- lished articles (in referred journals, conference proceedings, and technical reports), and funded projects Page 25.58.1 c American Society for Engineering Education, 2012 (approximately $3.5 million funded projects, from various government research laboratories, industrial sectors, and universities) in numerical methods, large-scale parallel algorithms and software develop- ments, finite element analysis and optimal design, and linear/nonlinear equation and Eigen-solutions have led to several international (1989 Cray Research, Inc. GigaFlops Award), national (NASA Langley Re- search
time, they gain competitive learning skills during theircompetition. As the cooperative learning techniques improve student accomplishment, enhancesatisfaction and self-esteem, and develop plausible race relations and social skills27, 28, thecompetitive learning approaches enable students to realize that they will be rewarded based ontheir performance comparisons with other teams.This paper presents a two-course robotics curriculum design, implementation, and Page 25.117.2comprehensive evaluations. The robotics curriculum was integrated with a national designcompetition and educational mentoring opportunities, was sponsored by National
words in the title of this paper relay the uniqueness of theMEL approach: “multidisciplinary” and “sequence”.1.2 Sequential Laboratory Courses at Other UniversitiesSeveral universities teach sequential laboratory courses focused on topical depth. For example,Texas A&M University connected a course in microprocessors and a course in electronicinterfacing in a sequence4. Both have three hours of recitation and two of laboratory each week. Page 6.96.1Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering EducationIn another example
organizations, particularly technical organizationsthat cannot afford short-term focus. Capital equipment expenditures, research anddevelopment projects, staffing issues and product development are all under increasedpressure to perform anachronistically in the short-term. Even the professionaldevelopment of technical staffs takes a back seat to short-term focus. It is not likely thatsignificant answers to “future needs for life-long learning” will come from this focus.Our graduate engineers are poised to jump into these companies. They are excited aboutbeing offered jobs and beginning careers. They desire to demonstrate ability to translatefrom potential to kinetic their energies. The “real world” is, however, not a warm andfuzzy place. It is into
. Page 6.814.1Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright2001, American Society for Engineering EducationIntroduction In 2000, Bucknell University’s College of Engineering was a awarded an NSF grant withthe primary purpose of promoting systemic change in engineering education - a faculty-initiatedproject we have dubbed "Project Catalyst". This paper discusses Project Catalyst’s initial work,reports some of the lessons learned to date and makes some recommendations for those who areinterested in pursuing a cooperative learning initiative in their classrooms. Project Catalyst addresses the systemic change needed in the engineering classroom byhaving faculty
design project throughout their curriculum.1. BackgroundEvaluations of existing undergraduate engineering programs continually cite three weaknesses:graduates lack technical literacy; graduates lack oral and written communication skills; and grad-uates lack design experience1-5. To address these weaknesses, the School of Civil Engineering andEnvironmental Science (CEES) at the University of Oklahoma, is proposing a systemic reforminitiative that incorporates four themes throughout the curriculum. First, the centerpiece of theinitiative is a common design project, entitled “Sooner City,” that is introduced during the freshmanyear and continues for the entire curriculum. Design tasks range from population estimates to thewater supply system. A
“successful” faculty developmentexperience. To begin with, we view a visiting scholar as a person who is hired by an institutionto come give a talk, lead a workshop, or in some other way communicate particular expertise orskills to a local audience. This visitor is typically chosen because of expertise in a specific area,and that area has already been defined by someone at the institution as of value and/orcomplementary to the direction the organization wishes to move. In sum, someone hasdetermined that what that visitor has to offer is a valuable contribution to the local community.In the context of this paper, the person making this decision might be running a facultydevelopment center, an administrator, or a faculty member who has a personal
needs.Because of the familial relationship, there are no restrictions on my willingness to help himsucceed during his freshman year. Together these circumstances create a baseline for optimummentor input. This paper will discuss mentoring activities engaged in during the first semester ofstudy, time commitments on my part, and suggestions for how these “faculty” mentoringactivities might be expanded to a larger number of students, either through extended facultyinvolvement or through the coordinated participation of peers.I. IntroductionHow should we allocate time to mentor and coach our students? Perhaps we can approach this Page 5.308.1from the
) which will facilitate student learning through construction of equation-based models and evaluation of those models executed as simulations. We have several specific objectives that wehope to achieve with DEVICE.• To teach chemical engineering modeling skills. Modeling is a skill that engineers use frequently in practice, but is rarely explicitly taught [1]. DEVICE is prefaced on the hypothesis that to support the learning of1 A version of this paper will appear in the ACM CHI97 Conference Proceedings. Page 2.189.1 modeling may require a different software architecture than that to support the professional
Paper ID #43480Board 247: ECE-WisCom: Enhancing Student Performance and Persistencethrough a Wisdom CommunityDr. Hilda Cecilia Contreras Aguirre, New Mexico State University Hilda Cecilia Contreras Aguirre, EdD is a STEM education researcher at New Mexico State University. She focuses her research on qualitative/mixed methods studies addressing minority and underrepresented student college performance and persistence through high-impact practices, particularly in STEM disciplines. Her main lines of inquiry examine best practices in mentoring and promotion of undergraduate research in STEM. She also collaborates with the
Paper ID #43855Do Social Justice Case Studies Affect Engineering Professional Responsibility?Dr. Gail Baura, Loyola University, Chicago Dr. Gail Baura is Founding Director & Chair, and Professor of Engineering at Loyola University Chicago. Previously, she was a Professor of Medical Devices at Keck Graduate Institute of Applied Life Sciences, which is one of the Claremont Colleges. She received her BS Electrical Engineering degree from Loyola Marymount University, her MS Electrical Engineering and MS Biomedical Engineering degrees from Drexel University, and her PhD Bioengineering degree from the University of Washington
Paper ID #42203Board 34: Equity Diversity and Inclusion (EDI) and Entrepreneurial MindsetLearning (EML) in Core Engineering Classes: A Case Study in StaticsDr. Ghina Absi, Vanderbilt University Ghina Absi is an Assistant Professor in the Civil and Environmental Engineering department at Vanderbilt University. She teaches classes at the freshmen, sophomore and junior classes in Civil Engineering (Intro to Engineering, Statics, Mechanics of Materials) . She earned her BE and ME from the Saint Joseph University (ESIB) in Beirut, Lebanon, and worked for 5 years as a steel structures design engineer at a multinational firm (Dar
Paper ID #43367Board 423: What Drives You? Exploring the Motivations and Goals of Low-IncomeEngineering Transfer Students for Pursuing EngineeringAnna-Lena Dicke, University of California, Irvine Dr. Dicke is an Associate Project Scientist within the School of Education at the University of California, Irvine. In her research, she aims to understand how students’ motivation and interest in the STEM fields can be fostered to secure their educational persistence and long-term career success. Trying to bridge the gap between theory and practice, she is currently involved in an NSF-funded project aimed at fostering the
Paper ID #43332Using AI Interactive Interfaces in Design of Machine Elements EducationCan Uysalel, University of California, San Diego Can Uysalel is a Ph.D. graduate student researcher working at UCSD Department of Mechanical and Aerospace Engineering. His research interests include materials characterization, machine learning, and STEM education.Zachary Fox, University of California, San Diego Zachary Fox is an Undergraduate Mechanical Engineering Student & Researcher working under the UC San Diego Mechanical & Aerospace Engineering Department. Hos research interests include mechanical failure design and
dielectric materials and systems for power delivery. He has authored or co-authored over 150 papers in journals and a textbook on ”Outdoor Insula- tors”. He teaches classes in the electric power and energy systems area. He is a Fellow of the IEEE and the recipient of the 2011 Claude de Tourreil Memorial Award for ”Lifetime Achievement in the Field of Electrical Insulators”.Stephen M Philips, Arizona State University Stephen M. Phillips received the B.S. degree in electrical engineering from Cornell University and the M.S. and Ph.D. degrees in electrical engineering from Stanford University. He has served on the faculty of Case Western Reserve University from 1988 to 2002. He joined the faculty of Arizona State University
Engineering from the University of Delaware, Masters degrees in Biotechnology (Johns Hopkins) and Chemistry (University of the Sciences), and Bachelors degrees in Chemical and Electrical Engineering. Dr. Mauk is a licensed Professional Engineer. From 1989 to 2003, he was a Senior Research Engineer at AstroPower, Inc. (Newark, Delaware), serving as Principal Investigator for numerous research programs sponsored by NSF, DOD, NASA, DOE, and NIST. From 2003 to 2008, Dr. Mauk was a Research Associate at the University of Pennsylvania working on lab-on-a-chip clinical diagnostics devices. Dr. Mauk has over 120 technical publications and eight patents.Yury Gogotsi, Drexel University Dr. Yury
, ageneral engineering class, general chemistry, engineering ethics, and introduction to engineeringdesign. The cluster sequence is designed to integrate the coursework to ensure that during thefirst year students develop a strong foundation in algebra, writing and problem solving skills, andengineering analysis and design. The instructors of the cluster courses meet regularly to shareinsights about the progress of the students and to coordinate activities in ways designed toimprove student learning in all the courses. An assessment team has also developed a writing-based testing instrument to assess the attitudes of the students toward the cluster interventionprogram. This paper reviews the experience with the cluster and the impact of this effort
in early 2000, and though it did not become a majorfactor in the 2000 Presidential election campaign, it is quite well documented, with civil andcriminal cases as well as dozens of articles in major newspapers. Since there does not seem to beanother description of the case from start to finish, this paper will endeavor to provide one, Page 7.865.1followed by a discussion of the issues it raises for computer professionals. Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Education2. Overview of the
levels, development of required assessment instruments, and identificationof relevant institutional practices, which need to be aligned. This paper presents the experiencein developing such plans. Preliminary results from pilot implementations are also presented.ABET Engineering Criteria 2000The conventional criteria were restrictive and focused on counting resources used to achievean acceptable standard. The new ABET EC 20002, on the other hand, address theeffectiveness of engineering education programs by focusing on setting educational objectivesand outcomes, and an evaluation process that assures their achievement. Eight basic levelaccreditation criteria comprise the EC 2000. Criteria 2 and 3 address educational objectivesand outcomes
Paper ID #40850Program Evaluation of an International University-SponsoredService-Learning ExperienceDr. Sarah K. Bauer, Mercer University Dr. Sarah Bauer (Ph.D., University of Virginia, Charlottesville, VA) is an Assistant Professor of Environ- mental and Civil Engineering at Mercer University, Macon, GA. Her primary research interests are water and wastewater treatment, waste management, pollution prevention, and renewable energy technologies. Her research work focuses on developing sustainable techniques for the production of clean energy and clean water, with specific interest in the FEW Nexus. Her research work has
Learning in an innovative approach to the classical interdisciplinaryframework, using a novel Integrated Projects approach. This new active learning method strivesto increase students’ Curiosity (C1) in the technical knowledge in their respective subject, buildConnections (C2) to other information as well as collaboration among in class teammates andbetween students in their Squad, the paired teams of other courses.1.2.7 Research Questions (RQ) RQ1 How does the implementation of Integrated Projects impact students’curiosity or interest in the subject matter of their course, their discipline, and theengineering profession?1.2.8 Contributions of this Study This peer-reviewed article presents a comprehensive investigation into
. © American Society for Engineering Education, 2024 2024 ASEE Midwest Section Conference Digital Transformation is a critical contemporary theme impacting various industries,including engineering. It involves integrating digital technologies into all aspects of business,fundamentally changing operations, and value delivery. For engineering students,comprehending Digital Transformation is crucial, as it encompasses elements such ascybersecurity, artificial intelligence, and the Internet of Things (IoT). These elements are integralto modern systems engineering practices and require understanding of both technical andmanagerial aspects. In the IME 764 Systems Engineering course at Wichita State University
Paper ID #41249Promoting Chemical Engineering Identity through Student Agency and ExperimentRelevanceDr. Vanessa Svihla, University of New Mexico Dr. Vanessa Svihla is a learning scientist and associate professor at the University of New Mexico in the Organization, Information and Learning Sciences program and in the Chemical and Biological Engineering Department.Madalyn Wilson-Fetrow, University of New MexicoProf. Stephanie G Wettstein, Montana State University, Bozeman Stephanie Wettstein is an Associate Professor in the Chemical and Biological Engineering department at Montana State University in Bozeman, MT. She has been
that studentsmust demonstrate abilities to use mathematics well beyond calculus in an educational pathculminating in readiness for “engineer” titles in a competitive market with increasinglydemanding technical tasks.A Google search of the question “How much math is used by practicing engineers?” yieldsvarious interesting responses. Some respondents reason that the amount and level of mathematicsusage depends on the field, the position, and the years of experience. Others point to theavailability of specialized software packages that for example perform finite-element analysis,and that all is needed is setting up the geometry and initial and boundary conditions. However, afair amount of differential equation knowledge is needed to understand
DESIGN 15 - Designing the Human-Made World The First-Year Introductory Engineering Design Course PART 1: THE LECTURE Dr. Mauro J. Caputi Associate Professor of Engineering HOFSTRA UNIVERSITY, Hempstead, NYINTRODUCTION The First-Year Introductory Engineering Design course at Hofstra University is examinedin detail. Because of the broad scope of components informing the course, it will be presented inthree parts. Part One, discussed in this paper, focuses on the Lecture, the required one-sectionLecture course that all incoming First-Year Engineering students attend. Part Two will
degree.Evaluation of the standards, implemented by means of student activities, proves that they areeffective.IntroductionSan Diego has an extensive technical and scientific base of aerospace, biotechnology,communications, and computer-related companies, as well as research institutes, universities, andmedical centers. San Diego also has a diverse ethnic and economic population. Currently there areindividual programs in San Diego, derived from the nationally-recognized Mathematics, Engineering,Science Achievement (MESA) Program, that assist underrepresented students to earn degrees inScience, Technology, Engineering and Mathematics (STEM) fields. The MESA mission is to enableeducationally disadvantaged students to prepare for and graduate from a four-year
-determination while tailoring advicedirectly to changing interests.The talk will highlight advising opportunities from outreach, through retention, continuing tograduation, and post graduate interactions that fit within student progress towards theirindividual careers. Appropriate advising content for a technically rigorous chemical engineeringprogram will be used as examples of how to motivate students towards exploring options andmaking decisions that open new doors to professional development. The issue explored is thatself-determination comes from inside the student and that confidence in personal evaluation isfostered through directed activities throughout students' time with us.Objectives that readers should be able to meet will be:• to
[35]. There is a gap inentrepreneurial success and integration into NSPs. entrepreneurship education for women and misalignment Many reasons prompted the researcher to conduct this between educational outcomes and market demands [36].research, including the continuous development of Many lack technical, administrative, and financial skills,entrepreneurship and the increased use of social networking limiting their ability to develop creative business ideas [37].sites in Saudi Arabia. There is an urgent need to develop Women also have limited access to knowledge and financialwomen's entrepreneurship amid economic and cultural
Paper ID #49532Predictive Modelling of a Continuously Variable Transmission for OptimalPerformanceKathryn Chludzinski, Youngstown State University - Rayen School of Engineering Kathryn Chludzinski is a graduate student in Youngstown State University’s (YSU) mechanical engineering program. Her research focuses on developing a laboratory for Dynamic Systems Modeling (DSM) students, utilizing a continuously variable transmission and inertia dynamometer. She has been a member of YSU’s SAE Baja team since the 2020 season. She is a certified machinist, having achieved her certification in 2019, and has been working in the
Paper ID #6451Innovations in Software Engineering Education: An Experimental Study ofIntegrating Active Learning and Design-based LearningMr. Liu Junhua, Singapore University of Technology and Design Junhua is an undergraduate research technician of the International Design Centre (IDC) and pursuing a BE (Engineering Systems and Design) at Singapore University of Technology and Design (SUTD). He received a Diploma in IT from Singapore Polytechnic. Junhua was awarded the IT Youth of 2013 by the Singapore Computer Society.Dr. Yue Zhang, Singapore University and Technology and Design Yue Zhang is currently an assistant