AC 2011-1915: ALTERNATIVE LAB REPORTS - ENGINEERING EFFEC-TIVE COMMUNICATIONDaniel Lepek, The Cooper Union Daniel Lepek is an Assistant Professor of Chemical Engineering at The Cooper Union for the Advance- ment of Science and Art. He received his Ph.D. from New Jersey Institute of Technology and B.E. from The Cooper Union. Since joining The Cooper Union in 2009, he has taught more than half the courses in the chemical engineering curriculum. Currently, he teaches the undergraduate laboratory course se- quence and the graduate transport phenomena sequence. Recently, he has developed and introduced new elective courses on particle technology and pharmaceutical engineering. His research interests include particle
engineeringfundamentals, but also mindful of biological advances. Such requirements of new professionalsbring continuing demands on how biological engineering should be taught.At The University of Arizona, the Agricultural and Biosystems Engineering (ABE) Departmenthas revised its course offerings in the biological engineering area. This presentation will discusshow two courses have been revised to integrate: use of the internet, discussions of recenttechnological advances, design projects, and laboratory exercises. After several years of poorly-received use of the internet, an improved approach was developed resulting in nearly all studentsmaking use of the information on a more than weekly basis. Students respo nded positively tothese changes and performed
2023 ASEE Midwest Section Conference Introducing Deep Learning to Undergraduate Engineering Majors Lin Zhang University of Central ArkansasAbstractArtificial intelligence (AI) is one of the fastest growing technologies. The undergraduatestudents, especially those majoring in engineering, are demanding more encounters with AI.Deep learning (as one of the most popular and fundamental subcategories of the AI) isintroduced to the undergraduates through a 4-course education. The students will acquireintuitions on the concepts, the theoretical/mathematical backgrounds and practical
1 Complexity in Engineering: The Silent Killer Day W. Radebaugh Assistant Professor of Philosophy Department of Philosophy Wichita State University Wichita, Kansas 67260AbstractA review of the list of recent technological disasters suggests that the risk to society oflarge-scale engineering projects has grown in proportion to the complexity of thedesigned system. Illustrative cases include the Challenger explosion, the power gridblackouts of
Engineering Technology Program Development for Industry Harvey Lyons, Ph.D., P.E. Professor Mechanical Engineering Technology School of Engineering Technology Eastern Michigan University Ypsilanti, MI 48197 734-487-2040 hlyons@emich.edu 472 ENGINEERING TECHNOLOGY Program Development for IndustryIn the mid-eighties at Alfred University and in the early nineties at the Indiana Institute ofTechnology 9, the writer implemented freshmen programs in the curriculum to address the lackof connectivity between the topics in basic science
An Efficient Teaching Technique for Engineering Major Christopher J. Lowrance Electrical Engineering and Computer Science Department United States Military Academy, West Point, NY 10996 Christopher.Lowrance@usma.eduAbstractAlmost every professor has experimented with various teaching techniques in order to find aneffective way to reach their students. As a new instructor to engineering trying to find my ownpreferred teaching style, I found a particular technique to be extremely effective in terms itsbenefits and the positive feedback I receive from my students. According to numerous educationexperts, just purely lecturing
13 Classifying Student Engineering Design Project Types Micah Lande and Larry Leifer Center for Design Research Stanford UniversityAbstractMechanical Engineering 310 is a graduate-level product-learning-based mechanical engineeringdesign course at Stanford University that takes its project prompts from sponsoring companies inindustry. In the past 30 years, over 325 projects have been presented and worked on by studentsteams. The nature of these projects has shifted over time from Manufacturing
An Efficient Teaching Technique for Engineering Major Christopher J. Lowrance Electrical Engineering and Computer Science Department United States Military Academy, West Point, NY 10996 Christopher.Lowrance@usma.eduAbstractAlmost every professor has experimented with various teaching techniques in order to find aneffective way to reach their students. As a new instructor to engineering trying to find my ownpreferred teaching style, I found a particular technique to be extremely effective in terms itsbenefits and the positive feedback I receive from my students. According to numerous educationexperts, just purely lecturing
to continuously develop and apply knowledgeof mathematics while in school and throughout professional practice.IntroductionEngineering analysis depends on mathematical models of the physical world; however, inengineering practice, the models are often already developed, the solutions derived, and acomputer program written to carry out the calculations. Practicing engineers are engaged inapplying the answers; the model development and computer programming required to generatethose answers is purchased and usually ignored. Practicing engineers, doing work for hire, can’tafford to reinvent published solutions. With this in mind, some might conclude that engineeringanalysis is simply an I/O process where engineers match the task to a known
AC 2009-84: NEW DEVELOPMENTS IN ENGINEERING FOR NONENGINEERSJohn Krupczak, Hope College Page 14.905.1© American Society for Engineering Education, 2009 New Developments in Engineering for Non-Engineers: Functional Analysis as a Framework for Understanding TechnologyAbstractThe National Academy of Engineering recently published: “Changing the Conversation:Messages for Improving Public Understanding of Engineering.” The NAE states that capable andconfident participants in our technologically dependent society must know something aboutengineering. However the means by which engineers can explain engineering to non
significant improvements in students’ learning when the instructors use computersimulations in fluid mechanics.With this theory in mind, we developed a spreadsheet-based simulation model as the IEchallenge activity in an introduction-to-engineering course. The purpose of this user-friendlysimulation tool was to raise students’ understanding of IE and introduce a few common IE tools.This challenge allowed the students to directly apply the Operations Research and HumanFactors concepts learned in the IE lessons of the course. The scenario behind the challenge wasthe realistic case of designing a commercial passenger airplane and scheduling its operations.Rather than a traditional test on the IE material presented during the three IE lessons
possible in class) and external (e.g. theworld is getting better). It is not yet clear if LTS is an influencing agent, or simply a benefactorof attracting such-minded people28. Interestingly, like knowledge, there are no differences in mindset between LTS and NoLTS. Mindset is thought to be central to learning outcomes. Growth mindset people tend to relishchallenges, fixed mindset people get easily discouraged by challenges. It appears engineeringbenefits from having a healthy majority of growth mindset students, this maybe a prerequisite innavigating the academic obstacles to becoming an engineering student in the first place. Futureevaluation will begin to map this mindset with dialogue about engineering experiences from theinterviews
Universities: Carnegie-Mellon, Southern Methodist University, Stanford, MIT, Colorado State University and Purdue come to mind immediately. They have long been in the business of providing distributed learning to engineers (and others) in the U.S.A. and in some cases, across the world via video tape, microwave, TV, satellite, and more recently with CD-ROM and DVD, and of course the Internet. The Open University in the UK has been a paradigm for many of us, and there are undoubtedly others throughout the world. Please contact the author if your favorite was left out. The former institution of the author has just initiated an on-line interdisciplinary M.S. SE program in which 18 students are enrolled, as of January 2004. This is part of
.S36). In it the students learn aboutocean engineering by building a small battery powered remotely-operated vehicles (ROVs). TheROV is a vehicle in both the conventional sense of a submarine and, importantly, in the sense ofa vehicle for learning in which concepts are introduced as the little machine is built. Course13.S36 is in the tradition of hands-on type courses that have long been recognized as animportant part of engineering education1. Hands-on courses connect theory with practice and bydoing so help to clarify the theory in the students’ minds. These courses also give the studentssolid practice in problem solving of the type they will probably encounter on the job. Finally,hands-on courses give the students technical skills (e.g
ofdetected real problems in engineering professionals. And, obviously, its first goal would be tohelp the professors of the Faculty itself to get a better preparation for their teaching activities bygiving them a different and better sense to their occupation, and a new way of understanding it:that it is not the same thing to mold an inert raw material, as submitting a live, thinking humanbeing, to a transforming process.From these ideas, by 1991 the Department took a first step to “professionalize” these teachingactivities, and the content of a course began to take shape expecting that the participatingteachers, now as students, would open their minds beyond the subject they taught, so that theybegan to look for analogies among different areas of
number of other problems with traditionalengineering education for HE. One of these problems is the existence of pervasive valuehierarchies in the minds of engineers, such as valuing: 1) science over design, 2) high-tech over low-tech solutions, and 3) engineering over non-engineering (e.g., humanities and social sciences) work.Another problem given in [4] is the pervasive use of the engineering problem solving method,which begins by presenting the students with the necessary information to solve the problem andthen having them: 1) extract the relevant technical information, 2) create idealized abstractions (e.g., free-body diagrams), 3) make simplifying assumptions so the problems can be solved more efficiently, 4
climate change. Theintroduction of new courses in risk and resilience and Game Theory at the graduate level isproducing engineers with the capabilities to address the challenges of climate change in newways.IntroductionClimate change is one of the greatest societal challenges of the 21st Century, the impacts ofwhich extend throughout the critical infrastructure systems that society depends on for daily life.It is the responsibility of engineers to design, maintain, and protect critical infrastructure systemssuch that the quality-of-life of at-risk communities can be preserved. With this in mind, thefuture engineers that are being produced through universities and colleges must be prepared forchallenges that are unlike what has been historically
1 2 3 Engaging Engineering Students through 4 Improved Teaching 5 6 7 Norman D. Dennis 8 University of Arkansas 910111213 Abstract1415 National enrollment statistics show that engineering programs historically lose more than 55% of16 their entering students to attrition of some form1. Whether this attrition is to other academic17 programs or from college altogether it is clearly a problem that must be reversed if we are to18 attract and retain the best and brightest minds to the engineering profession for the future. While19 there are a wide variety of reasons for the poor retention of
Engineering Education OR Just Education Keith M. Gardiner Lehigh UniversityCenter for Manufacturing Systems Engineering200 West Packer Avenue, Bethlehem, PA 18015 kg03@lehigh.edu 1-610-758-5070 298 Engineering Education OR Just Education KEITH M. GARDINER Lehigh University Center for Manufacturing Systems Engineering 200 West Packer Avenue, Bethlehem, PA 18015 kg03@lehigh.edu 1-610-758-5070Abstract“Engineering Education for the Next Decade,” but let’s stretch and think farther out.Various national and international projections address
engineers. Byteaching students the problem-solving strategies that are used by their professional counterparts,the gap between what students are taught in school and what is expected of them in theworkplace may be lessened.The purpose of this paper is to describe how agile ethnography [4], [5] was successfully used inour research project to examine workplace literacy practices and habits of mind employed byeight engineers in their workplaces over a period of three years. The overarching purpose of theproject was to develop models of disciplinary literacy instruction [6] and habits of mind [7] inengineering, both of which are potential methods for teaching students the knowledge, skills, andstrategies that may prepare them for an engineering career
Paper ID #18477Building Trust in Robots in Robotics-Focused STEM Education under TPACKFramework in Middle SchoolsDr. S. M. Mizanoor Rahman, New York University Mizanoor Rahman received Ph.D. degree in Mechanical Engineering from Mie University at Tsu, Japan in 2011. He then worked as a research fellow at the National University of Singapore (NUS), a re- searcher at Vrije University of Brussels (Belgium) and a postdoctoral associate at Clemson University, USA. He is currently working as a postdoctoral associate at the Mechanical and Aerospace Engineering Department, NYU Tandon School of Engineering, NY, USA. His research
AC 2012-3876: THE ”RAISE THE BAR” INITIATIVE: CHARTING THEFUTURE BY UNDERSTANDING THE PATH TO THE PRESENT - MOD-IFYING THE MODEL LAWS AND RULES FOR ENGINEERING LICEN-SUREMr. Jon D. Nelson P.E., Tetra Tech, Inc Jon D. Nelson, P.E. is Senior Vice President of the central region of the Engineering and Architectural Services group of Tetra Tech, Inc. in Tulsa, Okla. He has been a consulting engineer for 34 years, focusing on municipal water and wastewater projects. He has been with Tetra Tech for 27 years. He holds a B.S. degree in civil engineering from Kansas State University and a M.S. degree in environmental engineering from Oklahoma State University. Nelson is licensed as a professional engineer in four states and
degrees in science, engineering andmathematics allowed leveraging of resources across the partnership to achieve impacts that nosingle partner could afford or achieve individually. NSWC, Corona Division utilizes the STEPProgram as it’s dominate outreach activity regarding the 3rd to 12th grade focused developmentof the earliest stages of the engineering pipeline. With this in mind, a discussion of theformation, development and activities of STEP will be addressed in a general sense with theunderstanding that NSWC, Corona Division remains an instrumental, active partner in theseSTEP activities.The Science and Technology Education Partnership (STEP) Program:The Beginning:The beginning of STEP involves California Congressman Ken Calvert who
, educators havetried to design curricula that foster this associative learning —which, we know from our ownexperiences, is how we learn best outside of the classroom. Twenty-first century engineeringeducators have been mindful of ABET’s EC2000 student outcomes a-k, including ethicalunderstanding, the ability to communicate effectively, and “the broad education necessary tounderstand the impact of engineering solutions in a global, economic, environmental, andsocietal context.”2 Engineering educators who struggle to help students achieve these ABETlearning outcomes might consider working together with liberal arts faculty to integrateengineering with humanities understanding. What the environmental historian William Crononwished for liberal arts
equations and constraints, the controlvariables must be specified. Also, initial and boundary conditions are required. The controlvariables are computed to maximize or minimize an assigned performance index. The initial andboundary conditions are taken from the physics of the problem20-26.5.2 Step II: Transition from Engineering to Social EngineeringGoing from an engineering system to a social system is the most difficult step. The socialsciences study many social phenomena where the human beings, as individuals or groups, are themain active elements. Structure and function of social institutions, history and evolution of socialstructure and functions, mind, intelligence, learning, social behavior, beliefs, religions, economicsystems, marriage
Paper ID #37015Community Perspectives on Chemical Engineering EducationMilo D. Koretsky, Tufts University Milo Koretsky is the McDonnell Family Bridge Professor in the Department of Chemical and Biological Engineering and in the Department of Education at Tufts University. He received his B.S. and M.S. degrees from UC San Diego and his Ph.D. from UC Berkeley, all in chemical engineering.Dr. Lisa G. Bullard, P.E., North Carolina State University, Raleigh Dr. Lisa Bullard is an Alumni Distinguished Undergraduate Professor in the Department of Chemical and Biomolecular Engineering at North Carolina State University. She
skills. Yetthe social skills become vital for becoming a hirable engineer [27]. The hierarchy of knowledgebecomes a secondary factor where engineering ethics becomes important. Faulkner’sethnography of programmers found that engineering profession identities pervade a strongdualism that favors the technical while diminishing the social [28], [29].One of the more jarring aspects of the above quote, from the electrical engineering student,comes from the student’s uncertainty about whether ethics come about, which they doubt insome sense. The perception that the university’s focus is to produce technically-trainedengineers, not necessarily socially-minded engineers, comes through in the quote. Similarly,another student notes the aspect of their
students areadvised in their early transition into their careers. These theoretical foundations will be discussedin the next sections.Whole Student ModelIn IE, everything is designed with the whole student in mind, which includes the “Trilogy ofStudent Success” as defined by Jolly et al. [1] as Engagement, Capacity, and Continuity. Thefocus on the whole student arises from understanding that improvements to simply improvestandards, curriculum, and teaching practices are not going to be sufficient in recruiting,retaining, and developing a diverse population of engineers [1]. The Institute for BroadeningParticipation [2] emphasizes the need for intentional design in various aspects of education tohelp students participate and succeed in engineering
. Engineers, whetherstudents or professionals, need to remember that problem solving involves understanding theentire process; a black box solver should never be trusted! It is shameful that students andgraduates alike pick up a calculator to work simple sums, products, and functions that theyshould be exercising their minds to determine. Calculators, spreadsheet templates, computerprograms, and other technological devices save a great deal of time. They aren’t bad -- they justshouldn’t be used blindly. Users need to understand the basis and limitations of any technologybefore relying on it.Within any STEM field, a skill that requires careful development is that of effectivelycommunicating solutions. In high school math and science courses, the work
engineering education standards: What are the opportunities? Whatare the barriers? He argues that “students should learn concepts such as systems, optimization,and feedback; they should develop the abilities of engineering design and habits of mind [1],”which is exactly what OK Go Sandbox strives to support by connecting learning to theengineering of OK Go’s music videos. The rise of engineering education stemmed fromstandards-based reform; however, common standards across the United States for technology andengineering have not yet been adopted like the Common Core State Standards (mathematics andEnglish language arts) that are used throughout the OK Go Sandbox resources. He adds that “thepower of national standards lies in their potential capacity