Engineering Education The ABET Evaluation FormsThe key to understanding a successful ABET site visit is to understand what the PEV must reportin the evaluation forms. The main goal of the PEV is to determine if all nine ABET criteria havebeen met to some level of satisfaction, and to report any misgivings on the ABET PEV forms.Program Evaluator WorksheetThe program evaluator worksheet is used to check-off whether there are any concerns (C),weaknesses (W), or deficiencies (D) in the program, based on the expectations of each of thenine ABET criteria. These shortcomings (C, W, D) are defined by ABET as shown in Figure 2.The goal of the program faculty is to receive no weaknesses (W) or deficiencies (D) on the finalPAF
Paper ID #29765Bringing the University to the Workplace: Targeted Short CourseDevelopmentDr. Luke Fredette, The Ohio State University Dr. Luke Fredette is a Research Specialist in the SIM Center at The Ohio State University. His tech- nical interests focus on nonlinear system dynamics and noise & vibration control, and he has recently been working on the development of educational programs surrounding these topics geared towards ac- cessibility and applicability for working professionals. He will be beginning as an Assistant Professor of Mechanical Engineering at Cedarville University in Autumn 2020.Ms. Emily Nutwell
can think of multiple programs running at the same time where each may potentially impact behavior of the other directly (via altering common data) or indirectly (by blocking a resource resulting in the other programming not able to proceed or in deadlock) unless the input‐output relations is ascertained to be correct from both a spatial as well as temporal point of view. The first is enforced easily in conventional memories (Random Access Model) but the later requires ordering discipline generally implemented via synchronization primitives similar to those used in operating system design. Proceedings of the 2009 American Society for Engineering Education Pacific Southwest Regional Conference
Recruiting and Monitoring Advising System Transfer Credit Validation CRITERION 2. PROGRAM EDUCATIONAL OBJECTIVES Educational Objectives (Mission Statement) Process to Produce and Update Objectives Curriculum and Process to Achieve Objectives Ongoing Evaluation Process to Demonstrate Achievement of Program Objectives and Improvement in Program Deficiencies Noted During Last Visit CRITERION 3. PROGRAM OUTCOMES AND ASSESSMENT Engineering Division Level Civil Engineering Department Level Course Level Anecdotal Assessment
and38.1% in minorities. Further mining of the data led us to discover that 75% of minority studentsnever lived in the ECS-LLC. This analysis supported the development of a Learning ResourceCenter [4] to provide programming and tutors for non-ECS-LLC students.ConclusionWhile there is no statistical analysis or claim of causality with this type of analysis, visualpresentation of data in this manner allows for quick comprehension of a large amount ofcomplex data. The use of Sankey plots to drill down into a cohort to identify the possible effectof different factors on retention to graduation in engineering has become a powerful tool.References[1] C. Skurla, “Development of a new freshman engineering policy,” in Proceedings of the First Year
rapidly developing technologies and competitive economy require the continuoustraining and education of engineers throughout their careers. Engineers need new skills andcompetencies that will help them understand and meet new work-related requirements1. As moreengineers are employed in smaller companies and the work force in down-sized, individuals musttake on a wider variety of duties. In addition, since the number of students studying engineeringis decreasing2,3, the aging work force must be kept up-to-date in order to maintain high levels ofproductivity throughout their careers. In the U.S., the responsibility for this maintenance oftechnical competence and career growth has largely been the individual’s1. ABET EngineeringCriteria 2000 (EC2000
, 1988 and 1991 respectively. His field of specialization was in Electrical and Computer Engineering, with emphasis on Stochastic Control Theory. He joined the Department of Engineering Technology at Texas Southern University (TSU) as an Assistant Professor in the fall of 2006. He initiated the Virtual and Remote Laboratory (VR-Lab) at TSU in 2008. With the support of NSF HBCU-UP, CCLI and IEECI programs, a state of the art virtual and remote laboratory has been established. Now, the VR-Lab website is being served as portal for students to conduct various virtual and remote experiments. Page 22.1663.1
Education Annual Conference & Exposition Copyright ©2005, American Society for Engineering Education”IntroductionThe shortage of engineering, science, and mathematics students in our nation’s colleges anduniversities requires attracting students to science and technology programs that have nothistorically been attracted to such programs [1]. Over the past 50 years these fields havepredominately recruited students that have had an inherent interest in the fields, but one couldalso submit that there also existed a national fervor for science fueled by the momentum fromWorld War II and the space race. After 50 years this momentum has dissipated [2]. Thepercentage of science and engineering graduates relative to the total number
Paper ID #45794Ten Year Retrospective – Student Engagement at the Center for Design andManufacturing ExcellenceMr. Ryan Petitti, The Ohio State University Ryan Petitti is the Director of MELD (Manufacturing and Engineering Leadership Development) at Ohio State’s Center for Design and Manufacturing Excellence. Ryan specializes in the development and implementation of manufacturing training programs at the secondary and post-secondary level. He gained his Masters in Workforce Development in 2020 from The Ohio State University in support of these efforts. ©American Society for Engineering Education
entering as freshmen. Our data supports the contention that they are not and are, in fact,Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education”better served by participating in a common freshman year, since approximately half of the studentsended up in a different program than they initially had indicated. This includes 30% of the classwho entered undecided. Hence, our decision to devote a substantial amount of effort to enableour freshmen to make an informed choice of a major appears to be well justified.References1. See http://www.gseis.ucla.edu/heri/cirp.htm; noted January 12, 2003.2. Besterfield-Sacre
the model of an EPICS (Engineering Projects in Community Service) class. In this paper, we present the academic sequence and structure of the Peck Scholars Program, intended goals and learning outcomes of the program, and challenges faced during project implementation. We also present a recent project developed in a capstone course, an automatic water delivery system for vegetable plots at an urban school. I. Introduction 1The Paul Peck Scholars (PPS) program is an application based leadership development program for undergraduate engineering students. Through this program, students learn that the essence of leadership and innovation lies in the ability to communicate effectively, apply
on and off; and a second that switches the polarity of Page 8.1207.3the dc voltage applied to the motor, to set direction.“Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Education”Student ProjectThe GAL chip described above was programmed by students as a class project in EET 417Analog and Digital Systems. Professor Cooney posed as a “customer”, the students posed asteam members in a contract design firm, with the course instructor as their manager. Thestudents had the opportunity to visit the Health
unable to find the time, money or resources to learn the technologies demanded by emerging industry. In reality, this is due to a lack of effective NA education methodology which can be solved by applying an elastic system with the best practices of: educational curriculum support, network technology, engineering and management, which can make the NA curriculum effectively adapt to the drastic changes of industry requirements. Consequently, college education in NA needs to adapt and promote viable curriculum innovation in order to improve the efficacy and preparedness of the next generation network administrators. 3URFHHGLQJV RI WKH 6SULQJ 0LG$WODQWLF 6HFWLRQ
diagram and moment diagram for bending have beenprogrammed in the graphical interface to display this figures. Plots of stresses due to combined Page 8.303.2axial, torsional and bending loading conditions will be added to the interface at a later date.Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education Figure 1: Visual Cantilever BeamOne simply supported test-stand (Figure 2) requires two tension-compression load cells rated to100 hundred pounds, supports and acetyl beams
programming language that was usedfor data acquisition. The senior telecommunications systems course emphasizes voice and data "Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering Education"communications techniques. There are approximately seven laboratory experiments coveredwithin this course. Each of the experiments utilizes LabVIEW and typically requires two weeksto complete. As part of the course requirements, students complete a group project in place oftaking a final exam. Students select the team members and the project. Four team memberschose to work on this remote sensing project.A detailed listing of the
part of their instructions are convinced that critical thinking provides a greaterchallenge that encourages students to work more critically and creatively1.Industry wants students from engineering and engineering technology programs to be proficientin problem solving skills. While problem solving provides a key element in engineeringtraining, students need to be taught how to approach the concept of problem solving. Theconcept of problem solving can be supported if the approach to problem solving is centered onthe pedagogy of Critical Thinking.In the book “Design Tools for Engineering Teams”2, the following is given for problem-solvingsteps:A team must share a common thought process for effectively finding solutions to problems.While there
Committee is to define the expected relative contributions of theundergraduate and masters degree educations and to design curricula that support this.III. Why Get Involved NowThe United States Military Academy at West Point is a public university with a studentpopulation of approximately 4,000 undergraduates. Upon graduation, every student iscommissioned as an officer in the U.S. Army. USMA offers majors in 32 disciplines, six ofwhich are ABET accredited engineering majors. West Point confers only a bachelor’s degree andhas neither the ability nor the desire to start a masters program in engineering. The decision bythe West Point civil engineering program to join the curriculum design partnership effort wasbased on the following
Libraries 101 for International Students Adriana Popescu, Princeton UniversityAbstractAcademic libraries have been increasingly active in developing programs and services which allow theireducational mission to address the needs of an increasingly more diverse student population. In additionto the pressures of adjusting to a new environment and to the educational demands of a new school,international students must also adjust to an extensive and sometimes overwhelming library system,which can be quite different from what they are used to. The organizational structure of libraries, theirservices, collections, even their role and mission can differ from a country to another, thus
other advanced driver safety functions). As the company restructured, Dr. Riley transitioned to OhioUniversity as an associate professor in the ECES Department. His most recent experience includes professor ofpractice at Clemson University in the College of Engineering, Computing, and Applied Science. Dr. Riley haspublished extensively, currently serves as an ABET program evaluator of Electrical Engineering Degree programs,and is a senior member of IEEE, ASEE, and SAE. Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 345Proceedings
implementation of the minor program will help students gain a solid foundation in computerscience, engineering, physics, and modern experimental sciences through hands-on laboratory-based approaches with state-of-the-art technologies.The Department of Mathematics and Computer Science of FVSU is currently developing amodern computerized instrumentation lab to support the curriculum of the minor program. Thelab is being equipped with various experimental setups that could be used to perform scientificexperiments for lab science courses offered at FVSU. These setups will be fully controlled,monitored and operated by computer systems using virtual instrumentation technology. Theyalso feature on-line capabilities that allow users to operate them remotely
. Details will include thecurrent course teaching techniques as well as the revisions they have undergone. Assessmenttools employed in this environment will be identified. Information from student surveys, testingand security methods and overall goals of the web-based certificate itself will also be detailed.I. IntroductionThis paper presents the qualitative results of ten web-based course offerings in the BiomedicalElectronics Technology program in the Electrical Engineering Technology department. Thison-line teaching environment has distinctive issues. The most important focal points concerning distance teaching are: distance education typically requires more preparation time than traditional classroom teaching
skills of students that haveonly had one or two programming courses at the university level, and finally, will it be possible to cover thismaterial adequately in a two or three week period. These issues as well as prototypes are currently underdevelopment.Conclusions We have presented a design methodology and system architecture which supports the development ofcomprehensive human-manufacturing system interfaces by undergraduate engineering students. This provides anopportunity for students to implement theory taught in other classes to build interfaces to manufacturing systems.Good system integration is a facilitator, it brings relevant information to the attention of management and assistsin maintaining the efficiency of the system. The
such as ERP). During her studies in the United States she worked a research assistant at the Center for Innovation on Healthcare Logistics CIHL, her work for CIHL focused on assessing the impact of GS1 standards adoption in the healthcare supply chain. Her research interests are related to the adaptation of existing manufacturing and logistics models and structures to the healthcare supply chain with a specific focus on medical supplies. She is also interested on engineering education research. She is part of the IE Depart- ment at Universidad Icesi since 1998. She has over fifteen years of teaching experience and served as Director of the Undergraduate Program in Industrial Engineering (2003-2007), Director of the
Session # 1332 The Telecommunications Interoperability Laboratory J. J. Sluss, Jr., S. V. Kartalopoulos, H. H. Refai, M.J. Riley and P. K. Verma Telecommunications Systems, College of Engineering The University of Oklahoma - TulsaAbstract The University of Oklahoma has developed a Telecommunications Interoperability Laboratory to enhance the educational and research experience of students in the Telecommunications Systems program. The Interoperability Lab is a collection of five interconnected technology islands: the Internet
codedinstructions, and take some physical action within the environment. Machines with this flexiblecontrol capability can be classed as mechatronic systems. Therefore, it is important to produceengineers who are versed in all of the contributing disciplines necessary to create such integrateddevices. Page 10.18.1 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education Figure 1. Mechatronics lies at the intersection of several engineering fields2. The importance of an electrical or mechanical
also actual data and models from lower division laboratories inupper division laboratories. The integration occurs because students must utilize their previouslaboratory work as a reference as they study the different facets of the same experimental set-upsin multiple engineering laboratories. The students learn to appreciate the integrated nature ofmodern systems since they get to use the same set-ups in multiple courses. There are otherindirect advantages of this approach in terms of financial economy and faculty professionaldevelopment. IntroductionFor almost thirty years LSSU offered quality programs in engineering technology. In 1994, basedon the input from alumni, employers of graduates, and
andpromising trends in education is the “edutainment” concept, which combineseducational content with entertaining activities so, the participants learn while havingfun.The program proved its flexibility as it was adapted to various locations, number ofparticipants, and time intervals. The paper will present the continuation of the program,the new results, and the plans for future expansion of the program to reach a broaderrange of participants.IntroductionExtensive evidence supports the effectiveness of instructing engineering students inspatial visualization skills, leading to improved outcomes. Research, spanning from theearly 1990s onwards, has consistently shown that practicing and training in spatialvisualization enhances performance in
that maybe place-bound at essentially any location in Missouri. In addition, recent contracts with The BoeingCompany require the delivery of a new degree in Systems Engineering to Boeing sites worldwideand noncredit courses in Saudi Arabia. This paper discusses the authors’ thinking on and latestefforts to create effective learning environments using modern technology.1. IntroductionThe Engineering Management Department at the University of Missouri has been charged with theresponsibility of delivering a Masters level degree program to students anywhere in the state ofMissouri. The department has a very strong tradition of service to the state, nation and the worldthrough distance education efforts of various kinds over the past thirty years
outcomes.The EPICS program has developed a series of methods to help assess student achievement andassign grades in an equitable manner. They cover a variety of attributes that each student bringsto the team based on his or her discipline and academic year. These methods include automatedweekly report and peer evaluation systems, design notebooks, self assessments, and anevaluation matrix. They are used in a dry run grading period near the middle of the semester tohelp calibrate students in their performance. This paper will provide an overview of thesemethods and how they have been applied in the context of the EPICS program.Introduction The importance of significant design experiences to prepare undergraduateengineering students for engineering
Page 9.1051.3Center (MATEC). The main goal of this grant is to develop a series of instructional “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004. American Society for Engineering Education”modules that fill the gaps identified in electronics curricula by covering key high-technology topics missing from the most popular electronics textbooks. Known by itsformal title, Work-Ready Electronics: An Industry Supported System for SynchronizingCurriculum to the Rapidly Changing Workplace, the project is developing instructionalmodules that are delivered on-line. The modules incorporate a “learner-centered”approach that