]. Page 14.957.89. Add to Search Bar :: Firefox Add-ons. Available at: https://addons.mozilla.org/en-US/firefox/addon/3682 [Accessed February 6, 2009].10. Science Accelerator, Office of Scientific and Technical Information, U.S. Department ofEnergy. Available at: http://www.scienceaccelerator.gov/index.shtml [Accessed February 6,2009].11. Search Engine for Standards - NSSN. Available at: http://www.nssn.org/default.aspx[Accessed February 6, 2009].12. Zotero: The Next-Generation Research Tool. Available at: http://www.zotero.org/ [AccessedOctober 26, 2008].13. Google Translate. Available at: http://translate.google.com/translate_t?hl=en# [AccessedFebruary 6, 2009].14. NIST 2008 Machine Translation Evaluation - (Open MT-08)Official Evaluation
program outcomes is based on: 1) How well the studentscommunicate specific design aspects in the formal report; 2) How well they communicate theirlinearization methods using MATLAB; 3) A survey on how well the students believe they aremeeting the course objectives associated with the laboratory project; and, 4) the successfulcompletion of embedded questions in quizzes the final exam associated with the design project.IntroductionThe general engineering program at East Carolina University was started in 2004 to help supportthe need of broadly-skilled, general engineers for the regional industries and business located Page 22.1420.2among the small
removed priorto analysis. For the three scales of engineering identity, engineering self-efficacy, and SDL, meanscores were taken for analysis. For Research Question #1, a logistic regression was used topredict participation in the e3 Initiative in terms of students’ demographic factors (age, gender,race/ethnicity, and first-generation status). For Research Question #2, students’ pre/post meanscores for engineering identity, engineering self-efficacy, and SDL were compared via t-tests.Preliminary Results Regarding Research Question #1, our preliminary results indicate that males weresignificantly less likely to participate in the e3 Initiative than females (β = -0.16, p = 0.009).Additionally, low-income students were also significantly
Atmospheric Research in Boulder, Colorado provide a unique cross-disciplinary background of atmospheric research. He has many reviewed technical journal and conference papers in the areas of applications of signal processing techniques to radar problems and studies using atmospheric radars. In parallel with his technical strength, he has a passion for delivering high quality education. He has developed and taught several undergraduate and graduate courses at the University of Oklahoma.Robert Palmer, University of Oklahoma Dr. Robert Palmer has published extensively in the general area of radar remote sensing of the atmosphere, with emphasis on the use of multiple frequencies/receivers for
Session No. 1621 Systemic Framework for Planning of Construction Education for the Next Generation in the United States. Erdogan M. Sener Indiana University Purdue University Indianapolis (IUPUI)Abstract:Construction work that will take place in the United States in the next few decades will befundamentally different from the type of construction work that has been typical in the last fewdecades. The titles of the traditional construction and construction management undertakings interms of design, estimating, costing, bidding, specifying, scheduling
University.Joseph C. Tise, Pennsylvania State University, University Park Joseph Tise is a doctoral candidate in the Educational Psychology program at Penn State University. His research interests include self-regulated learning, measurement, and connecting educational research to practice. c American Society for Engineering Education, 2019 Work-in-Progress: Embedding a Large Writing Course within Engineering Design—A New Model for Teaching Technical WritingSummary and Introduction A survey of more than 1000 professional engineers reveals that communication is one ofthe top two skills needed in the profession [1]. Not surprising, many engineering colleges haveresponded to such surveys with
interdisciplinary, in whichengineering, geoscience, and meteorology students are encouraged to actively participate.As discussed in a report by the Bureau of Economic Analysis, about 1/3 of the nation’s$10 trillion dollar economy is influenced by weather. Storm cells, tornadoes, and haz-ardous weather cause damage and loss that could be minimized through enhanced radarand longer warning lead times. To study these topics, the program has generated a unique,interdisciplinary research-oriented learning environment that will train future engineers andmeteorologists in the full set of competencies needed to take raw radar data and transformit into meaningful interpretations of weather phenomena. The heart of the program is the development, implementation and
Session 2356 AN UPPER DIVISION GENERAL EDUCATION COURSE ON MATERIALS FOR NON-ENGINEERING STUDENTS M. Grant Norton, David F. Bahr School of Mechanical and Materials Engineering Washington State University Pullman WA 99164-2920IntroductionTo increase the awareness of materials among the general student population at WashingtonState University (WSU) we developed a new course, MSE 440 Materials: The Foundations ofSociety and Technology. This course is taught as a Tier III course in the General EducationProgram and was offered for the first time in Fall 2000, and
"thing-inform"?: case studies in seeing engineering meaning differently through the process of technical ASL vocabulary creationAbstract(Note: A signed version of this abstract is available on http://aslcore.org. Although this paper hasbeen written in English, the primary working language of this project is American SignLanguage. The English paper presented here should be treated as an explanation designed for anon-signing audience.)Engineering is a social activity where practitioners constantly use language in order tocommunicate. While not completely deterministic, the nature of the language we use influenceshow we think, communicate, and collaborate [1]. This paper draws from work on the engineeringbranch of
regular curriculum. In 2014, Governor Terry McAuliffe (Commonwealthof Virginia) established the “Cyber Virginia and the Virginia Cyber Security Commission” withrecommendations that a cybersecurity workforce pipeline should start in K-12 education and thatvarious pathways should be developed and implemented across the Commonwealth. This paperwill provide an initial look into a project funded by the Department of Education that is focusedon the Career and Technical Education (CTE) pathways in Computer Science and Cybersecurity.It is the first year of implementation.IntroductionComputer science has been added to the science curricula on the high school level in theCommonwealth of Virginia in 2016 [1]. However, since there is high demand for a
AC 2008-1435: THE PENN STATE STUDENT SPACE PROGRAMS LAB:TRAINING THE NEXT GENERATION OF SPACE SYSTEMS ENGINEERSSven Bilen, Pennsylvania State University SVEN G. BILÉN is an Associate Professor of Engineering Design, Electrical Engineering, and Aerospace Engineering at Penn State. He is the Chief Technologist for Penn State's Center for Space Research Programs and Director of the Student Space Programs Lab. He is member of IEEE, AIAA, AGU, ASEE, URSI, and Sigma Xi.Brian Schratz, Pennsylvania State University BRIAN SCHRATZ graduated with a B.S in electrical engineering from The Pennsylvania State University in 2006 and is now pursuing an M.S. in electrical engineering at Penn State as a
Session 1380 The Current Status and Uses of the General (Undesignated) Engineering Program with a Case Study James Farison, Byron Newberry Department of Engineering, Baylor University, Waco TXAbstractIn this paper we discuss several important aspects of the category of engineering programs namedsimply Engineering (or General Engineering) or Engineering Science, in contrast to programs witha designated disciplinary focus, such as Electrical Engineering or Mechanical Engineering. Ourpurpose is to explore the role such undesignated, or general, engineering programs play
Session Number: 1122 Ethics, Technology and the Future: An Inter-Generational Experience in Engineering Education Rosalyn W. Berne Technology, Culture and Communication University of Virginia, School of Engineering and Applied SciencesAbstractWhich pedagogical approaches to engineering ethics can adequately and richlyintroduce to young engineers the perplex issues associated with the development of new,futuristic technologies? Nanotechnology, cryonics, cloning, quantum computing, cyber -intelligence and genetic engineering each hold the potential of radically altering thefundamental nature of
Information Literacy, distributed cognition, and virtual teaming in a linked writing/general education chemistry assignmentIntroductionInformation literacy is an umbrella concept encompassing library instruction, computerliteracy, critical thinking, communication, ethics, and lifelong learning. How mightinformation literacy contribute to teamwork? Information Literacy enables learners to“master content and extend their investigations, become more self-directed, and assumegreater control over their own learning” 1 . In a teamwork situation, can individual skillswith information gathering and synthesis contribute to the work of the group? We knowfrom communication and composition journals that a teamwork assignment
1 Session XXXX An Experiential Education Framework to Train Next-Generation Energy- Conscious Engineers through UNT Industrial Assessment Center Huseyin Bostanci, Nourredine Boubekri Department of Mechanical Engineering University of North Texas AbstractThe mission of the newly established UNT Industrial Assessment Center (UNTIAC) is to assistsmall and medium-sized enterprises (SMEs) in manufacturing sector in North Texas region (a)increase energy efficiency
design, 2) facultyteaching online and hybrid courses reflect the best pedagogical practices for online instruction,and 3) online and hybrid courses taught provide a positive learning experience for students. Thepurpose of this study is to explore the educational experience in the online classes offered to theprimarily on-ground students, to evaluate the instructional effectiveness of various instructionaltools used in the online class, and to assess viability of online course offering across majors,from technical (e.g., engineering and construction management) to humanity (e.g.,communication and sociology). A survey was given to students who took online courses atCCSU during the Summer 2014 sessions to assess the instructional tools used and
-programmed Engineering education is undergoing a major shift with the rules; they could not create new, contextually relevant content.advent of Gen AI technologies. Gen AI refers to AI systems(such as Large Language Models (LLMs) and generative The past few years have seen a transformative leap withimage models) that can produce new content, ranging from the rise of Gen AI models. Unlike earlier AI, Gen AI canhuman-like text to designs and simulations, based on patterns produce original text, images, code, and designs in response tolearned from vast datasets [1]. While AI has been used in prompts, enabling far more interactive and creativeeducational settings for decades, recent breakthroughs in
their understanding of the world. This effort included a wider rangeof classes that would count for general science credit. In the promulgation it was stated “faculty in all schools and colleges are encouragedto think across disciplinary lines about the best ways to convey the kinds of sophisticatedknowledge that will produce Temple graduates able to see connections in seeminglydisparate information.” This new program summed these efforts with the motto "Dare toknow!" In a descending order, a series of general to specific skills and requirements wereoutlined. Accordingly, each course had to accomplish the following required goalsassociated with the general education program: 1. Develop students’ thinking and communication
during times of educational disruption.IntroductionOpportunities to develop professional skills happen within and outside of engineeringclassrooms. While different operationalizations exist for professional skills, the NationalAcademy of Engineering and ABET generally agree that students’ development should focus onfive specific areas: teamwork and shared leadership, effective communication, creative problem-solving, business and management principles, and professional and ethical responsibility. Inengineering education, skills development often happens within courses like cornerstone andcapstone design [1], as well as in cocurricular activities such as professional organizations andstudent design teams [2]. Specifically, professional
] Dabipi, I.K., Hartman, C.E., Burrows-McElwain, J.B.,"A Kite-Based Aerial Imaging as a Freshman Engineering Design Project ", 39th ASEE/IEEE Frontiers in Education Conference, Session M1C-1, 2009.[4] Dabipi, I.K., Burrows-McElwain, J.B., Hartman, C.E, "Low Cost Runway Incursion Detection System for General Aviation Airports", 40th ASEE/IEEE Frontiers in Education Conference, Session T1C-1, 2010.[5] Northouse, P. Leadership: Theory and Practice. Sage Publications, London. Pp. 69-79, 151-159, 2007.[6] Rothwell, W., Kazanas, H. Mastering the instructional design process: A systematic approach. Jossey-Bass, San Francisco. Pp. 67-68, 1998
various stages intheir career; one participant recently retired, three were senior level managers and two wereprocess engineers. These industry representatives work in sectors ranging from energy (WBIEnergy) including oil and gas (Cenex, Conoco Phillips) to semiconductors (Micron) andmaterials science (3M Corp.).The survey focused on genre, technical communication skills in general, oral communicationskills, and written communication skills. It asked how often the survey taker used differentwritten and oral communication genres on a Likert scale with 1 corresponding to never, 2-yearly,3-monthly, 4-weekly and 5-daily. The survey also asked what technical communication skillsthey felt were most important on a Likert scale from 1 to 5 with 1 being
voiced the need for a broader understanding of electronics. It may now be time toinclude some form of an across-all-majors general enrollment energy-storage technical electiveclass for engineering programs. Such a course need not be purely a Li-ion cell/battery class, butuntil a viable substitute for Li-ion cells comes along, Li-ion cell chemistries need to be a majorpart of such a course. Items in a Li-ion cell/battery class should include the following: • Characteristics of electrode properties, and electrode material analysis • Cell assembly methods • Controlled environment and inert environment manufacturing procedures • Cell charging and discharge cells characteristics, and power cycling of cells
Sheppard, Stony Brook University c American Society for Engineering Education, 2018 University-Based Engineering Training of High School Science Teachers to Implement the Next Generation Science Standards (Work in Progress)IntroductionScience education in the United States is in the midst of a major reformation. The NextGeneration Science Standards (NGSS), released in 2013, aim to improve K-12 science educationthrough a renewed focus on scientific and engineering practices intertwined with recurringconceptual themes across the sciences [1]. The standards are based on the National ResearchCouncil’s A Framework for K-12 Science Education: Practices, Crosscutting Concepts, andCore Ideas [2]. Ultimately, the goal of
Engineering Accreditation Commission, available at www.abet.org (accessed 12 November 2011). 10. Davis, M. (2010), “Assessing technical communication within engineering contexts”, IEEE Transactions on Professional Communication 53 (1), pp. 33-45. 11. Reave, L. (2004), “Technical communication instruction in engineering schools: A survey of top-ranked Page 26.787.9 U.S. and Canadian programs”, Journal of Business and Technical Communication, Vol. 18, pp. 452-90. 12. Felder, R.M. (2008), “A whole new mind for a flat world”, in MacLennan, J. (Ed.), Readings for Technical Communication, Oxford University Press, Don Mills
background. In several activities, whereArduinos were already pre-programed and students were only asked to interface theboards to various sensors and actuators, the same students had difficulty wiring thecomponents together on their own.In order to engage the less technically experienced students, in 2016 we started exploringalternative devices and laboratory activities that can be engaging for students across allmajors, particularly the ones with very little electronic or programming background.This motivated us to design Aksense as a learning tool to replace Arduino, discretesensors, and breadboards in our Introduction to Engineering course. The purpose ofdeveloping Aksense was several-fold: (1) generating early interests in engineering, (2
two areas: (1) one chat session is for addressing studentquestions on the multimedia content, readings, and homework problems; and (2) the other chatsession is to address lab questions, observe their conduct during the labs remotely, and guidethem to the troubleshooting process.If the College of Engineering can effectively deliver the lab content from this first course to meetstudent outcomes, then the engineering faculty can expect the development of future electricalengineering courses involving lab activities to go much smoother.As mentioned earlier, the full-time engineering faculty have a combined teaching experience ofover 60 years but no experience in developing and delivering a complete engineering coursefully online. Because the
themselves and from people who are like the students that they reach. Types of resources most asked for in live conference sessions include: translation services, pronunciation guides, and listings of agencies/resources that address basic life needs of students, e.g. housing, transportation, food. Types of HSI-relevant resources that were most frequently viewed from the repository are culturally responsive practices that are either research based and/or include examples from other HSI practitioners with NSF grants and proposal development aids.3. Community BuildingCommunity building in year 3 of the project was conducted entirely virtually. This contrasts withyears 1 and 2, where conferences were the primary mechanism for engaging with the
CourseOverall, the goal of this course was to expose incoming freshmen students to the principles ofengineering design and technical writing, while also increasing their interest and enthusiasm forengineering. This was a relatively small course with only 7 students, providing a lot of directinstructor interaction with the students. Both student groups for the arthrogryposis projectsproduced successful low-fidelity prototypes as shown in figure 1 below. Student performance onthe written and oral communication assignments resulted in a class average of 90.9% ± 3.76%,and demonstrated effective student performance. Figure 1. Low fidelity prototypes for spoons to aid young arthrogryposis patients.After the course concluded, students were
AC 2012-4138: TEACHING PYTHAGORAS’S THEOREM USING SOFT-WAREDr. Bert Pariser, Technical Career Institutes Bert Pariser is a faculty member in the Electronic Engineering Technology and Computer Science Tech- nology departments at Technical Career Institutes. His primary responsibility is developing curriculum and teaching methodology for physics, thermodynamics, electromagnetic field theory, computers, and databases. Pariser has prepared grant proposals to the National Science Foundation, which produced the funding for a Fiber Optics Laboratory. He served as Faculty Advisor to the IEEE and Tau Alpha Pi National Honor Society. Pariser was instrumental in merging Tau Alpha Pi National Honor Society into the ASEE. In
turbine is fixed. Two-wayschemes often produce more total power output, however; the Ebb systems are more efficient interms of cost times power efficiency per unit turbine (Efficiency total = (Energy in x Cost) /(Energy out x number of turbines) because bi-directional turbines are generally more expensiveand provide less energy or power output. There are no active barrages in the United States,however; devices can be found in Canada, UK, France, India, South Korea, and New Zealand.Table 1 below shows the locations and power output for active devices. 8Table 1: Active Barrage Devices as of 2011Tidal Turbines Tidal turbines operate in a similar fashion to wind turbines. Unlike the typical threeblade design of a wind turbine, tidal turbines