areas of interest in teaching and research include ergonomics, statistics, and work design. She also serves as the treasurer for the Industrial Engineering Division of ASEE. Page 11.1327.1© American Society for Engineering Education, 2006 The Role of Industry in Supporting Education in Environmentally Responsible EngineeringAbstractAchievement of a sustainable future implies a collaborative effort between a variety ofstakeholders including industry, government, and academia. We are traveling in unfamiliarwaters where the course is not always clear and the goals are sometimes daunting. To
2006-2412: THE SOFTWARE ENTERPRISE: FACILITATING THE INDUSTRYPREPAREDNESS OF SOFTWARE ENGINEERSBarbara Gannod, Arizona State UniversityHarry Koehnemann, Arizona State UniversityKevin Gary, Arizona State University Page 11.1331.1© American Society for Engineering Education, 2006 The Software Enterprise: Facilitating the Industry Preparedness of Software EngineersAbstractThe traditional software engineering instruction model asks students to first take survey-of-the-field style course that exposes them to a breadth of software engineering practices and processesbut typically lacks depth in any given area. The results are students who can
. Globally, RI developsintellectual capital through collaborations with industry, government and academia. Newbusiness and research ventures, university partnerships with regional and national enterprises,and RI spin-off companies all draw research and businesses to the region and spur economicgrowth. RI also offers affordable space to start up companies on the university campus so thatthey can associate with faculty researchers and employ students.Leadership AcademyThe Leadership Academy is a program designed after several leadership programs found inindustry. Several large local companies were instrumental in helping us establish this uniqueeducational experience for our undergraduate students who are seeking to explore the variousleadership
Institute. Current efforts in sustainable knowledge transfer are focused in the planning, design, and construction of a Polytechnic school in rural East Africa (Sam, Tanzania). The project is a collaboration of the people of Sam (Headed by the Catholic Diocese), Cal Poly SLO (headed by Baltimore), NGO (the Mbesese Initiative), and industry (Arup Los Angeles).Dr. Allen C. Estes, California Polytechnic State University Allen C. Estes is a professor and Head for the Architectural Engineering Department at California Poly- technic State University in San Luis Obispo. Until Jan. 2007, Estes was the Director of the Civil En- gineering program at the U.S. Military Academy (USMA). He is a registered Professional Engineer in
accomplish. This industry-UI collaborative effort is mutually beneficial: project sponsors receive the benefits of the students' efforts, the students work on practical engineering design projects, and course requirements are met. A side benefit is that both theHere’s a bright idea … for exploring a technical company and the student get a chance to view onedevelopment, or creating a new application … another in a “pre-employment” setting. Projects are identified through discussions between the
, collaborative project management structures, and further advances in information technologies. 2. Globalization of the construction industry, as well as the outsourcing of services and global teams 3. Heightened global awareness of, and demands for, enhanced sustainability approaches and methods including green building and sustainable construction practices.The authors are involved with a Construction Industry Institute research project to identify andevaluate the skill sets that future construction industry graduates will need in the 2015timeframe—as well as the potential barriers that academic program may encounter to adequatelyteach the identified skill necessary for new employees in 2015 and beyond. The objectives of
Engineering Seminars Subcommittee: ASCE WV Section and WVSPE EXPO is an annual trade show in West Virginia for the construction, engineering andarchitectural industries. While many specialty groups and trade associations provide professionaldevelopment opportunities at EXPO, the ASCE WV Section and WVSPE have collaborated toschedule and host a number of continuing education activities at this annual event. Again, highquality continuing education is provided at a cost of approximately $20 to $25 per PDH. West Virginia Training Network Recognizing the crucial need for a trained workforce at all levels, West Virginia hasinvested in the development of a trained workforce through the
Engineering Education, 2024 Industry Perspectives on Professional and Design Skills of Bioengineering Senior StudentsAbstractProfessional and design skill development is an essential part of engineering education [1], yet,according to industry feedback, many students struggle to satisfactorily develop these skillsduring their time as undergraduates [2], [3]. Despite numerous approaches to improve students’preparedness for the work environment through academia-industry collaborations (see [4]), theperceptions of industry experts on strengths and weaknesses of current senior engineeringstudents remain widely unspecified in the literature. In this work, we are using a systematicapproach and framework to examine the
demonstration of their work.The purpose is to design a team poster that will be used to introduce a new audience to the MEprogram, projects, and students. It also encourages teams to give explicit thought to what theyare accomplishing. Furthermore, it provides experience with a different form of communication:presenting the work in a largely graphical form and discussing the project with a small audience.ConclusionsThe mechanical engineering program has introduced successful industry-sponsored projects intoa capstone design course. The collaboration with industry has improved and enhanced theacademic excellence and integrity of the program. This initiative has raised over $20,000through company gifts in the first year that has been used to support
educational theories. © American Society for Engineering Education, 2022 Powered by www.slayte.com BIM: A Bridge to Promote Industry-Academic Partnership in Construction EngineeringKeywords: BIM, Industry-academic partnership, Construction engineering, Work-IntegratedLearning, graduate education.AbstractThis article reports on student perceptions of an innovative graduate construction engineeringcourse using BIM and industry-academic collaboration with extensive construction siteinternships. The course, Building Information Modeling (BIM) in Construction, was designedand implemented to help students develop deep BIM learning and allow them to apply
timeframe. The COT and CBIA partnership has allowed both secondary teachers and two and fouryear higher education faculty to gain experience and develop curriculum in cutting edgetechnologies. As a result, the COT is the statewide vehicle for creating a technological workforcethat responds to workforce needs in the region.CBIA and the COT were also partners on a previous ATE curriculum development grant. Thisgrant gave CBIA the opportunity to work with dedicated teachers who understood theimportance of learning technology through industry collaborations. Continuing that partnership,CBIA took the lead position, collaborating with CCOT in proposing the ATE professionaldevelopment grant, which was awarded in 2002. This partnership was an important
elementary level that incorporated both mechanical and industrial engineering components. 4. Amount of time required for the two faculty members and two graduate teaching assistants to coordinate all facets of the course including collaborative syllabus, design exercises, grading, etc. 5. Size of the classes - two ME classes with approximately 30 students each, and the IE class with 33 students. 6. Assuring the two student groups (IE and ME) understood each other’s field and respected each other’s contributions. (This also applied to the faculty teaching the course.) 7. Incorporating a heavy written and oral communications component into the course to begin to address the assessment concerns involving lack of
between application and science. Many students coming out of traditional Page 15.102.14engineering programs are not at a sufficiently high level of expertise to contribute to engineeringscience, but lack sufficient grounding in practice to be prepared to innovate beyond industrystandards.Universities must offer students an avenue of study that better empowers them to work aspractitioners in industry. Through collaboration with industry, expectations of what is possiblemust be raised. Traditional industries must redevelop an appreciation that engineering, properlyapplied, offers a path to great innovation – including innovation in energy
an annual Sustainability Report communicates progresswithin the community. QU has garnered recognition for its sustainability endeavors, aligningwell with its strategic plan's third pillar: "Nurture and positively impact internal, local, and globalcommunities." This emphasis on community engagement harmonizes with QU's growingcommitment to industry partnerships with regional companies, extending to its academic units.SCE, a hub for engineering and computing programs, places a strong emphasis on practical,hands-on education. Collaborative ventures with industry partners are integral, fostering real-world learning experiences and often providing financial support. Additionally, SCE placessignificance on multidisciplinary work and is actively
AC 2007-1806: INTRODUCING MICRO/NANOTECHNOLOGY EDUCATIONWITHIN THE INDUSTRIAL AND SYSTEMS ENGINEERING CURRICULUMSalil Desai, North Carolina A&T State University Salil Desai is an Assistant Professor of Industrial & Systems Engineering at North Carolina A&T State University. His expertise is in the area of micro/nano fabrication, multiphysics modeling, and nano-structured material characterization. He teaches integrated product and process design, advanced production control, robotics and nanomanufacturing. His other research interests include Product Design, Manufacturing Systems, Time Compression Technologies and Statistical Optimization.Devdas Pai, North Carolina A&T
Paper ID #12567Engaged in Thermodynamics – Bringing it to Industry and the ClassroomDr. Patrick A. Tebbe, Minnesota State University, Mankato Page 26.602.1 c American Society for Engineering Education, 2015 Engaged in Thermodynamics – Bringing it to Industry and the Classroom AbstractThis paper will discuss an on-going NSF-CCLI grant that addresses improvements in studentpedagogy and educational materials for the engineering thermodynamics curriculum bycompleting development of the Engaged
for the unique MDT degree to be ABETaccredited, 2) the various MDT plans of study, and thus degree outcomes, will vary based on thesubject matter that company partners build into the plans of study - thus making consistentassessment metrics problematic, and 3) the first student to graduate with a BS-MDT will not beuntil 2020. The question of ABET accreditation will continue to be reviewed as the MDT degreegrows and evolves.Reference[1] R. A. Schaffer, “Meeting industry’s educational needs: A new flexible plan degreeprogram,” in Proceedings of the Conference for Industry and Education Collaboration, ASEE,Jacksonville, FL, USA, February 7-10, 2017.
A SWE Industry/University Alliance for Grades K-12 Outreach Rhonda J. Lee-Desautels University of KentuckyIntroductionThis paper describes a K-12 outreach program developed by professional members of theSociety of Women Engineers (SWE) Region G section located in the Paducah area, and the SWEstudent section located at the University of Kentucky (UK) Paducah Extended Campus. TheUK-Paducah SWE student section is small, consisting of around ten students. However, thisstudent section has the unique advantage of being located in a heavily industrialized region,which has meant a large support structure of female professional engineers in the area. Thereare six
Paper ID #42039An Industrial Tool Based Graduate Class in ECE Design Verification CurriculumShruti Sharma, Portland State University I am a part time Instructor at Portland State University of the Assertion Based Verification Course. I work full-time at Intel.Prof. Xiaoyu Song, Portland State UniversityMohamed Ghonim, Portland State University A graduate Student at Portland State University, currently focused on validation and verification methodologies in my research.Jin Zhang, Synopsys Inc. ©American Society for Engineering Education, 2024 An Industrial Tool-based Graduate Class
Michigan. Her current research focuses on idea development and ideation tools, divergent thinking, and engineering curricular practices and culture. Her research interests include front-end design practices, sociotechnical knowledge and skills in engineering, and queer student experiences in engineering. Their work is motivated by their passion for and experiences with inclusive teaching and holistic mentorship of students, seeking to reimagine what an engineer looks like, does, and who they are, especially for queer folks, women, and people of color, through empowerment, collaboration, and co-development for a more equitable world. Shannon is also a Senior Graduate Facilitator and Lab Manager with the Center for
Paper ID #37379Innovative Industry-Related Research Projects for CivilEngineering Undergraduate StudentsMohammad Jonaidi Dr. Jonaidi is an Assistant Professor in the Department of Civil and Construction Engineering at Kennesaw State University (KSU). He has about 37 years of Industrial and Academic experience in the field of structural engineering, about 16 years of which consists of teaching and research. He has been teaching Civil Engineering courses at various universities in Tehran, Sydney and Atlanta. He obtained his PhD degree in Civil Engineering from the University of Sydney, Australia in 1998. After
AC 2008-1382: WORKING WITH INDUSTRY SPONSORS IN AMULTIDISCIPLINARY SENIOR DESIGN PROGRAMJames Conrad, University of North Carolina at Charlotte James M. Conrad received his bachelor’s degree in computer science from the University of Illinois, Urbana,and his master’s and doctorate degrees in computer engineering from North Carolina State University. He is currently an associate professor at the University of North Carolina at Charlotte. He has served as an assistant professor at the University of Arkansas and as an instructor at North Carolina State University. He has also worked at IBM in Research Triangle Park, North Carolina, and Houston, Texas; at Ericsson/Sony Ericsson in Research Triangle
Paper ID #12326Surveying industry needs for leadership in entry-level engineering positionsBeth Lin Hartmann P.E., Iowa State University Beth L. Hartmann is a Lecturer of Construction Engineering at Iowa State University (ISU). A retired U.S. Navy Civil Engineer Corps officer (O-5), she currently teaches the design-build capstone course for civil and construction engineering students and the construction engineering learning community. Hartmann received her Bachelor of Art in Architecture and her Master or Science in Civil Engineering with an emphasis in Construction Engineering and Management from ISU in 1989 and 1996
Page 24.253.3consideration. Students cannot just assume certain conditions exist; they must confirm theexistence. This requires the use of good communication skills.Industry sponsored projects, however, often provide context specific challenges that are noteasily duplicated in a more structured academic environment. The collaborative nature ofindustry sponsored projects is instrumental in the development of skills such as reporting,problem analysis, small group collaboration, communication, critical thinking, teamwork, andproblem solving. Participation in industry sponsored projects is sought by recruiters becausethey signify development of these skill sets1.Industry sponsored projects are also connected to a greater dynamic system that offers
process of continuous review and improvement isneeded to ensure curriculum alignment with industry and employer needs, along with reliablemeans of assessment to objectively measure and verify that students have gained the requisitecompetencies.This paper describes the efforts of a Community College Partnership Network (CCPN) involvingAssociates degree and Baccalaureate degree granting institutions, secondary schools, and Countyand State governmental agencies, to address the real-time needs of employers for the purposes ofpreparing a well-educated and high value-added professional workforce. Interactive mechanismsof collaboration such as advisory committees, student employment opportunities, undergraduateresearch programs, an applications-based
students, the community, and the local manufacturing base. Theprojects that make up the effort are coordinated as the RELI Center, for Responding toEmergencies using Local Industry. The name of the effort also derives from the belief that ifcommunities would come to rely more on local manufacturing, there would be more pressure tokeep the manufacturing base intact rather than shift that capacity overseas. A closerinterdependence between the manufacturing base and their local communities can and shouldstrengthen both. The objectives of the project are as follows: • Identify local emergency needs from which to form a framework of collaboration; • Establish a relationship with local industry and convince them to try some projects on a
/Teamwork 3. Oral and Written Communication Page 4.512.2 4. Collaboration 5. Leadership 6. Customer Focus 7. Professional EthicsIt is clear that companies are looking for more than someone that has just a good GPA.They want individuals that are broadly educated and can function effectively with others,especially in a team environment. This has also been emphasized in the revisions to theAccreditation Board for Engineering and Technology (ABET) guidelines. Comparisonof these characteristics and the opportunities available from industry sponsored projectsindicate that significant achievements can be obtained through industry
engineers whocan do system design and integration using motion controllers and Programmable LogicControllers (PLC) as the primary building blocks for automation/mechatronics applications.They are not expected to design controllers, control algorithms or interface electronic circuits atthe board level or program microprocessors.In this curriculum development effort, our goal was to complement the existing controls andmechatronics curricula. We aimed to “teach the fundamentals”, but in the context of industrialmotion control technology to address the gap.In this paper, we present an overview of a new modular curriculum designed in collaboration withindustry to “teach the fundamentals”, but in the context of industrial motion control technologyand
Paper ID #43929Fostering Curiosity among Industrial Engineering Undergraduates throughExperiment-Centric PedagogyMr. Pelumi Olaitan Abiodun, Morgan State University Pelumi Abiodun is a current doctoral student and research assistant at the department of Civil Engineering, Morgan State University, Baltimore, Maryland. Pelumi got his BSc and MSc degree in Physics from Obafemi Awolowo University, where he also served as a research assistant at the Environmental Pollution Research unit, in Ile-Ife, Nigeria. As part of his contribution to science and engineering, Pelumi has taught as a teaching assistant both at Morgan State
these reportedexpert interactions. The results of this paper may inform future teams to focus their industryinteraction efforts toward creating better design proposals. In addition, course instructors mayfind the results of their study useful in incorporating expert interactions in other types of designcourses.BackgroundThis section presents a discussion of literature regarding industry involvement in design projectsand expert interactions required in the ACRP design competition. One of the goals ofengineering and technology programs is to prepare graduates for the industry by impartingtheoretical knowledge and practical problem-solving skills. In collaborations with industry,universities can design hands on projects where students participate