Paper ID #12955Integration of Simulation Tools in Manufacturing Processes CourseDr. Yalcin Ertekin, Drexel University (Tech.) Dr. Ertekin received his BS degree in mechanical engineering from Istanbul Technical University. He received MS degree in Production Management from Istanbul University. After working for Chrysler Truck Manufacturing Company in Turkey as a project engineer, he received dual MS degrees in engi- neering management and mechanical engineering from Missouri University of Science and Technology (MS&T), formerly the University of Missouri-Rolla. He worked for Toyota Motor Corporation as a qual- ity
array of existing campus activities supported the Biomedical EngineeringSpecialization, the prior informal arrangement did not have the unifying organizational structure,nor the dedicated faculty associated with a formal BS degree granting program. The Universityand the College of Engineering Strategic Plans both identified Biomedical Engineering as acritical emerging technology for the coming decades. It is also recognized as a crucial growtharea for the college. The University and the college are prepared to make the changes necessaryto meet the identified and articulated needs of industrial partners and our students. Our vision isto create an internationally-recognized, premier undergraduate Biomedical Engineering degreeprogram. The program
million for the USDA to support Catalyze Breakthroughs competitive bioenergy research for National Priorities ASEE /NSF Corporate Research Postdoctoral Fellowship for Engineers § 1 year research in corporate setting § 40 fellows § Shared stipend support § Corporate mentor § Entrepreneurship training Source: aseensfip.asee.org University of Utah Technology Commercialization • Univ. of Utah #2 in Startups in 2007 and 2008 • 35 College of Engineering Startups in 3 years Source: Richard Brown, Dean of Engineering, University of Utah Carnegie Mellon University
Greenfieldwas the sense that most academic studies in manufacturing engineering were devoid of realmanufacturing experiences.The paper describes the unique educational experience under development by Greenfield at theFocus: HOPE Center for Advanced Technologies. It develops Greenfield’s vision, beliefs, andtechnology strategy to support learning. The paper explores the implementation of Greenfield’slearning tools targeting real-world manufacturing experience, and a set of manufacturingengineering case studies set in Focus: HOPE’S Center for Advanced Technologies.Focus:HOPEFocus:HOPE supports an amazing web of programs to underpin its educational objectives.Founded in 1968 after the urban riots in Detroit, it pledges intelligent and practical action
journey back to a “green” ecology without removing the role of the farmer.Keywords: Evolution, Mechatronics, Agriculture, EfficiencyIn the balance of humanity, many see mechatronics as an obsolete field of “rocket science,” butfew are aware that the printer is an innovation of mechatronics. The history of mechatronicsbegan in 1969 with Tetsura Mori, an employee at Yaskawa Electric Corporation [1]. The termmechatronics is derived from the two general fields of mechanical and electrical engineering, andare bridged by computer science. Mechatronics engineering has already been applied in variouscomponents of technology that can be found in the present world. Included in these applications,but not limited to for mechatronics engineering
2.49% 47.62% Business 1.48% 41.45%STEM Engineering 0.38% 20.94% Mathematics, statistics 5.94% 29.76% Physical science and science technologies 3.37% 31.55% Computer science and information 2.34% 20.56% technologiesWomen’s Share of S&E BS DegreesGender Disparities in Engineering Bachelor’s Degrees Earned by Women, 70% Selected Fields, 1970-2013 60% 57% 57% 58% 57% 54% 55
implementation process as educational experience for the undergraduate students. This paper chronicles the implementation of an ILI project. Over 30 students were involved in the design and installation of the lab. The students’ majors include Industrial Technology, Civil Engineering, Industrial Engineering, Mechanical Engineering, Materials Engineering, Welding Engineering Technology and Electrical Engineering. The lab is for Microelectronics Processing, but the ideas are generic and can be applied to implementing other projects. Introduction-The Case for Taking the Path of More Resistance Engineering education in the 1990’s has been undergoing many changes. Some of the changes, like using distance learning and
Session 1658 Challenges for the Next Integration of E-Business Projects in Higher Education Leonid B. Preiser Department of Computer Science and Communications Technology School of Engineering and Technology National University 11255 North Torrey Pines Road, La Jolla, CA 92037-1011 (858) 642-8483, fax (858) 642-8489 lpreiser@nu.eduIntroductionThe reality of E-Business proliferation is posing new challenges as
Session 3150 Fostering Senior Design Projects that Change Lives Ken Rennels, Marvin Needler, Dr. Chuck Dietzen, M.D., Patricia Fox, Scott Blackwell, Michael Venne, Lisa Hickman-Lause, Paula Jenkins-Williams, Elaine Cooney, Robert Herman Indiana University Purdue University Indianapolis/Timmy FoundationA few years ago, an engineering student recovering from leukemia found himself in aconversation with his doctor on how engineering and engineering technology students could usetheir talents to help children with special needs. That conversation started a relationship with theChief of
Session 2793 The Positive Impacts of Design Projects in Freshman Courses Dr. Saeed D. Foroudastan, Ms Linda O. Hardymon Middle Tennessee State University Engineering Technology & Industrial Studies DepartmentAbstractTo enhance learning and encourage freshmen students to continue within the pre-engineering andengineering technology curriculums, Middle Tennessee State University modified itsintroductory engineering course to incorporate not only the fundamentals required to the supportbasic engineering course learning
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
expand U.S. capability through increasing the number of successful African American, American Indian, and Latino women and men in science, technology, engineering and mathematics (STEM) education and careers.Our Vision An engineering workforce that looks like America.Our Goal Working with our partners to produce an engineering graduating class that looks like America.Our Purpose Our aim is to increase the proportion of African American, American Indian, and Latino graduates in STEM education and careers, our metric is parity in the workforce, and our methodology is connecting the network of like-minded individuals and organizations that share a commitment to these aims.Our Beliefs We believe in the concept of the
ETD 515 Introducing CFD Concepts in an Applied Fluid Mechanics Course Maurizio Manzo University of North TexasAbstractThe use of computational fluid dynamics in engineering technology courses result in manychallenges due to the lack of differential equations knowledge. However, CFD is usually usefulfor technology students during their capstone design, especially when dealing with fluidcomponents design such as valves, sprinkler systems, heat exchangers. Most of the time,instructors just show one or two slides about the existence of CFD in their fluid mechanicscourses
general educationcourses for engineering technology curricula to incorporate the best models from educational Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Educationresearch. The SC ATE problem-based learning (PBL) model4 is an interdisciplinary, problem-based series of courses that integrate mathematics, physics, communications, and engineeringtechnology instruction around industry-related problems. Curriculum materials developedinclude an interdisciplinary scope and sequence, workplace scenarios, integrated competencies,and collaborative learning activities. The SC ATE model includes a one-semester (mathematics
them to learn on the job? This paper will summarizeresearch in engineering graphics education related to constraint-based modeling, present surveyresults of employers who utilize constraint-based modeling software, and make recommendationsrelated to changes in the engineering graphics education curriculum.IntroductionEngineering Design Graphics educators are at a critical point in time relative to curriculumdevelopment. Developments in computer technology over the last twenty years have drasticallychanged the way products are designed and manufactured. Although industry has kept up withthese changes, many university programs have been slow to update curricula for a variety ofreasons. These discrepancies between industry and education are
, companies no longer have fully staffed departmentsto develop test systems and programs, hence technical employees need to “put their own testsystem together.” [5] All engineering and technology students, therefore, need to have a basicunderstanding of data acquisition systems so they can correctly and confidently specify and usethese systems after graduation. Page 2.230.1This paper reports on recent activities in the School of Engineering and Mathematics at LakeSuperior State University to strengthen the modern instrumentation skills of engineering andtechnology students by integrating data acquisition laboratory experiences into several courses.The
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
. Rapidly Evolving Threat Landscape 2. Interdisciplinary Collaboration Requirements 3. Limited Resources and Budget Constraints 4. Availability of Qualified Instructors 5. Accreditation and Compliance Standards 6. Integration with Existing Programs and Courses 7. Balancing Theory with Hands-On Practical Training 8. Access to Relevant Tools and Technologies 9. Industry Partnerships and Engagement 10. Addressing Diverse Student Backgrounds and Learning Styles Proceedings of the 2024 ASEE North Central Section Conference 2 Copyright © 2024, American Society for Engineering Education2. ABET Criteria and Influential FactorsAccreditation Board for Engineering and Technology (ABET
provided an ideal medium for introducing talented, under-represented female and minority Hartford-area high-school teams to the field of engineering.Through the United Technologies Trinity College Engineering Initiative (UTCEI) these students(UTCEI scholars) engage in research projects working with Trinity faculty and students duringthe school year and the summer. UTCEI robot teams have designed fire-fighting robots andparticipated in the contest for three years [4].This paper presents a survey study that was conducted at the 1999 competition in Hartford inorder to examine the nature of robotics as a medium for educating students and to evaluateachievement of outcomes. The survey data were collected by means of questionnaires andpersonal
and fabricate a relevant prototype for stakeholders and, while doing so, learnand acquire essential competencies and skillsets relevant to engineering professions. Coursemethodology involved weekly assignments and the acquisition of project kits. The engineering mindsetis being assessed through content knowledge of inclusive modules in electronics, programming, 3Dprinting, innovation, and data analysis assignments. Learning outcomes include using software,hardware-based technologies, and research-based inquiries to design, fabricate, test, and improve anautonomous robot. This remote course structure aims to foster an engineering mindset, technicalknow-how, innovation and promotes essential competencies like teamwork, leadership, and
Session 3550 Design, Implementation, and Assessment of WebCT-based CNC Ismail Fidan§, Lauren L. Neal¶, Robert J. Clougherty, Jr.¶ § College of Engineering/¶The Institute for Technological Scholarship Tennessee Tech University Cookeville, TN 38505Abstract In the 21st century, the Internet has become the dominant distribution system for distanceeducation and training. Many faculty members are expanding their traditional delivery methods(lecture, laboratory, face-to-face discussion) to include educational options ranging from web
work on appliedengineering problems. As a result of the these changes, the Engineering Department at PennState UniversityAltoona Campus added a Bachelor of Science degree in Electro-mechanical Engineering Technology(BSEMET). An automation laboratory in a new Automation Technology Center was added to support three newcontrols courses taught in the last year of the BSEMET program. The development of the controls laboratory presented some unique problems. The laboratory wasrequired to support a standard laboratory class size of 16 students while delivering laboratory training over awide range of manufacturing control problems. A laboratory system was required that permitted eight teams oftwo students each to have equal access to control
Session 1455 The Importance to Economic Development of Improved University-Industry Engagement in Research and Professional Education Stephen J. Tricamo, Donald H. Sebastian New Jersey Institute of TechnologyAbstractThe key to the strength of the U.S. economy has been industry's ability to capitalize ontechnological innovation. At American research universities, an inherent objective of Ph.D.programs in engineering is innovation related to new or existing technologies. Despite such anobvious mutuality of interest, industry has typically
Session 2548 Teaching Technical Communications to Engineering Technology Students: A Case Study Approach Paula Ford, Sohail Anwar The Pennsylvania State University—Altoona CollegeAbstractOne alternative to a long term-paper assignment in a technical writing course is the short memo.Engineering technology students enrolled in Ms. Ford’s sections of Technical Writing, English202C, at Penn State University—Altoona College are required to write a number of memos andshort reports in response to case studies. These case studies are designed to approximate thetypes of writing
group of engineering, business, and liberal arts majors; creating a web page with current events related to engineering or technology; and so forth.These are only a few examples to illustrate how technical communication faculty can enrich educationalexperiences for engineering students by introducing some nontraditional topics and assignments intovarious classes in engineering and technical communication.ConclusionUsing their knowledge and skills in writing, in presenting information orally, in designing documentsappropriate to audience and purpose, in communicating within organizations, etc., technicalcommunicators can be valuable partners with engineering educators in meeting the expectations ofABET’s EC 2000
background inmathematics and simultaneously ensure its relevancy and technology advancement contemporaneousness.Students from different traditional engineering disciplines, such as electrical, computer and mechanicalengineering, and also from non-traditional technology-based disciplines have different courserequirements and depth in core mathematics, static systems, dynamic systems, systems modeling, powersystems and electronics. Developing a course curriculum which crosses over multiple programs anddisciplines and yet is relevant to a broad class of students is difficult. This paper describes some resultsfrom a concerted effort to accomplish the inclusion of a multi-disciplinary content in a new multi-department course series. The hybrid vehicle
Session ETD 415 Robotics Retrofit: Renovating Outdated Robotics Platforms to Meet Current Curriculum Requirements Driven by Industry Demand Gregory Lyman, Jeffery Wilcox, and Rowdy Sanford Department of Engineering Technologies, Safety, and Construction Electronics Engineering Technology Program Central Washington UniversityAbstractMany engineering technology programs are implementing robotics and automation platformsinto their undergraduate curriculum. Finding affordable solutions for these subjects can prove
Session T2D1 Manufacturing Education in the Global Manufacturing Scenario Wayne N.P. Hung and V. Jorge Leon Department of Engineering Technology & Industrial Distribution Texas A&M University, College Station, Texas 77843 AbstractThis paper presents the current approach in manufacturing education at Texas A&M University(TAMU) in response to the alarming trend of manufacturing outsourcing in the USA. Therevised curriculum reflects the need from industries where engineers with hard-skills areessential for technology innovation and soft
Session 3538 The Design Process, Ideation, and Computer-Aided Design David S. Kelley, Jeffrey L. Newcomer, and Eric K. McKell Engineering Technology Department Western Washington UniversityAbstractLargely due to engineering design applications such as computer-aided design, most en-gineering graphics curriculums have changed significantly since the middle 1980’s. Thecontent of an engineering graphics course is governed by the needs of students taking thecourse. This paper focuses on the engineering graphics curriculum at Western Washing-ton University
competitiveness, free market development, multinational companies, varying ethical norms, and varying consumer protection mechanisms.· Familiarity with measurement systems, varying standards and codes, environmental concernsParticipating institutionsSouthern Polytechnic State University, an American University located inMarietta, Georgia. The mission of the university is to provide the residents of thestate of Georgia with university-level education in technology, engineering, artsand sciences, architecture, management, and related fields. In Georgia, which isone of the fastest growing states, the realization that we are a part of “globaleconomy” is very strong. Therefore, the mission of Southern Polytechnic StateUniversity (SPSU) is unambiguous