Session 2647 IMPACT OF MANUFACTURING TECHNOLOGY EDUCATION TO LOCAL INDUSTRIES George Yang, Ph.D., Assistant Professor, Department of Engineering Technology Mohammad Najafi, Ph.D., Associate Professor, Department of Engineering Technology Missouri Western State College, 4525 Downs Drive, St. Joseph, MO 64507AbstractIn this paper, the history of a newly-established two-year manufacturing engineering technologyprogram is presented. Impact of the program to the local community has been characterized bystudent population, student employment situations, and on-going collaboration with localindustries. Statewide and local need assessment
have been reported as “near crises proportion.”4Factors resulting in job loss and the necessary actions to mitigate these effects have sparkeddiscussions from leaders in business, education, and government across the Nation.It can be argued that strengthening the competitiveness of remaining industry through thedevelopment of regional based technology and educational resources, which serve as a dualsupport system for entrepreneurial startups, is a first-step in helping revive local economies.Additionally, increasing the number of professionally prepared engineering/technology graduateswill prove equally important in regional economic development.Scholars suggest that a sound strategy for reviving industry include collaborative
NastiukSinais AlvaradoElizabeth Hibbler, Conference for Industry and Education Collaboration (CIEC) ©American Society for Engineering Education, 2023The 2TO4 Project - Facilitated Transition from 2-Year to 4-Year Engineering Studies (WIP)Abstract: The Inclusive Engineering Consortium (IEC) is a nonprofit organization that enablescollective efforts through equitable partnerships between its 20 MSI members, 12 PWI membersand 7 corporate members. The IEC 2TO4 Project builds on its Pathways to Success program tosupport students who begin their studies at a community college or other 2-year institution byproviding financial support (scholarships, internships, academic year stipends), mentoring andother transition support
Session 1332participating company. A total of 22 projects are being supported during the 2002-2003academic year with grants of up to $3000.Overall BenefitsThe IAP program is a catalytic force that promotes closer ties with the production world andstrengthens industry-university collaboration. Extensions to the basic IAP format are notuncommon and have generated improvement of laboratory facilities through company donatedequipment, joint faculty-industry proposal writing, faculty summer internships, and theenrichment of the university curriculum through the creation of new courses. In one specificinstance a company follows up the IAP experience with COOP employment that normally takesplace during the summer and semester following participation in
Asession2793@ “Achilles Heel of University-Industry Partnerships” Frank W. Hughes, Ph.D The Boeing Company University-industry partnerships are far from the ideal that the name might imply.Although most of these collaborations technically meet the definition of partnerships bybeing associations which have joint interests and benefits, the benefits to the participatingparties are usually not equal because of a fundamental weakness in the way that the vastmajority of these partnerships are set up. The principal weakness (e.g. the Achilles heel)of university-industry partnerships is that the basis of the terms and conditions for mostof these relationships
generated through the Alliance.Finally, graduate only programs often have only a faculty member who is coordinating localefforts. They have a high need for postings and specifically for national connections because ofthe specialized nature of each graduate student’s experience.Each of these categories of programs with interest in internship-enriched education andcollaboration with industry has a commonality. Collaborations in this area differ fromcompetitions for funding or key partnerships. The Alliance as a body with its primary interest inthe student’s success is a natural catalyst for many persons to talk and exchange ideas, Page
. Page 8.834.1 Proceedings of the 2003 American Society for Engineering Education Annual Conference and Exposition Copyright@2003, American Society for Engineering EducationThis paper presents a collaboration between the College of Engineering and Business in theevolution of an engineering senior industrial team-based project capstone course from on-groundto online using WebCT® technology. By taking the course online, the questions raised are: 1) Which communication media are most likely associated with team member satisfaction? 2) Which methods are more likely to be associated with positive group performance? and 3) How can you resolve team conflict?Engineering faculty present the course and
SET program. Most notablythese were industrial collaboration, project centered, and student retention. It was furtherdetermined that presenting students with a series of real problems to solve was the best approachto attract, retain, motivate, and encourage students in a mathematically intensive curriculum. Theresulting SET program focuses on an experience-based learning model that provides studentswith the necessary fundamentals to be able to solve technical problems for industry and societythoroughly engaging students in this process. The SET curriculum design was prepared,reviewed, and approved by the faculty of the Engineering and Design (E&D) and ComputerScience (CS) Departments and by the University’s Undergraduate Affairs Council
have been conducted with industrial andelectrical engineers; supervisors; and senior executives. The results of the interviews have beenused to tailor Technical Communication to each engineering discipline. These findings will bedescribed along with the course content and preliminary student assessment data.This article describes curricula that have been developed through collaboration betweeninvestigators gathering data from the workplace and academic instructors teaching a traditionalTechnical Communication Practices course. The goal is to bring real-world documents andguidelines into the classroom to help students become aware and proficient in thecommunication practices of their disciplines. This accomplishment will in turn help
AC 2012-3509: A COLLEGE-INDUSTRY PARTNERSHIP FOR ENTER-PRISE COMPUTINGDr. Larry Burton, North Carolina A&T State University Larry Burton received his B.S., M.S., and Ph.D. in electrical engineering from Duke University. He has 25 years executive international management experience in technology-based businesses and holds ten patents in microwave and optical communications, video switching, and broadband infrastructure. His current research is focused on high availability/high reliability enterprise computing.Shawn PopeDr. Ibraheem A. Kateeb, North Carolina A&T State University Ibraheem Kateeb received his B.S. in physics and mathematics from Yarmouk University in Jordan, and M.S.E.E. and Ph.D. degrees from
/industry partners come together with faculty members to design projects for the courseswe offer. A typical project for a course is shaped with collaboration of the faculty and thecorresponding industry partner for that course to fit it into the course contents and objectives.Industry partners actively participate in developing project, evaluating students’ progress,guiding students, communicating with students, and assessing students’ performances. This kindof active learning highly improves the student learning outcomes by providing additionalmotivation, professionalism, feedback from real industry partners, and strengthening team spiritamong our students. The DoCS has successfully completed three (3) such projects in Fall-2003and Fall-2004
Paper ID #35511Partnering with Industry to Improve First Year OutcomesMrs. Jacqueline Faith Sullivan, University of Central Florida Since 2012, Jackie Sullivan (MSEnvE), has been an Adjunct Instructor at UCF (Orlando) in the College of Engineering and Computer Science (CECS) and has instructed the first year engineering students since 2015. Ms. Sullivan worked in consulting engineering and STEM program development prior to joining UCF.Mr. Mark Easley, Texas Instruments, Inc. The TI University Program is committed to engineering student success and supporting institutions of higher learning that will train the next
Turkey to meet withthe ESL program director and instructors as well as the dean, Industrial Engineering departmentchair, and the Turkish dual-diploma coordinator faculty member at ITU. During these meetings,possible program improvements, curriculum updates and further collaboration areas are discussedin detail.Program of StudyOne of the challenges in drafting the program of study was to ensure that the dual-diplomaprogram mutually benefits the departments. This was the main reason behind alternating thestudy years between the institutions. A program of study with the first two years in oneinstitution and the last two years in the other would have caused one of the industrial engineeringprograms to have minimal contact with the students when they
Session 2793 Industrial Experience and Engineering Freshman: A Pilot Program Shelia K. Barnett Mercer UniversityIntroduction Increasingly, industrial experience before graduation is highly desirable for successfulplacement of engineering graduates in permanent engineering positions. However, the numberof participants in the traditional cooperative education program at Mercer University hasdeclined in recent years. In order to encourage a higher degree of participation, the MercerUniversity School of Engineering
academicachievements encountered in these creative projects, three of the five undergraduate studentshave chosen to pursue higher education and are currently graduate (MS/ Ph.D.) students with theauthor. The fifth one has decided to be a graduate student after the completion of his BSMEdegree in 1998. In this paper, the author intends to unfold and describe a novel "creative projectmodel" and share his views on establishing effective avenues for undergraduate researchexperience which could benefit students, influence their future choice of careers, and benefitmanufacturing industries. Page 3.176.1 1I
between Akron University and the Case Institute of Technology. Thispartnership led to the establishment of the Edison Polymer Innovation Corporation to aid statedevelopment by transferring the results of research accomplished under state support, withmatching funds provided by federal and industrial sources.Bagchi-Sen (2001) focuses on the trends in university-industry linkages in the CanadianBiotechnology industry. The author explains the role the government has played in thedevelopment of university-industry relationships, the factors influencing such collaboration, and 2the role of government support in university-industry partnerships. De Ramirez
collaboration for an interdisciplinary elective in applied system design and remote diagnostics,” Proceedings of the 2001 American Society for Engineering Education (ASEE) Annual Conference, Session 1347, ID #768, Albuquerque, NM, 7 pp., 2001.6. Gray, R., “For GETS, A pipeline of talent,” Railway Age, vol. 203, pp. 71-73, 2002.7. Gray, R, “Collaborating with industry to enhance an engineering technology curriculum,” Ethos online journal http://pennstatebehrend.psu.edu/academic/lrc/ethos/index/index.htm. 2003.8. Gray, R., and Hemminger, T., “A hands-on navigation technology workshop to support the math options for girls program,” 60th Annual Institute of Navigation Conference, Dayton, OH, 7 pp., 2004
cross industrial collaboration associated with advanceddegrees is a positive influence throughout the organization. This collaboration further injectsitself into the host organization, in which peers are affected by new ideas and cross functionalteams are formed to overcome internal problems and improve processes.The team members interviewed for this paper confirm that there is a heightened enthusiasm forimprovement ideas at the company. A key component to the academic enthusiasm witnessedduring the case study is the support that Red Ball Oxygen has shown to its employees that seekhigher education. The company’s openness to the ideas shared from their students fosters anenvironment that allows for creative solutions to old problems. Without the
,manufacturing processes, and automatic identification and data capture. Courses in distributioncore include distribution, logistics, and supply chain disciplines such as industrial organizations,marketing, industrial sales and sales management, warehouse and inventory control, globaltransportation and logistics management and supply chain management. Courses in businesscore include business and management disciplines such as accounting and finance, and humanresource management.Taj, Hormozi, and Mitshab (1996) suggested that operation management and industrialdistribution management programs should consist of well-rounded core offerings and thatcoordination and collaboration between degree-offering universities and industries in general arebeneficial
faculty, input fromindustrial partners, and direct collaboration between students, faculty, and administrators.Initially, the group will develop an engineering elective course employing proven,innovative pedagogical methods and tools that enable students to incorporateenvironmental as well as economic concerns into technical design. The course will beoffered for both undergraduates and graduate students. In an attempt to reach as manystudents as possible, the course is being offered with minimal prerequisites. It will beteam-taught by faculty in Industrial & Manufacturing Engineering, Business, and LiberalStudies. Significant input into the modules will be sought from Mechanical Engineeringand Chemistry faculty.The multi-disciplinary nature
Session 2557 Interdisciplinary Teams? An Industrial Engineering/Physical Therapy Project Dennis E. Kroll1, Ph.D., Andrew J. Strubhar2 1 Industrial & Manufacturing Engineering & Technology 2 Physical Therapy Bradley University Peoria, IllinoisAbstractAt the 1995 ASEE Annual Conference, we reported on a newly developed project combining 4thsemester Industrial Engineering students and 8th semester Physical Therapy(PT) students.[3]This project required them to
facilitieslocated at the Columbus municipal Airport campus.The goal of this project is to expand the educational opportunities and develop a comprehensivecommunity-wide learning system that is driven by business, industry, and community needs.With the Commission’s support, this project has the special opportunity and commitment toserve the Columbus area by utilizing the education capabilities of three major Indiana institutionsin a new form of collaboration and efficiency which:1. Serves the learning needs of the region’s citizens through traditional two and four-year college degrees, vocational-technical certification, and continuing education.2. Supports the economic vitality of the region. The community must be able to respond to requirements of
interests are in the area of power electronics which includes advanced converters for power supplies, power quality issues, active power filter development, utility interface issues, power conditioning systems for fuel cells, wind and solar energy systems. She holds one US patent with industry collaboration. She is an IEEE Senior member and is actively involved in funded research projects while engaged in teaching, research and consulting in the area of power electronics, motor drives, power quality and clean power utility interface issues.Mr. Radhakrishna Kotti, University of Houston (CoE) Radhakrishna Kotti received his B.TECH degree from Jawaharlal Nehru Technological University (J.N.T.U), India in 2010. Currently he
also perform some local processing disadvantages of wired sensors, industry must invoke and later transmitting their results new measures to improve production performance through a wireless channel; thus, and safety while minimizing costs and extending the there is no need for a wired operational life of new and aging equipment[12]. The communication infrastructure [24]. collaborative nature of the wireless sensor offers the In addition, by allowing the sensor following advantages, nodes to perform some local data processing, data channel utilization 1. Lower cost – the
, conditional statements, and new instructions. Fi-nally, our software now includes scenarios which creates predefined situations aimed at teachingspecific robotics skills while also allowing students to create their own scenarios with an interac-tive menu system. A beta version of the software has been publicly released and we are excited tocollect feedback from those in the robotics education community. This project is supported by theNational Science Foundation and is a result of a multidisciplinary collaboration between MichiganTechnological University and Bay de Noc Community College.2 Background & IntroductionIncreased industrial automation has increased the demand for people who are familiar with usingand programming robotics systems
industry withknowledge and tools required to handle complex problems in a timely fashion. Companies tendto explore all alternatives, manufacturing databases before making a meaningful decision thatcan impact their revenue over long term. All these changes have impacted the industrialmanufacturing process and the labor force, especially engineers working with the multi-nationalcompanies on collaborative projects. Now manufacturing companies are looking for well-rounded engineers who can think critically and solve complex problems, in a multi-disciplinaryteam, while working in a fast paced environment. Engineering education has a significant role toplay to produce such qualified engineering. The course curriculum has be to be developed in amanner
through the ASEE’s divisions that support the Conference for Industry and Education Collaboration (CIEC).Problem 9: Electronic technology AAS degree enrollments have been decreasing for years. 5, 8, 9Solution 9: Through a college task force, attempt to quantify the decline and assess the future impact. Then with the help of the industry advisory committee, identify the reasons for the decline locally. Develop strategies to correct the problem.An Unexpected AlternativeMost electronics technology curricula are relatively homogeneous across the country, andvirtually all of the colleges have competently partitioned subject matter into appropriatecourses. It is the course
Conference & Exposition Copyright © 2003, American Society for Engineering Educationaudience through e-mail so that participants can easily link to the survey page.Additional work is planned to use the results of this survey in the development of new laboratoryexperiments for the introductory thermal science course. It is also hoped that the industryexposure to Purdue’s MET program through the survey and follow-up will provide anopportunity for additional collaboration with industry respondents through tours, guest lectures,or student projects.ConclusionsA web-based survey was implemented successfully to aid in thermal science course developmentin the mechanical engineering technology curriculum. The survey results
senior level capstone design course (Senior Design I and II) in order toassure outcomes defined by the industry and academicians for math and science basicfundamentals.Literature includes various articles describing industry collaboration with capstone designcourses in the engineering curriculum. Norback et. al. (2010) described an executive panel fordirect interaction with students about workplace communication. Also Paretti (2008) discussesimproving technical communication in the comprehensive design process. Perhaps the mostcomprehensive industry collaboration is by Lamancusa (2008) described as “industry-partneredactive learning.” The implementation presented I n this article is emulating the changes byLamancusa (2008) and adapting these
that phase.Moreover, students submitted a final report to the instructor and industry mentor. The final reportwas a 15-20 page document that included detailed description of the project phases. Theinstructor served as the facilitator and mentor for all the projects.4. Benefits and Challenges of Industry ProjectsThe main benefit to the students is the exposure to real life problems and applying what theylearn in class to solve them. Students also improve their communication and teamwork skills.The faculty advisor benefits from the industry projects through collaborating and networkingwith local industry, using real life examples to illustrate course topics, preparing students forcareers in engineering, and potential research and publication