, civil engineering, and mechanical engineering. Currently, many undergraduate andfirst-year graduate students in the aforementioned fields do not have exposure to recent researchtrends in Machine Learning. This paper reports on a project in progress, funded by the NationalScience Foundation under the program Combined Research and Curriculum Development(CRCD), whose goal is to remedy this shortcoming. The project involves the development of amodel for the integration of Machine Learning into the undergraduate curriculum of thoseengineering and science disciplines mentioned above. The goal is increased exposure toMachine Learning technology for a wider range of students in science and engineering than iscurrently available. Our approach of
treatment of topics; • Incorporation of engineering design projects taken from real world problems; • Improvement of mathematics and basic sciences skills through tutoring, help sessions and in-class activities; and • Improvement of study skills and academic success strategies. This paper is the second of a two part series. A companion paper entitled “The FreshmanEngineering Experience at West Virginia University” presents an overview of the FreshmanEngineering Program and describes various programs aimed at improving comprehension ofmathematics and basic science courses and developing study skills and academic successstrategies [7]. The present paper presents the approach used to integrate rigorous design andincorporate
Paper ID #35112Preparing for an Online ABET VisitDr. Matthew G. Green, LeTourneau University Matthew Green serves as Associate Dean in the School of Engineering and Engineering Technology and Professor of Mechanical Engineering at LeTourneau University in Texas. His objective is to practice and promote engineering as a serving profession. He has taught and helped develop design courses for all four years of the undergraduate curriculum, and has taught courses such as Dynamics, Thermodynamics, and Machine Design. Past projects include remote power generation, design methods for frontier environ- ments, enhanced
as well as in academic writing, and a critical inquiry class taught by theHSA faculty. The critical inquiry class has multiple sessions taught by different instructors. Eachsession focuses on a topic that is related to the instructor’s specialty, yet all the sessions have acommon component: for the first few weeks, students and instructors engage in a discussion ofthe meaning of liberal arts education and its implications for HMC. In addition to completing theCommon Core, every student at HMC is required to take at least ten courses in HSA, with atleast four courses in an area of concentration. The engineering curriculum at HMC consists ofthree stems: design, engineering sciences, and system. The design stem includes three
-the-art low cost components into a sequence of embedded and digital systems designcourses so as to maximize the learning opportunities provided to students for the resourcesinvested. The resources required, both time and monetary, are minimized in several ways.Low cost, but flexible and current, components are selected, which minimizes costs to theuniversity or student. The investment is further leveraged by using the components in multiplecourses throughout the curriculum and allowing students to maintain possession of thecomponents for independent learning and capstone projects. Integrating the componentsacross multiple courses also simplifies managing replacement parts, if desired. Judiciousselection of components and projects can also
opinions about graduatestudent life and in introducing them to ASEE. It also helps the graduate students serving on thepanel to become more involved with ASEE. Graduate students that have volunteered to serve onthe panel often serve as officers of the student chapter in the next academic year. Another event that the UT-Austin student chapter attempts every year is a seminar aboutpreparing a curriculum vitae and beginning an academic job search (Figure 2). This seminaralways draws a large attendance of graduate students. Other activities that are repeatedfrequently, due to their popularity and continued applicability for graduate students, are seminarsabout writing effective proposals and panel discussions by professors from universities that
College of Engineering Withrow Teaching Excellence Award, and being named an MSU Lilly Teaching Fellow.Dr. Mark Urban-Lurain, Michigan State University Mark Urban-Lurain is an Associate Professor and Associate Director of the Center for Engineering Edu- cation Research at Michigan State University. Dr. Urban-Lurain is responsible for teaching, research and curriculum development, with emphasis on engineering education and, more broadly, STEM education. His research interests are in theories of cognition, how these theories inform the design of instruction, how we might best design instructional technology within those frameworks, and how the research and development of instructional technologies can inform our
ortechnical problems [9]. Lifelong learning skills like “ability & eagerness to learn” and “selfawareness” align with the need to work through the complex sociotechnical challenges thatengineers face today [10], and support students in navigating an evolving labour system [11].Furthermore, the development of future skills through work integrated learning experiences hasbeen documented in other research [12]-[15].2.2 Identity Trajectory TheoryIdentity theory has a strong presence in the scholarship on the education and development ofengineering students, as practitioners attempt to understand the interplay between curricular,co-curricular and work experiences, and the development of students “as engineers” [16]-[18].While Identity Trajectory
associated equipment necessary to accomplish the program objectives in an atmosphere conducive to learning b. laboratory equipment characteristic of that encountered in the industry and practice served by the program”2Significant planning and funding are required for the implementation of well-designed materialslaboratory courses3. Different schools have developed various integrated courses andlaboratories to meet this need for the materials lab4,5.To provide a fundamental grounding in materials and manufacturing, the MET curriculumoriginally included a single junior level course in Materials and Manufacturing. However, thiscourse consisted primarily of coursework taught from a text, enriched by selected
Paper ID #244002018 ASEE Mid-Atlantic Section Spring Conference: Washington, District ofColumbia Apr 6Disruptive Technologies: An Educational PerspectiveDr. Wagdy H Mahmoud, University of the District of Columbia Wagdy H. Mahmoud is an Associate Professor of electrical engineering at the Electrical Engineering Department at UDC. Mahmoud is actively involved in research in the areas of reconfigurable logic, hard- ware/software co-design of a system on a chip using reconfigurable logic, application-specific integrated circuits (ASIC), digital logic design, image compressions, digital signal processing, computer architec
. The aim is to quantify those impacts so that they can be used in the product designphase to better understand the tradeoffs between the benefits and costs of different supply chainalternatives. This collaborative research effort between the National Science Foundation Centerfor e-Design (CED) and the National Science Foundation Center for Engineering Logistics andDistribution (CELDi) will result in a synergy that integrates the expertise from each centerexamining this extremely complex problem, which is referred to as Design for Supply Chain(DFSC). Results from this project are being incorporated real-time into an existing graduatecourse being taught at the Oklahoma State University entitled Supply Chain Modeling. Thiscourse is a third
significantly lower down the difficulty for students inlaunching a new project and provide strong support during the whole implementation process. Inparallel, the second approach VIP offers students at different levels a great opportunity to worktogether on building advanced systems. Through VIP programs, students can continuously getinvolved in engineering practice, receive training on diversified skills and develop interests,motivation and concentration. In addition, an adopted mobile laboratory tool, Analog Discovery(AD) kit has greatly facilitated the implementation of these two approaches.KeywordsExperiential Learning, Educational Module Library, Vertical Integration Project, AnalogDiscovery Kit
processes.This change in construction philosophy offers a great opportunity to introduce the advancedconcept of full monitoring of structural construction/aging processes via embedded sensingtechnologies. Since this involves both inspection techniques and construction management, thispaper suggests an integrated learning approach that can be applied to a design project-orientedcourse content that is offered in both Civil Engineering Technology (CIET)/ConstructionManagement (CM) and Structural Monitoring (CEE) courses, such that students from bothDepartments can work separately, but produce one project outcome. Results from a studentsurvey indicated that this study enhanced students’ skills of generating creative and realisticsolutions for solving open
Paper ID #45030A Multi-Disciplinary First-Year Design Project with Systems Integration, StandardRequirements, Creativity, and Impact (GIFTS)Dr. Shazib Z Vijlee, University of Portland Dr. Shazib (Shaz) Vijlee is an Associate Professor of Engineering at the University of Portland’s Donald P. Shiley School of Engineering. He has Bachelor’s and Master’s degrees in Mechanical Engineering from the University of Texas (Austin). He received his Ph.D. in Mechanical Engineering from the University of Washington (Seattle). He has held various research and development positions in industry (Boeing Phantom Works) and government
(EAS120) the group of disciplinesrepresented in the development phase included chemistry, biology, and relevant engineeringfields. This new course was developed to balance the requirement to incorporate relevant newcontent into the curriculum with the need to limit curriculum overload. This course wasdesigned to satisfy these constraints by integrating the relevant biological science materials intoan existing chemistry course. Since the new content represented about forty percent as muchmaterial as was included in the existing course, some of the existing content needed to beremoved. An additional constraint was then to make sure that content needed to prepare studentsfor follow-up courses was retained. This could be accomplished in two ways
Engineering Ethics, 19(4), 1455–1468.Bagdasarov, Z., Thiel, C. E., Johnson, J. F., Connelly, S., Harkrider, L. N., Devenport, L. D., & Mumford, M. (2013). (2013). Case-based Ethics Instruction: The Influence of Contextual and Individual Factors in Case Content on Ethical Decision-Making. Science and Engineering Ethics, 19(3), 1305–1322.Chung, C. A., & Alfred, M. (2009). Design, development, and evaluation of an interactive simulator for engineering ethics education (SEEE). Science and Engineering Ethics, 15(2), 189–199.Haws, D. R. (2002). Using the web to integrate ethics in the engineering curriculum. Proceedings of the 32nd ASEE/IEEE Frontiers in Education Conference, S4F:7-12.Herkert, J. (2000). Engineering
Session 1626 Integrating a Power Systems Laboratory into a Client/Server Based Computing Environment S. P. Carullo, C. O. Nwankpa, and R. Fischl Drexel University1. AbstractThe primary goal of the project is to develop a set of experiments which will allow students to examinepower systems in a realistic manner. Drexel University’s Interconnected Power Systems L.uboratory(ZPSL) provides an interchangeable real-life power system network and a computer interface to the systemin order to provide control and data capturing. The computer interface utilizes clientherver and
(Eds.), Physics Education Research Conference, 818, 37–40, AIP (2005).8. T. Dray, B. Edwards and C. A. Manogue, “Bridging the gap between mathematics and physics”, (2008).9. R. Beichner, L. Bernnold, E. Burniston, P. Dali, R. Felder, J. Gastineau, J., et al., Case study of the physics component of an integrated curriculum. Physics Education Research Supplement to American Journal of Physics, 67(7), S16-S24, (1999).10. W. Blum, & M, Niss, Applied mathematical problem solving, modelling, applications, and links to other subject: States, trends and issues in mathematics instruction. Educational Studies in Mathematics, 22(1), 37- 68, (1991).11. J. Mestre, Implications of research on learning for the education of
The instruction of systems engineering is a difficult task, as this new yet prevalent area ofengineering requires knowledge within a practitioner that encompasses breadth and depth acrossvarious fields of engineering1. It is a requirement that any systems engineer have both breadthand depth in various niches of engineering poses an interesting problem in the development ofany pedagogy relative to the instruction of key systems engineering fundamentals. Thesefundamentals include design alternative identification, cost assessments, interface integration,risk identification, and many others2. It is through the instruction of systems engineering that keyskill sets necessary for completing the complex engineering tasks of today can be attained
, University of PittsburghProf. Kristen Parrish, Arizona State University Kristen Parrish is an Assistant Professor in the School of Sustainable Engineering and the Built Environ- ment at Arizona State University (ASU). Kristen’s work focuses on integrating energy efficiency measures into building design, construction, and operations processes. Specifically, she is interested in novel design processes that financially and technically facilitate energy-efficient buildings. Her work also explores how principles of lean manufacturing facilitate energy-efficiency in the commercial building industry. Another research interest of Kristen’s is engineering education, where she explores how project- and
engineering careers and curriculum is well-known. ABET lists“an ability to function effectively on a team whose members together provide leadership, create acollaborative and inclusive environment, establish goals, plan tasks, and meet objectives” as astudent outcome in its outcomes-based assessment of engineering curricula [1]. Early careerengineers often describe effective teamwork and interpersonal skills as the most importantcompetencies in their jobs [2, 3]. The formation of teams can significantly affect how well a teamworks together, and team formation and function have been studied in engineering curriculum fordecades [4–6]. Previous research has shown that teams are more effective when instructors createthe teams considering students
. Othersections of the instrument are intended to elucidate a severity rating for 20 various scenarios thatrepresent a range of academic integrity violations from trivial to most severe. The results fromthe first year were sufficiently compelling to warrant recruitment of additional respondentinstitutions during year two. This work reports on results from the third administration at theoriginal institution, and the first or first and second administrations at additional institutions. Inall cases, previous work has pointed to the existence of a disparity in perception betweenstudents and faculty, freshmen and upper-class students, and students at different institutions.The authors have termed this disparity an ethical gray area. Understanding these
AC 2008-478: TECHSTEP: CONNECTING HIGH SCHOOL TEACHERS ANDSTUDENTS TO INTEGRATED ENGINEERING AND SCIENCEKelly Crittenden, Louisiana Tech University Dr. Kelly Crittenden received his BS and PhD in BioMedical Engineering from Louisiana Tech University in 1996 and 2001 respectively. He is often involved in multidisciplinary work at Louisiana Tech, either through the Integrated Engineering Curriculum or through the IMPaCT (Innovation through Multidisciplinary Projects and Collaborative Teams) program. He is also very involved in STEM education at both the pre-college and college levels.James Nelson, Louisiana Tech University Dr. Jim Nelson is the Associate Dean for Undergraduate Studies for
communicates basic technological concepts, processes, andinterrelationships with engineering, mathematics, science, and society. “Technological literacyis the ability to use, manage, assess, and understand technology” 3. Engineering educationpedagogy and curriculum is implemented through the educational pursuit for technologicallyliterate students in K-12 education 4.Communication technology is an integral component of technological literacy. Modeling,visualizations, and presentations enforce communication technology concepts. This strengthensindividual technological and scientific knowledge and abilities while providing students with anopportunity to gain a firm grasp of engineering principles behind the technologies 5. The studyof engineering
process based on commercialsoftware tools. Although the course time frame (an academic quarter) is too short for significantiteration on the team project, students can participate in an accelerated version of the process bymaking a small increment to the in-class example. This approach retains the benefits of a realistic,client-centered team development project, while providing experience in a contemporary softwaredevelopment process based on commercial CASE tools.IntroductionFor a number of years, the computer engineering curriculum at the Milwaukee School ofEngineering (MSOE) has incorporated a senior course in software engineering (CS-489).Traditionally, this course has combined project work done in large teams for “real” clients(typically
economic structures. “Anti-toxics activists, through the process of local fights against polluting facilities, came to understand discrete toxic assaults as part of an economic structure in which, as part of the ‘natural’ functioning of the economy, certain communities would be polluted.” (Cole and Foster, 2000 p. 23).In the 1980s, civil rights leaders worked with the anti-toxics movement to conduct economicanalyses through their understanding of structures. In turn, anti-toxics leaders brought in the civilrights activists’ racial critiques (Cole and Foster, 2000). Together, these integrations ofknowledge and methods grew the environmental justice movement.Traditional Environmental MovementThe initiatives and efforts of
professional level, and describing the interactions betweenthe use of standards, integration, formalization, level of effectiveness, and degree ofunproductive tension between Program Management and Systems Engineering. The surveyquestionnaire that emerged contained 39 questions that explored the organization (e.g., industrysector, annual revenue, and location), program characteristics (size of the program, budget,duration and main result), processes (e.g., main standards and practices, tools and techniquesadopted) and professional characteristics such as background, years of experience, andengineering and program leader responsibilities in the organization. Data were collected during the fall of 2012. An invitation to participate in the study was
) © American Society for Engineering Education, 2022 Powered by www.slayte.com Vertically Integrating E-portfolios and Cooperative Educational Experiences to Develop Students’ Entrepreneurial MindsetThis paper addresses how small coordinated curricular changes can promote the development of anentrepreneurial mindset in engineering students. An entrepreneurial mindset helps students makeconnections, learn from mistakes, and identify opportunities to create value – behaviors that help themmake greater contributions to society, and more successfully navigate their educational process. Wepresent an approach that involves integrating e-portfolio experiences across the curriculum, aligning e-portfolio
Paper ID #19478A Workshop for Integration of Internet of Things into Green Energy Manu-facturingDr. Richard Chiou, Drexel University (Eng. & Eng. Tech.) Dr. Richard Chiou is Associate Professor within the Engineering Technology Department at Drexel Uni- versity, Philadelphia, USA. He received his Ph.D. degree in the G.W. Woodruff School of Mechanical Engineering at Georgia Institute of Technology. His educational background is in manufacturing with an emphasis on mechatronics. In addition to his many years of industrial experience, he has taught many different engineering and technology courses at undergraduate and
an integral part of product design, manufacturing, and use. Today, mostcompanies sell their products in different global markets and this requires consideration ofcustomer needs and ergonomics of users from these different markets. Moreover, productdesigners should consider ergonomics to enhance sustainability and maintainability of products.Recent advancements in computer technology in the last two decades have contributed to thedevelopment of computer simulations for ergonomics. Such simulations are known as DigitalHuman Modeling (DHM) and are used to assess the performance of human operators in theworkplace. DHM can also be integrated with Computer Aided Design (CAD) to evaluate theergonomics of product designs.2. Related LiteratureIn the