Page 12.844.1© American Society for Engineering Education, 2007 Implementing Hands-On Laboratory Exercises In Undergraduate EducationAbstractFeedback from our industry partners has made it clear that the education receivedby the Industrial Technology and Industrial Distribution students with hand-onexperience will have an advantage when they enter the working world.Combining course lectures and materials with problem-based evaluations of casestudies and hands-on activities simulating real-world logistics and manufacturingdecisions provides students with an enhanced ability to foresee and respond toindustry problems when they arise.During the spring semester in 2006, our students, with the help of our
effective for older learners. The studyalso points out that the results may be more relevant to higher education than to the K-12 139context.The emergence of the Internet and advances made in information and communication technologyas well as the technological advances made in multimedia, personal computers and networkinghas driven the development of distance learning in the information age [19, 12]. The need for“anytime, anywhere” learning has led to the development of e-learning, otherwise known asweb-based or online learning, which uses “telecommunication technology to deliver informationfor education and training…The great advantages of e-Learning include liberating interactionsbetween learners and
Year Award. He received the Excellence in Engineering Education Award and Faculty Advisor Award from the Society of Automotive Engineers (SAE). He was also nominated for the MTSU 2005 and 2009- 11 Outstanding Research Award. He received two Academic Excellence awards from the Tennessee Board of Region in 2010-11. Foroudastan has also won many College of Basic and Applied Science awards. In addition to this, Foroudastan also reviews papers for journals and conference proceedings of ASEE, ASEE-SE, and ASME, and he has been a session moderator for several professional conferences.Mr. Cary Richard Woodson, Middle Tennessee State University Having had an interest in science, technology, and engineering from an early age, I
engineering attributes and to major changes in engineering accreditationcriteria5,6. Recruitment and retention of female and minority Americans into engineering has notkept pace with increases in these populations7. Poor understandings of engineering contribute tostudents’ leaving the profession8. Page 10.449.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright ©2005, American Society for Engineering EducationProfiles of professional practitioners are valuable to students, faculty, and employers. Studentscan use engineering profiles to form accurate
can be applied to satisfy a large variety of engineering technology knowledgedocumentation and learning, as well as hi-tech product and process marketing needs. Foreducation, the created CBL Library is an effective method for outcome-orientedproblem solving and assessment because it forces both the student as well as the tutor tofocus, and then create new wealth, and encourage outcome-oriented educationalpractices and follow US ABET (Accreditation Board of Engineering and Technology inthe USA), and European educational principles.IntroductionThe eTransition process leads towards waste reduction, innovation and prosperity at alllevels of the modern enterprise, including not just machines, and traditional engineeringprocesses and resources, but
leaders in industry in the 21st century. [CD-ROM]. Proceedings of the 107 th Annual American Society for Engineering Education Conference, St. Louis, M.O. (2000).13. Dunlap, D.D., Depew, D.R., & Newton, K.A. A different model in graduate education for full-time professionals. [CD-ROM]. Proceedings of the 107th Annual American Society for Engineering Education Conference, St. Louis, M.O. (2000).14. Keating, D.A., Stanford, T.G., Self, A., & Monniot, J. Graduate professional education of engineers in industry for innovation and technological leadership. Industry & Higher Education, 13 (1),33-39 (1999).15. Hatch, T.F., & Pearson, T.G. Using environmental scans in educational needs assessment. J
are better prepared to assume an ethical and technical role in the business environment. Prior to her academic position, Dr. Milonas worked as a database administrator where she realized that technical expertise is only part of the skill set needed to succeed in a business setting. Her research focuses on the mechanisms used to organize big data in search result pages of major search engines. In addition, she is conducting research related to techniques for incorporating ethics in computer curriculum specifically in data science curriculum. c American Society for Engineering Education, 2020 How Do We “Raise” Ethically Minded Computer Students?Abstract Intelligent technology
whicheducational means is most beneficial for a particular student and which is not. Which studentdemographic performs best in traditional courses and why? Is online education moreadvantageous for our millennial students? Do non-traditional students require more flexibilitybut more faculty support? We have taken a sample set of courses which offer traditional andonline classes in the College of Science and Technology, analyzed student outcome data anddeveloped a hypothesis on which education method is more effective. We compare achievementsin terms of individual effort, group effort and knowledge gained. This information is paramountbecause it allows us to study the experiences, challenges, and triumphs of our students whichwill advance the knowledge of
AC 2008-1232: DEVELOPING TOMORROW’S TECHNOLOGY LEADERS:ISSUES RELATED TO MASTER’S LEVEL TECHNOLOGY CURRICULUMJoy Colwell, Purdue University Calumet Page 13.400.1© American Society for Engineering Education, 2008 Developing Tomorrow’s Technology Leaders: Issues Related to Master’s Level Technology CurriculumAbstractStudents at the Master of Science degree level in technology are preparing themselves forleadership or supervisory roles in the field. Students who will be assuming leadership roles intheir professions need not only the technical and applied skills their jobs demand, but alsoknowledge of the business environment, leadership, ethics and
Electrical Power Project/Service Engineer from 1994 to 2000. His research interests include Electrical Power System Analysis, Electric Machine Drives, Renew- able Energy Technology, and Numerical Techniques in Electromagnetics. He is a senior member of IEEE and a member of ASEE. Page 24.388.1 c American Society for Engineering Education, 2014DEVELOPING A RENEWABLE ENERGY COURSE FOR A MASTER OF TECHNOLOGY PROGRAMAbstract:A course on renewable energy has become more of a requirement in MS programs. This is theresult of continuously shrinking global energy resources. The importance of
currently offers a Master of Science in Engineering Technology withthree concentrations, Architectural, Electronics, and Manufacturing. As this paper is written, aproposal is working its way to the TBR (Tennessee Board of Regents), the governing board forThe University of Memphis, to add a concentration in Computer Engineering Technology.Approval is expected in time for the 1999-2000 academic year.The current proposal is the latest change in a program that started as a Master of Science inTechnical Education in the 1970s. The curriculum was changed in the 1980s to be anEngineering Technology program, and the name of the degree was officially changed to itscurrent name in the Fall of 1994. The current concentrations were officially added at that
manufacturing. Part of the program includes courses Proceedings of the 2002 American Society for Engineering Education Annual Conference and Exposition Copyright © 2002, American Society for Engineering Education Session 2386dealing with vacuum technology, and therefore, a state-of-the-art Vacuum Technology andSystems Laboratory has been developed. To increase exposure of this laboratory facility severallaboratory exercises for different Chemistry classes have been developed. The Chemistry Labstudents meet in the Vacuum Technology Lab to perform experiments related to the topics inChemistry but use the vacuum equipment the technology
Paper ID #20353Goal Setting and Faculty Development in an Indian Engineering CollegeDr. Pradeep Kashinath Waychal, Guruji Education Foundation Dr Pradeep Waychal is a founder trustee of Guruji Education Foundation that provides holistic support to the higher education of underprivileged students and a visiting professor of Engineering Education at CRICPE of Western Michigan University, US. Earlier, Dr Waychal has worked at Patni Computer Systems for 20 years in various positions including the head of innovations, NMIMS as the director Shirpur campus, and at College of Engineering Pune (COEP) as the founder head of the
literacy from the InternationalTechnology Education Association: “Technological literacy is the ability to use, manage, assess and understand technology. It involves knowledge, abilities and the application of both knowledge and abilities to real world situations. Citizens of all ages benefit from technological literacy, whether it is obtained through formal or informal educational environments.” 15 Page 26.598.5Technological literacy is being seen as a more critical area for all undergraduates including non-STEM students.16 Teaching technology literacy courses seem the logical way in whichengineering departments can provide
Professor of Philosophy at Macalester College. Her primary areas of research in- quiry are the philosophy of technology and the philosophy of engineering. She has been actively involved in the creation and development of fPET: the Forum on Philosophy, Engineering, and Technology, and has served as the president of the Society for Philosophy and Technology. Currently, she is co-editor-in-chief of that society’s journal, Techn´e: Research in Philosophy and Technology. c American Society for Engineering Education, 2017 Thinking Like an Engineer: Responding to the Engineering Blind Spot at Liberal Arts CollegesPart One: introductionAmong the many thoughtful and
Paper ID #38306Using Virtual Delivery to Build Interest in TechnologyCareersKaren Wosczyna-birch (Director)John Birch © American Society for Engineering Education, 2022 Powered by www.slayte.com Using Virtual Delivery to Build Interest in Technology CareersThe goal of the Building Career Interest in Computer Science through Advanced Real-WorldTechnology Projects (CICSTART) Program is to provide additional professional and technicalskills to cohorts of high school students through a Saturday Program and inspire participants topursue pathways that lead them to careers in the technician workforce. CICSTART is
, navigating your future, and setting goals and achieving them.Mr. John Robert Reck, Oklahoma State University Graduated from Michigan Technological University with Bachelor of Science in Construction Manage- ment. Upon graduation, worked with Bechtel Corporation as a Civil Field Engineer for 5 years. Currently pursuing a graduate degree in Civil Engineering at Oklahoma State University. c American Society for Engineering Education, 2017 Standardized Tests as a Predictor for Success in Construction Management TechnologyAbstract:Universities and colleges with Science, Mathematics, Engineering and Technology (STEM)programs use standardized tests of a variety of names to
conclusions as to how to improve classroom teaching techniques.Introduction Gregorc Style Delineator is considered to be a powerful tool for assessment by variousscholars and educational psychologists (Gregorc, 1979). In this paper, the author describes howhe has tried to incorporate this widely used research-based, self-assessment instrument in aneducational setting. Here, the author has examined the engineering educational accomplishmentscertain students who studied Dynamics, a junior level course. Based upon a psychologically-formulated matrix of 40 descriptive words, the Gregorc Style Delineator is an extraordinarytool for helping individuals gain a better understanding of Self and others (Gregorc, 1984). The author has previously
Using Robotics to Enhance Science, Technology, Engineering, and Mathematics Curricula Ann-Marie Vollstedt, Michael Robinson, Eric Wang University of Nevada, RenoAbstractThe purpose of this research was to enhance science, technology, engineering, and mathematicscurricula using robotics at the Middle School level, as well as improve students’ knowledge ofscience, mathematics, robotics, computer programming, and engineering.In order to improve science education, a curriculum based on LEGO Educational Division’s“Race against Time” was created, which utilizes LEGO Mindstorms for Schools kits andRobolab software. Twelve local middle school teachers
Paper ID #12360Effect of extended use of an executable flowchart for teaching C languageProf. Cho Sehyeong, MyongJi University Professor, Department of Computer Engineering, MyongJi University Page 26.576.1 c American Society for Engineering Education, 2015 Effect of extended use of an executable flowchart for teaching C languageTeaching computer programming to students is a daunting task, especially to those without anybackground or experience in computer programming. Even simple assignment statements orarithmetic operations
c American Society for Engineering Education, 2020Complexity, Right Action, and the Engineering CurriculumAbstractToday’s engineering students face a very different world than their predecessors. As engineeringhas adapted to a more global and interconnected economy, the issues that face today’s engineershave become more complex. In a highly networked world notions of the impact of an engineer’sactions on others, the basis for moral and ethical behavior, also become more complex. Thedefinition of complex used here captures higher-order and emergent behaviors, situations thatcan change rapidly, limitations to predictability, and behavior arising from interactions ratherthan innate to components. While ethics has remained central to
earlier agreements3. Market Analysis by Student Teams. The Market-Pull Technology Commercialization courseshould put teams of students on very early stage inventions, where they can look at the marketopportunities earlier in the invention’s development. The teams can then provide feedback to thefaculty and the TTO long before the created IP has no value in the commercial market place.The premise is that by providing potential customer/licensee input at this stage, there is a muchgreater chance that the IP created would have a higher value, and would be much easier totransact. In summary, a mechanism to put market- pull into our technology commercializationmodel is vital. The use of student resource for this provides a wonderful educational
understanding of the need for and an ability to engage in self-directed continuing professional development. i) Graduates of advanced manufacturing will demonstrate an understanding of professional and ethical responsibility including a respect for diversity. j) Graduates of advanced manufacturing will develop the broad education necessary to understand the impact of engineering technology solutions in a global, economic, environmental, and societal context k) Graduates of advanced manufacturing will demonstrate recognition of the need for quality, timeliness, and continuous improvement.As a direct measure, courses offered through the program and employer surveys are used toassess
2006-1668: EDUCATIONAL MODELS FOR ENERGY WORKFORCEDEVELOPMENTSrikanth Pidugu, University of Arkansas-Little RockSwaminadham Midturi, University of Arkansas-Little Rock Page 11.510.1© American Society for Engineering Education, 2006 ASEE 2006-1668 Educational Models for Energy Workforce Development S. Midturi and S. B. Pidugu, University of Arkansas at Little Rock Department of Engineering Technology 2801 S. University Avenue Little
undergraduate student workers who aided in preparing for and facilitatingthe PD workshops. Special thanks is given to Hannah Hayes and Tyler LaBonte as well as SandraLoRe, Ph.D. and Greg LoRe of SPEAR. Thanks is given to the USC Good Neighbors Campaign,the Specialty Family Foundation, and the K-12 STEM Center who provided support, financial andotherwise, for this project.References [1] Bernard Marr. 8 things every school must do to prepare for the 4th industrial revolution. Forbes Magazine, May 2019. [2] Amanda Strawhacker and Marina U Bers. “i want my robot to look for food”: Comparing kindergartner’s programming comprehension using tangible, graphic, and hybrid user interfaces. International Journal of Technology and Design Education, 25
Session 3150 A FEASIBILITY STUDY FOR THE IMPLEMENTATION OF NON-SITE BASED HANDS-ON CURRICULUM FOR ENGINEERING TECHNOLOGY EDUCATION Immanuel Edinbarough, Manian Ramkumar The University of Texas at Brownsville / Rochester Institute of TechnologyAbstractThis paper discusses the development of an intelligent architecture for web-based programming& control of an automated manufacturing cell. The cell consists of a three-axis TERCO CNCmilling machine, an IBM SCARA robot and a raw material feed station. The cell components areintegrated using a data acquisition system (DAS), programmed using
interaction,as well as an ability to research (and critique research about) how users work with technologies, Page 23.1369.2and an ability to then use this knowledge to design documents both with and for users. EthicalLiteracy reflects both knowledge of professional ethical standards (e.g., codes of ethics), as wellas an ability to consider all stakeholders involved. Critical Literacy reflects “an ability torecognize and consider ideological stances and power structures and the willingness to takeaction to assist those in need.”[2]In this work, we examine student writing samples through the lens of Cook’s layered literaciesframework as described
AC 2007-1465: USING INDEPENDENT-STUDY PROJECTS IN YOUR RESEARCHAND TEACHING PROGRAMEdward Gehringer, North Carolina State University Edward F. Gehringer is an associate professor in the Department of Computer Science, North Carolina State University. His research interests include hardware and software support for memory management, architectures for security, object technology, and educational software for collaborative learning. Page 12.1550.1© American Society for Engineering Education, 2007 Session
Session 1448 Teaching State Variable Feedback to Technology Students Using MATLAB and SIMULINK Kathleen A.K. Ossman, Ph.D. University of Cincinnati I. IntroductionThis paper describes a course and laboratory in State Variable Feedback developed as a t echnicalelective for students in the Electrical and Computer Engineering Technology (ECET) program atthe University of Cincinnati. Students pursuing the EET degree are required to take courses inSignals and Systems and Feedback Controller Design. They learn to design lead
) Laboratory where his group actively conducts research in diverse fields including swarm intelligence, autonomous systems, human-robot collaboration, bio-inspired robotics, surgical robotics, and robotics in education. Dr. Kaipa currently serves as the Associate Editor for IEEE Robotics and Automation Letters, Frontiers in Robotics & Artificial Intelligence, and ASME Journal of Computing and Information Science in Engineering. ©American Society for Engineering Education, 2025 Using Quanser Platform to Introduce Engineering Technology Students to Autonomous VehiclesAbstractThe area of autonomous vehicles is not new, but the latest advances in various technologies