. The challenge was to implement a qualityeducational program subject to the constraints of being a rural university and lack of namerecognition.The key to the success of the accreditation effort was to create a process that demonstratedcompliance with ABET criteria while also targeting the constraints of the problem. A team offaculty, called the Engineering Physics Oversight Committee (EPOC) was established to developand implement the process. A management plan was also developed describing the division ofresponsibility amongst the team as well as the implementation of an external advisory board.TrainingIt was very important to attend sessions and review literature related to ABET accreditation. TheABET workshops1 and Institutional
Session 1526 CRCD Multi-Disciplinary Optical Science and Engineering Program at NJIT J. F. Federici, A. M. Johnson Dept. of Physics H. Grebel, T. Chang Dept. of Electrical and Computer Engineering R. Barat Dept. of Chemical Engineering, Chemistry, and Environmental Science New Jersey Institute of Technology, Newark, NJ 07102As part of a National Science Foundation (NSF) funded Combined Research/CurriculumDevelopment (CRCD) program
international programs and diversifying student’s offerings. Theprogram brings engineering students from both universities into an innovative model ofexchange agreement that combines the development of an academic, research, and societal studyabroad experience related to a sustainable or renewable energy topic. Undergraduate studentsfrom both institutions are engaged in a summer course, a research experience for undergraduates,and interaction in local professional contexts related to the selected topics, in order to connectacademic and research contents with societal needs from an abroad perspective.During this student exchange, students will take part in classes directly related to the selectedresearch topic, language classes, culturally adaptive
ETD 315 Industry 4.0 and Holistic Safety Programs Industry Collaboration in Manufacturing Engineering David Labyak and Scott Wagner Michigan Technological UniversityAbstractThe Manufacturing and Mechanical Engineering Technology Department (MMET) at MichiganTechnological University offers the Industry 4.0 Concepts and Key Factors of Holistic Safetycourses. These courses are included in the newly established graduate certificate (CME) and theMaster of Science in Manufacturing Engineering (MSME). The SME Four Pillars ofManufacturing Engineering inspired the
multidisciplinary program, housed in the College of Engineering, drawing on specific faculty and departments for its coursework; faculty appointments were in their home department. • Administration of the program by a Director of Graduate Studies, with a staff assistant • Overall coordination by an Advisory Committee appointed by the Dean of Engineering, responsible for curriculum and related issues. • Thesis and non-thesis options, based on coursework primarily in engineering, with at least one course in organizational behavior from the Business School (see Table 1). Courses include those specifically developed for the Manufacturing Systems program, as well as electives from several departmental programs
statement. Inaddition to the demands on students that all engineering programs share, this application processconstitutes additional performance pressures for the students. At the same time, the program hasa legacy and current culture of collaboration between students, a strong cohort sense andidentification with the major and institution.The small, teaching-focused university offers five engineering degree programs which enrollapproximately 250 students. Although the curricular plan of the engineering programs is, inmany ways, similar to the programs at the research-intensive university, the institutional cultureat this university is characterized by a holistic focus on the development of whole persons,particularly in relation to faith and
engineering principles that form the basis of civil engineering.Students work individually and in multidisciplinary teams to identify and solve engineeringproblems using their accumulated knowledge and experience along with advanced technologysuch as computers and laboratory equipment.Every CEE course can be characterized as a problem-solving course. Engineering design issuesand experiences are integrated throughout the undergraduate CEE Program, beginning with twosophomore courses in the curriculum sequence, Introduction to Environmental Engineering andStructural Engineering I. Issues related to safety, economics, ethics and social and global impactare discussed and considered in virtually every course. Students are also exposed to a widerange of
. In this capacity, he is responsible for all activities related to student services (academic administration, advising, career planning, women and diversity programs, etc.) and curricular issues. He is principal investigator on several NSF grants related to retention of engineering students. As a faculty member in civil engineering, he co-teaches a large introductory course in civil engineering. His research and consulting activities have focused on the safety and reliability of hydraulic structures, and he has participated as an expert in three different capacities regarding reviews of levee performance in Hurricane Katrina. He is a three-time recipient of his college’s Withrow Award for Teaching
and non-government affiliated agencies to help organizations solve SystemsEngineering, Engineering Management, Operations Research and Information SystemsEngineering related problems. This program is entitled “Academic Individual AdvancedDevelopment” (AIAD) and is vital to the educational development of cadets and provides themwith an opportunity to participate in activities beyond our baseline requirements. These AIADopportunities are designed to allow students to work with military and civilian organizations fora three-to-four week period and discover the “real world” applicability of their academicendeavors here at West Point. These experiences broaden student perspectives; provide them with practical advancededucation related to their
field of biomedical engineering and typical career paths for BME students on Monday.Other lectures included training on laboratory safety related to biological, chemical, and physicalhazards as well as an introduction to the laboratory experiences. Finally, a local surgeon thatworks with the BME faculty on design of breast surgery devices gave a lecture on hisexperiences in the medical field. Evening activities included a scavenger hunt, design of balloonpowered vehicles, and the viewing of the movie “The Island” with a subsequent discussion ofmedical ethics and human cloning. The program culminated with an awards dinner and gamenight in the campus center. A brief schedule of the program is shown in Table 1.Laboratory experiencesThe overarching
options in engineering, especially options related toenvironmental and sustainability issues. The Green Design Apprenticeship is one of severalapprenticeship opportunities offered through the Gifted and Talented Program of the AlleghenyIntermediate Unit (AIU) in Southwestern Pennsylvania. The AIU supports multiple schooldistricts in the area with special education needs that individual schools cannot supportthemselves. The intent of the AIU Apprenticeship Program is to help guide students’ educationaland career choices by exposing them to people and organizations related to careers that interestthem. For example, students can apply to apprenticeships in broadcast journalism, musical
Technologies into the Industrial Engineering CurriculumAbstractIncorporation of powerful “scripting languages” in engineering modeling software is becomingincreasingly common. Unfortunately, while most engineering curricula include one or twoprogramming-related courses at the freshman and/or sophomore level, students generally showweak computer programming skills when they reach the core curriculum courses. This projectseeks to develop an innovative set of classroom modules involving computer programming foruse throughout the Industrial Engineering curriculum. The modules are in response to our beliefthat the main cause of the problem is not the specific material covered in the computerprogramming courses but the lack of
to the gathering, 2) educatingscience faculty about the engineering process so they can better identify successful engineering studentsand relate their courses to engineering students, 3) making the program into a 1-credit course that couldbe taken by students each semester during their 2-3-years of engineering preparation at the College, 4)tracking the participants’ success in the engineering part of their education, and 5) assisting otherinstitutions interested in creating a campus-wide, women-friendly recruitment and retention program attheir campuses.1 “Tasting” EngineeringHistorically, engineering students took scienceand mathematics pre-requisite courses in thefirst year of college. It wasn’t until thesophomore year that students were
education credit hours, certificate programs offered by a number of content providers,and professional certification through organizations that offer industry-recognized standards inareas related to Systems Engineering.6Many of the courses in the distributed curriculum have an option of being taken for graduatecredit; our guidelines stress, however, that it is extremely unlikely that a series of courses takenfrom different providers can be integrated together into a graduate degree granted by anacademic institution. If a student has a goal of obtaining a Master’s degree in SystemsEngineering or a related field, one or two courses may be transferable into a formal Mastersprogram
Paper ID #26726Training Engineers for Professional Management through the Doctor of En-gineering Degree in the School of EngineeringMs. Rachal E. Thomassie, Texas A&M University Rachal Thomassie is the Assistant Director of Interdisciplinary Engineering Programs at Texas A&M University. She holds a B.S. degree in Mechanical Engineering and an M.S. degree in Interdisciplinary Engineering from Texas A&M University. She has over five years of industry experience in mechanical design and systems engineering and over eight years of experience in higher education. She founded two mechanical engineering affiliated
the University of Louisville allows for programparticipants to attend the program without any out-of-pocket costs. However, arrangements toget to and from the campus each day are the responsibility of each program participant.C. The curriculum of INSPIRE programThe INSPIRE program is conducted Mondays through Fridays from 9:30AM to 12:30PM duringthe month of June. The 2006 INSPIRE schedule is shown in Figure 3. This particular proposedschedule exposes each program participant to 19 sessions (57 total hours) consisting of 4 (~21%of program time) plant trips, 11 (~58% of program time) engineering discipline sessions, and 4(~21% of program time) non-engineering related sessions. A field trip to a selected local area
a psychometrician, program evaluator, and institutional data analyst. She has authored/co-authored more than 30 journal articles and conference proceedings and served as a reviewer of journals in engineering education, STEM education, and educational psychology, as well as an external evaluator and an advisory board member on several NSF-funded projects.Dr. Jacques C. Richard, Texas A&M University Dr. Richard got his Ph. D. at Rensselaer Polytechnic Institute, 1989 & a B. S. at Boston University, 1984. He was at NASA Glenn, 1989-1995, taught at Northwestern for Fall 1995, worked at Argonne National Lab, 1996-1997, Chicago State, 1997-2002. Dr. Richard is a Sr. Lecturer & Research Associate in
Session 3530 Session 3530 Categories and Levels for Defining Engineering Design Program Outcomes Denny C. Davis, Richard W. Crain, Michael S. Trevisan/Dale E. Calkins/Kenneth L. Gentili Washington State University/University of Washington/Tacoma Community CollegeABSTRACTRecent trends in engineering education have shifted from course-based to outcomes-based degreeprograms. An outcomes-based engineering degree program requires clear definition of studentlearning targets, planning to ensure that they will be achieved, and
”: mechanics in the 17th and 18th centuries and thermodynamics in the 19th century.These origins have been reflected for well over a century in Mechanical Engineering (ME)curricula [1]. In January 2002, The National Science Foundation chartered a workshop on“Redefining Mechanical Engineering” to explore new possibilities for ME education.Recommendations were made to streamline and update ME curricula by introducing emergingknowledge related to micro/nano technology, product design and realization and etc. andexposing students to computational methods and design practices employed by practicingengineers [2]. To keep up with the national trend in ME education, we plan to implement threetrack areas in the program: (1) Mechatronics; (2) Design and
member and a registered Professional Engineer of Ontario. He taught at the University of Western Ontario and is now Assistant Professor at State University of New York at Oswego, Department of Physics. Page 14.772.1© American Society for Engineering Education, 2009 Integration of an Innovative Engineering Program in a SUNY CollegeAbstract:The development of a new engineering program in an existing and well-established institutionpresents several challenges, including the creation of a sound curriculum that satisfies some ofthe local and national engineering workforce needs. However, besides curricular issues, the
, explosion, and hazardous material accidents.The methodology selected for instruction was based on the performance approach supportedby computer simulation programs developed by the National Institute of Standards – NIST -that are becoming standard practice in safety and fire engineering. The study of fires, floods,tornados, explosions, and handling of hazardous materials is ideal for the application ofcomputer simulation because of their complexity and difficulty to accurately reproduceconditions in instructional laboratories.The faculty of the department reviewed the curriculum of similar and related programs atseveral institutions in the U.S. and abroad once the goals of the program were established.This paper discusses the content of the courses
Carnegie Mellon University. He has been a faculty member at Colorado State University since 1988. Page 11.415.1© American Society for Engineering Education, 2006 Designing a B.S. Degree Program in Engineering for Globally Sustainable DevelopmentA new degree program for careers in international engineering is proposed. This degreeprogram starts with a foundation of engineering science courses that are typical of mostundergraduate engineering degree programs. Then, courses directly related to the practiceof engineering in a global environment for sustainable development are added. Tocomplement the engineering
faculty in architectural engineering and construction science and management at Kansas State University in Jan. 2008. She received her B.S.A..E from K-State in 2001 and com- pleted her M.S.A.E. from K-State in 2010 related to curriculum development in architectural engineering and construction science with regards to building information modeling. Vogt is currently pursuing her Ph.D. in electrical and computer engineering with an emphasis in engineering education/outreach under the supervision of Dr. Noel Schulz. During 2001-2008, Vogt was employed full-time with Affiliated Engineers, Inc., a national engineering consulting firm in Madison, Wis. where she held several roles, including project manager, project engineer
, researcher and consultant. His experience in engineering education extends over a period of more than 30 years. Professor Hayati has been the Dean of College of Engineering at Ajman University of Science & Technology in the UAE since July 2000. Page 24.219.1 c American Society for Engineering Education, 2014 Attracting and Retaining Women in Undergraduate Engineering Programs – A Case StudyAbstractGender disparities in engineering educational programs have been a cause of concern globally.Such disparities can lead to inequalities in professions with related
ILO based on exam resultsIf results over time show a consistency between the two methods, we will drop the morecomplicated second method in favor of surveys.Instructional FormatsIt is expected that many students in the MSTET program will be people who are already workingin the telecommunications or related industries. Many of these students will be unable to spendsignificant time on campus because of work requirements or their location. For this reason, theMSTET program is offered in three formats: “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition
represented 26% of the workforce. In 2000, 19% of the Chattanooga Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Page 6.1163.2 Copyright © 2001, American Society for Engineering Educationworkforce is in manufacturing3. Tourism and service related jobs are replacing themanufacturing jobs.The second factor relating to enrollment declines in technical programs at Chattanooga Staterelates to the strong economy that we are presently enjoying. In the latter half of the decade ofthe 1990’s, unemployment across the nation has been as low as it has been since the post WW IIera
laTechnology Houari Boumediene,” (USTHB), and the most prestigious engineering school is the“Ecole National Polytechnique d’Alger,” (ENPA). They are both located on the coast of Algiers.There are only about 3 miles between the two institutions. Both institutions offer Engineering,Master and Doctoral degrees.The engineering curriculum is common to all schools offering the degree in a said major. Theyall are five-year programs. During the first two years engineering students take the same courseswhether they are majoring in chemical, mechanical, electrical, civil, petroleum, or industrialengineering. This program is known as “Tronc Commun,” (TC). The second part is a three yearcurriculum and directly related to the field of specialty. The engineering
Technology colleges. Washington DC: Author.3. Israel, E. N. (1995). Technology education and other technically related programs. Foundations of Technology Education. In G.E. Martin (Ed.), 44th Yearbook. New York: Glencoe, McGraw-Hill.4. Accreditation Bard for Engineering Technology (1992). Criteria for accrediting programs in engineering technology. New York- Author.5. Tillman, T. (1994) A new model of manufacturing enterprise integration: theCASA/SME manufacturing enterprise wheel. Eastern Michigan University, USA94LM0326. Computer and Automated Systems Association. (1993). The new manufacturing enterprise wheel. Dearborn, MI: Society of Manufacturing Engineers.7. Tillman, T. (1993, November). The Manufacturing
Session 1470 Components of a Year-Long Bridge Program for Minority Engineering Students Minnie M. McGee, Audeen W. Fentiman The Ohio State UniversityAbstractHistorical data gathered and assessed as part of the Gateway Engineering Education Coalitio nprogram at The Ohio State University indicated that only about 1 in 10 minority engineeringstudents with math placement below college algebra completed a degree in engineering. Asignificant fraction of incoming minority engineering students, some with excellent high schoolgrades, do not perform well
months each and the professionalsare invited, some of them belong to the academic midst, others not and they are hired speciallyfor this program. They are engineers with solid theoretical knowledge of management, economyand law and possessing great biomedical basis. At the end of the Biomedical EngineeringProgram the student will have a full formation in Electrical and Computer Engineering, which isnecessary in according to the Education Law for third degree in Brazil.I. IntroductionEducation has most of all, to promote the natural ability of the mind to set and to solve problemsand by inter-relation to stimulate the full usage of general intelligence. This general intelligenceis the human capability to deal with problem viewing the global