successful career in industry, of particularinterest is how contextualized, hands-on, collaborative learning contributes to their self-confidence and persistence in engineering. While research has indicated that active learningactivities and cooperative experiences foster deeper learning and have an impact on persistencein the engineering workforce, there is limited empirical evidence of women’s professionalpersistence and self-confidence as a result of this type of educational experience. Preliminaryfindings from a validated survey instrument, the General Self-Efficacy Scale (GSE), theAcademic Self-Efficacy (ASE), and the Professional Self-Efficacy (PSE) are presented. Keyfindings of what these women learned and appreciated, insight into the
engineers, as well as thecultural, social and economic aspects of practicing engineering abroad. Students also studyhistoric innovations and modern technology and how different cultures shape how engineering ispracticed. By giving students a taste of an international experience and increasing their comfortlevel with global travel, the program intends to promote additional, more extended internationalacademic experiences such as international internships, study abroad programs, or other faculty-led programs. RSAP also allows students the opportunity to make initial contact with an industryor university in another country to further their student experience or career prospects. First-year students apply to the program and are selected based on
is a frequent speaker on career opportunities and diversity in engineering. Page 25.110.1 c American Society for Engineering Education, 2012 A Successful 4-Year Academic Scholarship Program for Upper Division Engineering and Computer Science Non-Transfer Students and Graduate StudentsAbstractThis paper describes a successful four-year academic scholarship program for upper divisionengineering and computer science students funded by a National Science Foundation’s S-STEMgrant that ran from Fall 2007 through Spring 2011. Scholarships of $2,000 per semester weregiven
as a Staff Engineer at Acoustic Technologies Inc. in Mesa, Ariz. He holds one patent and is the author and/or co-author of numerous papers. He is a senior, life member of IEEE and a member of ASEE. Page 25.138.1 c American Society for Engineering Education, 2012 Advising Engineering Students to the Best Program: Perspective, Approaches and ToolsIntroductionOur present era is characterized by an almost an infinite number of choices, ranging from icecream flavors to vehicles. The situation is no different for those pursuing careers in engineeringprograms
- portunity and Affirmative Action at Utah State University. She also held an adjunct position at USU in the Department of Sociology, Social Work, and Anthropology. After earning her B.A. and M.A. in English and her Ph.D. in higher education from the University of California, Los Angeles, Guenter-Schlesinger began her career with the University of Maryland’s European Division and the U.S. Army Research In- stitute. She then served as Director for the U.S. Army’s Equal Opportunity Program in the European Command, located in Heidelberg, Germany. In her current role, Guenter-Schlesinger is Chief Advisor to Western’s President and Provost on equal opportunity and employment diversity issues. Her current re- sponsibilities
, 14-16. However, Katehi et al.1, in their summaryof the current state of K-12 engineering education, note that these natural connections betweenthe subjects are not always emphasized. Though engineering in practice requires application ofmathematics and science, current engineering education is limited in scope. Science is treatedonly as a tool and math is used mainly for data analysis1.One of the benefits of introducing engineering (in particular engineering design) into themathematics and science curricula is an increased interest in STEM subjects and careers inSTEM fields. Several studies found an increase in students’ interest in these areas afterimplementing engineering design into K-12 science and mathematics classes7-10, 17. There
skills training, to enable ET students to solve production and systemimplementation problems and help them explain solutions. Therefore, to prepare the students tomeet the industry requirements in the job market, it is urgent to update the educationalcurriculum along with technology trend in the ET program.To better fulfill the departmental primary purpose to prepare students for a successfulprofessional career in diversified technology fields, in the current phase of the project, an specialtopic class is offered to the Engineering Technology students. The course is featured withgeneral introduction of agricultural robotics, theory and technology behind motion robotics, andhands-on experience with motion robotics. This paper introduces the
as the minimum level of education for new hires. In addition, the AmericanSociety of Civil Engineers (ASCE) recommends a master’s degree or the equivalent of 30 creditsbeyond a bachelor’s degree as part of the minimum body of knowledge for licensed professionalengineers. Finally, students whose end goal is a career in professional practice have indicated apreference for graduate programs focused on design knowledge essential for the advancement ofstructural engineering practice. These needs provided the opportunity for the creation of a newprofessional master’s program in structural engineering at Lehigh University.Launched in summer 2008, the program is led by a full-time professor of practice with industrydesign experience and guided by an
projectmanagement skills early in an undergraduate engineering curriculum can reap substantialrewards for graduating engineering students early in their careers and, by extension, alsofor the organizations that choose to employ them.As stated earlier, the first four course modules are built around technical projects. Thefifth module, however, addresses professional development skills directly. For the fifthmodule, the groups of students, working together as groups throughout the semester,must present one of the technical projects associated with the first four modules in astructured oral presentation which is recorded, viewed by the students, critiqued andgraded. A PM is assigned and, once again, that PM receives a double grade for his/herefforts.Prior to
-authors.Six questions were posed to freshman students via e-mail, from the ESSAP office. Studentswere asked to provide input in the following areas, with a half page paragraph describingpositive and / or negative impacts for each question: 1. What was the impact of your interaction with other freshman engineering students working on the same projects? 2. What was the impact of your interaction with the sponsor? 3. What was the impact of your interaction with upper division engineering students or graduate students? 4. Did the team project experience have any impact on your engineering career? 5. What kind of skills did you acquire that you consider of value to your engineering career? 6. What would you change to make
paper, we describe a novel afterschool engineering program targeted for middle schoolgrades. The afterschool program builds on our many years of experience in conductingengineering-based professional development for K-12 teachers. The program is founded on athree-pronged approach of: 1) engaging students in inquiry-based learning opportunities thatfeature motivation of engineering concepts with readily-available technology examples, andteam-based design projects with the National Academy of Engineering 21st Century GrandChallenges themes; 2) professional development and support for teachers to guide students inmeaningful engineering design activities; and 3) informing parents and caregivers of the fullrange of STEM college and career pathway
on career opportunities, enhancing the transfer student experience, and diversity in engineering. Page 25.1398.1 c American Society for Engineering Education, 2012 Understanding the Path of Engineering and Computer Science Upper Division Transfer Students To a Large UniversityAbstractThe community college is a critical source for growing the engineering and computer fields inthe United States. The encouragement, recruitment, transfer and acclimation process for thesestudents to a larger four-year school is very crucial in their successful
over the next decade anational priority”.2 Here, partnerships between industries, foundations, non-profit corporations,and science and engineering societies are asked to contemplate new methods for motivating ouryouth to attain academic degrees in STEM fields. Also in 2009, the President’s Council ofAdvisors on Science and Technology made several recommendations for improving STEMeducation in the United States. These recommendations focused on improving the quality ofeducation by preparing the teaching workforce to instruct students on acquiring the necessaryskills for building “a strong foundation in STEM subjects”, and inspiring students to be“motivated to study STEM subjects” throughout their academic life and careers.3 Further spurredby
program helped 4.33 33.3% 66.7% 0 0 0 broaden my understanding of engineering (0.49) and engineering technology.2. The sessions (presentations and projects) in the pre-engineering program helped me 4.00 16.7% 66.7% 16.7% 0 0 understand the various career choices (0.60) within engineering and technology.3. The sessions (presentations and projects) 4.00 helped me understand the engineering 33.3% 33.3% 33.3% 0 0
time was simply to go toUniversity and get a degree, which would then serve as the springboard for my career. Despiteseemingly limited options, I was not challenged after graduating from high school to be criticalof my career path. Upon graduating from University, I became aware of the choice of optionsbefore me: I could work in engineering industry, I could pursue my entrepreneurial dreams, Icould pursue graduate research in engineering, I could pursue graduate work in another area ofinterest. Faced with these decisions, I started to be critical of my career and my goals for furthereducation. I started to question how graduate studies would benefit me in the future. My criticalperspectives started in undergraduate studies and have been
students. She is a student member of American Society for Engineering Education (ASEE).Dr. Monica Farmer Cox, Purdue University, West LafayetteDr. Demetra Evangelou, Purdue University, West Lafayette Demetra Evangelou, Ph.D., is an Assistant Professor in the School of Engineering Education at Purdue University. She obtained her B.A. in psychology from Northeastern Illinois University, and a M.Ed. and Ph.D. in education from University of Illinois, Urbana-Champaign. She is a member of Sigma Xi Science Honor Society. Evangelou was awarded an NSF CAREER grant in 2009 and a Presidential Early Career Award for Scientists and Engineers (PECASE) in 2011. Evangelou’s current research focuses on engineering thinking
the end of the experience a document that gave a good indication of what they hadlearned about the working world in their first large encounter. Emphasis was placed on makingan effort to collect as much information about the working world so that future decisions aboutwhat they wanted in a career could be planned for and not simply walked into blind.A set of question conveyed what the individuals should be investigating.1. Info session - What do you need for the report?__________2*. Plant tour - What do you see?______________________________3*. Co-op job orientation.What are your responsibilities? What are the objectives of your position? Why does it exist?Does it utilize your tech. background?4. Who will you report to and how is this to be
. Page 25.211.1 c American Society for Engineering Education, 2012 Assessing a Unique Engineering Undergraduate Degree ProgramAbstractThe ABET accredited Bachelor of Science in Engineering (BSE) degree program at MichiganTechnological University allows students to customize their degree curriculum. With guidancestudents are allowed to select up to 40% of their degree requirements to meet their career goals.Due to the flexible nature of this degree, it is challenging to determine if Program Outcomes(ABET a-k) are being met because each degree may be different. To supplement our currentassessment of student learning outcomes we have implemented a core competency exam whichBSE students must complete before
Purdue in 2007, she was an Assistant Professor of industrial engineering at Texas A&M University, Com- merce. From 1990 to 2004, she held positions of increasing responsibility at the Automation & Robotics Research Institute in Fort Worth, Texas, and left as Program Manager. She also has more than five years working in an aerospace company in addition to working on funded projects in aerospace throughout her career at ARRI. Her research interests are process modeling and improvement, emissions testing and analysis for alternative fuels, and increasing the interest of young people in careers in sTEm. She holds a B.S., M.S., and Ph.D. in industrial engineering from the University of Texas, Arlington
degrees and careers in STEM (Science, Technology, Engineering and Math) related fields.Currently, the pool of engineers in the United States is undersized to meet the needs of our society andeconomy [1]. If current trends do not change, the demand for engineers will surpass the supply ofengineers in the US [2]. A startling number of students in the US are failing to pass science benchmark standards at a Page 25.863.2proficient level. According to the National Center for Educational Statistics, fewer than 1 out of 3students perform at or above the proficiency level in 8th grade science [3]. Students from low income andunderrepresented
no internship experience. “Once, having an internship or two on your resumemade you a real standout in the marketplace. Today, internships are really the only wayto make sure you get on the career track of your choosing.” 2Engineering programs and the hosting industries also benefit in many ways. “Theprograms possess several advantages and provide benefits to all stakeholders.” 3 TheInternship program is a perfect vehicle to network into many different types of businessesand industries. This working relationship often results in program benefits such as state-of-the-art equipment donations, sources of student scholarships, recruiting tool for currentindustrial employees wishing to upgrade their skill set, a job placement highway forgraduates
engineering that has todo with cleaning up the effects built systems have had on the environment. Sustainable design“focuses on design that requires fewer natural resources, produces less (or no) waste, andreduces, reuses, or recycles waste produces (p. F1c-2).” One university defines sustainabledesign as having four components, technical, financial, environmental, and societal and these arereinforced throughout the students’ career in a series of courses spanning freshman to sophomoreyear7. James Madison University defines environmental sustainability as an approach to the engineering of processes, products, and structures which has, indefinitely, a less negative, neutral, or benign effect on all environmental systems. Sustainable
Innovation Center at the Ohio State University and Professor Emerita of mechanical engineering-engineering mechanics at Michigan Techno- logical University. She recently served as Program Director within the Division of Undergraduate Educa- tion at the National Science Foundation. She began her academic career on the faculty at Michigan Tech in 1986, starting first as an instructor while completing her Ph.D. degree and later joining the tenure-track ranks in 1991. Sorby is the former Associate Dean for Academic Programs in the College of Engineering and the former Department Chair of Engineering Fundamentals at Michigan Tech. Her research interests include graphics and visualization. She has been the Principal
Page 25.685.2guidance of a faculty member.6 Developing relationships with faculty and graduate students canalso help undergraduates learn more about graduate school and graduate-level research.3,7Indeed, the National Science Foundation calls undergraduate research “one of the most effectiveavenues for attracting talented undergraduates to, and retaining them in careers in, science andengineering, including careers in teaching and education research.”8By engaging in an undergraduate research experience, students can make gains in academic,cognitive, and personal development. Through their research opportunity and interactions withfaculty, graduate students, and peers, students advance their knowledge and understanding of asubject area, develop
AC 2012-4640: ”WHAT COUNTS FACTORS”: PREPARING ENGINEER-ING STUDENTS TO INNOVATE THROUGH LEADERSHIP OF MULTI-FUNCTIONAL TEAMSDr. Mark Schar, Stanford University Mark Schar works in the Center for Design Research at Stanford University, he is a member of the Sym- biotic Project of Affective Neuroscience Lab at Stanford University, and he is a lecturer in the School of Engineering. Schar’s area of research is the intersection of design thinking and the neuroscience of choice where he has several research projects underway. He has a 30-year career in industry as a Vice President with the Procter & Gamble Company and Senior Vice President and Chief Marketing Officer with Intuit in Silicon Valley. Schar has a B.S.S
, lose theirdirection within the pipeline and do not continue their studies beyond an associate’s degree.To address both the demand to increase the number of STEM graduates and also the need toprovide an alternative route for non-traditional students, we have developed and implemented a“Bachelor’s Degree Completion” program for working professionals, adult learners andcommunity college students who are interested in careers in science and technology.This new Bachelor’s Degree Completion program is an integrated approach to science andtechnology that provides an opportunity for non-traditional students to finish their degrees in twoinnovative tracks of Information Systems Technology and Biotechnology. The program is alsodesigned to provide a
AC 2012-3182: THE RAISE THE BAR INITIATIVE: CHARTING THE FU-TURE BY UNDERSTANDING THE PATH TO THE PRESENT - EXPERI-ENTIAL GUIDELINESDr. Monte L. Phillips P.E., American Society of Civil Engineers Monte L. Phillips is an Emeritus Professor of civil engineering at the University of North Dakota. He received a Ph.D. from the University of Illinois with an emphasis in geotechnical engineering. During a 39-year career as an educator, he served on the faculties of the University of North Dakota, Ohio Northern Univeristy, and the University of Illinois. Phillips has been an active member of the National Society of Professional Engineers serving as National President in 1994-95. He currently serves NSPE on the Board of
undergraduateeducation, and (3) to foster professional development for careers or graduate education. Thesegoals are realized through the students’ shared interactions within the SEECS seminar.Students awarded SEECS scholarships are required to attend a seminar where specificdevelopment and learning outcomes are realized in a team-based, project-based approach. Thechallenging and engaging aspect of the SEECS program is this zero-credit seminar. The SEECSseminar is structured around three components: engineering design, professional development,and personal development.While the two development facets are valued, the engineering design component is the pivotalexperience connecting and building not only engineering competency but also personalconfidence
AC 2012-4202: ENGINEERS SERVING EDUCATION: BRINGING MATHAND SCIENCE TO LIFE IN THE K-8 CLASSROOMStephen Rippon, Arizona State University Steve Rippon is the Assistant Dean of Student Services in the Ira A. Fulton Schools of Engineering at Ari- zona State University. In this capacity, he oversees the engineering schools’ K-12 outreach, undergraduate student recruitment, undergraduate engagement programs, and the Engineering Career Center.Dr. James Collofello, Arizona State University Page 25.565.1 c American Society for Engineering Education, 2012 Engineers Serving Education
are imminent in the student’s career but courseobjectives broaden well beyond professional development. The “Mini” modules are briefoverviews or subsections of the full module topics, and consist of four or five slides for easyintegration. This paper focuses on the development and summary of these “Mini” modules.Professional Development “Mini” Modules“Mini” modules have been developed around three major topics: Educational Context;Professional Development; and, Engineering Ethics. The Educational Context “Mini” modulesexplore the development of engineering education through its history, the relationship betweenthe missions of the university and individual engineering departments, and the overallphilosophy of higher education. These modules