk, VAIntroductionUndergraduate courses in engineering economy provide the opportunity to cover many topicsthat are essential for the career success of practicing engineers. Primary among these areknowledge of cost
those with traditional engineeringdegrees. One argument is that agricultural engineers could get the required expertise in a graduateprogram. However, many of students from developing countries neither have the financialbacking nor the assurance for better career opportunities to justify a graduate program in theircountries.Many AE programs in developing countries have agricultural machinery/precision agriculture, Page 10.139.1soil and water resources engineering, and food engineering as the core areas in the curriculum. 2They place very little
the student as evidence that graduates could undertake tasks in a “compliant, dutiful andreliable manner” [2]. However, in the context of the changing nature of the engineering industry,the graduates of the new millennium are required to be equipped with skills to accommodatethese changes. Indeed graduates will have: “increasingly flexible and truncated careers. Hence graduates have to be more ‘flexible’ in theirattitudes towards work and more ‘adaptive’ in their behaviour in the labour market. They requirea broader portfolio of technical, social and personal skills than...were emphasised in the past.”[2].Therefore, the type of graduates we need to produce are those, not only with engineering skillsbut ones that are business-aware, with good
Motivation and Maturity of Engineering and Engineering Technology Students with and without Co-Op ExperienceAbstractExperience-based education in the form of Co-Op is generally accepted as having a positivecorrelation with a student’s academic and early career performance. Unfortunately, most of theevidence is anecdotal or based on statistical studies of large databases. It does not explain whyand how a Co-Op experience correlates with enhanced student or employee performance. Thispaper proposes a model that can explain how Co-Op experience can result in better grades inschool and better performance at work. The paper also describes an experiment performed todetermine if students with Co-Op experience are more motivated