4References1. ASEE, 1994 Directory of Engineering and Engineering Technology Undergraduate Programs, pp. 40-41, 1994.2. ASEE, 1994 Directory of Engineering and Engineering Technology Undergraduate Programs, p. 398, 1994.3. ASEE, 1994 Directory of Engineering and Engineering Technology Undergraduate Programs, p. 592, 1994.4. ASEE, 1994-95 Directory of Engineering Graduate Studies and Research, p. 432-433, 1994.5. ASEM Conference Proceeding, “Engineering Management at the University if Missouri-Rolla: A New Discipline in Engineering or Management?”, Yildirim “Bill” Omurtag, University of Missouri-Rolla, pp. 35-39, 1988.6. Emerson, Howard P., Naehring, Douglas C.E., Origins of Industrial Engineering, Industrial
temporal complexity should bepresented to students in construction engineering and project management. Second, an explicitconceptual framework of spatial and temporal complexity in construction engineering andproject management still needs to be developed and effectively integrated into the curricula.Research goal and objectives Page 22.355.4 The authors are motivated by existing research findings in case-based learning or reasoning(CBL/CBR), computer technologies, learning complex systems, and conceptual changes [20] [21].These findings provide an opportunity to construct a different pedagogical
Session 2670 Chemical Engineering and Chemistry Experimentation as an Introduction to Engineering for K-12 Students Deran Hanesian, Angelo J. Perna New Jersey Institute of TechnologyAbstractThe New Jersey Institute of Technology sponsors a wide range of outreach programs gearedtoward K-12 students in order to expose and interest them in science and engineering as acareer. These programs have a chemical engineering and chemistry component which is alecture/laboratory format that is directed to experiential learning and communication skills.Depending on the educational level of the
Engineering Exploration Days – Recruiting High School Students Into Engineering through focused K-12 Outreach Efforts Donald D. Carpenter1, Andrew L. Gerhart2, Lisa Anneberg3, and Jane Rohrback4 1 Civil Engineering Department/ 2Mechanical Engineering Department/ 3 Electrical Engineering Department/ 4Office of Admissions Lawrence Technological University, Southfield, MI 48075AbstractFaced with decreasing engineering enrollments, many institutions are now forced to considernew techniques for marketing the engineering field, as well as their programs, to high schoolstudents and teachers
Globalization of Engineering Education – Alabama to Egypt: UAB Civil Engineering Study Away Certificate Programs Jason T. Kirby and Talat F. Salama Civil, Construction and Environmental Engineering Department University of Alabama at Birmingham, Birmingham, AL 35294AbstractIn 2007, an international partnership began between the Civil Engineeringdepartment at the University of Alabama at Birmingham (UAB) and theircounterpart in Cairo, Egypt: Misr University for Science and Technology(MUST). This collaboration was developed not only to enhance cutting edgeresearch but to provide a series of unique educational opportunities to bothAmerican and Middle Eastern
at the intersection of art and engineering, with the belief that there istremendous value in having students engage with art, technology, and the act of engineering atthe same time. In this short paper, we will describe three pedagogies we have developed, andpresent six reasons we have gathered through our experience with these pedagogies in supportof bringing more art into engineering education.Pedagogy 1: VIVID StorytellingComics are a communication medium and art form that combines the captivating nature of visualart with the organized structure of written text to craft compelling narratives. In the pedagogicalsetting, comics can be uniquely accessible and engaging, but requires significant time investmentand artistic skills to craft
Civil & Environmental Engineering. His work contains a unique blend of engineering education and civil engineering projects. Dr. Perry’s current work centers on understanding how students transfer their knowledge between engi- neering school and work. This is supplemented by his role in developing assessment techniques for two NSF-funded projects focused on the incorporation of virtual and mixed reality technology into civil engi- neering education. In addition, his past civil engineering research investigated the behavior of wood shear wall structures under seismic loading conditions. Dr. Perry’s expertise in both the engineering education and civil engineering domains provide him with a unique skillset that
development. Page 14.554.1© American Society for Engineering Education, 2009 “Engineering Energy Solutions” for the INSPIRES CurriculumThe INSPIRES Curriculum (INcreasing Student Participation, Interest and Recruitmentin Engineering and Science), funded by the National Science Foundation, is beingdeveloped in response to the need to recruit more students in the STEM-related fields.The curriculum seeks to accomplish this goal by exposing students to a combination ofreal-world engineering design challenges, hands-on activities, and inquiry-based learningactivities that target the ITEA Standards for Technological Literacy as well as
. Page 1.264.1 1996 ASEE Annual Conference Proceedings In a three-year project initiated in February 1996 under the NSF Combined Research and CurriculumDevelopment (CRCD) program, we are building on the prior and ongoing research of team members in theseadvanced technology areas, which are generally placed under the rubric of Intelligent TransportationSystems (ITS) research. We are integrating knowledge, concepts, and results from our past and ongoing ITSresearch into existing and new courses in the University's College of Engineering, primarily in theTransportation Program of the Department of Civil and Environmental Engineering, in order to preparestudents at the undergraduate degree level to help plan
andhands-on projects that supported the overall objectives of increased student learning andachievement of USMA’s Engineering and Technology Goal outcomes. The results wereremarkable. Students, who expressed concern about their abilities to perform well in thesequence at the beginning of the second course, completed the program wondering if theyhad made a mistake in NOT majoring in mechanical engineering.This paper describes the issues, examination of methods used in other courses to enhancestudent motivation, implementation of techniques in the second and third courses of thesequence, assessment of the results, and recommendations for its applicability outside ofUSMA. Student feedback and the comparative results of student surveys from
GLOBALIZATION AND PRODUCT DESIGN CURRICULUM IN ENGINEERING PROGRAMS Devdas Shetty1 and Seong J. Choi2 1 Professor and Vernon D Roosa Chair holder University of Hartford, Connecticut 06117 (USA) 860- 768-4615; Shetty@hartford.edu 2. Professor of Mechanical Engineering, Korean University of Technology and Education, South KoreaAbstractToday products are manufactured and marketed globally and supply chains have dominated themanufacturing landscape. Most companies have much wider product ranges. These
Engineering Field Experience: Industrial Archaeology Studies in England Harriet Svec, Harvey Svec, Teresa Hall, William Martin Whalley South Dakota State University / Manchester Metropolitan UniversityThe practice of engineering could be described as a nascent profession when contrasted withmedicine, law, academia, politics or the clergy. Engineering as a career emerged as recentlyas the 1800s as an outcome of newly created industry-based economies. Today theengineering profession is well established, respected, and contributes to the greater benefit ofsociety. Bringing science, technology and creativity together, engineers conceive solutionsto problems, develop new
previous work, we are investigatingthe teaching of entrepreneurship across the nation.Many experts agree that the U.S.‟s technological leadership is highly dependent on its strong ca-pacity for innovation and getting such innovations to market. According to political leaders, thisstrength “has continued to create jobs and raise living standards . . . However, the rising trend ofoutsourcing high technology manufacturing and high-end services jobs overseas presents a newand fundamentally different phenomenon. Key components of our innovation infrastructure suchas knowledge and capital have become highly mobile. If our engineering, design, and researchand development (R&D) capabilities continue to follow the manufacturing and services
interactive curriculum designed for high school students with the goal ofINcreasing Student Participation, Interest, and Recruitment in Engineering & Science. It wascreated to target the ITEA Standards for Technological Literacy and to increase involvement inSTEM related fields. This curriculum allows for students to learn basic engineering designprinciples through a variety of ways including hands-on activities, online animations andsimulations and culminates in an open ended design challenge that encourages creativity,resourcefulness and teamwork to solve a real world engineering problem. A new curriculum module was created this year entitled: "Engineering in Healthcare: AHeart Lung System Case Study". Like all of the INSPIRES curricula
Understanding Globalization for the 21st Century Engineer Dr. S. Jimmy Gandhi, Stevens Institute of Technology Dr. Michael McShane, Old Dominion UniversityDR. S. JIMMY GANDHIHe is a faculty member in The School of Systems and Enterprises at Stevens Institute ofTechnology in Hoboken, NJ. His research interests include risk management, globalizationand engineering education. Currently he is co-authoring a book on Systemic RiskManagement and another one on Case Studies in System of Systems Engineering (SoSE). Dr.Gandhi got a PhD in Engineering Management at Stevens Institute of Technology, a Mastersin Engineering Management at California State University, Northridge and a Bachelors
Robotics Outreach Programs in a College of Engineering Eric D. Mead1, Karen Reynolds2, and Lawrence Whitman2 1 Hawker Beechcraft, 2College of Engineering, Wichita State UniversityAbstractThe Wichita State University (WSU) College of Engineering leads three robotics programsthat encourage young students to explore, experiment, and experience STEM (science,technology, engineering, and mathematics) concepts and skills by participation in team-basedrobotics activities and competitions. Kansas BEST Robotics, which focuses on high schoolstudents, began twelve years ago and has approximately 500 student participants each year.Since 2001, the Shocker MINDSTORMS Program has supported elementary and
learning in engineering education include group design projects, hands-onbuilding activities, and experimentation. Like many college and university libraries withmakerspaces, the University of Florida Libraries operates a 3D printing service as partof their makerspace. The service provides low-cost 3D printing to students and faculty.After several years of offering a staff-managed service, we realized that although the 3Dservice had met the initial goal of providing access to affordable 3D printing, studentsstill lacked hands-on experience with 3D technology. In an effort to promote activelearning, the engineering library began circulating portable 3D printers for individual use.The first 3D printers available for check out were Printrbot Plays
2006-130: CURRICULUM DEVELOPMENT FOR AN INTERDISCIPLINARYMANUFACTURING ENGINEERING PROGRAMFrank Liou, University of Missouri-Rolla Dr. Frank Liou is a Professor in the Mechanical Engineering Department at the University of Missouri-Rolla (UMR). He currently serves as the Director of the Manufacturing Engineering Program at UMR. His teaching and research interests include CAD/CAM, nano-technology, rapid prototyping, and rapid manufacturing. He has published over 100 technical papers and has research grants and contracts over $7M. Page 11.384.1© American Society for Engineering Education, 2006
everyday life. Solutions to them willrequire interaction and collaboration between engineers and those from the broader liberal arts.Similarly, there is a need for those in other fields to have basic understanding of engineering.This need for a basic understanding is an outgrowth of the degree to which technology permeatesand shapes modern society. Without an understanding of how and why technology is developedand implemented, it becomes an almost magical black box. A lack of understanding of howsuch technology functions and is developed is antithetical to the enlightenment idea of educatingindividuals so they understand the world around them. An understanding of the world is thebasis on which the modern concepts of the liberal arts are based
definitions of the roles and professional responsibilities ofscientists and engineers. This ambiguity extends to (or perhaps stems from) educators’different approaches to teaching “science” and “engineering.” A poor understanding andappreciation of this difference profoundly affects the demographics of higher education aswell as those of the professional workforce.At the K-12 levels, educators’ attempts to introduce engineering into the curriculumtypically focus on either science education or technology training. The ideas in this paperarise from numerous discussions and from the collective work of the NSF Galileo Fellowsand their Directors at the School of Engineering, University of Connecticut. Our objectiveinvolves defining the concepts of science
be interpreted throughthe lens of that particular culture.So, how can this lofty task be accomplished? Mazumder points out that US academic institutionshave the educational foundation necessary to combine technology and culture in the engineeringcurriculum. The current educational models in practice can take the form of internationalconcentrations and minors, cultural courses and cultural components in dual degree andsimultaneous degree programs, global simulation projects, international internships and teamprojects, study abroad and global courses. Her comprehensive overview of the educationalmodels concludes with recommending a Global Skill Tool Box to prepare engineers for globalcompetence4. The set of skills, which can prepare students
, and methods utilized by engineering/technical graphics educators for professional development. Fourth, the survey examined the presentstatus of graphics education and how it relates to establishing a proposed program in graphicsteacher education. The survey sought information on types of degrees offered by institutions andhow they are structured in order to establish criteria for the proposed program. The authors of thisstudy will present all qualitative information found throughout the duration of the study as well asdemographics and descriptive statistics obtained from the survey.I. IntroductionOver the last few years, engineering graphics educators have faced changes in the content we teachstudents and the technology we use to teach it
elements (pixels) was also introduced. Page 15.822.10 Figure 10. Using Play Doh instead of cookie dough in the classroom Figure 11. Pixel cookies with Play Doh: (a) plaid pattern, (b) UC logo.5. EvaluationTable 1 gives a summary of the Ohio Department of Education mathematics, science, and technologystandards that were addressed in the three lessons presented here. All of the lessons discussed here use adesign process and team work (technology), use scientific investigation to create models (science), anduse engineering problem-solving to address multi-step, non-routine problems (mathematics). Listing
Construction Engineering Technology at Penn State Harrisburg. She received her Ph.D., Masters, and Bachelors in Civil Engineering from the University of F ©American Society for Engineering Education, 2024 Artificial Intelligence Tools that Enhance Engineering Education Rajarajan Subramanian, Associate Teaching Professor and Sofia M. Vidalis, Associate Professor, Pennsylvania State University at HarrisburgAbstractPersonalized and electronic learning has been on the rise in recent years and is expected tocontinue growing. This approach to education has revolutionized the way engineering conceptsare taught by making it more immersive and interactive for students. In engineering
Paper ID #7023Using Sports to Attract Young Women into EngineeringDr. Jani M Pallis, Cislunar Aerospace, Inc. Dr. Jani Macari Pallis received her Ph.D. concentrating in Mechanical and Aeronautical Engineering from the University of California, Davis. She has a master’s from the University of California, Berkeley in Mechanical Engineering and a master’s and bachelor degree in Health Systems from the Georgia Institute of Technology. She is an associate professor in the School of Engineering at the University of Bridgeport. She has over 30 years of industry experience working at United Airlines and as the CEO of Cislunar
origins of the ‘Retention Chart’,” Educational Technology, vol. 44, no. 1, Jan.-Feb. 2004, p. 64.2. D.G. Treichler, “Are you missing the boat in training aids?,” Film and Audio-Visual Communications, vol. 1, Feb. 1967, pp. 14-16, 29-30, 48.3. J.E. Stice, “Using Kolb’s learning cycle to improve student learning,” Journal of Engineering Education, vol. 77, no. 5, Feb. 1987, pp. 291-296.4. J.E. Stice, “Socony-Vacuum retention study,” email communication, May 12, 2007.5. R.V. Krivickas, “Active learning at Kaunas University of Technology,” Global Journal of Engineering Education, vol. 9, no. 1, 2005, pp. 43-47.6. D.P. Subramony, “Dale’s cone revisited: critically examining the misapplication of a nebulous
Paper ID #15250Pilot Programs for Veterans Transition to Engineering FieldsDr. Vukica M. Jovanovic, Old Dominion University Dr. Jovanovic received her dipl.ing and M.Sc. in Industrial Engineering - Robotics, Mechatronics and Automation from University of Novi Sad, Serbia. She received a PhD in Mechanical Engineering Tech- nology at Purdue University, while working as a PhD student in Center for Advanced Manufacturing, Product Lifecycle Management Center of Excellence. Dr. Jovanovic is currently serving as Assistant Professor of Engineering Technology, Frank Batten College of Engineering and Technology at ODU. She is
Paper ID #19630Teaching the Non-neutral Engineer: Pathways Toward Addressing the Vio-lence of Engineering in the ClassroomMichael Lachney, Rensselaer Polytechnic Institute Michael Lachney is a PhD candidate in Science and Technology Studies at the Rensselaer Polytechnic Institute. His research is at the intersection of STEM education and critical pedagogy. Michael’s work has appeared in Learning, Media and Technology, Computational Culture: A Journal of Software Studies, and the International Journal for Research in Mathematics Education.Dr. David Adam Banks, University at Albany - SUNY David A. Banks is an interdisciplinary
is deeply interested in developing novel teaching/learning methodologies and hence an active member of the core group of Teaching Learning Centre (TLC) at IIT Madras. He has participated in all the Faculty Development Programs conducted at IIT Madras. Dr. Prasad’s main interests in teaching learning processes are taxonomy of cognitive levels and metacognition.Prof. Ajit Kumar Kolar, Indian Institute of Technology Madras Professor Ajit Kumar Kolar is a Professor in the Department of Mechanical Engineering, Indian Insti- tute of Technology Madras, India, with teaching and research interests in the area of Energy. He is the Chairman of the Centre for Continuing Education which organizes continuing education programs for
2006-548: WOMEN ENGINEERS: FACTORS AND OBSTACLES RELATED TOTHE PURSUIT OF A DEGREE IN ENGINEERINGRose Mary Cordova-Wentling, University of Illinois-Urbana Champaign Rose Mary Cordova-Wentling is a Professor of Human Behavior in Engineering in the Department of Industrial and Enterprise Systems Engineering at the University of Illinois. Her research interests relate to the career development of women in management, information technology, and engineering. Her reseach also focuses on diversity and human behavior in engineering.Cristina Camacho, University of Illinois-Urbana Champaign Cristina Camacho is a Graduate Student and Research Associate in the Department of Industrial and