as Florman38described effective E&LE integration as an “intractable problem.”The difficulties giving rise to this intractability have been stated repeatedly in the multiple ASEEstudies of “humanistic-social” training in engineering.6, 42, 48, 87 Difficulties cited include: lack ofstudent engagement; curricular compaction in engineering, and the limited time available liberalarts (LA) subjects; engineering faculty who do not model and fully support the importance ofLA; limited engagement of LA faculty; and poorly formulated objectives for the LA componentof the curriculum.2, 6, 34, 42, 73, 87In the past, obstacles have prevented transformation, and the work of Symposium participantsseeks to avoid them.22, 25, 67, 99 Previous attempts have
students. Additionalintegration of FWV occurred in homework 3 about the design process (the Floating City was themost popular scenario), homework 8 on data science, and homework 9 on creativity andinnovation (again, as an option among multiple choices). The final culminating essay assignmentincluded a prompt that mentioned FWV, although students were not required to discuss FWV.There were 32% of the students that discussed FWV as something that inspired them about civilengineering, and another 23% discussed FWV more generally. The results indicate that FWVmay be effective in stimulating student interest in civil engineering, and can be integrated insimple ways that do not require major changes within a course.IntroductionCivil engineers play an
Integrating Modeling and Numerical Analysis into Systems-Level Design Joseph C. Musto and Vincent C. Prantil Mechanical Engineering Department Milwaukee School of EngineeringAbstractThe development of systems-level design experiences is a challenge in the design of an undergraduateMechanical Engineering curriculum. One key challenge is the coupling of the more analyticalcoursework component of the curriculum with creative design experiences. Traditional capstonedesign experiences involve a great deal of creative design, prototyping, debugging, and testing, butare sometimes weak in the use of mathematical
topics such as hydraulics, water treatment, water pollutionand the role of soil in water infrastructure. This low-cost, user-friendly ecosystem has the potentialto be widely adopted by school districts, providing a rich educational experience for students.Additionally, WaterMobile is aligned with the New Jersey Core Curriculum Content Standards,ensuring that it complements traditional classroom instruction. Our program not only addressesthe workforce challenges facing the water treatment industry, but also stimulates student interestin water resources and water treatment through an interactive and entertaining approach. Bymaking learning lively and interactive, our goal is to inspire the next generation of water treatmentindustry professionals
level. Thus,this paper will discuss a recently developed junior-level core course, Computer AidedEngineering, and its implementation into an undergraduate curriculum, which includesintegration of advanced CAD and engineering analysis tools for FEA and CFD, along withGenerative Design, a revolutionary optimization technique. Surveys, learning outcomes, andstudent self-assessments of this course are also presented in this work.Motivation for Digital Tools in Engineering Curricula The main motivation of the integration of basic and advanced design and analysis tools inengineering curricula is to train/educate students with up-to-date technologicalsoftware/hardware to become industry-ready engineers for the workforce. While achieving thisgoal
Paper ID #38568Vertical Integration of Teamwork Skills from Sophomore to Senior andBeyond!Dr. Mohammad Waqar Mohiuddin, Texas A&M University Possesses a multidisciplinary background in Mechanical Engineering (B.S. and M.S.) and Cardiovascular Physiology (Ph.D.). Currently working as an Instructional Assistant Professor in the J Mike Walker ’66 Department of Mechanical Engineering at Texas A&M University. Areas of expertise and interest in- clude biomedical and mechanical system design, electromechanical systems, computer-aided engineering analysis, and mathematical modeling of physiological systems. Before joining
years of industrial Research and Development experience at IBM Microelectronics, DuPont and Siemens. He has also conducted research at Oak Ridge National Laboratory, NASA, Naval Research Lab and Army Research Lab. Presently, he is a tenured Associate Professor in the Engineering Department at Virginia State University. c American Society for Engineering Education, 2018 Integration of Agriculture Research into the Manufacturing Design and Implementation ProjectsAbstractVirginia State University (VSU) is an 1890 Land-Grant institution. In the fiscal year (FY) 2015, aUSDA project jointly submitted by College of Agriculture and College of Engineering &Technology was funded
admittedhaving cheated on an exam. An even higher rate has been revealed in some studies wherestudents self-reported that they had cheated at least once in college9, 10.Given the stringent requirements in engineering programs, engineering students are among thosestudents who are more likely to cheat in college2, 11, 12, 13, 14. Carpenter and colleagues1 found thatover 96% of engineering students admitted having cheated or performed unethical behaviors intheir studies. Such high rate serves as a warning to educators and presents the urgent need toenhance engineering students’ academic integrity and reduce their cheating behaviors. Moreimportantly, academic dishonesty is a strong predictor for violations of professional ethics15.Students who cheat in
are few incentives to work with others which restrict theiropportunities to develop communication skills and teamwork. Students become less critical whenit comes to thinking through complex problems because they are not encouraged to do so underthis pedagogical framework. Although many institutes still use the traditional approach, manyothers explore and integrate other pedagogies into their curriculums. Institutes recognize thetechnological change and complexity of the contemporary industry 4.0 paradigm requires a highlyskilled and well-rounded generation of professionals [14]. The demand in the workspace leads to amore urgent pursuit for alternative pedagogies. In this paper, the Department of SystemsEngineering at West Point recognizes an
instruction into an engineering curriculum representsthe evolution of our involvement in three major areas of communication in the College ofEngineering: 1) faculty consultation; 2) publications; and 3) communications instruction. Weacknowledge that writing centers will have different levels of integration and involvement,depending on the specifics of their situations. Yet, we feel that the three areas of communicationin our model offer opportunities to work with faculty and students to thoroughly integratecommunications into an engineering program. Staff should maintain a consultant relationshipwith students and faculty, teach with an awareness of the socially constructed character ofknowledge, and engender individual responsibility for
, engineers face ongoing challenges to produce complexengineering systems with a high-level of performance, reliability, value and price. The ability ofengineers to persevere in this highly competitive atmosphere hinges on their ability to integrate anumber of technologies. Mechatronics provides the answer to this challenge and serve to bestaccomplish this integration from the earliest stages of the design process. As entrepreneurialventures play important role in economic growth in the era of globalization, mechanicalengineers equipped with skills in mechatronics and embedded systems are more likely to engagein such ventures. This paper presents a model for integrating mechatronics education intoMechanical Engineering curriculum. A strong component
-0198[14] J. Blandino and J. Hardin, “An Integrated Multi-year Iterative and Service-oriented Capstone Project,” ASEE Virtual Conference, Paper ID #28839, 2020.[15] VIP Consortium https://vip-consortium.org/[16] Press Release, “Joby Completes Third Stage of FAA Certification Process,” Business Wire, Feb. 21, 2024. https://www.businesswire.com/news/home/20240221698764/en/[17] Federal Aviation Administration, “Urban Air Mobility: Concept of Operations,” Version 2.0, April 2023.[18] M.G. Perhinschi, “Undergraduate Area of Emphasis in Unmanned Aerial Systems,” Proceedings of the 2021 ASEE Virtual Annual Conference & Exposition, July 26-29, 2016. Paper ID #35028[19] M. H. Sadraey, “Unmanned Aerial Vehicles Design Education
work on complex, multi-faceted problemsrequires increased efforts to include more breadth in both engineering and liberal education.This paper reports on one school’s pilot program to integrate engineering and liberal artseducation, motivated by the need for a technically literate citizenship, work force, and politicalleadership, fostered by providing students in technical and non-technical programs opportunitiesto communicate with one another. Rather than take the approach of an institutional mandate for a“tech lit” requirement, we present models that are small-scale, portable, and that can be grown Page 15.779.2organically with the right
. Page 24.780.1 c American Society for Engineering Education, 2014 Integrating the Energy Efficiency and Assessment Components into ManufacturingAbstractThis paper reports the current developments and implementations on energy efficiency andassessment studies in an engineering technology program. The developments are basically in twocategories: 1) Web-based teaching modules of Renewable Energy Education have beendeveloped through a funded research project. Instructional Materials, Laboratory Practices andAssessment Exercises have been posted to iLearn (which a Desire2Learn system) and Canvas(which is an Instructure system). Developed materials have been tested by
. Among the initiativesdesigned to meet this need, MIT has developed four complementary programs in technicalleadership that are administratively housed together: the Undergraduate Practice OpportunitiesProgram (UPOP), the Gordon-MIT Program in Engineering Leadership (GEL), the GraduateProgram in Engineering Leadership (GradEL), and the School of Engineering CommunicationLab (CommLab).While these MIT programs are managed under a common umbrella, that we refer to as TechnicalLeadership and Communications (TLC), reporting directly to the School of Engineering,integrating them into an overarching technical leadership framework remains a work in progress.This paper provides an update on the current status of these programs, and highlights the
. Puentudura1 is aimed at guiding the process oftechnology integration in a classroom with an ultimate goal of redefining teaching and learningmethodologies. Figure 1 illustrates on how the course curriculum developed for AdditiveManufacturing course at XXXXXX reflects upon SAMR framework.As shown, integrating mobile based scanning technology to additive manufacturing for realizingstudent project designs with the help of SAMR framework helped in significantly enhancing andtransforming the course outlook over the semester. The course enhancement helped in exposing thestudents to effectively integrate mobile based scanning technology, a reverse engineering approachfor identifying and addressing interface challenges. Figure 1
employed to create simple one- andtwo-dimensional distributed hydrologic models. This can easily be integrated into a first-yearhydrology course and may allow for a better understanding of distributed problem solvingtechniques in later undergraduate- and graduate-level engineering coursework.Objectives This paper presents the development of an instructional framework to assess student (learner)understanding of basic spatially distributed data sets and modeling within an undergraduatebiological and agricultural engineering course at Texas A&M University. The instructionalframework presented is contained within six core domains, which may be categoricallysummarized as: 1. Learning Challenge and Learning Objectives 2. Authentic
, and (2) Language is a powerful instrument forlearning. As William Zinsser notes, “Writing is how we think our way into a subject and make itour own. Writing enables us to find out what we know—and don’t know—about whatever we’retrying to learn.”1 This presentation examines a variety of creative and successful strategies forincorporating written, oral, and visual communications into engineering classes. It discusseshow engineering and writing/communications teachers can collaborate in helping students tomaster simultaneously the technical subject matter and communications tasks. This talk alsoassesses potential obstacles to an integrated approach.Although communications exercises and instruction can enhance teaching and learning, how
set definition that will satisfy everyone. Twodefinitions are listed below.In the National and Community Service Trust Act of 1993 , service learning was defined as“... a method under which students or participants learn and develop through activeparticipation in thoughtfully organized service that: is conducted in and meets the needs of acommunity and is coordinated with an elementary school, secondary school, institution of Page 5.542.1higher education, or community service program, and with the community; helps foster civicresponsibility; is integrated into and enhances the academic curriculum of the students or theeducational components of
development company.Ms. JoAnn M. Marshall, Cyber Innovation Center Page 25.867.1 c American Society for Engineering Education, 2012 Junior Cyber Discovery: Creating a Vertically Integrated Middle School Cyber CampAbstractThis paper describes an innovative partnership that was developed between high schools andtheir feeder middle schools in an effort to foster collaboration and mentoring among facultywhile immersing rising 7th grade students in a week-long, project-driven day camp to developinterest and skills in the fields of science, technology, engineering, and math (STEM). Themiddle school teachers received
Paper ID #41235Integrating Problem-Solving Studio into 75-minute Chemical Reaction KineticsSessionsDr. Huan Gu, University of New Haven I am an Assistant Professor in Chemical Engineering. I am teaching Chemical Reaction Kinetics, Chemical Engineering Thermodynamics, Process Analysis, Introduction to the Modeling of Engineering Systems, and Chemical Engineering Workshops. ©American Society for Engineering Education, 2024 Integrating Problem-Solving Studio into 75-minute Chemical Reaction Kinetics SessionsIn Fall 2021, I started teaching 75-minute Chemical Reaction Kinetics Sessions. By the end of theFall
larger complexity of future’s systems and the widespread inclusion of software in almost every type of engineered system built today and/or envisioned for the future.These facts prompted the engineering faculty at Embry-Riddle to seek a solution for theintegration of the related software engineering and systems engineering courses part of thegraduate engineering curriculum. The expected outcomes of this integration are: Page 24.127.4 • An increased exposure to the software engineering development methods and tools for the electrical and computer engineering, and potentially other engineering disciplines students who
) believed thathaving a research-oriented project in their undergraduate curriculum enhanced theirundergraduate experience which additionally supports the integration of research-orientedprojects into courses.Grade AnalysisThe percentage scores for each student’s course project that used a research-oriented topic in thespring 2017 CNIT 350 Object-Oriented Programming course and fall 2017 ITS 245 IntegrativeProgramming course are shown in Table 3. The percentage scores for each student’s course projectthat did not use a research-oriented topic in the spring 2015 and spring 2016 CNIT 350 Object-Oriented Programming courses are shown in Table 4. The ITS 245 Integrative Programmingcourse was not available prior to fall of 2017.The same research-oriented
Paper ID #11303Active Learning Games; Challenging Players’ Mindsets for Integrated ProjectDeliveryMr. David Wesley Martin, Central Washington University Certified Professional Constructor with twelve years professional experience in civil and construction project management encompassing over $100,000,000 worth of vertical and horizontal construction. An additional ten years involved in college level construction management instruction and administration including contract and project management techniques, estimating, disputes resolution practices, planning and scheduling, safety engineering, engineering practices, and
2006-2058: INTEGRATING FEEDBACK TECHNOLOGY INTO THEELECTRICAL AND COMPUTER ENGINEERING CLASSROOMCordelia Brown, Purdue University Cordelia M. Brown is a Visiting Assistant Professor in Electrical and Computer Engineering, and Engineering Education. She received her Ph.D. in Electrical Engineering at Vanderbilt University, her M.S. in Electrical Engineering at Vanderbilt University, and her B.S. in Electrical Engineering at Tuskegee University. Her research interests include assessment of instructional methods, laboratory design, collaborative learning, and retention and recruitment issues in engineering education.Monica Cox, Purdue University Monica Farmer Cox is an Assistant Professor
and the NationalInstitutes of Health in recent years 4, the research will soon make bio-based process engineeringcommon practice and will be required for all chemical engineering students. The interfacebetween biology/biochemistry and chemical engineering requires little additional basic science,but exposure of students to these topics may open up doors to achieve new products such asbetter sensing devices for poison monitors, optimizing fermentation and cellular bioreactors, andcreation of environmentally-sound energy alternatives. The biochemical engineering class, at its simplest, introduces concepts related tobiochemistry and brings together much of the chemical engineering curriculum so that studentscan see an important
this study was to understand how an integrated teaching model (e.g., science,engineering, and mathematics) influenced 5th-grade students' perceptions of their mathematicsand engineering abilities. We sought to answer the following research question using a sequentialmixed methods research design: how do 5th-grade students' mathematics and engineeringself-efficacy and instrumentality for abstract mathematics concepts change because of anintegrated teaching experience?We utilized self-efficacy [1] and perceived usefulness [2] frameworks to explore how studentsdevelop their perceived abilities and usefulness of mathematics through integrated instruction.Seventeen students from a Title-I elementary school worked in teams to design solutions
) began collaborating with the Business andTechnical Writing Program of the English Department to determine how to enhance writtencommunication within the civil and environmental engineering curricula. The effort resulted inidentification of a two-pronged approach: (1) a general attempt to integrate writing into thecurriculum during all four years of study; and (2) a specific effort to make the advancedtechnical writing course more discipline-relevant by piloting a case-based version tailored tocivil engineers. The remainder of this paper provides an overview of these two complementaryapproaches to improving the ability of engineering students to communicate effectively.Integration of Writing Into Engineering CurriculaAt UD, students in CEE may
different from what it used to be even four to fiveshort years ago. There are fewer, but riskier and more complex projects. The prevailingdifficulties of last several years have made it extremely challenging to succeed in the globaleconomy. It is anticipated, however, that the global construction output will recover to grow 70percent by 2025 – to $15 trillion.10 In view of aforementioned challenges and globalization, andin light of emerging construction technologies, the Construction Management (CM) Program inthe Lyles College of Engineering at Fresno State has recently revamped its curriculum to betterprepare future leaders of the construction industry. Accordingly, the CM program hasincorporated leadership and entrepreneurship development as an
integrated introductory Technology class are also enrolled in eitheran introductory Communication course or an introductory English course. Administrators fromeach department worked to develop initial outlines and structures that would facilitate curricularoverlap and connection across each trio of classes. Scheduling and classroom spaces werearranged so that each pair of courses (Technology and English, or Technology andCommunication) would meet consecutively once per week in the same shared classroom space.Instructors in each “trio” of courses were encouraged to collaboratively explore and implementeffective ways of reinforcing and integrating concepts and curriculum from the course they werepaired with in their own courses. This article reports