AC 2012-5469: INTERDISCIPLINARY PEDAGOGY FOR PERVASIVE COM-PUTING DESIGN PROCESSES: AN EVALUATIVE ANALYSISDr. Lisa D. McNair, Virginia Tech Lisa McNair is an Associate Professor in the Department of Engineering Education at Virginia Tech where she serves as Assistant Department Head for Graduate Education and co-directs the Virginia Tech Engi- neering Communication Center. Her research includes interdisciplinary collaboration, communication studies, identity theory, and reflective practice. Projects supported by the National Science Foundation include: interdisciplinary pedagogy for pervasive computing design, writing across the curriculum in stat- ics courses, and a CAREER award to explore the use of e-portfolios
curriculumrepresenting a discipline‟s activities. Activities and projects of introductory computing curriculum designedto attract students generally focus on the dramatic outcomes of tasks whose programming challenges arefrequently more clerical than analytical. Consider the voluminous specification required to generate thedetailed choreography of a robotic dance (without regards for physics). While the graphical outcomes ofthese projects are impressive, and the specification of these moves may provide may provide useful practiceof coding skills, we have concern that the technical tasks have little similarity with analytically intenseacademic coursework typical of computer science and other STEM disciplines. We have encounteredstudents who enjoy analytical work
Laboratory (SBML) at the CBE. Ms. Walker holds B.S. degrees in both Biology and Bio-Resources Engineering and an M.S. degree in Environmental Engineering, all from Montana State University. In addition, Diane oversees and conducts testing projects for industry and provides quality assurance for a federally-funded contract held by the SBML.Alfred Cunningham, Montana State University Dr. Cunningham is a Professor of Civil Engineering at Montana State University. He is a founding member of the Center for Biofilm Engineering (CBE) and coordinates CBE’s industrial research and education programs as part of the Center’s 23 member Industrial Associates Program. Integration of graduate and undergraduate
includes the following topics: electronics, machine design,manufacturing engineering, computer programming, thermodynamics, statics, fluids andmechanics of materials. The class includes hands-on activities, links to academic standards(including Next Generation Science Standards) and discussion of the current/historicalimportance of the topics.Core 2: Engineering Design: The focus of this class is on the engineering design process for P-12 educators. Design projects, hands-on computer labs, lectures and field trips will introducestudents to how the engineering design process is applied in a variety of fields. Students willlearn how to create engineering drawings, apply an engineering design process, use computer-aided-design (CAD) technology, and
Criterion 3.a-k. In2002, ABET commissioned the Center for the Study of Higher Education (CSHE) at Penn StateUniversity to undertake this assessment. The study, entitled “Engineering Change: A Study ofthe Impact of EC2000,” is a national study of the impact of the new outcomes criteria andassociated curricular and programmatic changes on learning among undergraduate engineeringstudents. As part of that effort, the CSHE project group developed a measure of studentperformance in each of EC2000’s 11 student learning criteria. This paper describes thedevelopment process and the psychometric characteristics of that instrument. Additionally, thecurrent work is intended to provide the engineering education community with apsychometrically sound
potential and need to improve engineering training andeducation regarding team soft skills such as team dynamics and communication are widelyrecognized.4 Teamwork is an essential, but not widely emphasized concept in the engineeringdiscipline.4 Wu and Chang found that teamwork in the classroom resulted in increasedproblem-solving abilities and the development of teamwork strategies necessary forsuccess in the engineering profession.5 Students in this class will each be a member of oneof six teams. Each team consists of one chemical engineering student, one college studentfrom a different discipline and two high school students. The teams are each meant to takeone portion of the project and work together to solve a specific problem. Each
Session 1426 A Microfluidics Laboratory Teaching Module A. J. Aranyosi *,+, Aleem Siddiqui*, Hür Köser#, Dennis M. Freeman *,+ *Massachusetts Institute of Technology / #Yale University / +Harvard-MIT Division of Health Sciences and TechnologyAbstractWe have developed a teaching module to engage undergraduate engineering students in anintroductory research project. Pairs of students proposed and carried out self-designed projectsto study diffusion in microfluidic
mission is to educate our students for careers of service, leadership anddistinction in biomedical engineering or other fields by using a participatory, learn by doing,“hands-on” laboratory, project and design centered approach.The program will accomplish this goal by building on the historic strengths of the college at thebachelors level and the individual strengths of participating faculty. The application ofengineering to medicine and biology underpins a strong and growing segment of the industrialsector, is the basis for a number of federal conversion efforts and continues to be an area ofinherent interest to students. The need for well educated professionals in this interdisciplinaryarea has become more acute as the technology being applied
here.GoalThe principal goal of this project is to increase awareness of and interest in engineering among alarge, diverse population of middle-school and high-school students. In bringing engineering toa broad audience, we seek to overcome students’ common misperception that engineering is anendeavor for the “technically elite.”We suggest that this goal can be achieved by creating an authentic, engaging engineering designexperience; by offering the experience as a competition that will capture and hold students’attention; and by ensuring that the design experience is readily achievable by any student in thetarget population, while still presenting a challenge to those who are already technologicallyinclined.The Influence of Other Engineering
the ModelLaboratory. Their understanding of group dynamics and appreciation for cost-effective andsuperior designs has been enhanced.Partial support of NSF, which started in January of 2002 has increased the momentum of theefforts that have started since 1998 for creation of the State of the Art Laboratory. Successfulimplementation of this project has resulted in several measurable outcomes as:1. Generation of comprehensive blueprints for fabrication of apparatuses necessary for precision experimentation in the areas of Mechanics of Materials and Dynamics of Machinery.2. Creation of detailed laboratory manuals-ready for distribution to students.3. A well thought out and comprehensive plan for putting together an affordable model
proposals werepart of a campus research project to work collaboratively and explore how on-line teaching andlearning could be used and whether there could be measurable benefit to the campus community.Results were documented and presented to the campus community.Part 2 - On-line Teaching Options, Strategies, and ConsiderationsThere are many new books and articles that talk about on-line teaching and learning in higher Page 8.820.1education. One very excellent article talks about the usage of web technology as a “Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition
such a project soundsambitious for the freshman year, there are several reasons why it has become a successfulexperiment, with implications for the rest of the curriculum. Past ASEE papers described thebasic concept of the Design-Centered Introduction course1 and summarized teaching approachestaken by three different instructors in subsequent versions of the course2. In this paper, theconcept of the Design-centered Introduction (DCI) is first summarized. The issues of learning byiteration are then examined. The two ideas are then related to each other. Page 6.333.1Proceedings of the 2001 American Society for Engineering
-ended projectsand a discussion of the five (5) principles of innovation. A math professor was also invited toteach a topic on the applications of calculus and statistics in the design and selection of rollingcontact bearings. For each mini-project and the final project, the students are asked to write abrief review of NABC analysis. (Need, Approach, Benefits and Competition). The overallappreciation for inclusion of innovation and entrepreneurship topics and the NABC analysisseem to be encouraging.IntroductionWhile many universities are considering, developing and/or implementing a separate curriculumin entrepreneurship and innovation, however, little seems to be done to realize that these topicsare highly interdisciplinary across many areas
solutions. The exams were an individual effort; thus, giving the Instructor anopportunity to gauge each individual student’s level of understanding and competency with thepavement design concepts and MEPDG software. Because of the smaller class size, the graduate course was structured more of a project-centric course and included very few traditional problem-based homework assignments. Amajority of the homework assignments required the MEPDG software for generating solutionsand were to be completed individually. There were two exams which were take-home, open-note format and individually completed. Because the graduate students are challenged to a morerigorous level, the MEPDG software was required to solve 50 percent of the problems in
c American Society for Engineering Education, 2012 Conceptualizing Authenticity in Engineering Education: A Systematic Literature ReviewAbstractThe term authenticity is pervasive in the education literature in general and specifically in theengineering education literature; yet, the construct is often used un-reflected and ill defined. Thepurpose of this paper is (1) to critically examine current conceptualizations of authenticity asprinciples to design curricula and learning modules within engineering education and (2) thedevelopment of a systematically derived model of authenticity. The context of the project istowards pre-college engineering education yet findings are applicable across the lifespan
AC 2012-4900: DEVELOPING ELEMENTARY ENGINEERING SCHOOLS:FROM PLANNING TO PRACTICE AND RESULTSElizabeth A. Parry, North Carolina State University Elizabeth Parry is an engineer and consultant in K-12 STEM (science, technology, engineering, and math- ematics) Curriculum and Professional Development and the Coordinator of K-20 STEM Partnership De- velopment at the College of Engineering at North Carolina State University. For the past 15 years, she has worked extensively with students from kindergarten to graduate school, parents, and pre-service and in-service teachers to both educate and excite them about engineering. As the Co-PI and Project Director of a National Science Foundation GK-12 grant, Parry developed a
perspectivesOutcome 12 Risk and Uncertainty Outcome 21 TeamworkOutcome 13 Project Management Outcome 22 Professional Values and AttitudesOutcome 15 Technical Specialization Outcome 23 Lifelong LearningOutcome 16 Communication Outcome 24 Professional and Ethical ResponsibilityOutcome 17 Public Policy Table 1: Experiential Outcomes Page 25.1331.6The EI is expected to attain the outcomes through
Session 2242 Intersections of Engineering and Management: What Do the Data Show? Lawrence Burton, Linda Parker National Science Foundation The opinions and findings in this paper are solely those of the authors and not necessarily those of the National Science Foundation. The National Science Foundation’s (NSF) Engineering Workforce Project is a set ofstudies to identify, examine, and describe important dynamics of the portion of the
, Professor Zoe Wood’s projects unite visual arts, mathematics and computer science.Prof. Eun-young Kang, California State University, Los Angeles Professor Computer Science California State University, Los AngelesDr. Ayaan M. Kazerouni, California Polytechnic State UniversityDr. Jane L. Lehr, California Polytechnic State University Jane Lehr is a Professor in Ethnic Studies and Women’s and Gender Studies and Director of the Office of Student Research at California Polytechnic State University, San Luis Obispo. She is affiliated faculty in Computer Science & Software Engineering andDr. Sarah Hug, Colorado Evaluation and Research Consulting Dr. Sarah Hug is director of the Colorado Evaluation & Research Consulting. Dr
include a semester-long co-curricular program, the strategic inclusion oflibrary services into wellness programming, and an interactive multi-part stakeholder workshop.The focus of the collaborations included experiential learning, project-based learning, andwellness, and all collaborations involved librarians joining with external groups and stakeholdersto broaden impact. In each of the three cases, the initial ask was not for information literacy (IL)instruction – or even for librarian support – but by identifying a point-of-need and havingconversations with campus colleagues, librarians have made themselves a fundamental part ofinteresting partnerships. These experiences demonstrated how librarians are ideal collaborators,and partnerships are
Association for theAdvancement of Science, the National Science Teachers Association, and Achieve Inc. isleading a project to develop a ―Conceptual Framework to Guide the Development of NextGeneration Standards for K-12 Science Education‖4. The draft Framework for New ScienceEducation Standards, circulated in July, 2010, supports the increased use of inquiry andproblem/project-based learning (PBL) as a means to improve science learning, and for the firsttime presents engineering disciplinary ideas and practices as integral to science learning andliteracy. It leaves unresolved the question of how to incorporate engineering standards or coreengineering concepts into a science curriculum that is already overly packed with existingscience skills and
Engineering Students to SustainabilityAbstractAs articulated in the Body of Knowledge for Civil Engineering, all civil engineering studentsshould be introduced to the concept of sustainability. The objective of this project was tointegrate sustainability concepts into the 1-credit Introduction to Civil Engineering course thatfirst year students are required to take at the University of Colorado at Boulder. Student attitudesabout sustainability were evaluated using a written survey and in class questions to whichstudents responded using a Course Response System (clickers). Evidence of student learning onsustainability was acquired via student performance on a homework assignment worth 12% oftheir overall course grade
1970s had no reason to anticipate a change inthe 7% annual growth rate for electricity demand, it was ordering new capacity to meet theexpected demand. Utilities were projecting that the lead time between ordering and commercialoperation of a nuclear power plant was eight years. These two parameters led utilities to orderand plan for construction of approximately 200 new nuclear power plants by the year 2000. Circumstances changed radically in 1973. The decision by the Organization of PetroleumExporting Countries (OPEC) to decrease oil production and raise prices, coupled with the Araboil embargo on the United States, drastically affected the price and utilization rate of energyworldwide, and, hence, impacted the world economy. Specifically
multi- cultural student body of multiracial, multi-ethnic, 4. Commitment to overall 5. Projects to students to
course activities provided hands-on, project-based,experiences to enhance and integrate understanding of physics, mathematics, andengineering fundamentals and in doing so, encouraged participating in-service teachers tore-examine their own teaching.Course participants were expected to: • Reinforce understanding of essential mathematics content; • Improve appreciation of Newton’s Laws of Motion and applications in engineering mechanics. • Develop skills and insights to use computer aided engineering tools and spreadsheet programs to analyze and design simple physical systems. • Enhance ability to develop hands-on, experiential learning projects that promote integrated learning of mathematics, science and engineering
industry as well.This paper will describe the scope and layout of this class, student projects, and the equipmentused, associated costs of running a laboratory and lessons learned as well as the impact on otherfaculty, departments and local industry.Course OverviewMETBD 410 (Rapid Prototyping, a technical elective) has the following Goals/Objectives:1. Understand the advantages and disadvantages of different additive processes currently on the market.2. Reverse engineer a product by digitizing geometry, importing the data into Pro/ENGINEER and creating a solid model from surfaces.3. Build the model (Objective 2) on the Z-402 3-D printer and re-digitize the prototype using a non-contact scanner to verify the geometry
. Formative assessment is done during the class to improve their students’ performancewhile the summative assessment usually is conducted at the end of the semester or course. Therehas been debate whether summative assessments are contributing to enhance the studentslearning or not as a final project or final exams are the forms of this assessment technique [1].The result of this assessment is not capable of doing any immediate improvement but can beused in the subsequent courses for the faculties to enhance their efforts. As such, formativeassessment is more appropriate to gauge the students’ learning during the course. It can behelpful for the students as they get immediate feedback and for the teachers as they get an insightabout the topic which
professional teacher. Due to the abstract and mathematical nature of fluidmechanics it was imperative that the information delivered by the team be accurate and that itseem credible.The activity had participation from 70 students in three sections of an introductory fluidmechanics course. Small teams of students were assigned to lead a class-wide review of achapter prior to an exam. Student performance on the exams was analyzed to determine how theact of leading a review affected a student’s score on questions covering material from differentchapters. Details of the peer-led review assignment, student feedback from the experience,lessons learned and project results are discussed.Peer-Led Review ActivityStudents were made aware of this assignment on
) providingsuitable warnings to novice designers can help them in avoiding design fixation. Thesehypotheses are tested using a quasi-experiment conducted during a freshmen class project.Students complete their projects in three different experimental groups. One group receives afixating example with an undesirable feature. The feature negatively influences the functionalityof the design. The second group receives the same fixating example with warnings about theundesirable feature. The third group completes the project without the help of an example(control). Students are instructed to build and test their designs. The designs are photographedbefore and after testing. The occurrence of the flawed example feature in each design is studied.The results show
provide learning opportunities that aim to developsuch capacities in students [4]. These programs have a range of foci and use a variety of differentterms to name their fields of study, including ‘Humanitarian Engineering,’ ‘Global Engineering,’‘Engineering for Good’, and ‘Engineering for Sustainable Development’ [5]. A significant aimof these programs is the development of global sociotechnical competency, conceptualized tohighlight that the social and technical aspects of an engineering project cannot be separated andmust be considered as such [6]. As a wide range of perspectives are required to address thecomplexities of wicked problems [7], engineers with global sociotechnical competency arepoised to make critical contributions to global