ourunderstanding of existing impediments to participation led us to consider developing a different Page 8.396.2Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright© 2003, American Society for Engineering Educationstudy abroad experience specifically designed for engineering students. A collaboration evolvedbetween the College of Engineering and the Division of International Programs at BostonUniversity, and the Dresden University of Technology in Dresden, Germany. The DresdenUniversity of Technology (TUD) was chosen as a partner because Boston University already hada small language and
institution learned fromtheir experience. To date, interviews have been conducted at four the six institutions, butthe present report will be based on data from the first three institutions at whichinterviews have been completed.To date, several themes have emerged from analysis.• Each of the institutions initiated curricular improvement by developing a pilot program and offering it to a relatively small number of students. Initiating improvement via pilot programs is well-accepted developmental strategy for engineering artificial systems, but it offers benefits and presents challenges in an educational environment. Expanding from a pilot curriculum to a curriculum for an entire college of engineering also presents challenges in
, courses tailored to enhancing pedagogical skills in such areasbecome valuable. As such, teacher professional development programs and courses that focus onteaching engineering with real-world problems emerge as catalysts for transformative teachingpractices. In the context of this study, we delve into a 3-hour graduate course entitledNanoEnvironmental Engineering for Teachers (NEET) offered free of cost at Rice University,Arizona State University, Yale University, and the University of Texas at El Paso under theNanosystems Engineering Research Center for Nanotechnology-Enabled Water Treatment(NEWT). The NEET class is designed for AP Environmental Science, Environmental Systems,Biology or Life Sciences, and K-12 STEM teachers to learn about water
Virginia Tech, where she also serves as Deputy Executive Director of the Institute for Creativity, Arts, and Technology (ICAT).Mx. Atlas Vernier, Virginia Polytechnic Institute and State University Atlas Vernier is a researcher, innovator, and technologist at Virginia Tech. They are a leader in immersive technologies and interdisciplinary collaboration. Having received dual bachelor’s degrees in Industrial & Systems Engineering and foreign languages, interdisciplinary and international collaboration are at the core of their work. Their research includes course design for an undergraduate interdisciplinary course, systems development for connection and collaboration in immersive virtual environments, and
Jorritsma, New drivers in mobility: What moves the Dutch in 2012 and beyond? Discussion Paper No. 2012-15, Prepared for the Roundtable on Long-Run Trends in Travel Demand, 29-30 November 2012. 4) BITRE, Traffic Growth: Modelling a Global Phenomenon, Report 128, retrieved on January 10, 2013 from http://www.bitre.gov.au/publications/2012/files/report_128.pdf 5) CISCO. Cisco. (2011). Cisco Connected World Technology Report. The Future of Work: Information Access Expectations, Demands, and Behavior of the World’s Next-Generation Workforce. San Jose: USA. Denstadli, J.M., Julsrud, T.E. & Hjortol, R.J. (2012). Videoconferencing 6) Todd Lassa, Why Young People are Driving Less: Is
Motivating Engineering Mathematics Education with Game Analysis Metrics David I. Schwartz Rochester Institute of Technology Department of Information Technology GCCIS, 70-2509 +1 585-475-5521 dis[at]it[dot]rit[dot]eduAbstractIn this paper, I develop a system for computational analysis of games that uses scoring functions tomotivate engineering mathematics education. Although many modern videogames have abandoned pointsas an archaic form of representing victory (or defeat
Motivating Engineering Mathematics Education with Game Analysis Metrics David I. Schwartz Rochester Institute of Technology Department of Information Technology GCCIS, 70-2509 +1 585-475-5521 dis[at]it[dot]rit[dot]eduAbstractIn this paper, I develop a system for computational analysis of games that uses scoring functions tomotivate engineering mathematics education. Although many modern videogames have abandoned pointsas an archaic form of representing victory (or defeat
Methods, International Construction.IntroductionConstruction Industry in IndiaIndian economy has grown significantly in recent years. With a GDP of $1.237 trillion, it is the5th largest economy in the world1. The development of the Indian economy has made an impacton all sectors of the construction industry. The industry value includes the revenues ofcompanies whose primary activity is the construction of residential, commercial, industrial, androads and highways. Total construction expenditure of the country in 2007 was $175 billion. It isexpected to be $370 billion by the end of 20132. Fast growth of the industry is particularlynoticeable in South India, which has emerged as an information technology powerhouse. In orderto accommodate the
assessment.IntroductionThe Chemical Engineering curriculum traditionally has been recognized for its breadth, partiallydue to the number of courses taken outside the discipline (e.g. chemistry, materials, circuits, etc.).More recently the multidisciplinary nature of the curriculum has increased due to theincorporation of examples of newer technologies such as semiconductor processing,biotechnology and environmental engineering into the majority of the required courses. Chemicalengineering students are exposed to a variety of new technologies. However, some of thosetechnologies are developing into official degree programs and concentrations in their own right.It is feasible that significant parts of the chemical engineering curriculum can form the foundationof these
technical background is easy. No prerequisitesare required. The topic is totally self contained, and students typically are already interestedbecause of the glamour associated with the word “digital” these days. However, digital circuitscan be enormously complex and tricky. The goal of an introductory class must be to inspireinterest in students without giving too much information at once. Students must be dazzled, butnot intimidated. Page 22.1394.4Engineers are always tempted to employ the latest gizmo or most recent technology in theirdesigns. Generally speaking, engineering applications in industry benefit from that approach.Designs using the
CourseAbstractThin film organic light-emitting diodes (OLEDs) represent the state-of-the-art in electronicdisplay technology. Their use ranges from general lighting applications to cellular phonedisplays. The ability to produce flexible and even transparent displays presents an opportunityfor a variety of innovative applications. Science and engineering students are familiar withdisplays but typically lack understanding of the underlying physical principles and devicetechnologies.We believe that OLEDs provide a valuable context in which to engage science and engineeringstudents in the study of electronic devices. Colleges and universities typically do not have theresources available for students to produce working electronic devices like diodes or
-national missions through infrastructure planning, posture development, and contingency operations across North America. He holds a B.S. in Mechanical Engineering from the Virginia Military Institute, along with master’s degrees in Engineering Management from the Air Force Institute of Technology and Fire Protection Engineering from the University of Maryland, College Park. Throughout his career, he has led engineering, operations, and emergency services teams across assignments in the United States, Qatar, Honduras, and the Republic of Korea. Lt Col Pickenpaugh is a licensed professional engineer in Colorado and a lifetime member of the Society of American Military Engineers. His assignments have included joint
Motivating Engineering Mathematics Education with Game Analysis Metrics David I. Schwartz Rochester Institute of Technology Department of Information Technology GCCIS, 70-2509 +1 585-475-5521 dis[at]it[dot]rit[dot]eduAbstractIn this paper, I develop a system for computational analysis of games that uses scoring functions tomotivate engineering mathematics education. Although many modern videogames have abandoned pointsas an archaic form of representing victory (or defeat
Engineering and an M.S. degree in Applied Mathematics from the University of Michigan, Ann Arbor. His research interests lie in the areas of vehicle control, control and diagnosis of discrete-event systems, modular and hierarchical control, and engineering education. Dr. Hill has a strong interest in diversifying the STEM pipeline and leads the innovating Detroit’s Robotics Agile Workforce (iDRAW) program in partnership with underserved Detroit-area high schools.Dr. Andrew Lapetina, University of Detroit MercyDr. Michael Lachney, Michigan State University Michael Lachney is an associate professor of educational technology at Michigan State University. With expertise in qualitative social science methods, he is interested in
Paper ID #45744Using Portfolios in a Flipped Dynamics Class for Homework Documentationand Pre-Class Work AccountabilityDr. Phillip Cornwell, U.S. Air Force Academy Phillip Cornwell is a Professor of Mechanical Engineering at the United States Air Force Academy and an Emeritus Professor of Mechanical Engineering at Rose-Hulman Institute of Technology. He received his Ph.D. from Princeton University in 1989, and his current interests include structural dynamics, structural health monitoring, and undergraduate engineering education. Dr. Cornwell received the SAE Ralph R. Teetor Educational Award in 1992, the Dean’s Outstanding
admissionsto broaden access. These graduate programs highlight innovative approaches to online engineeringeducation but also raise questions about learner preparedness, credential recognition, and programscalability. Finally, we explore the integration of artificial intelligence (AI) tools in asynchronousonline platforms, including both their promise for enhancing personalization and the risks theypose to critical thinking and equity. This paper concludes with actionable recommendations forcourse design, technology use, and institutional policy to support inclusive and effectiveasynchronous learning. 1. IntroductionOnline education, particularly asynchronous programs, has become a popular choice in recentyears. Asynchronous learning is different
Daniel Raviv, Juan D. Yepes and Michael Cuomo Department of Electrical Engineering and Computer Science Florida Atlantic University, Boca Raton, FL 33431 Emails: ravivd@fau.edu, jyepes@fau.edu, mcuomo2016@fau.eduAbstractAs technology becomes an integral part of daily life, students are adopting new waysof learning and increasingly favor visual, intuitive, and interactive methods. Theyare exposed to a wide array of videos, websites, and applications that enable them toexplore topics, often without relying on traditional textbooks. These modern toolsare perceived as more engaging and informative compared to conventional lecturesand reading materials. To align with these evolving learning preferences, educatorsmust adapt their teaching
discusses the efforts by the program director (PI) toproperly prepare students to conduct their summer research project.Overarching Theme and Research Focus of IRES SiteOver the past few decades the generation of ‘big data’ within biology and health has exploded.Within biology, this is largely due to technological improvements within the ‘-omics’ spacewhich has allowed for the collection of massive amounts of genomic, transcriptomic, proteomicand metabolomic data with applications from basic science to medicine [1]. Recently, the adventof single-cell and spatially-resolved omics techniques has further contributed to the largeamounts of biomedical data being collected and analyzed every year [2]. Apart from these -omics data types, big data within
Fellowship, in the Department of Biomedical Engineering at the University of Arkansas. She received her B.S. in Biomedical Engineering from Harding University, where she was first introduced to engineering education research examining students’ perceived identities in a first-year engineering course. While her current dissertation work is focused on developing organ-on-chip technology to study the human airways, Amanda also has a strong interest in teaching and education research. She has devoted a semester to teaching as an adjunct instructor for Fundamentals of Chemistry at John Brown University, completed a micro-certificate in the professoriate, and led several educational experiences for
and Corporate Social Responsibility will be published by The MIT Press in 2021. She is also the co-editor of Energy and Ethics? (Wiley-Blackwell, 2019) and the author of Mining Coal and Undermining Gender: Rhythms of Work and Family in the American West (Rutgers University Press, 2014). She regularly publishes in peer-reviewed journals in anthropology, science and technology studies, engineering studies, and engineering education. Her research has been funded by the National Science Foundation, the National Endowment for the Humanities, and the British Academy.Dr. Juan C. Lucena, Colorado School of Mines Juan Lucena is Professor and Director of Humanitarian Engineering Undergraduate Programs at the Col- orado
discuss and review potential interventions they did or could do in the classroom.Furthermore, the lead faculty utilized the University of Dayton learning management system(LMS) to develop a website with additional resources and information available to all the facultyparticipants.While the FLC approach and the list of EML micromoment activities seemed attractive to manyfaculty members, several challenges emerged. Examples include time conflicts with otheractivities, lack of additional stipends, and a rapid modification to their planned lectures. Despitethese constraints, a small faculty cohort (n = 7) met, when possible, throughout the semesterduring three different sessions to share their micromoment implementations, suggestions, andstudents
Paper ID #34618Virtual Fluidization Labs to Assist Unit Operations CoursesProf. David R. Wagner, San Jose State UniversityFanny Huang American c Society for Engineering Education, 2021 Work In Progress: Virtual Fluidization Labs to Assist Unit Operations CoursesAbstract As technology advances, educational platforms are changing, evolving towards partiallyor entirely virtual environments. New emerging virtual tools are used to enhance topics discussedin lecture settings. In chemical engineering education, one of the fundamental courses forundergraduate
with disabilities in engineering. I join the call for greaterattention to the cultural and structural barriers to full participation evidenced by this and otherresearch.IntroductionEngineering education and engineering work that does not include robust representation from thevery publics it purports to serve is both inherently exclusionary and intellectually and creativelyimpoverished [1-3]. For decades, social scientists and engineering education scholars havedocumented the under-representation of women and people of color in science, technology,engineering, and math-related fields, and, more recent work has extended that investigation toinclude sexual and gender minorities [e.g., 4-7, 20]. However, the experiences and voices ofpersons with
ASEE-NMWSC2013-0049 Incorporating On-going Verification & Validation Research to a Reliable Real-Time Embedded Systems Course Nannan He Department of Electrical, Computer Engineering and Technology Minnesota State University, Mankato, MN 56001AbstractThis paper presents the enhancements to a senior-level and graduate-level course, Reliable Real-time Embedded Systems, in terms of introducing advanced verification and validation (V&V)approaches. Traditionally, this course covers the topics of fundamental principles in real-timeoperation systems like
delineate and discuss the findings of three years (2013-2015) of assessments froma single SPARK undergraduate cohort. Our key research questions include examiningmotivation, self-perception, and social and academic practices that lead to female undergraduatepersistence and degree attainment in ECS.BackgroundTexas State University is a public, student-centered, Emerging Research University with almost38,000 students. It ranks as the largest public university in the Texas State University Systemand one of the 50 largest in the country. With a diverse campus where ethnic minorities make up49% of the student body and 33% are Hispanic, Texas State is a Hispanic Serving Institution.Texas State has the fifth highest retention rate and graduation rate of
employeesto take advantage of this unique educational opportunity, with tuition underwritten entirely or inpart by the employer.Program Content and PhilosophyThe rationale for combining the three areas of colloid, polymer and surface science in a singlecurriculum addresses problems not of traditional industries alone but of emerging hightechnologies in medical, biological and interfacial science. Surface chemistry deals with interactions at boundaries where two phases meet. Equilibrium states as well as kinetic events at such interfaces depend upon the phenomena of surface tension, adsorption and desorption, condensation and evaporation, and the like. Colloid chemistry deals with materials dispersed in a continuous
Page 14.138.2need to take into account the changing profile of students entering our schools and colleges. Adirect consequence of the diminishing returns provided by existing instructional methods is thegrowing interest in the educational use of video/computer games1. Prensky argues that“computer and video games provide one of the few structures … that is capable of meeting manyof the Gamer Generation’s changing learning needs and requirements”2.Although the emergence of the “Gamer Generation” is a recent phenomenon, the literature oneducational use of games dates back to the early 1970s3-8. In the 1980s, researchers startedstudying computer and video games from a cognitive and educational point of view. Greenfield9,and Loftus and Loftus10
Society for Engineering Education, 2006 The Hubbert Curve: Enabling Students to Meaningfully Model Energy Resource DepletionAbstractCourses in Energy Systems (alternatively named “Applied Energy Conversion,” “EnergyConversion Systems,” or some variant) often discuss the idea of energy resource depletion interms of the exponential growth model. A typical problem is: given the current growth rate of oilproduction, in what year will known reserves be depleted? The exponential growth model,although offering reasonable results initially, becomes less accurate in the later stages of resourceexploitation as issues of scarcity, cost, and technological hurdles become important. It grosslyunder predicts how long a
for Cyber Security Education and Research and an Assistant Professor in the Department of Computer Science at the North Dakota State University. He holds a Ph.D. in Scientific Computing, an M.S. and an M.B.A. and has published over 40 journal articles and over 120 full conference papers, in addition to making numerous other conference presenta- tions. Straub’s research spans the gauntlet between technology, commercialization and technology policy. In particular, his research has recently focused on cybersecurity topics including intrusion detection and forensics, robotic command and control, aerospace command and 3D printing quality assurance. Straub is a member of Sigma Xi, SPIE, the AIAA and several other
economy will become better decisionmakers in CEPs that are becoming increasingly important in technology-driven societies,domestically and globally.In what follows, we elaborate on the major goals of this project, followed by main activities andresults, various impacts, and future directions.The first goal of this project is to create engineering economy contents on CEP’s suitable asrelevant teaching materials under substantial uncertainties, emphasizing the threshold and timingof critical life-cycle decision making. The next goal is to facilitate many engineering students tobe better able to make critical engineering economy decisions on CEP’s through learning ofrelevant declarative knowledge through implementation of such materials as an