via an email link, andresulted in 144 responses. 36.8% were female, 24% were male. This survey was again repeatedfollowing the 2013 offering of the course, this time with 45% females and 55% malesresponding. Students were asked about their interests outside of engineering, their perceptions ofengineering as a career, and their thoughts on course material. Regardless of gender, students in2012 and 2013 identified computer games as their second most likely hobby, following sports Page 26.997.3and athletics.Students also perceived engineering in a generally favourable way, with the majority agreeing orstrongly agreeing that engineers are
research interests include electrokinetics, predominantly di- electrophoretic characterizations of cells, and the development of biomedical microdevices. She earned a NSF CAREER award and was nominated for Michigan Professor of the Year in 2014. Research within her Medical micro-Device Engineering Research Laboratory (M.D. – ERL) also inspires the development of Desktop Experiment Modules (DEMos) for use in chemical engineering classrooms or as outreach activi- ties in area schools (see www.mderl.org). Adrienne is currently co-Chair of ASEE’s Diversity Committee and PIC I Chair; she has previously served on WIED, ChED, and NEE leadership teams and contributed to 37 ASEE conference proceedings articles.Prof. Beena
Paper ID #12895Tensions of Integration in Professional Formation: Investigating Develop-ment of Engineering Students’ Social and Technical PerceptionsProf. James L. Huff, Harding University James Huff is an assistant professor of engineering at Harding University, where he primarily teaches multidisciplinary engineering design and electrical engineering. His research interests are aligned with how engineering students develop in their career identity while also developing as whole persons. James received his Ph.D. in engineering education and his his M.S. in electrical and computer engineering, both from Purdue University
- ing education and practice, and student reflection. Page 26.303.1 c American Society for Engineering Education, 2015 Building capacity and social capital around interpretive research qualityAbstractSet in the context of an NSF-funded CAREER project, this paper describes a collaborative effortin the engineering education research community to build social capital and capacity aroundquestions of research quality. To date, this effort has entailed: i) two one and a half-daylongitudinal interactive workshops with leading qualitative researchers in the
impacts a person’s belief in his or her own ability to be successful in a course, class,college, and career. This session will equip educators with strategies to support studentparticipation, persistence, engagement and success in STEM, to ultimately increase theparticipation of women and students of color in engineering careers. Join us to use engineeringthinking to infuse more equity into your classroom!Workshop Description. Please provide a detailed description of the proposed workshop that, at Page 18.13.3minimum, explicitly addresses the following (maximum 4,000 characters): a. Learning objectives b. Hands-on activities and
Paper ID #14313Shifting Instruction to NGSS Engineering Practices: Strategies and LessonsLearned from Washington’s Statewide LASER ProgramDr. Ann P McMahon, Pacific Science Center Dr. Ann P. McMahon is Vice President of Science and Education at Pacific Science Center and Co- Director of Washington State LASER (Leadership Assistance for Science Education Reform). A satellite engineer for McDonnell Douglas in St. Louis for ten years before her career in science education, she has taught preschool and elementary school science and engineering and worked as a professional develop- ment provider of K-12 inquiry-based science and
programestablished within Villanova University’s College of Engineering in 2009. The group aims todevelop excitement and interest towards engineering careers, especially among under-represented groups, by offering hands-on educational activities in engineering and science at hostschools. The initial group membership was primarily focused on graduate students and upper-class undergraduates1 but has transitioned to more significant undergraduate membership. This isconsistent with a strong service-learning commitment among Villanova undergraduates and thefaculty.The founding group was comprised of primarily civil engineers who created activities associatedwith structural engineering for sixth grade students. Due to interest expressed by the hostschools, the
Minority Male Maker Program: Encouraging STEM Interest and Creativity in Middle School Boys Jumoke O. Ladeji-Osias1* , LaDawn Partlow1, Monique Head2, Roshan Paudel3, Jonathan Farley4 and Omar Muhammed5Departments of 1Electrical and Computer Engineering, 2Civil Engineering, 3Computer Science & 4 Mathematics; 5Entrepreneurial Development and Assistance Center Morgan State University, 1700 E. Cold Spring Lane, Baltimore, MD 21251 * Corresponding Author: Jumoke.Ladeji-Osias@Morgan.EduAfrican-American and Hispanic males are significantly underrepresented in STEM. While youthstart narrowing their career choices in middle school
box foryour response for the following statements:Answer Options Strongly Disagree Neutral Agree Strongly Rating Disagree Agree Average1.) Students are actively engaged in 1 2 4 81 120 4.52the hands-on projects in PLTWcourses.2.) Hands-on projects reinforce the 1 2 5 66 134 4.59curriculum in PLTW courses.3.) Students have become moreinterested in engineering as a result of 1 1 50 78 74 4.09taking PLTW courses.4.) Students have a betterunderstanding of STEM careers after 1
collaboration in engineering disciplines, and investigated thestate and trajectory of engineering education research collaborations [11, 12]. Other researchersalso explored the impact of international collaboration on engineering students’ learningoutcome and their learning experiences [6, 13, 14]. Specifically, McNeill used qualitativemethods to examine the experiences and learning outcomes of three groups of engineeringstudents involved in global engineering education programs. Dwyer suggested that studyingabroad has a significant impact on students in the areas of continued language use, academicattainment measures, intercultural and personal development, and career choices. Despite ofprior effort, little has been done as related to students
learn aboutSTEM subjects and introduce them to careers involving STEM. Girls completing 6th grade or8th grade can attend the program. Variations of this program has been offered for 15 years andhave reached over 3,000 girls. The new curriculum, using e-textiles, was implemented in thesummer 2014 program. The evaluation of the curriculum was done through observations of thee-textile sessions, feedback from the participants, and information gathered in participant'sengineering notebooks. The evaluation offered is primarily anecdotal, though participantfeedback and notebook analysis is compiled into quantitative data. While the overall feedback onthe e-textile projects was positive, the girls exhibited some displeasure at having sewing be partof
understand the factors Page 26.140.2that affect co-op participation, because there are several complicating factors, including studentattributes and differing program requirements. Students consider benefits and drawbacks whenchoosing to participate in a cooperative education program. Eligibility requirements such asstudent classification, grade point average, and courses completed assure that companies arereceiving qualified students at their workplaces 4.While researchers have examined career outcomes and benefits5-7; few have taken priorexperience into account8. We aim to provide a comprehensive quantitative study of theassociation between co-op
intensefocus on the Engineering profession. From the beginning its stated mission was: “The EarlyDevelopment of General Engineering (EDGE) Program is designed to increase high schoolstudents’ awareness of various engineering fields and sustain their interest in the study ofengineering. We recognize that Math is critical in the field of engineering; therefore, ourprogram focuses on increasing students’ math abilities so they leave our program with theknowledge, skills, and confidence that will prepare them for successful engineering careers.”Despite the excellent reviews our program received from students, parents, and teachers, theexpected enrollment numbers did not materialize as expected and the following years broughtchanges and new developments
her videos that instruct young engineers on how to create their ownwearable electronic art. These women have found ways of combining art and engineering into Page 26.605.2very successful careers. This pursuit of influencing a male-dominated field with creativity andthe arts serves as an inspiration for women who are also looking to succeed in pursuing a uniqueengineering career. These role models make the field more accessible for female students whodid not realize that such career options existed, and create opportunities to retain more women inthe field after graduation.The ability of art to be combined with electrical engineering projects
survey will aid in our continued effort to understand the needsof industry and to shape engineering leadership curricula.BackgroundThe effort to emphasize the importance of leadership in engineering education has been enduringsince the 1990s. Leadership has more recently been underscored in various engineering reports,including those by the National Academy of Engineering.18,19 Additionally, researchers haveoffered leadership skills are requisite for successful and impactful engineering careers.3, 6, 8, 9, 10,11, 27 Although the evidence exists for the need of leadership development for engineeringundergraduates, only 3 of the 28 engineering programs include the term leadership in theirProgram Criteria in ABET Criteria for 2014-2015. Those
thatwe support the development of new high school curricula as a way to motivate students towardspursuing education and careers in nanotechnology. Recent advances in nanomaterials processing,particularly 2-dimensional (2D) nanomaterials synthesis,1 present the opportunity to integratenanotechnology curriculum into high schools in safe and relatively inexpensive manners.In our work, we present an Advanced Placement (AP)Chemistry Inquiry Laboratory (CIL) targeting 11th and 12thgrade high school students. The CIL is being implementedat Centennial High School in Boise, Idaho and inpartnership with Micron Technology, Hewlett Packard,and Boise State University. The CIL is aligned to NationalCollege Board requirements for AP Chemistry courses aswell as
, since the author has since graduated, worked as an adjunct faculty member and inan industrial position, and subsequently began a tenure-track faculty position. The results of thisanalysis will be of interest to graduate students who have the opportunity to participate insimilar outreach programs, as they can consciously work to gain the insights that will help themin later stages of their careers, and to those designing such programs, as they will be able to usethis information to explain the value of similar programs to all of those involved in them.IntroductionThe research material for this study is a blog maintained by the author-researcher while sheparticipated in a university-sponsored outreach program at the University of Michigan. In
students traditionallyunderrepresented in science and engineering programs. One pool of such students is community college students pursuing math, chemistry, and physics courses that are transferrable to baccalaureate programs. In a Strategy for American Innovation, the Obama administration stated that “President Obama is taking continuous steps to improve our educational system ... and to promote student achievement and careers in STEM fields”, and “the Administration is committed to restoring America’s global leadership in college graduation rates ...., making investments in community colleges ....”4,5 With more resources being allocated to community colleges to stimulate student achievement in STEM fields, and community colleges serving many
Council (MTBC). After her time at Baylor University, Martin’s education career began in secondary ed- ucation. Since 2007, she has focused on the critical interface between higher education and secondary education. In 2011, she joined Collin College as the Career and Technical Education Coordinator specif- ically working with technical dual credit students. Recently, after working closely with the department, she joined the Engineering and Technology Department of Collin College assisting students on the high school level, on the college level, and in industry who plan to pursue STEM degrees. Further, through her work with industry on the MTBC STEM Advisory Board, she coordinates key industrial connections for the
to formulate researchquestions as well as how to develop and modify research plans with the guidance of their researchmentors. Students will learn to work independently and to collaborate with other group membersas they conduct research in specific topics in energy research. This will enable them to understandtheir own levels of aptitude and interest in a career in science, technology, engineering, andmathematics (STEM) and give them the tools to prepare for the next stage in their education andcareer development. Students will report and present their research results in multiple settings. Inaddition to the hands-on collaborative research experience, technical and social activities will beincorporated into the program to provide students
of Mines and Technology Assistant Professor at South Dakota School of Mines and Technology, Mechanical Engineering Dept.Dr. Mark David Bedillion, South Dakota School of Mines and Technology Dr. Bedillion received the BS degree in 1998, the MS degree in 2001, and the PhD degree in 2005, all from the mechanical engineering department of Carnegie Mellon University. After a seven year career in the hard disk drive industry, Dr. Bedillion joined the faculty of the South Dakota School of Mines and Technology in Spring 2011. Dr. Bedillion’s research interests include distributed manipulation, control applications in data storage, control applications in manufacturing, and STEM education.Dr. Karim Heinz Muci-Kuchler, South
link them together. Dr. Bass specializes in teaching undergraduate and graduate courses on electric power, electromechanical energy conversion, distributed energy resources, control theory and power systems analysis. Page 26.1515.1 c American Society for Engineering Education, 2015 The Development of Engineering Project Curricula that Emphasize Design Cycles1 AbstractAs engineering educators, our role is to prepare students for careers in engineering. As such, weaim to develop our students’ engineering capabilities in accord with the expectations of
.)On the other hand, there was an increase on the post-assessment in several responses, mostnotably for the following coding categories: needed for future career (to obtain, do well in) (pre- Page 26.1542.10assessment: 13%, n = 7; post-assessment: 29%, n = 16) and needed for safety, legitimacy, beingqualified in engineering (pre-assessment: 7%, n = 4; post-assessment: 18%, n = 10). To a lesserextent, coding categories accurately reflect what you know, academic record (pre-assessment:13%, n = 7; post-assessment: 20%, n = 11) and to recognize those who deserve credit (pre-assessment: 7%, n = 4; post-assessment: 13%, n = 7) were also more often
c American Society for Engineering Education, 2015 Beyond the Industry Advisory Board: Increasing the Role of Industry Engagement to Support Program QualityAbstractDuring the last number of years, States’ support for higher education has declined significantly.Over the next decade, higher education will continue to face the challenges of state revenuefunding constraints, changes in the public perception of higher education, and the effectivenessof higher education in preparing young men and women for a career after graduation.With their natural connection to industry, engineering and construction education programs arepoised to lead the way in a new model for the future of higher education. Constructionmanagement
Paper ID #14328Project Lead The Way: Activity-, Project-, and Problem-based EngineeringEducation, from Kindergarten to 12th GradeDr. Shepherd Siegel PhD, Project Lead The Way Dr. Shepherd Siegel is a music, career/technical and special education educator. He has over thirty publications. He joined as Project Lead The Way’s Director of School Engagement (WA) after having strong success with Project Lead The Way in ten Seattle secondary schools. The KAPPAN published his article about a meaningful high school diploma. He also works on a book about play, and how it could transform our society.Ms. Elizabeth A. Beaty
in industry, but majority proceedwith careers in academia. While doctoral programs are pursued in large research universitieswhose focus is to produce researchers that are able to conduct rigorous scientific studies2,3, notall academic careers are research focused as other institutions lay more emphasis on teaching3.Most of the time, however, graduate programs do not provide adequate preparation for academiccareers2, so only a few graduate students receive any formal preparation in teaching while ingraduate school4.The environment for the training is thus radically different from the environments in which mostof the faculty jobs exist today. These are small public and private colleges, public comprehensiveuniversities, and community colleges
learning, and preparation of engineering graduate students for future careers. Her dissertation research focuses on studying the writing and argumentation patterns of engineering graduate students.Dr. Monica Farmer Cox, Purdue University, West Lafayette Monica F. Cox, Ph.D., is an Associate Professor in the School of Engineering Education at Purdue Univer- sity and is the Inaugural Director of the Engineering Leadership Minor. She obtained a B.S. in mathemat- ics 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
quantitative study, Espinosa8 looked at the effects of pre-collegiate activities,experiences in college, and institutional setting on the persistence of females (N=1385) incollegiate STEM majors. Espinosa’s8 research revealed that females were more likely to enrollin and persist through collegiate STEM programs if they had the opportunity to engage with theirpeers and participate in STEM-related student organizations, and if they were made aware ofaltruistic career opportunities. The findings from the study called for developing cohort STEMprograms that provide female students with a greater sense of community, increasing the numberof student organizations related to STEM fields (e.g., Society of Women Engineers), andproviding female students with
Boomer Generation) feminine STEM role model, while well-intentioned, cansometimes convey an unattainable level of success that is threatening to young girls.8 The NAE’s“Changing the Conversation” report (2008) provided examples of organizations that had createdfictional young feminine STEM role models9 in which engineering students are posed as guitarplayers or superheroes in an effort to convey a more exciting or well-rounded engineeringidentity. Others have employed soccer players and fashion bloggers to vouch for how “cool”STEM can be.10 Unfortunately, efforts to update and broaden the engineering identity havefocused too much exclusively on the career aspects of the profession (ex. an engineer at work) oremployed ineffective adult
previously felt encouraged topursue STEM. Summer of Innovation (SoI) was designed to give students an opportunity toengage in OST learning at an early age and during a critical period in the education cycle:summer. While professionals in STEM may attribute their decision to pursue STEM careers toan out-of-school experience, many formal and informal educators do not feel they have the skillsand knowledge to successfully engage youth in programs to positively impact STEM learning.In 2009, President Obama announced the “Educate to Innovate” campaign to foster a renewedcommitment to strengthen Science, Technology, Engineering, and Math (STEM) education. InJanuary 2010, the National Aeronautics and Space Administration (NASA) launched theSummer of