dedicated to Itsuo Sakane, prominent author and chief curator of exhibitions interfacing arts, sciences, and human perception.AbstractA unique undergraduate research course is reported here. The course was created for a student toexplore the fertile field that interfaces fluid dynamics and art. The course encompassed severalcomponents including creation of visually engaging objects utilizing fluid motion as a centraltheme. In this paper, the course structure and content are outlined, followed by description ofthree projects to illustrate how interested students can create objects that aesthetically showcasefluids-related phenomena. The objects produced via these projects are suitable as demonstrationtools in informal science
presentations to US and international audiences. He is Principal Investiga- tor or co-Principal Investigator of 5 active grants from NSF and the US Dept. of Education, including the AWAKEN Project (funded by NSF-EEP), which examines learning, instruction, teacher beliefs and engineering practices in order to foster a more diverse and more able pool of engineering students and practitioners, and the Tangibility for the Teaching, Learning, and Communicating of Mathematics Project (NSF-REESE), which explores the role of materiality and action in representing mathematical concepts in engineering and geometry. Dr. Nathan is on the editorial board for several journals, including The Journal of Pre-College Engineering Education
services and technolo- gies used in the AT&T Network. He was the Chief Technology Officer for the definition, development, implementation and deployment of the AT&T Services and Network in Mexico. He was also Siemens Business Services (SBS) Practice Director for Latin America where he was the main consultant in sys- tems implementations in Venezuela, Colombia, Ecuador and Brazil. Dr. Pineda has extensive experience in Academia; he was a Professor at ITESM in Monterrey, Mexico and at the ”Universidad de Los Andes” in Colombia and currently at the University of Texas at El Paso. His current Research projects include: PI for ”Energy Security Microgrid Large Scale Energy Storage (LSES)” for Raytheon-Energy Solutions
sealevel rise, global temperature rise, warming oceans, shrinking ice sheets, declining arctic sea ice,glacial retreat, extreme events, and ocean acidification.1 To many, these reasons signal thatsignificant changes to the status quo are imminent.While these issues present challenges to our current way of life, they also provide a new outlookon the world and opportunities for careers and product development. Where there are challenges,there are also opportunities. The goal of this project was to train the next generation of workersto address these challenges. While jobs in the green economy were once rare, that is quicklychanging. Relatively few years ago there was no such thing as green building certifications,carbon cap and trading programs, and
engineering and geophysics topics. Lecture material on seismology and earthquakeengineering has been integrated with activities, field trips, and group projects in order to enhancethe students’ understanding of the material. The goals of the cluster are to present these topics ata high level, meet national math and science program standards for high school students, and toencourage the students to pursue math- and science-based majors at public, in-state universities.The implementation of hands-on components to learning has shown to be effective in bothhelping to convey the advanced topics presented, while also achieving the greater goals of theprogram with regard to higher education. This paper discusses the structure of the “Earthquakesin Action
. Monnell teaches Environmental Chemistry and Environmental Chemical Analysis. He is a member of the American Chemical Society, and the As- sociation of Environmental Engineering and Science Professors for which he serves on the Governmental Affairs Comittee.Chris Koch, GTECH Strategies Chris has worked in major cities around the country on systemic economic development projects in the private and public sectors. Her background is in the areas of Community and Economic Development, Geographic Information Systems (GIS), Project Management, and Social Enterprise. Chris has provided expertise on urban blight reduction strategies and social entrepreneurship to organizations such as the Brookings Institute, Great Lakes
LEED certification to local industry, MSU has pursuedoptions for supporting training in this area. While students are exposed to general LEEDconcepts through course and capstone design projects, as well as the annual ASHRAE StudentDesign Competition, all of the topics in Table 2 do not fit into the engineering curriculum. MSUhas partnered with local industry through grants from the State of Minnesota to developcontinuing education courses addressing HVAC, green buildings, and LEED. We have foundthat at the Green Associate level these courses are applicable to both current students andworking professionals. Excellent instructional resources exist through USGBC and in manycases a trained USGBC instructor can be obtained. Note that one
, theEngineering Library adopted the Encoded Archival Description (EAD) standard (typically usedto provide standardized, digital description of archival and manuscript collections) and applied itto create machine readable finding aids for all departmental research and technical reportscollections of the School of Engineering. The Archivists’ Toolkit (AT), an open sourceapplication, has been used to create bibliographic descriptions, to establish name and subjectentries, to manage locations and to export EAD finding aids and MARCXML records fortechnical reports collections. The project has been completed in house, using existing resources;given the increased number of requests the library received for these materials since thecompletion of the project, it
. Page 22.173.1 c American Society for Engineering Education, 2011 An Examination of Mentoring Functions in the Capstone CourseAbstractThroughout the literature detailing projects in engineering capstone courses, researchersfrequently refer to the faculty role as that of a mentor. As such studies make clear, the role ofmentoring in capstone projects is critical to support students in the progression of the course. Yetthe concept itself remains relatively ill-defined in the engineering education literature, making itmore challenging for researchers and educators alike to identify patterns and best practicesacross contexts. Using a framework developed by Kram to characterize a variety of mentoringfunctions
. Moriarty, Smith College Mary A. Moriarty is an Assessment Researcher with the Picker Engineering Program at Smith College and serves as a private evaluation consultant. She has over 15 years of research, evaluation, and project man- agement experience. Her evaluation work has spanned the areas of science and engineering instruction, robotics, technology application, and disability in higher education. Her background includes serving as Principal Investigator and Project Director for several D.O.E. and NSF initiatives that focused on teaching and learning in higher education. She has a doctorate in Educational Policy, Research, and Administration from the University of Massachusetts, Amherst.Apurva Errabelli
students enter college with high levels of interestin science and engineering, their levels of preparation for college-level work, especially in mathand engineering, are so low that the majority of them drop out or change majors even beforetaking transfer-level courses. In 2008, Cañada College, a Hispanic-Serving community collegein Redwood City, CA, was awarded a Minority Science and Engineering Improvement Program(MSEIP) grant by the US Department of Education to develop and implement a project that aimsto maximize the likelihood of success among underrepresented and educationally disadvantagedstudents interested in pursuing careers in STEM fields. The project, entitled Student On-rampLeading to Engineering and Sciences (SOLES), incorporates
on a project in a way that could be described asmultidisciplinary. “Interdisciplinarity is a means of solving problems and answering questionsthat cannot be satisfactorily addressed using single methods or approaches.”21Multidisciplinarity, on the other hand, is less integrative, and combines contributions frommultiple disciplines in a weaker and often temporary manner, with collaborators staying rootedin their own disciplines.22-25 Because most engineering design work at minimum requiresengineers to engage in multidisciplinary interactions,10, 11, 26, 27 knowledge of and attention toBNAs could benefit faculty and students in many teamwork settings, and not only those that areinterdisciplinary. Literature ReviewFrom Boundary Objects to
Graphics Course is designed to teach Engineering Students (Mechanical,Manufacturing, Civil) the basics of Engineering Drawings. This includes the use of CADsoftware as well as hand sketching. The use of CBI during this course is intended to enhance theEngineering Graphics Course and data taken from grades on homework assignments, quizzesand projects as well as attendance and participation will indicate if this is the case. The use ofCBI in STEM fields has proven to be effective in previous studies and will be the focus of thisdiscussion1-3.The lessons to be discussed are those in creating orthogonal multi-view sketches and drawings,isometric and oblique pictorial sketches, and two lessons in the creation of sub-assemblies usingCAD software. For
students devote considerable effort to the design and developmentof their projects, but that they are not as motivated to devote time and effort to writing. As aresult, their final reports often have significant problems with organization, clarity, andeffectiveness. Therefore, we recently adopted several new strategies to improve the quality ofstudent writing. Our goals were to 1) encourage students to work on their writing earlier andthroughout the semester; 2) engage every student in each team in the writing process; 3) usewriting as a tool to improve students’ understanding of the clinical problem that they areaddressing and how their design addresses their client’s needs; and 4) improve the quality of thefinal reports.To achieve these goals
the change and technology. The market will demandindividuals with these skills, competencies, and personal convictions to create the changesnecessary to achieve an environmentally sustainable future.Industrial designers apply specific problem-solving processes to develop ideas. Classmates andcolleagues inexperienced with design are unfamiliar with this style of development, such assketching ideas, making mock-ups, producing engineering and illustrative graphics, creatingmodels of a project, and problem solving methodologies applied. A specific area of difficultyexperienced by many students in this environment is honest verbal and written critique of ideasfor fear of criticism. The critique process is particularly challenging, as students from
learner. When the final focusgroup interviews were performed at the conclusion of the semester, students spoke on theirperceived level of engagement compared to other labs they have taken. Students were alsoqueried as to their opinion of the merit of two additional module topics for future development. The ultimate goal of this two year research project is to develop four modules forenvironmental sustainability. Two modules were developed for the first year of the research withthe anticipation of adding two more modules during year two. The spring 2010 modulesconsisted of: (1) Green Engineering Design and (2) Water reuse and recycling. The year twoactivities are being partially shaped by student input from the focus groups and will
22.1353.6engineer. This One Minute Engineer presentation is designed to give students an opportunity toshow what they are interested in and to get used to speaking in front of a class. Students eachyear are given a design project and a research paper. The design project has always been a groupproject to enforce the importance of teamwork in engineering and give students a chance to workin groups. Topics of the design project have been unique each year, with topics ranging fromdesigning a racing team’s garage, to designing a “green” home system, to designing a solution tocleaning up the BP oil spill. The research paper has been a group paper based on the designproject, except for 2010 when the paper was changed to a different topic and made an
classes. Inthe first half of the course students become familiar with digital prototyping tools, both softwareand hardware. In the second half of the semester students work in multidisciplinary teams on aproduct design project. The project deliverable is a digital prototype of the product.Most engineering students are familiar with the parametric modeling software, AutodeskInventor. On the industrial design side, students are familiar with SolidWorks, a comparablesolid modeling software produced by Dassault and commonly used by industrial designers inpractice. The first part of the course involves them quickly converting to Inventor so that all areusing a common platform in the design project. Without that shared platform, communicationabout
Management (CEEM) combines aknowledge base of not only energy management, but also the management of environmentalimpact. Based on benchmarking of other energy management certificates, feedback from anIndustrial Advisory Board, and advice from CEEM alumni working in the industry, the CEEMrequires successfully completing two 3 credit hour courses (45 meeting hours each) that includemultiple real-world projects, successful completion of a certification exam that is not simplymultiple choice, and 12 months of work experience or training in the energy management and/orenvironmental management field. Completion of these steps will properly assess a candidate'sknowledge and ability to apply the subject matter. The paper will explain the development of
AC 2011-1295: INVESTIGATING AN INNOVATIVE APPROACH FOR DE-VELOPING SYSTEMS ENGINEERING CURRICULUM: THE SYSTEMSENGINEERING EXPERIENCE ACCELERATORAlice F Squires, Stevens Institute of Technology Alice Squires has nearly 30 years of professional experience and is an industry and research professor in Systems Engineering at Stevens Institute of Technology in the School of Systems and Enterprises. She is a Primary Researcher for the Body of Knowledge and Curriculum to Advance Systems Engineering (BKCASE) and Systems Engineering Experience Accelerator projects. She has served as a Senior Sys- tems Engineer consultant to Lockheed Martin, IBM, and EDO Ceramics, for Advanced Systems Support- ability Engineering Technology
. Page 22.1609.1 c American Society for Engineering Education, 2011 Using Arduino as a Platform for Programming, Design and Measurement in a Freshman Engineering CourseAbstract Arduino is a compact, inexpensive, open-source electronics prototyping platform builtaround an Atmel AVR microcontroller. The features, cost, and small size makes Arduino apotent tool teaching as well as practical device use in engineering projects. This paper reports onadapting the Living with the Lab (LWTL) curriculum to the Arduino platform. LWTL wasdeveloped with the Boe-Bot mobile robotics platform and the Basic Stamp microcontroller. TheArduino is more modern and has better technical capabilities, but
AC 2011-1763: EDUCATING ELEMENTARY TEACHERS IN ENGINEER-ING: A DESIGN METHOD AND BASELINEYvonne Ng, St. Catherine University Yvonne Ng, M.S.M.E, teaches computer science and engineering at St. Catherine University. Educated at Princeton University and the University of Minnesota as a mechanical and aerospace engineer, she worked in industry as an automation design engineer and contract programmer. She made computer sci- ence a more appealing topic for her all-women undergraduate student body by presenting this technically valuable course in a project-oriented comprehensive manner. She is currently the director of the Center of Excellence for Women, Science and Technology where she administers the college’s National
thehazard of losing the interest of students who may already have an established interest in it.This paper describes the techniques used in a water resources management course offered at theUniversity of Utah to bridge the communication barriers among students from civil engineering,humanities, and other disciplines. The strategies and techniques employed in a second offering ofthe course are described, and the successes and areas for improvement identified through theassessment are highlighted. New tactics applied include lesson learning objectives, studentjournals, outside events (e.g., conferences and seminars), instructor interaction and disciplinaryrole playing, and multidisciplinary teams for in-class exercises and the semester project
AC 2011-666: IF YOU BUILD IT, THEY WILL COME (AND STAY): RE-CRUITING AND RETAINING WOMEN AND UNDERREPRESENTED MI-NORITY STUDENTSHyun Kyoung Ro, Pennsylvania State University Hyun Has been working as a graduate assistant on the Engineer of 2020 research grants that the Center for the Study of Higher Education received from the National Science Foundation at Penn State.Rose M Marra, University of Missouri, Columbia Rose M. Marra, Ph.D. is an Associate Professor at the University of Missouri in the School of Information Science and Learning Technologies. She is Director of Research of the NSF-funded Assessing Women and Men in Engineering (AWE) and Assessing Women in Student Environments (AWISE) projects, and a co
AC 2011-670: IF YOU BUILD IT, THEY WILL COME (AND STAY): RE-CRUITING AND RETAINING WOMEN AND UNDERREPRESENTED MI-NORITY STUDENTSHyun Kyoung Ro, Pennsylvania State University Hyun Has been working as a graduate assistant on the Engineer of 2020 research grants that the Center for the Study of Higher Education received from the National Science Foundation at Penn State.Rose M Marra, University of Missouri, Columbia Rose M. Marra, Ph.D. is an Associate Professor at the University of Missouri in the School of Information Science and Learning Technologies. She is Director of Research of the NSF-funded Assessing Women and Men in Engineering (AWE) and Assessing Women in Student Environments (AWISE) projects, and a co
grow by 6%by 2018; however, this increase is expected to add only 17,600 new jobs.On the other hand, the same report suggests that the shift in the U.S. economy away fromgoods-producing in favor of service-providing is expected to continue. Service-providingindustries are anticipated to generate approximately 14.5 million new wage and salaryjobs. Similar to goods-producing industries, growth among service-providing industries isexpected to vary as shown in Figure 1. Figure 1: Projected change in employment in service providing industry Page 22.1181.2 during the period 2008 – 2018 (Source: BLS).These data sets suggest that the
graduateprogram draws students nationally and internationally, many of the students come from theregion. The graduate program has grown from six students in the 2004-05 academic year to 22students in 2009-10. Much of this growth can be attributed to the broad array of technical topicsand ability to recruit undergraduates by exposing them to challenging topics that give them aglimpse of masters-level topics. The primary mode for providing this exposure has been thesenior capstone project course sequence1, but additionally, there have been several independentstudy projects that have shown undergraduate ET students the challenges that lie in the graduateprogram.The Rapid Center houses a wide array of high-tech machinery, such as rapid prototyping(Stratasys
Processing EngineeringProgram Since 2006, geological and mining specialties have launched accreditation experimentalwork for mining and safety specialty in China. Now, this is the first time for mineralprocessing to carry out the accreditation, mineral processing of China university of miningand technology is one of the first and the only one who accept the accreditation ofengineering education in mineral processing specialty. Engineering talents‟ training mode in China is neither like United States, beforegraduates enter into industrial enterprise. First they should accept job training for engineers;nor like German engineering graduates who have experience in project. Our project educationhas the tendency to respect for science and
AC 2011-1069: STUDENT-CREATED WATER QUALITY SENSORSLiesl Hotaling, University of South Florida-St. Petersburg Liesl Hotaling is a senior engineer at the College of Marine Science, University of South Florida. She holds a B.S. in Marine Science, and Masters degrees in Science Teaching and Maritime Systems. She is a partner in Centers for Ocean Science Education Excellence - Networked Ocean World (COSEE-NOW) and specializes in real time data and hands-on STEM educational projects supporting environmental ob- serving networks.Rustam Stolkin, University of Birmingham, UK Dr. Stolkin is a Research Fellow at the Intelligent Robotics Lab, University of Birmingham, UK. He is an interdisciplinary engineer, with diverse
Engineering Technology at Eastern New Mexico University. He also serves as ABET/TAC pro- gram evaluator for electronics and computer engineering technology programs. He received his B.S., M.S., and Ph.D. in Electrical Engineering from the University of Missouri-Columbia. Before starting Ph.D. work, he worked three years as a project engineer. Page 22.536.1 c American Society for Engineering Education, 2011 Effective Practices in Multidisciplinary TeamworkAbstractThis article presents the content of a one-credit course that provides students with skills in jobinterviewing, team-work, learning