programming. The vehiclefor the latter was Fortran programming on mainframe computers using punched cards. Thecomputing component of these courses grew through the 70’s with more attention paid tonumerical methods. The minicomputer was a common vehicle, and video terminals graduallyreplaced the use of punched cards. In the 1980’s technology shifted to personal computers withmagnetic storage media. Although there were “experiments” or “movements” with differentprogramming languages during the 70’s and 80’s, such as Pascal, Fortran, in its evolvingversions, remained the primary software vehicle.From the mid-80’s forward through the 90’s, a split occurred in the direction taken towardintroductory computing for engineers. In part, this was catalyzed by
, his friend from India whom he met inFrance picked him up at the airport when he visited India in the summer of 2009. After hereturned from France, he interned with a company on bridge design project in Montreal in whichdesign drawings were in English and French. He is currently seeking to return to Brazil to workwith transportation projects in Rio de Janeiro leading up to the 2016 Olympics. Also, the leadauthor interviewed for an internship with a transportation engineering company in Brazil.Study Abroad Presentation from Brazil Using Education Technologies The second author has done innovative experiments to motivate his freshman students to consider study
Nations Conference on the Environment and Development (in Stock- holm);♦ 1987, the year of “Our Common Future,” the report of the World Commission on Environ- ment and Development (the “Brundtland Report”);♦ 1992, the second United Nations Conference on the Environment and Development (in Rio de Janeiro, the “Earth Summit”).The purpose of this paper is to examine ideas in the broader community that led CSM’s Divisionof Liberal Arts and International Studies (LAIS) to formulate a new freshman core-curriculumcourse entitled “Nature and Human Values.”Not to be overlooked are the impulses that come to engineering schools through ABET’s (Ac-creditation Board for Engineering and Technology) Engineering Criteria 2000.1 Among the mostrelevant
2018 ETLI Capitol Hill Advocacy Day Miriam Quintal and Bill Ruch ASEE Government Relations Lewis-Burke Associates LLCLewis-Burke and ASEE• Started October 2, 2017• Goals: – Ramp up ASEE advocacy and presence in Washington – Protect engineering and engineering technology education and research funding – Promote sound policies for research and education – Make sure the engineering technology and engineering communities has a voice in relevant policy discussions – Develop grassroots efforts to engage members – THAT MEANS YOU!• Lewis-Burke: – Started in 1992 – 28 policy experts – 40 clients exclusively composed of non-profit entities: universities, scientific societies, managers of large federal
Session 1268 Session 1268 Design Using Spread Sheets By Dr. Martin Pike Purdue University AbstractDesign is an important factor in Mechanical Engineering and Technology programs. The morerealistic the design project, the better the learning experience is for the students. Often, designrequires many iterative calculations and “what if” parametric studies. For these types ofprocesses, spread sheets have been useful in
understanding and creating new technology, for which designrules had yet to be written. However, the emphasis on basic science produced engineers who lacked practicalexperience and judgment, though well-trained in science and mathematics. The call for better experiences inapplying science to practical problems brought a response in the 1980's by engineering curricula thatsupplemented science requirements with "engineering design" mandates. Most recently, engineering educatorsrecognize that these mandates alone are inadequate, because a key ingredient is missing: students are oftenpoorly trained in the processes of putting science into practice. The most glaring shortcoming is the inability ofstudents to think through problems and various solution
, coding, testing and documentation.The problem-solving facet of the course focused on data analysis and numerical methods.This introductory course has evolved along with the evolving computing environment.As the C language gained in popularity, the language of instruction was changed fromFORTRAN to C; the problem solving focus of the course, however, remained. Since theorigin of the course nearly thirty years ago, the emergence of a plethora of applicationprograms, e.g., P-Spice, MATLAB / SimuLink, Excel, ETAP, SKM Analysis PowerTools and others, has reduced the need for Electrical Engineering Technology Students todesign and implement such application specific computer codes. Their need is to usethese tools to solve engineering problems. The
. (2001). Scaffolding learning in virtual environments. Annual conference on Innovation and technology in computer science education, Candelabra, UK.Heffernan, N. T. (1998). Intelligent tutoring systems have forgotten the tutor: adding a cognitive model of human tutors. Conference on Human Factors in Computing Systems, Los Angles, CA, USA.Jackson, S. L., J. Krajcik, et al. (1998). The design of guided learner-adaptable scaffolding in interactive learning environments. SIGCHI conference on Human factors in computing systems.Palm, W. (2001). Introduction to MatLab 6 for Engineers, McGraw Hill Higher Education.Quintana, C., J. Krajcik, et al. (2002). A Case Study to Distill Structural Scaffolding Guidelines for Scaffolded
Session 1359 EXPERIMENTAL SETUP OF A LOW DIFFERENTIAL PRESSURE PERMEABILITY APPARATUS FOR CONCRETE SAMPLES Kevin J. Renken, George T. Abraham University of Wisconsin-MilwaukeeAbstractThis paper presents the results of a mechanical engineering senior design project that was carried-outin the Radon Reduction Technology Laboratory at the University of Wisconsin-Milwaukee (UWM).The objective of the student's project was to design, setup and test an experimental apparatus tomeasure the air permeability coefficient of concrete samples under low pressure differences (∆p ~5 - 10 Pa) that
outreachprograms will be presented. The organizational structure and method of operation will also bediscussed, including impact on organization employees, organizational structure philosophiesutilized, and the 10, 20, 30 40 rule that have enabled the organization to provide balancedoutreach at all grade levels. Lessons learned will also be presented. The overall purpose of thispaper is to document what a large STEM outreach organization may look like, so that otherorganizations can gain insight for their growth or sustainability.Index Terms - Active Learning; Classroom; Education, Engineer; Invention; Innovation; Science;STEM; Outreach; Picatinny Arsenal; Volunteering; WorkshopsI. IntroductionThe importance of conducting Science, Technology, Engineering
engineering faculty members perceives their participate in communities of practice for teaching innovation supported by an annual funding program and 2. Make the program better to enhance the communities of practice. Collect diverse ideas to improve the program to enable faculty communities of practice thrive based on their lived experiences.BackgroundEngineering communities have integrated Evidence-Based Instruction Practices (EBIPs) in STEM(Science, Technology, Engineering, and Mathematics) courses (Biswas et al, 2020; Borrego, M.,& Henderson, 2014). The objective of the study is to advance the integration of evidence-basedteaching practices in introductory STEM courses and enhance student learning outcomes. TheEIP program
-tier” universities thatsupport inclusive environments for minority students, and contends that a supportive institutionalenvironment benefits everyone. Malone and Barabino 21 considered such environments as they Page 15.362.5examined the role of environment in identity-formation. They also performed a comprehensiveanalysis of narrations of race in science, technology, engineering, and math (STEM) settings.Their work identifies themes of invisibility and lack of recognition, exclusivity, racialization, andissues of integration of identity. In general, their work pulls together research from varioussources, including existing literature and
Career Award for Scientists and Engineers from President Obama in 2017.Mr. Javeed Kittur, Arizona State University Javeed Kittur is currently a first year doctoral student (Engineering Education Systems & Design) at Ari- zona State University, USA. He received Bachelor’s degree in Electrical and Electronics Engineering from B.V.Bhoomaraddi College of Engineering and Technology, Hubli, India in 2011. He has worked with Tata Consultancy Services as Assistant Systems Engineer from 2011-2012, Bangalore, India. He completed his M.Tech in Power Systems from The National Institute of Engineering, Mysore, India in 2014. He has worked as an Assistant Professor (2014 to 2018) in the department of Electrical and Electronics
Curriculum,"International Conference on Engineering Education (ICEE), Proceedings of 2001 ICEE, pp. 8B2-6 to 8B2-9, Oslo,Norway, Aug. 6-10, 2001.[4] Uddin, M., personal communication, November 1, 2002.[5] M. Mendelson, G. Kuleck, J. Roe, J. Sanny, R. Noorani, “Nano/Micro-Technology Undergraduate Course,”NSF Grant EEC 0304677 (Nanotechnology Undergraduate Education), July 2003.[6] Akay, A., "New Directions in Mechanical Engineering,," Redefining Mechanical Engineering and It's Impacton Engineering Education, ASME Mechanical Engineering Education Conference, Clearwater Beach, FL, January25-27, 2002.[7] M. Mendelson, G. Kuleck, J. Roe, J. Sanny, J. Bulman, R. Noorani, N. Ula, “Integration of the Basic Sciencesand Engineering Through Nanotechnology
relationship toresearch and design, or explicitly integrate creativity or innovation into an undergraduatestudent’s training. Leading engineering education experts have described “creativeexperiential, problem based learning” as the model for future engineering curricula if theUS is to maintain a technologically and economically competitive workforce.1 Teachingengineering design as a vehicle to incorporate creativity into engineering curricula iswidely acknowledged by engineering education researchers.2,3 Engineering students havedifficulty integrating their studies into real engineering situations because of lack ofexposure.4 It is this capacity to integrate knowledge and skills into the practice ofengineering that signifies the creative
Session 2525 Linking Mechanics and Materials in Structural Design: A Generalized Design Template and its Application C. H. Jenkins, S. K. Khanna Mechanical Engineering Department South Dakota School of Mines and Technology Rapid City, SD 57701 USAAbstractEngineering education follows much of what we do in engineering practice itself, for better orworse. One common activity that we must approach with great care in either field is thedecomposition of complex processes into smaller, simpler, more manageable
2008 Midwest Section Conference of the American Society for Engineering Education 4thinking and organizational leadership skills necessary to manage both personnel and materialsin the organization. Since people still hold the key to significant productivity improvements,attempts at improving productivity with primary focus on technological improvements should beextended to the improvement of people (Goetsch5, 1992, p. 429). What is of greater importanceis to know the people that work for you so as to as to be successful as a supervisor. Therefore, amanager should be well versed in different ways in which employees’ productivity can
Geode- tic Science from the Ohio State University, and his PhD in Mechanical Engineering from the University of California, Irvine. His research interests include technology-enhanced instruction and increasing the representation of female, minority and other underrepresented groups in mathematics, science and engi- neering.Prof. Nicholas Langhoff, Skyline College Nicholas Langhoff is an associate professor of engineering and computer science at Skyline College in San Bruno, California. He received his M.S. degree from San Francisco State University in embedded elec- trical engineering and computer systems. His educational research interests include technology-enhanced instruction, online education, metacognitive
Professional Outcomes,” International Journal of Engineering Education, Vol. 18, No. 2, pp. 208-216.SUSAN M. BOGUSDr. Bogus currently serves as an Assistant Professor of Civil Engineering at the University of New Mexico. Her researchinterests include design-build, concurrent engineering, sustainable design and construction, and asset management. Prof.Bogus is a registered Professional Engineer in Wisconsin.KERRY J. HOWEDr. Howe currently serves as an Assistant Professor of Civil Engineering at the University of New Mexico. His researchinterests include environmental engineering, physical chemical treatment processes, membrane technologies, andengineering design. Prof. Howe is a registered Professional Engineer in Wisconsin
and is the developer of the InternationalVirtual Design Studio (IVDS) project currently being conducted in conjunction with theMiddle East Technical University in Ankara, Turkey and ESIGELEC in Mont SaintAignan, France. Dr. Bucinell was awarded NASA Summer Fellowships in 1994, 1995,1996, and 1997. He maintains an active research program in advanced compositematerials. Prior to joining Union College, Dr. Bucinell worked for Materials SciencesCorporation, Hercules Aerospace Corporation, and Boeing Aerospace. Dr. Bucinell holdsthe degrees of B.S. in Mechanical Engineering from the Rochester Institute of Technology;M.S. in Mechanical Engineering and Applied Mechanics from Drexel University; and aPh.D. from Drexel University. From 1987 to 1990, he
engineering, taken during the junior and senior years. The program provides significant hands-on experience through engineering laboratories and participation in engineering projects required in eight semester-long design courses. The emphasis on fundamentals is intended to prepare students for dealing with the rapid pace of technology and the interdisciplinary nature of engineering practice. The laboratory and design portions of the program provide the students with a balanced perspective on the theory and practice of the engineering profession.9One impact of this mission is the delineation of courses into fundamentals and elective courses.The fundamentals and design courses are required of all students, and lay the foundation
end ofthe course. This work-in-progress study explores the range of ways undergraduate studentsattended to sociotechnical dimensions in a first-year engineering computing course, by analyzingwritten reflection responses to readings focused on the racially biased outcomes of a ubiquitousmedical technology, the pulse oximeter. These initial findings add to a growing body of literatureon including sociotechnical topics within undergraduate courses, and will help informpedagogical approaches to support students in developing sociotechnical ways of thinking withinengineering.Conceptual Framework for Developing Sociotechnical LiteracyThis work-in-progress study is focused on a first-year computing course that has been redesignedto incorporate
assessment. This paper presents the development of an approach that employsthese technologies through a well-structured and guided web-based environment. The work isdemonstrated by a module that has been realized, as discussed in Section 4. Before introducingthis approach, however, the specific problems shall be examined more deeply in the next section.2. Further Examining the Teaching ProblemsThe initial motivation for the research described in this paper was the desire to address anidentified imbalance of teaching structural behavior within undergraduate structural engineeringeducation. Furthermore, the authors believe that the inability to teach qualitative andquantitative material simultaneously is prevalent in engineering education, in
examination. Were in the 1980s more graduatesfrom the AHS, now classified as ISCED 3A, turned this into an overload of graduates from thevocational training since 1989. In comparison, in 1960 graduated more than 10,000 students, atthat time only 32 % graduated from a vocational and technical college9.At present, more than 300 VET colleges are distributed all over Austria, with a number of almost138,000 students10. Disciplines of engineering colleges are civil engineering, interior design andwood technology, electrical engineering, electronics, mechanical engineering, mechatronics,materials engineering, media technology and media management, information technology,chemistry, chemical engineering, food technology, IT and computer science
Sciences (INFORMS) Forum on Women in Operations Research and Management Science (WORMS), chair of the American Society for Engineering Education (ASEE) Mid Atlantic Section, and chair of the Facility Logistics Special Interest Group of the INFORMS Transportation Science and Logistics (TSL). sadan@psu.edu. American c Society for Engineering Education, 2021 Overview of Student Innovation Competitions and Their Roles in STEM EducationAbstractStudent innovation competitions have long been an essential part of Science, Technology,Engineering, and Mathematics (STEM) education. Higher education institutions and foundationshave expanded their co
community colleges from chemical engineering technology programs andlife-sciences programs, as well as from electrical engineering technology programs. TheNSF Center is enabling development and delivery of new courses and course modules atthe community colleges that will better prepare students from these diverse educationalbackgrounds for the capstone semester. The NSF Center for Manufacturing Education in Nanofabrication is alsosupporting the development of baccalaureate degree programs addressing nanofabrication Page 7.99.6“Proceedings of the 2002 American Society for Engineering Education Annual Conference and Exposition
technologies. In the REUprogram, cohorts of 16 students per summer work at Penn State with faculty members, graduate studentmentors, and research groups across the college of engineering related to propulsion and power generation,while also engaging in multiple professional development activities, including workshops, industry sitevisits, lab tours, and conference activities. Research topics of the students include combustion, additivemanufacturing, fluid dynamics, materials, and heat transfer research. Simultaneously, engineeringeducation research is being conducted on the students undergoing the research program, answeringoverarching research questions about the development of academic self-concept and how and when REUscan best influence
Paper ID #35112Preparing for an Online ABET VisitDr. Matthew G. Green, LeTourneau University Matthew Green serves as Associate Dean in the School of Engineering and Engineering Technology and Professor of Mechanical Engineering at LeTourneau University in Texas. His objective is to practice and promote engineering as a serving profession. He has taught and helped develop design courses for all four years of the undergraduate curriculum, and has taught courses such as Dynamics, Thermodynamics, and Machine Design. Past projects include remote power generation, design methods for frontier environ- ments, enhanced
Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationThe JiTT Digital Library, JiTTDL, is being developed with support from an NSF grant. Byaccumulating resources from JiTT users, this library will help JiTT practitioners do thefollowing: create web material such as WarmUps and Puzzles, anticipate student responses, planthe lesson and classroom activities, deal with technology issues, and assess the effectiveness ofJiTT. The website is currently under development, but progress can be tracked atwww.jittdl.org.A tutorial on creating your web contact can be found at www.jittweb.org, and other resourceswill be posted on the web pages noted above. This will greatly
engineer' and the skills needed to function successfully as an engineer in a range of different cultural settings. 2. Identify global challenges, technological problems, and business opportunities and their implications for American engineers. 3. Describe how differences in political, technological, social, educational and environmental contexts influence engineering practice. 4. Observe and appreciate cultural diversity and how culture impacts engineering in a global society. 5. Engage in a professional environment in an international location.In this paper, we explore what students learned from the intentionally chosen visits during a two-week international trip. Visits falling within each broad category are shown in