technologies. This level includes allcharacteristics of Level 4. • Process change management • Defect prevention • Technology change management Page 9.1316.4 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright ©2004, American Society for Engineering EducationPeople Capability Maturity ModelThe CMM is designed to measure process capability rather than the capability of people in theorganization. In 1995, Curtis, Hefley and Miller proposed the people capability maturity model8to measure and improve the knowledge and skill of the workforce
that are simply computationally efficient.• Increased natural language processing (NLP) capabilities that allow more powerful ITS and provide psychologically valid models of language and knowledge representation.• Advances that make technology readily accessible to students.• A demonstrated need for teaching problem formulation skills in engineering curricula, as evidenced by the EC 2000 criteria [1].Our goal is a design for an ITS that teaches key concepts of probability and statistics, encodes andretrieves problems, and assists students in solving problems while based on psychologically validmodels of reasoning. We believe this will have the following benefits:• Students will be able to explore, adapt and augment a large database of
AC 2011-17: INTEGRATING ENTREPRENEURSHIP INTO MANUFAC-TURING ENGINEERING EDUCATIONNing Fang, Utah State University Ning Fang is an Associate Professor in the College of Engineering at Utah State University, USA. He has taught a variety of engineering courses such as metal machining, design for manufacturing, and engineer- ing dynamics. His areas of interest include computer-assisted instructional technology, curricular reform in engineering education, the modeling and optimization of manufacturing processes, and lean product design. He earned his Ph.D., M.S., and B.S. degrees in mechanical engineering and is the author of more than 60 technical papers published in refereed international journals and conference
systemsengineering technology and introducing new technologies and excellent traditional productionmeasures to make a multi-step use of substance”.5 The experience in China with ecologicalengineering is similar in that the focus is on working with ecological processes in systemsdesigned to meet human needs (such as pisciculture). A significant difference, however, is thatthe Chinese do not rely heavily on self-design and often there is substantial human interventionto maintain the system.6In the introduction, we present a definition for ecological engineering that is a slightly modifiedversion of Mitsch’s: Ecological engineering is the design of sustainable systems consistent with ecological principles that integrate human society with its
, be a catalyst for interaction with outside “suppliers” such as math and physics, and be ameans for communicating program objectives to students.IntroductionIn November 1996 the Accreditation Board for Engineering and Technology (ABET) approvedEngineering Criteria 2000, Criteria for Accrediting Programs in Engineering in the United States(ABET, 1996). The new criteria represent a paradigm shift in accreditation from a highlyprescriptive set of criteria to a relatively simplified, flexible set of outcomes-based criteria whichfocus on the attributes engineering graduates are to have. These attributes are, •an ability to apply knowledge of mathematics, science, and engineering; •an ability to design and conduct experiments as well
remainingrespondents (5.3%) saying communication skills are important. None of our respondentsdoubted the importance of communication skills. In fact, one of our respondents said, “Tosucceed, engineers must have tremendous communications skills.”At our university, our communication initiatives already take globalism somewhat into account.In our Communication-Intensive (C-I) courses, we emphasize 4 modes of communication:written, spoken, visual, and technological. Of these, only 2 are language specific. However,even when working in language-specific modes, rhetorical strategies that consider audienceneeds are taught so that language can be supplemented with graphical information, calculations,or other non-linguistic elements. The visual and technological modes
Science, Mathematics, Engineering, and Technology; National Science Foundation Document NSF 96-139, © 1996.3. Webster’s New World Dictionary; Guralink D. B. ed, Simon and Schuster, ©1980.4. Bloom B. S. and Krathwohl D. R.: Taxonomy of Educational Objectives: the Classification of Educational Goals, by a Committee of College and University Examiners. Handbook I: Cognitive Domain; Longmans, Green New York, © 1956.5. Wnek G. E. and Ficalora P. J.: Relating the Macroscopic to the Microscopic - A Vital Way to get Freshmen to Understand Chemistry; Chemtech © 1991 pp. 662-6646. Hudson J. B, Palmer M. A.: Selection of Topics for an Integrated Materials Chemistry Course for Engineering Majors
Specifications,HayGroup (available at www.hayresourcesdirect.haygroup.com), 2005.11. D.A. Kolb, Experiential Learning, Prentice-Hall, Englewood Cliffs, NJ, 1984.12. E. Rutz and V. Westheider, Learning Styles of Engineering & Engineering Technology Students –Similarities, Differences and Implications for Effective Pedagogy, paper 2006-419, Proceedings of the AmericanSociety for Engineering Education Annual Conference & Exhibition, Chicago, IL, June 18-21, 2006.13. N.E. Cagiltay, Using learning styles theory in engineering education, European Journal of EngineeringEducation, 33(4), 415-424, 2008.14. S.K. Hargrove, J.A. Wheatland, D. Ding, and C.M. Brown, The Effect of Individual Learning Styles onStudent GPA in Engineering
Teaching a Civil Engineering Materials Class Zhanping You / Sanjeev Adhikari Department of Civil and Environmental Engineering Michigan Technological University 1400 Townsend Drive, Houghton, Michigan, 49931 - 1295 zyou@mtu.edu, sadhikar@mtu.eduAbstractThe objective of this study is to present the experience of teaching a Civil Engineering MaterialsClass. This course is designed for junior and senior undergraduate students. This class coversdifferent materials such as steel, aluminum, various alloys, aggregate, portland cement, portlandcement concrete, asphalt, asphalt mixtures, and wood
industry consortium for governing Distributed Ledger Technology. And coordinating efforts with industry, academia and government stakeholders to create commonly accepted standards for Airworthi- ness Engineering Training. In his experience, Rentsch has represented the interests of the U.S. aerospace industry as a member of the AIA-ASD-ATA-eBusiness S1000D Council, the AIA-ASD Integrated Logis- tics Support Specification Council and continues to support these communities. Rentsch has a Bachelor’s Degree in Mechanical Engineering and Ocean Engineering from the University of Rhode Island and a Masters Degree in Business Administration from George Mason University.Prof. Jason M Merret, University of Illinois at Urbana
the 2011 New Jersey Section of ASCE Educator of the Year award as well as the 2013 Distinguished Engineering Award from the New Jersey Alliance for Action.Dr. Stephanie Farrell, Rowan University Dr. Stephanie Farrell is Professor and Founding Chair of Experiential Engineering Education at Rowan University (USA) and was 2014-15 Fulbright Scholar in Engineering Education at Dublin Institute of Technology (Ireland). From 1998-2016, Stephanie was a faculty member in Chemical Engineering at Rowan. Dr. Farrell has contributed to engineering education through her work in experiential learning, focusing on areas of pharmaceutical, biomedical and food engineering. She has been honored by the American Society of Engineering
, etc.). Department chairs or faculty can be brought in as guest lecturers for this purpose.However, too much of this can be boring. In my experience, students are “starved” for specific information on the engineering disciplines.Provide them with reading material such as brochures from the engineering professional societies (e.g.,ASCE, ASME, IEEE) or material from Introduction to Engineering textbooks (e.g., Reference 7). Of mostbenefit are descriptions of the various subfields within each discipline. As an example, the Institute of Electrical and Electronic Engineers (IEEE) is organized into 35Technical Societies (aerospace and electronics systems, antennas and propagation, broadcast technology,circuits and systems
Session 2563 CASE STUDIES IN ENGINEERING ETHICS Jon E. Freckleton, P.E. Rochester Institute of Technology Rochester, New York 14623ABSTRACT The case studies presented in this paper are based on 22 years of experience at two majorUS companies, four years on active duty in the military, and 11 years of teaching. Cases arepresented first as the situation, with the results of action taken in a later section so that they canbe used for discussion with students. These occurred over a career that started as a new collegehire and
Figure 1. The reasons why the impacts on the student attitudes were not aspositive as desired are not known. However, making a significant change in student attitudes Page 11.746.7towards engineers’ influences on society in a 1-credit course with other primary goals may beoverly optimistic. At the end of the course, minority students had a significantly higher (p =0.09) response than male students to the question “technology plays an important role in solvingsociety’s problems.” Other differences between men, women, and minority student attitudeswere not statistically significant. strongly 5 agree 4 Response 3
ofparticipation from members of the Civil, Engineering Management, Engineering Technology,and Industrial Engineering groups. The survey questions explored faculty perceptions ofengineering leadership and their perceived role of engineering leadership content in engineeringand engineering technology programs. The broader goal of this survey was to understand whatengineering educators identify as important topics in the concept of Engineering Leadership andtheir overall impression of the importance of Engineering Leadership in undergraduatecurricula.Data and FindingsBoth data collection methods collected demographic information from over 100 participants. Toprovide insight into the backgrounds and characteristics of authors actively publishing
Paper ID #13075Engineering Graphics Concepts: A Delphi StudyDr. Mary A. Sadowski, Purdue University, West Lafayette Mary A. Sadowski has been at Purdue since 2003 and until September 1, 2011 served as the Associate Dean for Undergraduate Programs and Learning in the Purdue College of Technology where she provided leadership for strategic initiatives in undergraduate education. As a professor of Computer Graphics, her research interests include enhancing visualization skills, cre- ative thinking, and learning styles. She is currently funded to begin gathering data to create a concept inventory for engineering graphics. As
from the University of Iowa. His research involves musculoskeletal biomechanics with a focus on computational methods. He is also deeply interested in engineering education and especially creating opportunities for underrepresented minorities and women in the field.Miss Heather Rae Aschenbrenner Page 26.415.1 c American Society for Engineering Education, 2015Coordination of Pre-College Summer Programs to Create a Pipeline into BiomedicalEngineeringIntroductionCurrent political and academic discourse is riddled with a call for more students to graduate andenter into Science, Technology
advisor who takes a special interest in helping a student develop into asuccessful professional. Mentoring is a professional as well as a personal relationship. It is with this spiritin mind, mentoring is compared among some of the US and Puerto Rican engineering schools of similarsizes.Department of Mechanical Engineering, University of Puerto Rico at Mayagüez (UPRM), Puerto RicoThe department has about twenty full-time faculty members and one is currently on a leave of absence.During the preparation for an ABET (Accreditation Board for Engineering and Technology) visit, the needfor undergraduate student mentoring was felt. The department has a full-time student counselor;however, there happened to be cases where some specific technical
2017 ASEE Gulf-Southwest Section Annual Conference Hypothetical Cases in Engineering Ethics Steve E. Watkins Missouri University of Science and Technology, Rolla, Missouri USA and United States Air Force Academy, Colorado USAAbstractAn important educational subject for engineering students is engineering ethics. Commoninstructional objectives are to develop knowledge of ethical principles, e.g. professional codes,and to apply these principles to specific situations. Case studies are useful instructionalexamples and exercises and cases are central to student ethics competitions. Historical casestudies emphasize
theability of an engineer to undertake good sketches. The sketch as a means ofcommunication cannot be underestimated. More often than not, most great ideas, insightsand general ‘eureka’ moments occur when computers are not readily available. Theinteraction one can have with others over a sketch is also hard to beat. The informationdensity in a sketch also far surpasses that of the written word, the old adage ‘a picture isworth a thousand words’ still stands true today. The sketch also, by its very informality,encourages others to contribute to its development and the use of a pencil generally formsno technological barriers. All in all, it remains a tremendous tool for design and so shouldcommandeer its fair share of a design course’s allotted time
Conference & Exposition Copyright ? 2003, American Society for Engineering Education”At Rose-Hulman Institute of Technology (RHIT), sustainability has been a part of theenvironmental and water resource engineering courses and curricula for years. However,sustainability learning was faculty driven rather than driven by department initiative, anddeparture of that key faculty put the growth of sustainability learning in the department at risk.We also noted that focusing sustainability within environmental courses caused some students inother civil engineering subdisciplines to dismiss sustainability as not relevant to their interest.The RHIT Department of Civil Engineering is now working to make sustainability a
in multimedia technology, educators can improve the quality of engineeringeducation with integrated media with 3D graphics, video, diagrams, sounds, animations andhypertext.The basic concepts of engineering thermodynamics have not changed significantly for decades,and engineering thermodynamics is still a fundamental course for all engineering students. Inrecent years, efforts have been expended to develop and utilize multimedia in teaching Page 9.962.1engineering thermodynamics. Cobourn and Lindauer[1] at the University of Louisville present a Proceedings of the 2004 American Society for Engineering Education Annual Conference &
development efforts on education. Thisresearch/development could focus on assessment of student learning, development of newteaching methods including methods using technology, improving the evaluation of teaching,development of methods to increase the recruitment and retention of underserved populations,improving academic advising procedures, developing service learning, improving theeducational value of co-op and internships, developing entrepreneurship opportunities, and soforth. Perusal of recent issues of JEE and ASEE Proceedings will show many other possibilities.The “traditional” path to becoming an engineering education expert has been to start with astandard tenure track appointment as an assistant professor in a disciplinary department
courses withexposure to content in areas such as mechanics, electrical phenomena and programminglogic. In addition the course contributes significantly to the development of timemanagement, teamwork, and oral and written communication skills. Page 9.1025.1Proceedings of the 2004 American Society for Engineering Education Annual Conference and Exposition Copyright ©2004 American Society for Engineering EducationIntr oductionTeaching and learning may be enriched by integrating new technologies in theengineering curriculum, particularly in laboratory-based courses. Traditional pedagogicalapproaches of teaching theory before
2004-1006 INDUSTRIAL PROJECTS IN MANUFACTURING ENGINEERING EDUCATION Richard Rothaupt Technology Department University of Wisconsin-Stout Menomonie, WI 54751Abstract – Presentation will describe the requirements of an industrial project for UW-Stoutmanufacturing engineering students and illustrate the process used to screen and selectindustrial projects for the senior design course. An industrial project recently completed bystudents will be described.IntroductionSince 2001
disposal/recovery of that vehicle at the end of its productlife. In this country market forces determine the value of these vehicles - often requiring theowner to pay for its eventual disposal.Carnegie Mellon, Berkeley, Georgia Tech and the University of Windsor all have greenengineering WEB sites, and either formative or mature green engineering programs. VirginiaTech began its Green Engineering Program a decade ago. In 1992, the College of Engineering atVirginia Tech established a “Green Engineering” program. Green Engineering is defined withinthe context of the Virginia Tech program as environmentally conscious attitudes, values, andprinciples, combined with science, technology, and engineering practice, all directed towardimproving local and
Colleges, Wash D.C., 1988.[5] Beth Panitz, “The Integrated Curriculum,” ASEE PRISM, Sep. 1997, pp. 25-29.AuthorsSTEVEN H. VANDERLEEST (Ph.D., University of Illinois at Urbana-Champaign, ’95) is an Associate Professor of Engineering at Calvin College in Grand Rapids, MI. His research interests include appropriate technology, design for the international market, engineering and business use of the web and intranets, and high-performance computer architecture. He can be contacted by email at svleest@calvin.edu.EDWARD G. NIELSEN (M.S.E. University of Michigan, ’66) is an Associate Professor of Engineering at Calvin College. Mr. Nielsen spent 28 years in the aerospace and construction equipment industries. He worked as a project engineer for
with askill set that allows them to succeed in computing careers. The Computer Science degree at UVUis accredited by Computing Accreditation Commission of the Accreditation Board forEngineering and Technology (ABET). Currently, the Computer Science Department has morethan 1300 students. The Engineering programs at UVU are accredited by EngineeringAccreditation Commission of the Accreditation Board for Engineering and Technology.Computer Engineering Program’s Capstone CourseOur CE capstone course is structured as a collection of independent student projects. This courseis offered every semester. Usually, the students in the Computer Engineering program take thiscourse during their last semester. Students either can come up with an embedded
1 Session # 2560 Teaching Entrepreneurship to Engineering Students Bethany S. Oberst, Ph.D. United Arab Emirates University (UAE) Russel C. Jones, Ph.D., P.E. World Expertise LLC (USA) Ion Tiginyanu, Ph.D. Technical University of Moldova (MD)AbstractIn 2003 the Technical University of Moldova
knowledge have been the basis to build the sets of Knowledge and Skills andgenerate the frame to get both individual and ideal profiles. Additionally, these sources are beingused in a larger project whose objective is to represent the Electrical Engineering curriculum ofUniversidad Nacional de Colombia through ontologies.The three sources of knowledge are: • The Conceive, Design, Implement and Operate (CDIO) Syllabus. • Technical knowledge. • Electrical Engineering curriculum of Universidad Nacional de Colombia.CDIOCDIO is an initiative from the Massachusetts Institute of Technology (MIT) and other universities,whose goal is to integrate technical knowledge with some expected characteristics that a studentshould possess when he or she