Problems and Solutions in Internationalizing Capstone Design Yuyi Lin, Donald Harby Dong Jang Zhonghe Ye University of Missouri Seoul National Fuzhou University Columbia, MO 65211 University of China LinY@missouri.edu Technology, KoreaAbstractABET is authoritative in US. However, engineers who graduate from an ABET accreditedcurriculum may not meet expectations in a global environment such as working in an Asiancountry. Through discussion with collaborating faculty members in 2-year and 4-year UScolleges, and in two Asian universities, this paper first attempts to recognize
Senior Design Project Commercialization and Entrepreneurship Ken Ports, Carmo D’Cruz, Muzaffar Shaikh, Carolyn Fausnaugh Florida Institute of TechnologyAbstractThis paper describes the development and growth of an innovative new program that is asynergistic combination of Florida Tech’s technology commercialization-related course offeringsin Engineering Management, its Senior Design course curriculum, and its new businessaccelerator, Florida TechStart. The program is designed for the subset of senior design coursestudents who desire to leverage their design course experience by commercializing theirinnovative products and technologies and creating start-up companies.Florida Tech’s
fulfilling the BOK.Purpose of PaperThe purpose of this paper is to present an overview of the First Edition of the ASCEBody of Knowledge. The BOK follows three themes: • what should be taught and learned, • how it should be taught and learned, and • who should teach and learn it.Body of Knowledge – What Should Be Taught and Learned?Outcomes are the principal means of defining the what dimension of the civil engineeringBOK for the 21st Century. The BOK consists of 15 outcomes that build on the 11outcomes promulgated by the Accreditation Board for Engineering and Technology(ABET). In addition to the 11 ABET outcomes, which are included verbatim in the 15BOK outcomes, four entirely new outcomes (Outcomes 12-15) address
technology valuation and licensing activities. Proceeding s of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education • Perform more effective and efficient technology assessment. • Develop fast and effective transfer models, which have enhanced success and application. • Create more effective public/private relationships, alliances and partnerships.Center OperationThe Center for Product Innovation and Commercialization (CPIC) operates as a collaborativeeffort between Northern Kentucky University, University of Kentucky, University of Louisvilleand other universities and companies. The graphical representation for
An Integrated Systems Lab and Curriculum to Address IE Program Criteria Jessica O. Matson, Kenneth W. Hunter, Sr., and David W. Elizandro Tennessee Technological UniversityAbstractABET program criteria for industrial engineering require programs to demonstrate that“graduates have the ability to design, develop, implement, and improve integrated systems thatinclude people, materials, information, equipment, and energy” and to include “in-depthinstruction to accomplish the integration of systems using appropriate analytical, computational,and experimental practices.” Faculty in the industrial engineering program at TennesseeTechnological University have
teachingstrategy were rewarding: (1) students were motivated in learning about the subjects,chemistry and various engineering technology areas, (2) students connected theirpersonal areas of interests to academic majors programs and daily lives, and (3) manystudents in engineering technology programs incorporated kinesthetic learning styles forthis assignment. In course portfolios and survey, students indicated that theseassignments became enjoyable and valuable learning projects they were attached to in apersonal way. This non-traditional teaching strategy has increased my enthusiasm toknow my students on a personal level through observations of their unique talents andways of connecting chemistry with engineering technology program courses.Introduction
receiving only 2.8% of Bachelor's degrees in engineering in 1999-2000 [4]. Page 10.272.1 “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education” Session 2192 Over the past few decades, the Commission on Professionals in Science & Technology hasstudied reports on women in engineering career fields [5]. Many of these findings are still truetoday. In 1982, a relatively small percentage of women earned science and
professional and personal skills. However, the lackof links between university and industry means that we don’t always produce the type ofgraduates that industry really requires. And, in fact, we have been slow to respond.Engineering students themselves want to study a wider curriculum. There has been a growth inthe UK of more technology-based degrees that cover wider aspects of business and industry.Students want to see more business, finance, marketing, IT, as well as interpersonal skills such asnegotiating skills in the curriculum [3].The UK Engineering Council, in its 3rd Edition of Standards and routes to Registration(SARTOR) [4], continued with the accelerating trend of basing the curriculum within thevocational arena, and argued that
National Science Foundation.1 The agenda guidelines for achieving theeducational goals for graduating engineers (as listed in this paper’s abstract), strongly encouragethe study of engineering to become an exciting endeavor that truly engages students. It is alsorecommended that the primary mode of learning in the classroom become active learning.Changes in engineering education are also being driven by the Accreditation Board forEngineering and Technology (ABET). The 2004-2005 ABET Criteria for AccreditingEngineering programs4 evaluates the competence of engineering faculty using factors thatinclude “teaching experience, ability to communicate [and] enthusiasm for developing moreeffective programs.”So, what can be done to prepare graduate
; Engineering Engineering Design Engineering Cooperative Agricultural Technology Graphics Libraries Education Engineering Chemical Environmental Engineering Entrepreneurship Engineering Engineering Economy Materials Experimentation & Civil Engineering Freshman Programs Engineering Lab-Oriented Studies Nuclear & Construction Radiological Information Systems
A Modified Case Study: Using Multimedia Courseware To Teach Modular Fixturing Veekit O’Charoen, Teresa Hall, Haig Vahradian Western Washington University / South Dakota State University / Millersville UniversityIntroductionModular fixturing is an important concept in tooling design and applications courses in theManufacturing Engineering Technology (MET) and Industrial Technology (IT) curriculum.Traditionally, a lecture is given on the topic using computer slides, videos, CAD graphics of thetooling elements along with physical components to pass around, and/or catalogs to inspect. Ifthe time is available, a tour of local manufacturing operations which utilize tooling applicationsof
AbstractThis is the second of three papers prepared for a special panel session of the National Collaborative TaskForce on Engineering Graduate Education Reform that addresses the need for reform of faculty rewardsystems to advance professional education for creative engineering practice and technology leadership.This paper examines representative templates for professionally oriented faculty reward systems in otherservice professions in order to identify the commonality which should be reflected any faculty rewardsystem for professional engineering education. As a result, three unifying themes among other professionshave emerged which address teaching, professional scholarship, and service/engagement in practice.1. IntroductionTo be successful in any
as non-technical electives, and have provedvery popular at Penn. Designed for engineering students with little background inbusiness, the courses focus on roles and tasks engineering entrepreneurs must face.The Cooper Union also offers a course in Engineering and Entrepreneurship.2 Guestspeakers are a critical component of this course. Students have the opportunity to hearentrepreneurs describe their experiences and provide advice. By the end of the semester,students are required to submit a business plan.The University of Central Florida offers a three-course Engineering EntrepreneurshipProgram based on a technology incubator.3 Coursework includes EngineeringEntrepreneurship, High Tech Product Strategy, and Technology
’ talents and their developing skills. Technical staff support is anessential ingredient to provide instruction in the use of equipment, for supervision and safety,and for providing technical knowledge to resolve specific technical problems. Figure 2. Human Powered “Waterbike” designed at the Royal Institute of Technology (KTH), Stockholm, Sweden Operation, the fourth and final stage in the CDIO sequence, describes the spectrum ofactivities where an engineering project undergoes assembly, pre-use testing and calibrations, andfunctional operations are verified. Creating electro-mechanical devices that actually operate insome manner has proven to be highly motivating for engineering students. In a CDIO
, isdescribed along with students’ assessment in the context of their reflections.IntroductionThe integration of community service projects in undergraduate engineering curricula, to provideexperiential learning, has created a great deal of interest among educators in recent years. Tsang(2000) stipulates that the notion of combining service with engineering design projects is notnew considering that many senior design projects have provided assistive technology to meet theneeds of people with disabilities. Tsang (2000) further discusses the many benefits of service-learning, coupled with design-across-the-curriculum, and the significance of integrating design atall stages of a student’s academic development in a meaningful context. Evidently
practices, and analytical methods have been integrated into the part and processdesign. The system has been tested by senior level technology students and their feedbackwas received. Students indicated that learning through this interactive website was muchmore beneficial than straight lecture. Page 10.1275.6 “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education”This paper is intended to provide the reader with a generic description of the behavior ofOnline Knowledge Based System for Forging Process. System windows and
Session: 2247 Designing A Free-Space Optical/Wireless Link Jai P. Agrawal, Omer Farook and C.R. Sekhar Department of Electrical and Computer Engineering Technology Purdue University CalumetAbstractThis paper presents the design of a very high-speed data link between two buildings in aUniversity campus that will operate at gigabit rates. The project uses a cutting edge technology ofeye-safe laser communication through free space. This is an all-optical design is future-proof inregards to technological advancement in the rate of data transmission and
Session 1348 Computer-Based Skills in an MET Curriculum William E. Howard and Joseph C. Musto Milwaukee School of EngineeringAbstractThe TC2K criteria of ABET accreditation for engineering technology programs has allowed forgreater flexibility in many areas of curriculum content. Previous requirements included thestipulation that at least one computer language be taught in a BS program, followed byexperience using programming skills in technical courses. In the TC2K requirements, a programoutcome specifies that students must have “mastery…of the modern tools of
and low cost academic solutions. The method will be further demonstrated as ameans of forming learning communities whereby faculty will benefit through the sharing ofspecialized instructional materials. Page 10.807.1 Proceeding of the 2005 American Society for Engineering Education Annual Conference and Exposition Copyright 2005, American Society for Engineering EducationIntroductionBrookdale Community College, working as a regional partner of the National Center forTelecommunications Technologies (NCTT) and in collaboration with two other AdvancedTechnology Education
Session xxxx Can ASCE Cover the “E” in the MOE? Robert J. Houghtalen, P.E. Department of Civil Engineering, Rose-Hulman Institute of Technology John A. Casazza Department of Continuing Education, ASCEAbstractThe American Society of Civil Engineers (ASCE) is beginning to move the profession in thedirection of requiring a certain body of knowledge (BOK) for professional licensure. This BOKwould be obtained through a baccalaureate (BS) degree, work experience, and a master’s degreeor equivalent (MOE). The “or
Introduction to Product Design and Innovation: A Cross-Disciplinary MiniCurriculum Patricia Ryaby Backer and Seth Bates San Jose State UniversityAbstractFor the past two years, faculty at San Jose State University (SJSU) have implemented a three-semester minicurriculum in Product Design and Manufacturing. The project follows the Project-Based Learning (PBL) model and is central to the Certificate Program in Product Design in theMechanical Engineering Department, the Manufacturing Systems concentration in theDepartment of Aviation and Technology, and the Industrial Design Program in the School of Artand Design. Students in the three courses in
matter. Theyoffered an excellent opportunity to work with other faculty members both from within thedepartment and from departments throughout the university. It was a very rewarding experiencethat greatly expanded a new educator’s exposure to the academic world. However, they werealso very time consuming requiring a great deal of preparation in addition to the actual meetings.It was exciting to be part of a dynamic and growing department. As a direct result ofaccomplishments from the first year, a new Software Engineering Technology (SET) programwas added expanding the options for students. In addition, a local Cisco Networking Academybegan operation with a new lab and equipment. Then the opportunity arose for a full ElectricalEngineering (EE
Wayne State University, • History of technology at the University of South Florida, • Business law at Milwaukee School of Engineering, • Team leadership and facilitation at North Carolina ATSU and Milwaukee School of Engineering, • Reliability at Cal State Hayward, • Cognitive engineering at Ohio State University, • Fuzzy logic at SUNY-Binghamton, and • Entrepreneurship at South Dakota School of Mines and Technology.ConclusionsAs a faculty member, I sometimes feel that the field is dominated by large research baseddepartments. I believe we should keep in mind that only 66% of the IE programs are indepartments that grant the Ph.D., and over half of IE faculty members are in departments thathave 14 or fewer faculty
Wayne State University, • History of technology at the University of South Florida, • Business law at Milwaukee School of Engineering, • Team leadership and facilitation at North Carolina ATSU and Milwaukee School of Engineering, • Reliability at Cal State Hayward, • Cognitive engineering at Ohio State University, • Fuzzy logic at SUNY-Binghamton, and • Entrepreneurship at South Dakota School of Mines and Technology.ConclusionsAs a faculty member, I sometimes feel that the field is dominated by large research baseddepartments. I believe we should keep in mind that only 66% of the IE programs are indepartments that grant the Ph.D., and over half of IE faculty members are in departments thathave 14 or fewer faculty
demonstrating the integration of management systems into a series of different technological environments.Manufacturing Proficiency in materials and manufacturing processes: understanding theEngineering behavior and properties of materials as they are altered and influenced by processing in manufacturing; Proficiency in process, assembly and product engineering: understanding the design of products and the equipment, tooling, and environment necessary for their manufacture; Proficiency in manufacturing competitiveness: understanding the creation of competitive advantage through manufacturing planning, strategy
Session 1647 Restructuring the Capstone Course Leads to Successful Projects Rafic Bachnak, Satyajit Verma, and Tim Coppinger Texas A&M University-Corpus ChristiAbstractThe engineering technology programs at Texas A&M University-Corpus Christi share acapstone projects course that allows students to use their problem solving skills and thetechnical knowledge they gain throughout their college experience to develop a device orsystem that meets some specific requirements. As a result of concerns raised during arecent ABET accreditation visit, the course was restructured in order to ensureconsistency in
Assessment of the NC-LSAMP project: A longitudinal study Xiaochun Jiang1, Sanjiv Sarin2, Marcia Williams2, and Lee Young3 1 Department of Industrial and Systems Engineering / 2College of Engineering / 3 Academic Affairs North Carolina A&T State University, 1601 E Market St Greensboro, NC 27411AbstractThe North Carolina Louis Stokes Alliance for Minority Participation (NC-LSAMP)project is an ongoing project aimed to substantially increase the number ofunderrepresented minorities who will contribute significantly in science, technology,engineering and mathematics, engineering, and technology (STEM) areas, especially ingraduate degree programs. The NCLSAMP
Session 3649 Matrix Based Approach to Assessment of an Educational Program along ABET Criteria S. Verma Texas A & M University – Corpus ChristiAbstractThis paper describes a spreadsheet based matrix method to quantify the performance of aneducational program and its various courses against criteria set forth by the Accreditation Boardfor Engineering and Technology (ABET). Inputs to the spreadsheet are: student learningoutcomes for each course, connection of these outcomes to the ABET criteria, student scores invarious classroom assessment activities
esteem, teamwork and leadership skills.AcknowledgementThis project is being funded by a grant from the National Science Foundation (NSF EEC#0353744) and Rowan University.References[1] Jahan, K., J. Everett, R. P. Hesketh , P. Jannson and K. Hollar (2004) “Environmental Education forAll Engineers”, Water Science and Technology, 49(8).[2] Jahan, K., J. Everett, R. P. Hesketh , P. Jannson and K. Hollar (2003) “Environmental Education forAll Engineers”, Proceedings of the IWA Environmental Engineering Education Conference, Zurich,Switzerland, Sept. 23-27.[3] Jahan, K., G. Tang, S. Gatling and K. Freeman (2003) “Undergaduate Research Experiences inPollution Prevention” Proceedings of the Mid-Atlantic ASEE Fall Conference, Baltimore, MD.[4] K. Jahan
Automated Manufacturing System Integration Education: Current Status and Future Directions Sheng-Jen (“Tony”) Hsieh Dept. of Engineering Technology and Dept. of Mechanical Engineering Texas A&M University, College Station, TX1. IntroductionAutomated systems play an essential role in manufacturing, from assembling complex electronicdevices to mixing pharmaceuticals. Engineers must constantly design, maintain, reconfigure, andupgrade these systems to accommodate shifts in product design or manufacturing priorities.Their ability to rapidly complete such tasks is critical to maintaining our national economiccompetitiveness and security