programoffered by the Dick Thornburgh Forum for Law & Public Policy provides $4,000 forundergraduate or graduate faculty employed by the University of Pittsburgh. Thornburgh, aPittsburgh native, received his law degree from the University of Pittsburgh and the Universityhouses his archives documenting his many years in public office. The purpose of the grant is toencourage utilization of the archival materials through incorporation into new or existing coursesand to encourage student research in the collection and develop student recognition in the valueof using primary source materials.1Review of projects supported by past grants showed the variety of topics studied, including thoserelated to civil engineering. This provided encouragement for
that good critical thinkinginvolves identifying the elements of one’s reasoning and assessing the quality of that reasoningusing standards. In past years, students applied the framework through analysis and evaluationof an engineering related article and were encouraged to use the framework in development ofreports for a separate design project.2-4 However, student feedback indicated that the frameworkwas still not well-understood or utilized. Additionally, difficulties were encountered assessingwhether students’ critical thinking abilities actually improved after instruction and courseactivities. In Fall 2014, faculty sought to enhance and expand critical thinking instruction in thecourse by providing students with more meaningful
much less than in-classdemonstrations and especially appeals to students with a visual learning style. The goal of this project was to develop three sets of videos: (1) reviews of fundamentalbiology concepts, (2) demonstrations of biological experiments, and (3) safety and basic skillstraining videos for students in lab classes. Each video was strategically designed to enhancestudent learning in lecture and/or lab-based courses by allowing students to review basicconcepts and experimental protocols before class, thereby providing more time in class to discussadvanced concepts or perform experiments (see Figure 1). In addition, some of the experimentalvideos were also designed to enhance lecture-based classes by including
We have developed open-sourced interactive browser-based simulations that modelrealistic core engineering systems. Our simulations use JavaScript and HTML-5 to insure that thecode is platform-agnostic and functional on all devices with a modern browser, avoiding some ofthe dissemination hurdles with educational Java applets or mobile apps. For each use of thesimulations, we track student mouse movements and clicks, keyboard events, event times,screencast use, correlation with hands-on design project success, and more, leading to a largedatabase that may be mined for pedagogical insights. We have had remarkable success using these simulations while coupling them tocollaborative, open-ended, hands-on design projects within the setting of
Engineering on the Engineering Equity Extension Project and served as a curriculum consultant on a National Science Foundation Gender Equity grant. She also co-authored the Engineering Connections to STEM document published by the North Carolina Department of Public Instruction. She is currently serving on a commit- tee with the National Academy of Engineering, Guiding the Implementation of K-12 Engineering.Dr. Katherine C Titus-Becker, North Carolina State University Kathy Titus-Becker has worked in Higher Education for the past 20 years. She currently is the Director of the Women in Science and Engineering at NC State University
Skills during an NSF REU Program Related to Sustainable Management of Wastes and ByproductsAbstractA National Science Foundation (NSF) Research Experiences for Undergraduates (REU) site wasestablished through the Global Waste Research Institute (GWRI) at California Polytechnic StateUniversity, San Luis Obispo (Cal Poly) to engage students in research related to sustainablemanagement of wastes and byproducts. Project themes included waste containment, waste-to-energy conversion, remediation of contaminated sites, sustainable underground construction, andbeneficial reuse of byproducts in geotechnical engineering applications. The principalinvestigators, faculty researchers, and graduate student mentors
Paper ID #13482Attracting Minorities to ET through TECHFITProf. Alka R Harriger, Purdue University, West Lafayette Alka Harriger joined the faculty of the Computer and Information Technology Department (CIT) in 1982 and is currently a Professor of CIT. For the majority of that time, she has been actively involved in teaching software development courses. From 2008-2014, she led the NSF-ITEST funded SPIRIT (Surprising Possibilities Imagined and Realized through Information Technology) project. Since October 2013, she has been co-leading with Prof. Brad Harriger the NSF-ITEST funded TECHFIT (Teaching Engineering
teamstypically utilize iteration, inherent in the engineering design process, and address hiddenassumptions, such as the idea that marshmallows are light and fluffy and therefore do not need tobe considered. University representatives from Tsinghua University, UCI and Virginia Tech alsogave overviews of their respective universities, and program participants were given a tour of the Page 26.409.3Tsinghua Skyworks Studio. This space allows students, both teams and individuals, to create,design and build their own projects utilizing faculty mentors.i All students were housed at campus hotels and meals were provided, allowing forinformal student
characterization. As part of the systems approach to this course, the curriculum will also include a focus on evaluating what the risks are as far as the supply chain and the sustainability aspects of the project are concerned.Pedagogical ApproachAssignments for this course will be carried out based on a Problem-Based Learning (PBL)pedagogical approach that will be implemented in an integrated learning environment that islearner-centered, knowledge-centered, assessment-centered, and community-centered. PBL,developed in the 1970s, has gained increasing popularity in higher education15. Its desirableoutcome, compared to that of traditional modes of teaching, is that students develop deep-learning approaches that enable them to engage in
gain motivation, revitalize interest, and eventually obtain their desired career.One of the most important aspects of the three phase approach is that it facilitated a cycle ofmentorship in which the mentee eventually became the mentor. Additionally, the methodincluded exceptional teachers, opportunities for experience, the chance for women to start earlyin cybersecurity, and a supportive environment that encouraged women to pursue STEM fields.Despite insufficient data regarding this method, it is substantial progress towards successfullyrecruiting and retaining women in cybersecurity.The research project Computer Clubs for Girls also showed promise 11. Created in England,Computer Clubs for Girls is an all-girl environment aimed to
control, decision analysis, and optimization. • T4 (Level 3): Explain the impact of historical and contemporary issues on civil or construction engineering. • T5 (Level 3): Develop solutions to well-defined project management problems within civil or construction engineering. • T6 (Level 5): Develop a system or process in more than one program-relevant civil or construction engineering specialty field to meet desired needs, including sustainability and within other realistic constraints such as economic, environmental, social, political, ethical, health and safety, and constructability. • T7 (Level 2
United States,very little is known about the experiences of undergraduate engineering students who come fromlow-income backgrounds or are the first in their families to attend college. The scant researchthat does exist about low income, first generation students (LIFGs) is grounded in a deficiencymodel, focusing on what these students lack. Our project breaks with the existing scholarship byidentifying the ways in which LIFG knowledges and experiences outside the classroom,including the practical knowledge they develop in their lives and at work, could offer innovativeways for all students to define, solve and design for pressing engineering problems. Throughethnographic and collaborative research with LIFGs at a public engineering university
Paper ID #13149Understanding the Relationship between Living-Learning Communities andSelf-Efficacy of Women in EngineeringMs. Elaine Zundl, Douglass Residential College, Rutgers, The State University of New Jersey Elaine Zundl is Assistant Dean at Douglass Residential College and Director of the Douglass Project for Rutgers Women in Math, Science, and Engineering. She specializes in designing programs that pro- mote an inclusive climate for women in STEM at Rutgers. Her experience includes serving on projects that recruit and retain women in engineering and computing especially through co-curricular learning interventions
in Engineering Education (FREE, formerly RIFE, group), whose diverse projects and group members are described at feministengineering.org. She received a CAREER award in 2010 and a PECASE award in 2012 for her project researching the stories of undergraduate engineering women and men of color and white women. She received ASEE-ERM’s best paper award for her CAREER research, and the Denice Denton Emerging Leader award from the Anita Borg Institute, both in 2013. She helped found, fund, and grow the PEER Collaborative, a peer mentoring group of early career and re- cently tenured faculty and research staff primarily evaluated based on their engineering education research productivity. She can be contacted by email at
, students at alllevels can pursue independent projects collaboratively and learn about technology andentrepreneurship. This paper discusses current trends in the Maker movement and educationallearning theory; presents efforts at UMass Amherst to combine these concepts to engage studentsin STEM fields by also incorporating art; and discusses some the challenges and opportunitiesfor this model. An underlying goal of the work is to identify the key elements of the Makermovement, which may help engage underprivileged youth as well as retain undergraduates inSTEM fields.Institutional designs of makerspaces and makerspace networksA Makerspace can mean many things, but in this context we are describing a physical spacewhere people with an interest in
focuses on teaching sustainability development per the modern definitionencompassing Environment, Economics and Equity (or generally referred to as 3 Es). TheComputer Science programs focus on teaching the latest computing models, methods (includingmobile Apps) and cyber security. Both departments work together on research projects. Thisresearch will be one such combined project.Federal, state and local governments all have initiated some water conservation programs.Although there are some signs of success in some of these programs, majority of the public andespecially local governments have long ways to go before majority of the publics will be totallyon board and to have a program with continued success. Public awareness and education of
texts. Page 26.1047.1 c American Society for Engineering Education, 2015 JITAR online modules to improve math preparation of engineering students: Preliminary results1. IntroductionThis project focuses on the enduring problem of mathematical competency of the engineeringstudents (ES). It is based on a strongly built partnership between the Department ofMathematics and the College of Engineering at North Carolina State University to address thewell-documented knowledge gap in mathematics preparation of engineering undergraduates [1,2, 3, 4, 5, 6, 7] .From a
, China, Germany and Ghana.Dr. Amy J Conger, University of Michigan Amy Conger is Assistant Vice Provost for Global and Engaged Education at the University of Michigan. She manages strategic projects that help U- M offer experiential learning opportunities for students and strengthen institutional platforms for teaching and scholarship. She served for 7 years as Director of International Programs in Engineering at the University of Michigan, and in this role more than doubled participation in curricular programs abroad, and helped create similar growth in the co-curricular. Amy also teaches ENGR 260: Engineering Across Cultures, a required course for the U-M international minor for engineers.Dr. Kathleen H. Sienko
Paper ID #12518Supporting Students’ Plans for STEM Careers: How Prepared are HighSchool Educators in Appalachia to Help?Dr. Cheryl Carrico, Virginia Tech Cheryl Carrico is a Postdoctoral Research faculty member for Virginia Tech. Her current research fo- cus relates to STEM career pathways (K-12 through early career) and conceptual understanding of core engineering principles. Prior to her current role, Dr. Carrico spent over 25 years in the aerospace in- dustry conducting and leading R&D, design engineering, and project management for composite aircraft components. Dr. Carrico received her B.S. in chemical engineering
Paper ID #11526Teaching software-engineering concepts through industrially used tools earlyin the undergraduate curriculumDr. Temesghen Kahsai , Carnegie Mellon University Dr. Temesghen Kahsai is a research scientist at Carnegie Mellon University Silicon Valley. His research expertise is in the intersection of formal methods and software engineering, with an emphasis on auto- mated reasoning about software systems. He has extensive experience in the development of formal foun- dations and tools for the analysis of complex critical systems. He is currently leading three projects on contract-based verification of flight
assessedindividually. Thus, collaborative learning is a core approach in hands-on lab projects commonlyused in electrical engineering technology courses.2.4 Problem-based Learning (PBL)Problem-based learning (PBL) is an instructional method where students work on an open-ended, real-world problem and work in teams to identify learning needs and develop a solution.Typically, it is introduced at the beginning of the course and provides the context and motivationfor learning additional material. In PBL, instructors are usually facilitators as opposed to themain source of information. Successful PBL should start with well-designed problems in order to Page
Chemical Product Design, were taught. While both class sections usedtraditional lecturing and several active learning strategies, including think-pair share, groupdiscussion, and case studies, only the experimental (game-based) class section utilized game-based pedagogy. However, the same communication curriculum, which included translatingscientific information for public audiences and strategies for a good oral presentation, wasdelivered to both sections. Final written reports and video infomercials, produced as part of asemester long design project, were evaluated by two analysts. The results from each section werethen compared to determine the impact of game-based learning on students’ achievement incommunication skills, both written and oral
point forward inthe paper, the acronym ENG will be used to mean both engineering and computer science. Twomeetings were held in Fall 2002. During the first meeting, the students met each other and werevery impressed with the nice meeting room and the refreshments that were served. The topic ofthe meeting was research. The second meeting was a workshop on the “Nuts and Bolts ofGraduate School.” In the spring five meetings were held and due to limited student availability,each meeting was held two times: on a Wednesday and Friday in the same week. Facultypresented workshops on their research projects and on graduate school requirements. Thestudents were required to put together a portfolio and to talk to a faculty advisor about graduateschool and
engineeringsciences to place them closer to the engineering side of the spectrum. As a consequence, thecreation of the engineering programs could be accomplished through additional classes inmathematics, expansion of use of this new material in existing classes, increase in designexperiences in the curriculum, and the expansion of the capstone project experience. The need toadd significant additional new content as new classes was limited to the areas of Design forManufacture and Assembly and Machine Design. Table 1 summarizes the courses offered in thenew program. More details on the challenges of creating a program by transition will bediscussed in a later section of this paper. Page 26.393.5
, geographically distributed, collaborative research projects among scholars, and with underserved communities. She is also a lecturer in the Mechanical Engineering department where she currently teaches a course Global Engineers’ Education.Ms. Sneha Ayyagari, Stanford University Sneha is a student studying engineering at Stanford University. She is interested in understanding the role of education in solving pressing health and environmental issues. Through her experience in non-profit work, she has developed an interest in learning how to work with underserved communities to create sustainable solutions.Mr. Jonathan Edward Pang, Stanford University I am an undergraduate studying mechanical engineering at Stanford University
. Librarians and faculty working with third year Mechanical EngineeringEngineering Mechanics students in the course Engineering Design Processes observed that student bibliographies for design projects were often brief, utilized the minimum required number of sources, were incomplete, or featured nonacademic resources, such as sales websites. Thus, librarians and faculty at Michigan Tech collaborated to first modify, assess, and then improve library instruction interventions within this course. The Engineering Design Processes course culminates in a simulated design project in which students work in teams to research and develop a solution for an assigned design problem. Examples of design problems include development of an ergonomic
professional uses of Termediator include collaborative projects (both inter- andintradisciplinary) and telecommuting work situations. Termediator also has a distinct role in ITeducation, where it is imperative to include pedagogy that sensitizes students to the potential formisunderstanding because of semantic differences in commonly used terms.1. INTRODUCTIONCognitive dissonance refers to a situation when an individual is simultaneously holding twocontradictory beliefs. The term was coined in 1954 by psychologist Leon Festinger, whoproposed the combined presence of contradictory beliefs produces psychological discomfort inthe individual, and the greater the discomfort, the greater the desire to reduce the dissonance ofthe two cognitive elements20
undergraduate students from a diversity of majors and academic ranks completed thesurvey, including Likert-type items measuring their views of social responsibility and detailingtheir previous volunteer histories by both activity and frequency. Students reported their level ofparticipation in 17 different volunteer or community service activities during college, or couldwrite-in their own activity. The most frequently cited activities were: unpaid tutoring of collegestudents; tutoring elementary or secondary children, and donating blood (40-47%). A highpercentage of students (25-35%) also participated in service-learning projects, communityservice via a professional society (ASCE, ASME, AAEE, etc.), unpaid coaching or sports campvolunteer, food bank
“contextual variables” are most significant and how TPD can seekto intervene at the contextual level. While elementary teachers that participate in professional development for engineeringvary in terms of teaching experience and developmental level, the majority are completely newto engineering, if not also new to the pedagogical approaches that are particularly appropriate forengineering (e.g. open-ended problems, problem-based learning, inquiry, hands-on groupactivities, etc). Other researchers have noted that inquiry and project based learning challengeteachers’ existing capabilities and requires significant professional development.12, 13 In a similarmanner, the engineering design process also challenges teachers’ capabilities, as well as
, constructed wetland and stream restoration design, ecological stabilization, sustainable engineering in land development, water resources, water and wastewater treatment. He is also the faculty advisor for Duke Engineers for International Development and has led DukeEngage Page 26.48.1 experiences every year since the inception of the program. He has facilitated and/or led trips to Indonesia, Uganda, Kenya, Honduras, El Salvador, Bolivia, and Peru. Representative projects he has worked on include: building a 4800sf Infant and Maternal Health Clinic, constructing a 100ft long vehicular bridge