powered water pumps with specified head and flow rate in the spring and fallsemesters of year 2001. The project outcomes are elaborated from the perspective ofKolb’s experiential learning cycle. The assessment techniques and their strengths andweaknesses are also discussed.I. IntroductionEmerging trends in engineering education facilitated by the Engineering Criteria2000(EC2000) developed by the Accreditation Board of Engineering and Technology(ABET) 1 is encouraging integration of design throughout engineering curricula includingthe freshman and sophomore years 2, 3 . It is also promoting a holistic integration of 'soft'and 'technical' skills encompassing academic knowledge and life skills consistent with theengineering profession.The
stronger technical background. Work on this project is continuing with additionalcourses at the participating universities, and with additional university partners. This additionaldata will allow the researchers to investigate whether these patterns continue to hold.IntroductionA number of studies have assessed the value of including failure case studies in the civilengineering curriculum. It has been argued that failure case studies should be integrated into theengineering curriculum, early enough in order for young professionals to connect with theproblems encountered by engineers and perhaps trigger interest, excitement, and relevance of theprofession. In other words, exposing students to factors that result to failure and disaster canhelp them
concentrations thatrequire one or more of the courses that use the simulation approach: OrganizationalManagement, Project Management, Project/Organization Management, Technical InnovationManagement, and Quality Management. The simulation approach courses are also electives forthe Master of Science in Systems Engineering.Project ManagementThe first course in which the student encounters this simulation is entitled Introduction to ProjectManagement. In this course, the students learn about planning, organizing, and monitoring aproject. The scenarios involve the sequences of activities involved in bringing a new project intoAVI. Each student takes on the role of the manager of this new project and learns about all theactivities and interactions with others
Session 3220 Tele-experimentation: The Emerging Approach to Science and Engineering Lab Education Bill Diong*, Miguel Perez** and Ryan Wicker** *Department of Electrical and Computer Engineering **Department of Mechanical and Industrial Engineering The University of Texas at El PasoAbstract A project has been initiated to enable students and researchers to conduct Science andEngineering (S&E) experiments via the Internet as an answer to the dual needs for improveddistance education in those fields as well
Session 2793 USMA Regionalized Drinking Water Treatment Facility Multidiscipline Capstone Ronald W. Welch, Steven D. Hart United States Military AcademyAbstractLast spring, 95 civil (CE) and environmental (EV) engineering majors in the ABET-accreditedCE and EV programs at the U.S. Military Academy (USMA) worked on a multidisciplinarycapstone project to design a regionalized drinking water treatment facility for West Point andsurrounding communities. This paper assesses the project through student comments andinstructor evaluations. The one-semester
with a brief review of commonproblems in conducting such a course.The paper also examines the software tools and hardware that is used to teach the students. Abrief overview of the software tools for authoring and editing different media types is presented,along with hardware issues. In summary, student responses and examples of student projects aregiven. The overall responses were found to be positive with strong approval to the inclusion ofstudent projects.I. IntroductionDuring the past decade, the Internet has grown into a potent medium for disseminatinginformation. The proliferation of the World Wide Web (WWW) in particular, provides a fertilemedium for interaction between instructor and student. A case in point is the multimedia
Session 1526 Professional Design Laboratories: Bridging the Gap Between Classroom and Industry in the Senior Year Allan R. Hambley, Noel N. Schulz, Martha E. Sloan, Jon A. Soper, David Stone, Dennis O. Wiitanen, Robert E. Zulinski Michigan Technological University James C. Rogers California Maritime Academy This work is supported by the NSF ILI-LLD Program.The Electrical Engineering Department at Michigan Technological University is integratingsenior design projects with its elective
the student's educational journey, supported by testimonialsand educational insights from the academic advisors, illustrating the pedagogical value and theinnovative potential of hands-on, goal-oriented academic projects.IntroductionThis paper delineates the efforts of an engineering student in advancing the endurancecapabilities of small multi-rotor autonomous aircraft, herein referred to as Unmanned AerialVehicles (UAVs). This ambitious project began with the innovation in rotor-prop design andadvancing through a comprehensive model for predicting UAV endurance. This evolved into aseries of aircraft concept generations, ultimately leading to the final design that promises toredefine industry benchmarks.The realm of small multirotor
course was developed based onthe seven different process categories of AM. There are three parts to this course: (a) introductionto seven different AM process categories (b) generative design for AM, and (c) design-manufacturing-testing project. Early in the semester, students were introduced to materialextrusion AM and the generative design module of Fusion 360 CAD software. In parallel to theregular in-class meeting for seven different AM processes, students were tasked with self-pacedgenerative design for AM-based course modules. In the mid-semester, a comprehensive guidelineand rubric of design, manufacturing, and testing (DMT) based projects was provided to thestudents. Due to the availability of low-cost material extrusion 3D printers
interests include transfer student information asymmetries, threshold concepts, curricular complexity, and advancing quantitative and fully integrated mixed methods. ©American Society for Engineering Education, 2024Work In Progress: Influences of Team-Based Activities on Engineering Students' Identities and Careers in University and Co-op Settings AbstractThis work-in-progress (WIP) paper describes preliminary analyses for a qualitative study aboutthe impact of team-based project participation on two constructs: (1) engineering students'professional identities and (2) career goals. In this paper, we describe how we are leveragingexisting data from
Engineering (M.S. 1985 & PhD 1987 in Civil Engineering, University of Illinois). He has led and worked in many projects in structural and agricultural engineering and materials. He has published over 160 papers in refereed journals and proceedings of international congresses. He has gained a great deal of experience and demonstrated efficient management skills as being coordinator of 3 LLP projects and 16 EU research projects. He has published 25 papers in the field of Agricultural and Biosystems Engineering studies in Europe (http://www.erabee.aua.gr/).Prof. Francisco Ayuga, BIPREE Research group, Universidad Politcnica de Madrid Catedrtico (Professor) since 2002, previously Profesor Titular (Associate Professor) since
methodologies that willbenefit them as they encounter open-ended problems that can be conveniently answered using afew equations. A course developed at the University of Michigan exposed upperclassmenundergraduates in a wide range of engineering majors to a vast array of ideas to develop theircreativity, to enhance their problem solving abilities and to make them aware of issues they willmost likely confront in the workplace. The use of real-world examples, guest lectures fromindustry and a course project allowed students to directly apply the problem solving heuristicdiscussed in lecture and recognize that these concepts are not solely academic and can be used intheir daily lives. Initial feedback from the students has indicated that the students have
new learner and/or learning-centered platform of delivery.1 Researchstates that the unilateral dispensing of knowledge is an ineffective method for enhancing student learning.Supporting this finding about learning requires educators to confront how they think and to redesign what they do asa result. The shift from the lecture-based, passive-learning model to a learning-centered system of learning does notjust happen. It requires a purposeful faculty development project that challenges instructors to commit to positivechange. Such change in the classroom creates active involvement, student interaction, and intellectual engagement.Additionally, implementing new pedagogy will empower students to become actively involved in the class. But
Body of Knowledge: Ethical Responsibility in Engineering and Construction Education and National/Global Professional Bidding Practice Enno “Ed” Koehn, Hani Tohme Lamar University/City of Beaumont Water Utilities DivisionAbstractThe efficient management of the cost and duration of a project involves the utilization of aproductive labor force. This is true in both economically developed and developing countries. Itis important, therefore, that ethically responsible decisions are required of project personnel.Some areas throughout the world, however, are experiencing a problem with ethics andcorruption. Numerous firms, agencies, individuals, and
Session 1520 Asynchronous Communication Between Network Processes Sub Ramakrishnan, Mohammad B. Dadfar Department of Computer Science Bowling Green State University Bowling Green, Ohio 43403 Phone: (419) 372-2337 Fax: (419) 372-8061 email: datacomm@cs.bgsu.eduAbstractThis paper concerns a project that provides hands-on exposure to students of a typicalundergraduate data communication course. The project is implemented in C++. However, it isapplicable to other
to assist in the development of multidisciplinary design teams for projects inthe four departments. Student grades were based upon attendance (a 5% loss per missedclass) and a single end of semester term paper on one of several presented topics.We reported last year1 on the initial results from that course structure. Students did notjoin multidisciplinary teams in significant numbers (BME’s 64 students gained only 4outside majors, in exchange for 2 working on other major teams, for example.) Studentsresented the use of a sign-in sheet, and often would sign in and leave prior to a lecture.An end of term special student survey was done to elicit advice regarding this year’soffering.Major changes were instituted this year. Attendance was taken
integrated in an environmentalengineering curriculum, how service learning can be a valuable tool in educating tomorrow'sengineers, and how service learning can be beneficial to the communities and the academicinstitution(s) involved. The experiences of Tufts University are used as specific examples of how communityservice learning has enriched the traditional environmental engineering curriculum. Whetherapplied in courses, in student-driven or university-funded initiatives, or in independent projects,community service learning has benefited students, the instructors, and participatingcommunities. As a result, community service learning projects carry more meaning andencouraged greater learning because they involve a real problem
Session 3160 Ohio University’s Global Learning Community Brian Manhire, Gregory A. Emery, David H. Mould, Carey M. Noland Ohio UniversityAbstractAn overview of Ohio University’s Global Learning Community (GLC) is presented from the perspectiveof contemporary engineering education. The GLC’s multidisciplinary approach to studying internationalthemes in a global context through its pedagogy of project- and team-based learning is described in re-lation to recent changes in ABET requirements (EC2000) for accrediting undergraduate engineeringeducation programs. Programmatic challenges
, were committed, as well. Although problem-based learning isa key feature, it is not the organizing principle of the curriculum. The new aerospacecurriculum is set in a real-world engineering context of a complete product life cycle, i.e.,conceiving, designing, implementing, and operating (CDIO), with design-build experiencesintegrated throughout the program.Design-build experiences are sequenced from more simple projects to highly complexsystems. In an early freshman-year experience, Introduction to Aerospace and Design,students design, build, and fly radio-controlled lighter-than-air (LTA) vehicles. In thesophomore-year Unified Engineering course, students design, build, and fly radio-controlled electric propulsion aircraft. In an advanced
Ocean University of Qingdao, Qingdao, China 266003IntroductionScientific research and technological enterprise are increasingly global. It is important to provideopportunities for engineers and scientists to develop the international experience and capabilitiesat early stages in their careers. This paper presents the experience from a NSF-REU (ResearchExperience for Undergraduates) Program on Marine Science and Engineering in China. Thisprogram is the first REU Program in China sponsored by the NSF Division of InternationalPrograms. Over 30 students from different universities across the United States participated inthis Program in the last two years. The students spent 10 weeks during the summer in China toconduct research projects under the
watershedadjacent to campus. When complete, the network will include six permanent stream gagingstations, two wellfields, and two weather stations. The project is a cooperative effort betweenengineering and geoscience faculty at LC; however, others may use the publicly accessibleweb database under development. We are incorporating a series of field-based exerciseswithin existing civil engineering and geology courses, and encouraging students to pursueundergraduate research projects and honors theses using the equipment and data. In addition,we are working in close cooperation with community groups such as the Bushkill StreamConservancy and the Jacobsburg Environmental Education Center. Some of the interestingfeatures of our project are: (1) the
University of Idaho, the Land-Grant College for the State of Idaho, and worked as an engineer in design offices and at construction sites.Dr. Michael Puddicombe, Norwich University Page 23.1175.1 c American Society for Engineering Education, 2013The Confluence of Information:Teambuilding is not enough to produce successful interdisciplinary teamsIntroductionMulti-disciplinary collaboration is recognized as a requirement for superior performance in therealization of projects in the built environment1. However, due to their different “thoughtworlds,” collaboration between professionals from different
ATTRACTING YOUNG MINDS TO ENGINEERING TECHNOLOGY FIELDS WITH MOBILE RENEWABLE ENERGY EDUCATION Faruk Yildiz fxy001@shsu.edu Sam Houston State University Huntsville, TX 77341AbstractVarious ways to attract young minds to STEM fields have been implemented bynon-profit organizations and institutions through volunteer work or funding.Mobile Renewable Energy Education (MREE) is a long term project aimed toprovide area (especially rural) K-12 students and teachers with an appliedmathematics, engineering and science curriculum package based on Photovoltaic(PV), wind power, energy conversion and
rural places are oftendescribed by their deficits (Reagan et al., 2019), this study operationalizes place-based pedagogyand the theoretical framework of rural cultural wealth (Crumb et al., 2022) to conceptualize andengage rural places from an asset-based perspective. We believe rural places can be richenvironments for engineering and science learning. Therefore, we aspire to support high schoolstudents with the development of soil or air quality inquiry projects that are relevant to their localrural communities. Situated within a larger study on the SCENIC outreach program and itsimpact on student participation in and identification with engineering and science, this paperfocuses more narrowly on place-based engineering with students in the
how it might influence their responses.These questions, such as hometown and high school size, provide context and are summarized inTable 1.The questions related to academic coursework aim to uncover the classes and specific learningexperiences that participants find valuable, both within their team projects and in their futurecareers. For the latter, the focus is on how these classes contribute to their professionaldevelopment, including internships or other professional roles.Team-oriented questions seek to extract important experiences and skills gained fromparticipating in their respective teams. This could include problem-solving approaches, valuableexperiences, or new skills acquired. Similarly, as with the academic curriculum questions
reading of bothtext and peer-reviewed articles, research projects, and presentations. The classes addressmultiple general education requirements while offering enlightenment and understandingof engineering systems, engineering principles, and design.IntroductionEngineering curricula centers upon the training and development of engineers and followsa cloistered academic approach. Rarely can anyone outside the discipline take engineeringcourses. ABET further reinforces this approach in order to maintain rigor and consistencyin the delivery of course work. Coupled with traditional academic boundaries, a generallack of understanding exists by the general public about engineering systems, basicscientific/engineering principles, and engineering design
available, the introduction to engineering concepts, and informs them ofthe attractive opportunities available at Lehigh University. The goals are accomplished throughpresentations from each engineering department, two projects in specific departments, andlectures from various experts. The course is lead by Professor Keith Gardiner who organizes thelecture sessions, while the projects are overseen by key faculty members from each of the sevendepartments in the P.C. Rossin College of Engineering & Applied Science: ChemicalEngineering (CE), Civil and Environmental Engineering (CEE), Computer Science andEngineering (CSE), Electrical and Computer Engineering (ECE), Industrial and SystemsEngineering (ISE), Materials Science and Engineering (MSE
management of alarge engineering projects. The main concept in systems engineering is to design, build, and testwith documentations so others can track the project. In systems engineering process, the customergenerates the user requirement. Then concept of operations describes the overall design criteria.Trade Studies leads to the selection of system, subsystem, and components. Design document is acritical part to the systems engineering process. Here one lay outs the detailed design of thesubsystem and system. Design reviews are held after the design is completed. Interface ControlDocument details the layout of how all the subsystems will connect. Finally, the Test Plan validatesthe subsystem and system. After the user requirement and
1. Objectives: Villanova University’s (VU) College of Engineering has taken a fresh toll on how freshmen can be more integrated into exploring the various disciplines in engineering through engagement in hands-‐on – or what we call experiential -‐ engineering projects. The two-‐semester program is structured to provide freshmen with the basic fundamentals in engineering while incorporating micro-‐projects outside the classroom followed by
1. Objectives: Villanova University’s (VU) College of Engineering has taken a fresh toll on how freshmen can be more integrated into exploring the various disciplines in engineering through engagement in hands-‐on – or what we call experiential -‐ engineering projects. The two-‐semester program is structured to provide freshmen with the basic fundamentals in engineering while incorporating micro-‐projects outside the classroom followed by