Session 1661 Turning Belief Into Action: Aims of Teaching Engineering Ethics Ingrid H. Soudek Division of Technology, Culture, and Communication, School of Engineering and Applied Science, University of Virginia The aims of teaching Engineering Ethics to undergraduate engineering students are to adda vital component to their technical education: the understanding that being professional engineersrequires not only technical expertise, but also insight into their social and professional roles. Thismeans that students have
this approach. INTRODUCTIONAs part of a continuing effort to introduce high school students to the world of engineering,Omaha campus faculty at the University of Nebraska-Lincoln’s College of Engineering andTechnology prepared a week-long series of workshops for high school teachers of math, science,and technology. The goal was to make engineering exciting to teachers and to give themworking projects they could take back to their classrooms, transferring that excitement andinterest to their students.Faculty were presented with the challenge of developing hands-on engineering applicationactivities which teachers could take directly into their classrooms. At the forefront of frustrationin developing these
Engineering Ethical Curricula: Assessment of Two Approaches and Recommendations Matthew J. Drake*, Paul M. Griffin*, Robert Kirkman+, Julie L. Swann* *School of Industrial & Systems Engineering + School of Public Policy Georgia Institute of Technology Atlanta, GA 30332-0205AbstractIn this paper, we assess two approaches for delivery of engineering ethics: a full semesterethics course and an engineering course that includes a discipline-specific ethics module. Weuse the second edition of the Defining Issues Test (DIT) to measure moral
throughout the senior year and that these two Page 7.16.3courses are not separate for each discipline (CE, EE, ME) but are common to all students in theProceedings of the 2002 American Society for Engineering Education Annual Conference & ExpositionCopyright ã 2002, American Society for Engineering Educationspecialized programs. This gives a unique opportunity for the students from different disciplinesto work on truly interdisciplinary projects and to team up together with students from otherdisciplines. All 4 programs have been fully accredited by Accreditation Board for Engineeringand Technology (ABET). The BS program in Computer Science
Session 1566 Improving the Relevance of Manufacturing in a Mechanical Engineering Curriculum Michele H. Miller, Klaus J. Weinmann Michigan Technological University Houghton, MIAbstractIn the 2000-01 academic year, Michigan Tech University implemented a new mechanicalengineering curriculum (coincident with a change from quarters to semesters). To improve therelevance of manufacturing in that curriculum, faculty and staff developed a new sophomorelevel course Integrated Design and Manufacturing. The course is part of a
different with two key distinctions –first, it involves applying science, technology and mathematics, and second, engineeringeducation leads to professional certification, with distinct licensure requirements and ethicalcodes of conduct. In most cases, students gain leadership experience through student chapters ofthe various technical and professional societies. However, pedagogical approaches should beincorporated with in the civil engineering curriculum explicitly for facilitating engineeringleadership development.Assuming leadership roles within student organizations or projects enhances students'organizational and management abilities. Leadership experiences provide practical exposure toproject coordination, communication, and decision-making
2 Fuel car 1 1 Paper tower 2 Pumpkin Catapult 1 1Some further details about experiences that students mentioned include the following: • One or two students had multiple experiences. Most only had a single experience that might be called engineering-related. • One student mentioned a technology program in middle school, • Two mentioned computer programming in high school • One mentioned a technology program in high school. • One student participated in the national FIRST Robotics program. • One student participated in the national Project Lead The Way program. • About 35% of the
course better prepares undergraduates for employment focused on designing andmanufacturing nano/microfluidic systems, lab-on-a-chip devices, electronics devices, medical devices, and otheremerging technologies. The impact of this senior-level course will significantly enhance the “Nanomaterials 1 Department of Chemical Engineering, University of Massachusetts Lowell, Lowell, MA01854, USA; Zhiyong_Gu@uml.edu 2 Department of Plastics Engineering, University of Massachusetts Lowell, Lowell, MA01854, USA; Bridgette_Buhdlall@uml.edu 3 Department of Mechanical Engineering, University of Massachusetts Lowell, Lowell, MA01854, USA; Hongwei_Sun@uml.edu 4 Department of Plastics Engineering, University of Massachusetts Lowell
Professor at the Mortenson Center in Global Engineering at the University of Colorado Boulder where he teaches courses on humanitarian response and disaster management, international development project management, and field methods for development engineers. He has a BS in Industrial Engineering and a MS in Engineering Management from the University of Brescia, Italy, and a PhD in Geological Engineering from the Missouri University of Science and Technology where he conducted research focused on household water treatment systems for underserved communities. Dr. Salvinelli spent six years working as a practitioner for international NGOs, especially in Central America, where he designed and implemented international
Paper ID #15045Assessing The Effectiveness of an Engineering Summer Day CampMs. Alison Haugh, University of St. Thomas Alison Haugh is in the third year of her studies at the University of St. Thomas, Majoring in Elementary Education and STEM Education,while Minoring in Engineering Education. Her undergraduate Playful Learning Lab research is focused on expanding quality engineering education with an eye to under-served populations, including students with disabilities. Alison is the Lead STEPS (Science, Technology and En- gineering Preview program) curriculum constructor, lead trainer and lead on-site researcher
Paper ID #13301Software Engineering Learning in HFOSS: A Multi-Institutional StudyHeidi J. C. Ellis, Western New England University Heidi Ellis is Chair and Professor in the Computer Science and Information Technology department at Western New England University. Dr. Ellis has a long-time interest in software engineering education and has been interested in student participation in Humanitarian Free and Open Source Software (HFOSS) since 2006.Dr. Gregory W Hislop, Drexel University (Eng. & Eng. Tech.) Gregory Hislop is a Professor and Senior Associate Dean in the College of Computing and Informatics at Drexel
SESSION # 1526 DELOS Functional Modules for Teaching Mechatronics to non-EE Engineering Students Victor Giurgiutiu and Brian Mouzon Department of Mechanical Engineering, University of South Carolina Columbia, SC 29208, victorg@sc.eduABSTRACTThe Department of Mechanical Engineering of the University of South Carolina has embarkedupon a project to enhance the Mechatronics education of non-EE engineering students. NSFfunds the project with cost-share by the Department of Mechanical Engineering and the Collegeof Engineering and Information Technology. An essential
AC 2012-4586: ENGINEERING AS A LIBERAL DISCIPLINE: TWO, THREE,OR FOUR CULTURES?Dr. Robert O. Grondin, Arizona State University, Polytechnic Robert Grondin has B.S., M.S. and Ph.D. degrees in electrical engineering from the University of Michi- gan. He joined the faculty of Arizona State University in 1983, serving first in the Department of Electri- cal Engineering in the Fulton Schools of Engineering on ASU’s Tempe campus and more recently in the Department of Engineering of the College of Technology and innovation on ASU’s Polytechnic campus. Page 25.537.1 c American Society for
. He is a Fellow of ASEE, was General Chair for FIE 2010 - the 40th Frontiers in Education Conference, and serves as the UVA Campus Representative. For the past nine years, Richards has brought Engineering Teaching Kits (ETKs) into middle school science and math classes through the Virginia Middle School Engineering Education Initiative. These ETKs introduce the engineering design approach to problem solving and teach key science and math concepts using guided inquiry.Elizabeth A. Parry, North Carolina State University Elizabeth Parry is an engineer and consultant in K-12 STEM (science, technology, engineering, and math- ematics) Curriculum and Professional Development and the Coordinator of K-20 STEM Partnership De
Paper ID #10433Enhancing and Supporting Integrated Computational Material Science En-gineering EducationMr. Nitin Sukhija, Mississippi State University ( Center for Advanced Vehicular Systems and Dept. of Com-puter Science and Engineering) I received my BS degree (with honors) in Computer Science Engineering from Institute of Technology and Management, India (2002), Post Graduate Diploma in Financial Management from Symbiosis, India (2005), MBA degree in Information Systems from San Diego State University (2009), and MS degree in Computer Science majoring in Computing from National University, San Diego (2010). I am currently
Challenges and Opportunities in Ethics Education in Biomedical Engineering Paul J. Benkeser1, Roberta M. Berry2 and Jonathan D. Olinger3 Wallace H. Coulter Department of Biomedical Engineering, Georgia Institute of Technology and Emory University1 / Schools of Public Policy2 and Aerospace Engineering3, Georgia Institute of TechnologyI. IntroductionThe challenges of interdisciplinarity—integrating bioscience, biomedical, and bioengineeringknowledge and skills—are well known to biomedical engineering (BME) educators.Undergraduate BME engineering educators face the additional challenge of preparing theirstudents for diverse professional career paths in a
(ABE) department from themoment they arrive on campus. Not only has the learning community helped us toincrease our retention from 41.9% in 1998 to 95% in 2001, it has helped us to addressmany of our program objectives including students’ abilities to function on multi-disciplinary teams, communicate effectively, and have knowledge of importantcontemporary issues. Results of our assessment efforts, which encompass bothquantitative and qualitative strategies, suggest that students are overwhelmingly satisfiedwith the program, are involved in our department, and are successful in their academicprogress toward their engineering or technology degree.A brief look at the literatureWith a history that can be traced to an experimental educational
in engineering dynamics with applications to wearable technology for analysis of human motion in a variety of contexts ranging from warfighters to astronauts. In addition to her engineering work, she also has an interest in engineering education research, which most recently has focused on incorporating authentic engineering educational experiences through engineering history education and open-ended modeling problems designed to initiate the productive beginnings of engineering judgement and engineering identity. ©American Society for Engineering Education, 2024 Incorporating History Lessons into a Second Year Mechanical Engineering SeminarIntroduction Unlike the other major
Paper ID #39334A Transformative Learning Approach for an Introduction to EngineeringCourseProf. Timothiax Shoushounova, Keiser University Professor, Applied Engineering Department (2022-) Keiser University Flagship Campus, West Palm Beach, FL 33409 Professor, Engineering and Technology Department (2013-2019) University of Wisconsin- Stout, Menomonie, WI 54751 M.S. in Manufacturing Engineering (2013) B.S. in Manufacturing Engi- neering (2007)Dr. Ali Zilouchian, Florida Atlantic University Dr. Ali Zilouchian is currently the Director of the Applied Engineering Program and a Research Center Director at Keiser
models that supports students’ learning, classroom management techniques and best teaching practices.Dr. Jonathan Elliot Gaines, University of South Florida Jonathan E. Gaines is faculty in the Mechanical Engineering Department at the University of South Florida. He is the Director of First Year Experiential Education and Learning. Through this position, he develops and implements the curriculum for USF’s Foundations of Engineering Lab course. He is also the Principle Investigator for Bulls Engineering Youth Experience (Bulls-EYE Mentoring) a Science, Technology, Engineering, and Math based outreach program that uses undergraduate students to mentor middle school youth.Anna Maria Bateman, The University of South
, constraints and material 52007 ASEE North Midwest Section Conference, Educating Engineers for a Sustainable Future, September 20-22, 2007 properties, and then analyze the state of stresses and deformations throughout the model. ¾ Touring mechanical and civil engineering laboratories. Touring electrical and computer engineering and technology laboratories. The thermal-fluids and materials testing laboratories were toured. During that time the students were able to see and understand to a good degree in what types of testing structural engineers as well as those engineers
culminating in the construction, start-up, and operation of an optical fiber factory in Suzhou, China where he was the sole in-country representative of his US-based company. Following China, Peter joined the RVCC Science and Engineering Department in Fall 2014 where he instructs Physics and Engineering courses and also remains the Chief Technology Officer of the China company. He holds a BS in Chemistry and MS and Ph.D. in Mechanical Engineering from the University of Massachusetts at Amherst. c American Society for Engineering Education, 2017 Illuminated Umbrella – An Engineering/Visual Arts Interdisciplinary Product Development M
Nafalski, University of South Australia Andrew Nafalski's career spans several decades in academic and research institutions in Poland, Austria, the UK, Germany, France, Japan and Australia. He holds BEng(Hons), GradDipEd, MEng, PhD and DSc degrees. He is Chartered Professional Engineer and Fellow of the Institution of Engineers, Australia, Fellow of the Institution of Engineering and Technology (UK), Senior Member of the Institute of Electrical and Electronic Engineers (USA) and Honorary Member of the Golden Key International Honour Society. He is currently a Professor of Electrical Engineering at the University of South Australia in Adelaide and Professor of Information Technology and
must approach educating and training students. As our engineers prepare for the 21stcentury global market economy, they will face significant international competitors who arebuilding on the technologies the U.S. pioneered in the 20th century. Although the UnitedStates has led the world in advances in technology, competitors are harvesting thetechnological and economic advantages. Simulation-Based Engineering Science (SBES) is amajor area with current and future potential. In order to stay on the cutting edge, we mustmeet the challenges presented by other countries, such as those in Western Europe and Asia,whose governments are investing heavily in modeling and simulation and computationalengineering and science, threatening U.S. leadership in
, technology, engineering and mathematics (STEM) fields in order to beeconomically competitive in the global market. Recruiting students in STEM majors is not aneasy task and several efforts have been undertaken in the U.S. and abroad. For example, the U.S.department of education committed to support and improve STEM education by supportingeducational institutions, teachers and students in those areas4. Also, the European Union (EU)Lifelong Learning Programme funded the research program ATTRACT, Enhance theAttractiveness of Studies in Science and Technology, which focuses on four different aspects ofincreasing STEM workforce: (1) the attractiveness of being an engineer; (2) formal obstacles ofentering engineering education; (3) attracting students to
AC 2012-5072: LEARNING THROUGH COGNITIVE DISSONANCE: EN-GINEERING STUDENTS USE OF ”PSEUDO PEER DIAGRAMS”Ms. Sensen Li, Purdue University, West Lafayette Sensen Li is a Ph.D. student in the engineering education program at Purdue University. She holds a M.S.Ed. in educational technology from Purdue University.Dr. Sean P. Brophy, Purdue University, West Lafayette Page 25.885.1 c American Society for Engineering Education, 2012 Learning through Cognitive Dissonance: Engineering Students Use of
into how students process knowledge when provided withsimulation tools and computational methods for solving design problems. Page 24.582.2IntroductionComputer modeling and simulation are emergent pedagogical tools implemented for teachingconcepts in science, technology, engineering and mathematics (STEM) education. Onepedagogical objective for integrating computer modeling and simulation within learningenvironments is to help students develop deeper understanding of a physical phenomenonthrough visualization and dynamic interaction of abstract concepts or complex systems. Whenmodeling and interacting with numerical simulation, a student must
Session 3513 Updating the Chemical Engineering Curriculum for the 21st Century Dana E. Knox & Robert B. Barat Otto H. York Department of Chemical Engineering New Jersey Institute of Technology Newark, NJ 07102AbstractThe field of chemical engineering is evolving, and curricula must evolve to match the new worldin which graduates of our programs will find themselves. There is a general consensus that thereshould be ever-greater emphasis on biological-based processes and on batch
abroad course in Egypt from May 30 - June 11, 2001 toinvestigate that impressive project. This paper is a report that summarizes informationand observations gathered first-hand in word, picture, and video, during that course.The infrastructure of the Toshka project include the Intake Canal, the Main PumpingStation (or Mubarak Pumping Station -- largest in the world), the Toshka Canal (orSheikh Za-yed Canal), Water Production Wells and Artificial Charging, and Wind &Sandstorm Breakers.The Toshka Project of Egypt represents a useful multidisciplinary engineering educationcase study. This includes the technologies used in its construction and the project's
Page 7.480.1 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright @ 2002, American Society for Engineering Educationeffective means of coping with our modern world and the dilemmas of modern man are to utilizethe categories and analytical techniques of the past. This proposition seems debatable at best.Many from the science and engineering disciplines would take an exclusive approach, whichwould define liberal arts as what is of value when science, mathematics, and technology areremoved from a curriculum. This narrow viewpoint appears to ignore a great body of knowledgethat is key to understanding our present social and cultural dilemmas.However one might