Session 2425 An Experiment in Product Innovation and Design in a Mechanical Engineering Capstone Experience Stephen M. Batill University of Notre DameAbstractProduct design is inherently a collaborative, multidisciplinary activity that is influenced bynumerous issues and it can be accomplished using many, very different approaches. This paperdescribes a number of pedagogical changes associated with a capstone design class inMechanical Engineering that is intended to simulate the product development process as itoccurs in industry. The changes from
Paper ID #33415Assessing ABET Student Outcome 5 (Teamwork) in BSME Capstone DesignProjectsDr. James A. Mynderse, Lawrence Technological University James A. Mynderse, PhD is an Associate Professor in the A. Leon Linton Department of Mechanical, Robotics, and Industrial Engineering at Lawrence Technological University. He serves as director for the BS in Robotics Engineering and MS in Mechatronic Systems Engineering programs. His research interests include mechatronics, dynamic systems, and control with applications to piezoelectric actuators, hysteresis, and perception. He serves as the faculty advisor for the LTU Baja SAE
engineer, engineering educator, engineering educational researcher, and professional development mentor for underrepresented groups. ©American Society for Engineering Education, 2024 The State of the Art of Workforce Development for Engineering GraduatesAbstract:Ph.D. graduate students in engineering are being hired by industry at higher rates compared toinstitutions of higher education. Despite this industry preference, higher education institutions,which traditionally prepare graduate students, are not equipping Ph.D. engineering students totransition to the workforce. Therefore, to better prepare our engineering graduate students, we muststart by understanding the current state of Ph.D. professional
, perceive, prioritize, and try to mitigate their risks over multipledevelopment cycles. In this paper, we report the data collected and analyzed in two semesters ofa junior-level software engineering course where undergraduate students were working in agileteams to deliver 4 major working increments per semester (62 students developed Eclipse plug-ins in one semester and 103 students developed Android apps in the other). In both semesters, wefound that not only were our students’ perceived top-ranked risks remarkably different fromwhat were previously published (including the industry-surveyed checklists in the 1990s and2000s, as well as the ones collected from a graduate-level course), but the risk managementstrategies adopted by our students were
development of space hardware; ‚ be able to work in multifunctional teams.Interfacing with Penn State Research Interests Page 13.1253.11As the Lab matures, interfacing with researchers and organizations previously unaffiliated withSSPL will create additional opportunities for collaboration. This collaboration typically is in theform of relationships within Penn State, partnerships with other universities, and cooperationwith industry sponsors. SSPL has made several significant efforts to maintain and improve thesecollaborative relationships.The Center for Space Research Programs (CSRP) has been established in order to capitalize onthe resident
two disciplines indifferent fashions, the study revealed that only 46% of graduates felt their education preparedthem for the collaborative nature of the industry. The study concluded that the most importantstep toward resolution of this issue would be getting the construction industry to acknowledgethe incidence of this problem in current methods of communication. Changes in education arealso advocated as highly desirable, even if they will inevitably require a period of time beforethey are assimilated and begin to impact the construction industry.There has been a number of successful recent efforts aimed at integrating these two disciplines ineducation. For example, Tran et al (5) developed a two-week intensive course for architectureand
Awards/ Ann. Budget Duration Cycle Proposals ($ millions) (years) (years)Science and Technology Center (STC) 4/259 5 5+5 2-3 OIA: D. Brzakovic, dbrzakov@nsf.govEngineering Research Center (ERC) 4/170 4.25 5+5 2 ENG/EEC: K. Roper, kroper@nsf.govNSF Research Traineeships (NRT) 8/na 0.6 5 1 EHR/DGE: R. Tankersley, rtankers@nsf.govEmerging Frontiers in Research & Eng. (EFRI) 9/na 0.5 3 1 ~ ENG/EFRI: S. Rastegar, srastega@nsf.govScience of Learning Collaborative Network (SLC) 13/na
Computational Science division was made.Faculty and student research assistants at AAMU were also supported to participate inseveral NASA’s conferences, ORNL annual high performance computing workshop, andAAMU business and industry cluster conferences. As a by-product of this DOE sponsoredproject, a joint research proposal with University of Alabama at Birmingham was submitted Page 12.671.4to National Science Foundation in June, 2003. A collaboration research proposal with NASAand Industry was submitted to US Army Missile Command in April 2005 and wassuccessfully funded.DOE Computational Science ScholarshipIn the academic year of 1999, AAMU created a DOE
NSF’s Eddie Bernice Johnson INCLUDES Accelerating Latinx Representation in STEMEducation (ALRISE) Alliance is a national network of local and regional HSI educators andpartners across 22 higher education institutions with over 220 members, industry, andcommunity partners who collaborate and use culturally-responsive experiential learning toincrease Latinx STEM student success. Designed as a collaborative change framework in aNetworked Improvement Community (NIC), ALRISE addresses the persistentunderrepresentation of Latinx students in STEM by monitoring and assessing institutional,regional, and alliance-level data for the generation, evaluation, and continuous improvement ofculturally responsive experiential learning opportunities.The Ecosystem
deepening the mechanism of collaboration between schools and enterprises in education, relying on the advantages and resources of industrial enterprises, and providing more students with opportunities for
of activities related to the design and delivery ofeducational and research efforts and is characterized by three main innovative componentsnamely, 1) a new industry-university collaborative model for integrating basic and appliedresearch into a degree program, 2) creation and delivery of state-of-the-art course content andappropriate laboratories, and 3) creation of capstone projects that are implemented throughinternships.The curricular project involves the synthesis of the core of an embedded systems program basedon the latest research and close cooperation with industry. The content of the program drawsheavily upon advanced research and development in industry and academia and are reinforced by1 This research supported by NSF
,designprojects, and individual development. Accordingly, engineering curriculum is changing from disparatecourses reform and update to integrated curriculum design, which is facilitating collaboration acrossmajors,disciplines,anddepartmentsinconcertwithstudents’technicalandnontechnicalskillstoidentifyanddesigninnovativesolutionstosocietalproblemsandchallenges.2.2.RecentengineeringeducationinitiativesinChinaSignificantmilestonesofengineeringeducationinChinaoverthepasttwodecadesincludelaunchingthePlanforEducatingandTrainingOutstandingEngineers(PETOT)since2010,becomingsignatorymemberoftheWashingtonAccordin2016,theNEEinitiativewhichisconsideredasupgradedversionofPETOTin 2017, the SFT initiative and College of Modern Industry (CMI) initiative in 2021, and
the School of Engineering at Southern Illinois University Edwardsville (SIUE)as a case study, this paper explores how engineering codes and standards are included inacademic curricula, and suggests ways academic institutions can collaborate with professionalsocieties and industries as well as government agencies to further the exposure of futureengineers to engineering codes and standards.2. Incorporating Codes and Standards in Curricula2.1 Where to Find Codes and Standards? Library Student Lectures Professional Societies Codes and Standards World Wide Web Figure 1 Student’s paths
approach as wellthe value of applying knowledge, tools and techniques in real-life settings.The support provided by CCAT / NALI has been a great catalyst to establish and enhanceuniversity – industry collaboration. Everyone benefited from the collaborative workpresented in this paper. The industry sponsors of the projects especially benefited fromthis relationship by getting the results of the work compiled by the student teams withfaculty supervision at no cost to them. In mega organizations such projects are typicallydone by in-house engineers/analyst on their payroll costing the company a considerableamount. In the case of smaller companies such projects do not get done or in certain casesthey are done by consultants at significant cost to the
approach as wellthe value of applying knowledge, tools and techniques in real-life settings.The support provided by CCAT / NALI has been a great catalyst to establish and enhanceuniversity – industry collaboration. Everyone benefited from the collaborative workpresented in this paper. The industry sponsors of the projects especially benefited fromthis relationship by getting the results of the work compiled by the student teams withfaculty supervision at no cost to them. In mega organizations such projects are typicallydone by in-house engineers/analyst on their payroll costing the company a considerableamount. In the case of smaller companies such projects do not get done or in certain casesthey are done by consultants at significant cost to the
approach as wellthe value of applying knowledge, tools and techniques in real-life settings.The support provided by CCAT / NALI has been a great catalyst to establish and enhanceuniversity – industry collaboration. Everyone benefited from the collaborative workpresented in this paper. The industry sponsors of the projects especially benefited fromthis relationship by getting the results of the work compiled by the student teams withfaculty supervision at no cost to them. In mega organizations such projects are typicallydone by in-house engineers/analyst on their payroll costing the company a considerableamount. In the case of smaller companies such projects do not get done or in certain casesthey are done by consultants at significant cost to the
Paper ID #33975Understanding Remote Student Motivation in Hybrid and Remote Engineer-ingLab ModesDr. Rui Li, New York University Dr. Li is a visiting industry assistant professor at Tandon School of Engineering, New York University. He earned his master’s degree in Chemical Engineering in 2009 from the Imperial College of London and his doctoral degree in 2020 from the University of Georgia’s College of Engineering, where his research involved using smartphones, wireless sensors, and 3D printing to create low-cost MRI/CT compatible sur- gical devices. His current research interests are student motivation, active learning
acquired in previous courses. This is particularly important in thecontext of an integrative subject, which can be effectively applied in the Final ConstructionEngineering Portfolio Course.In this approach, the teacher acts not only as an information transmitter but as a mediator,facilitating active knowledge construction through collaborative interaction between teachersand students [11,13]. Considering the study by Okere and Giroux [14] in the specific workfield of construction engineering, it establishes that the case study methodology canpositively impact the training of future engineers, as it exposes them to situations required bythe industry. Additionally, students will develop problem-solving skills, teamwork, andcritical thinking
perform theirsenior design projects is currently being studied, and the preliminary assessment is presented inthis paper.Senior ProjectAs part of the engineering curriculum in the Department of Mechanical and AerospaceEngineering at San Jose State University, all students majoring in mechanical engineering arerequired to enroll in the Senior Design Project course in their senior year. The goals of thiscourse are to provide students with the opportunity to experience project management such asplanning, budgeting, part procurement and scheduling, to appreciate teamwork and collaboration,and to learn the design process from concept generation to prototype fabrication and validatio nof the final design. The proposed design project must be practical
the qualities mentioned above, the Biomedical EquipmentTechnician (BMET) has also been called upon to demonstrate expertise in the area ofInformation Technology. This paper will discuss the method used at Cincinnati State Technicaland Community College (Cincinnati State) to accomplish this goal.BackgroundWe made a commitment to Information Technology education at Cincinnati State, which is inline with the Information technology initiative in the State of Ohio entitled “Itworks.Ohio”. [1]“Itworks.Ohio” is a collaboration of business, industry, and educational institutions to providetraining in information technology. This commitment made it much easier to provide theinformation technology training required in the Biomedical program. We were
importance when generating geometries of higher complexity. In a later study[15], we developed fine-tuned models based on GPT-3.5 for CAD generation tasks and open-sourced our dataset and experiments for broader dissemination.Broader ImpactsTwo major steps towards creating broader impacts include a workshop and collaboration withadditional institutions to conduct educational research and implement the developed curriculummaterials. First, we teamed with industry partners PTC Inc. to organize and host the GenerativeDesign in Engineering Research and Education Workshop at the company headquarters inBoston, MA [16]. Workshop goals were to: 1) discuss methods for teaching GD, 2) exchangeideas on GD curriculum development, and 3) boost collaboration
is paramount for software engineers to develop the skills and background necessaryto effectively work, communicate and innovate on an international scale. Employers’expectation for collaboration with international counterparts is an increasing computing industrystandard. The effects of the globalization have been felt in the software engineering arenathrough software engineering projects realized by diverse professionals located in differentcontinents with different industrial background, culture, time zone, and language. 1-2International student exchange programs provide educational, personal, and long-term benefits. Page 26.1387.2As a result
for further study. In the final part of the paper I discuss a “contractarian” theory of the good of publicizing differences in norms. This approach, which is inspired by the political philosophy of John Rawls, can be seen as an alternative to a “conventionalist” understanding of science and engineering ethics. Introduction Ethical issues associated with the integrity of science and engineering include the falsification of experimental results, fabrication of data, conflicts of interest in industry-‐funded research, plagiarism, and improper attribution of authorship for collaborators, to name just a few. All of these factors threaten the
of mechatronics stands as aparticularly notable example of this ever-rising collaboration in industry. We adapted theprinciples of mechatronics as a multidisciplinary field into the first-year engineering curriculumthrough a hands-on activity. Mechatronics-based activities have been studied for a range ofapplications such as in developing entrepreneurial mindsets [1] or to analyze and reduce genderdisparities in engineering fields [2].However, we aimed to uniquely create and implement such an activity in a manner emphasizingthese fundamentally collaborative outcomes to equip future generations of engineers. Wedeveloped a novel mechatronic arm construction activity complete with a supportinginstructional manual and questionnaire targeting
a frequent presenter and publisher on internationalization, strategic planning, globally focused academics, and Collaborative Online International Learning (COIL). Carrie is a 2019 Fulbright recipient and holds an Ed.D. in the Design of Learning Environments from Rutgers University.James Tippey, Excelsior College ©American Society for Engineering Education, 2025 Technology and Society Incorporating ethics, inclusive belonging for excellence, and societal understanding into computer and technology and engineering education curriculum design(2025). CoNECD Conference, February 9-11, 2025, San Antonio, TX Session Outline
professional development model as a lens.Participants were nine sixth grade science teachers from three rural and Appalachian schoolsystems who engaged in the first year of the VT-PEERS project. The participants wereinterviewed prior to the first intervention activity, at the end of the first academic year, observedduring interventions, and asked to fill out an online questionnaire to capture their demographicinformation. The interviews lasted approximately 30-minutes. Pertinent questions for thisanalysis were: “What influenced your decision to participate in this project?”; What role(s) doyou expect to have during this collaboration?”; “What role(s) do you expect other partners(Industry or University) to have?”Through open coding (Miles, Huberman
though there are norequirements for 8XXX courses, MEng students who meet the course prerequisites for 8xxxcourses in Electrical and Computer Engineering, Engineering Management, Geologic Sciences,and Computer Science will be encouraged to include these courses in their degree program.**** Courses selected in collaboration with the Departmental Advisor.All MEng Graduate Students will have a Departmental Advisor. Non-faculty, includingmembers of the industrial community, are invited to collaborate and work with the student andDepartmental Advisor.Any project report or presentation requirement within the 3-6 credits of the engineering courseproject are at the option of the Departmental Advisor and Department.Admission requires that an applicant has
the students would not receiveacademic credit for their efforts. This collaboration has proven to be very successful not only forthe students involved, but also for REMC, CCISD, Michigan Tech University, and thesurrounding community.Although this service-learning agreement between Michigan Tech and REMC is still in itsadolescent stages, many benefits have been already realized. The students involved havereceived positive industry experiences by working within an environment directly applicable totheir major of study. For example, CNSA students played a large role in the centralizationproject for REMC by: developing sufficient redundant storage area drives and scripts for eachschool to back up the schools’ data both centrally and automatically
project are as follows:1. Does the Teachers in Industry: K-12 Teacher Internship Program change teaching practices to increase the classroom use of the engineering design process?2. Does the Teachers in Industry: K-12 Teacher Internship Program change teaching practices to increase the classroom use of STEM learning concepts?Program DescriptionThe Teachers in Industry: K-12 Teacher Internship program places in-service K-12 teachers intoa 4-week industry work experience in a company that specializes in engineering and problemsolving processes. This experience was designed to give traditionally licensed classroom teachersan opportunity to experience how corporations are currently using the engineering design processand 21st century skills to
Paper ID #37599Does Engineering need Technological Literacy? DoesTechnological Literacy Need Engineering?Mani Mina Mani Mina is with the Departments of Electrical and Computer Engineering and Industrial Design at Iowa State University © American Society for Engineering Education, 2022 Powered by www.slayte.comCurricular Reciprocity: Do Technological Literacy and Engineering Mutually Need Each Other?Background: This paper reviews a pedagogical journey teaching Technological Literacy classesfor over ten years in Colleges of Engineering and