Session 3215 Digital Imaging Activities for Civil Engineering Students Kauser Jahan, Shreekanth Mandayam, Beena Sukumaran and Yusuf Mehta Rowan University, College of Engineering Glassboro, NJ 08028AbstractDigital imaging is an exciting field with applications in all areas of engineering. It currentlyrepresents one of the major research and development focus areas with sales exceeding 10 billiondollars per year. The technology has also become a part of our daily lives through televisions,cameras, scanners and medical X-rays. Engineers play an important and expanding role in thisexciting
backgrounds,interests, skills, and needs, must be enthused about the profession of engineering and betterprepared, in both technical and non-technical areas, to creatively advance technology and solvethe problems the 21st century will present. Renaissance engineers, men and women who getinvolved in public policy, stand for practical and cooperative solutions, work to change the worldto make it a better place, and improve the quality of life for all the people of the earth, areneeded. To create them requires a new approach to engineering education.The U.S. is in a competitiveness-and-innovation struggle with the rest of the world, primarilyIndia, China, and Japan. The U.S. is also facing a critical shortage of engineers. Several factorshave
Computer Engineering that are developing faster processors, systems, channels,signals, and detectors and are ever going to be even more extensive in the future2-4.In order to provide a better understanding of the importance of the cross disciplinary nature ofHSSE one needs to identify the important concepts and subject matters for the future engineeringneeds. We identify the important emphasis in the future of electronics, networking, andcommunication technology. • Networking and dependable systems: Networks methods, protocol, fault tolerance, dependable design • Optics and optical measurement: Understanding of what needs to be done and how is it done in the field at the physical layer
in research, that cross traditional disciplinarydepartmental boundaries3. Nanoscale science and engineering provides a multitude of newinterdisciplinary teaching opportunities for engaging the interest of students and for broadeningtheir vision of science, engineering, and technology. Nanoscale science and engineering thuspermit the development of new strategies for enhancing science literacy, preparing the workforcefor emerging technologies, and attracting a diverse group of talented students to the workforce oftomorrow.A wide variety of nanotechnology educational programs are in various stages of developmentand implementation across the United States and in other nations, spanning K-12, associate and
, where a watershed is located, how beams and columns areconnected in a building frame, what work will need to be done to excavate a foundation,or how to lay out a roadway. With the advent of new computer technologies, it ispossible to take numerical 3-D data and render virtual computer models that arepresented in 3-D, enhancing the learning experience in relation to both analysis anddesign in the civil engineering curriculum [1]. To this end, the College of Engineering at Valparaiso University has establishedthe Scientific Visualization Laboratory to improve the learning experience for studentsfor 3-D concepts that are hard to represent in conventional 2-D space [2-4]. Examplesinclude electromagnetic fields, complex organic molecules
Re-Engineering Technician Education For The New Millennium Nicholas M. Massa, Gary J. Masciadrelli, Gary J. Mullett Engineering Technologies Division Springfield Technical Community College Springfield, MassachusettsAbstractThe U.S. Accreditation Board for Engineering and Technology (ABET) Engineering Criteria20001 (EC-2000) requires that graduates of two-and four-year engineering technology (ET)programs demonstrate proficiency in mathematics, science, and engineering, be able to work inmultidisciplinary teams, communicate effectively, be sensitive to the social and ethical issuesrelated to the engineering profession, and develop
futurecollaboration with NSC may get more comprehensive information from the official website of NSC(http://www.nsc.gov.tw) and its science liaison officers. Despite the fact that the first author served as the directorgeneral for the International Cooperation Department of NSC between 03/1999 to 02/2001, and some of thecomments and recommendations are made based on his administrative experience, the opinions and suggestionsappearing in this paper are the authors’ own, and should not to be considered as representing those of NSC.Introduction Due to the global competition and the subsequent industry restructuring, engineering practice today haschanged dramatically. The rapid changes of technology due to the advancement of internet applications can
and the use ofmaterials. One of the expected outcomes of the third year studio is that the projectsdemonstrate the students ability to effectively apply what they learned aboutmanufacturing to the design of their projects. This studio therefore seemed a good placeto include course content related to the technology embedded in the product itself.The Use of the Laboratory The new course was to begin by assigning the students to choose between twoprojects, a portable CD player, or an electric guitar. The industrial design students wereto ‘dissect’ the product they chose as a group, under the guidance of the teachingassistants, who were graduate students in engineering. Once they understood the existingproduct and it’s underlying operating
students had the necessary requisites forengineering courses. Since that time the method has been refined and has become apowerful tool for advisement and curriculum development. This paper will explore someof the advantages of using such a process by presenting both qualitative and quantitativeanalyses.IntroductionThe forever changing and increasing demands of a technology hungry society has theacademic community straining to keep pace with developing engineers that are ready andable to get the job done. Engineers are expected to have a much more extensive tool setwhen dealing with today’s technical and non-technical challenges. Employers are askingengineers to work more and more in teams consisting of members from dissimilardisciplines and often
evaluated after three years.IntroductionCentral Washington University (CWU) is a state-supported university that serves approximately8,000 students, including graduate students. In the Industrial and Engineering Technologydepartment, there are eight majors offered to students. Among these choices are MechanicalEngineering Technology, Flight Technology and Construction Management. In all of theseprograms, women are underrepresented. It became important to work towards a more diversecomposition of students. The ACE Academy evolved from this necessity.In the summer of 2004, 23 girls (age 13-16) were accepted at the workshop. Next year, the campwill be expanded to 36. The academy begins on a Friday afternoon with girls getting to knoweach other and
Session 1526 Using Real-Time Sensors in the Engineering Classroom: The Ongoing Development of an Engineering Education Experiment Matthew W. Ohland and Elizabeth A. Stephan General Engineering, Clemson University, Clemson, SC 29634AbstractClemson’s NSF-sponsored EXPerimental Engineering in Real-Time (EXPERT) project isinvestigating the effect of using real-time sensors on student learning through graphicalrepresentations of various physical concepts and to facilitate learning the concept itself. Thispaper will address the development and adaptation of the experiment as a model for otherengineering
ADAPTING ENGINEERING COURSEWORK FOR INCREASED GLOBAL RELEVANCE* Bopaya Bidanda, Larry Shuman, Kate Thomes and Ozlem Arisoy Department of Industrial Engineering/Bevier Engineering Library University of Pittsburgh Pittsburgh PA 15261AbstractThis paper emphasizes the need for enhancing engineering curricula in response to the rapidlychanging landscape of the global engineering environment. In particular, rapidly changingtechnology, particularly information technology, corporate downsizing, outsourcing, andglobalization are dramatically changing engineering and the engineering workplace. As a result,the need
Session #### Creating a Community for Women Engineers at RIT Margaret Bailey and Elizabeth DeBartolo Mechanical Engineering Department, Rochester Institute of TechnologyAbstractAt the Rochester Institute of Technology (RIT), the number of women engineering studentsgraduating each year from the Kate Gleason College of Engineering is approximately 11%,significantly below the 2003 national average of 20.4%. However, unlike the national trends inengineering student attrition, the overall retention rate for this relatively small group of RITwomen is actually higher than the retention rates associated
strengthening the diversity within it.WEPAN was established to effect a positive change in the engineering infrastructure conduciveto the academic and professional development of women and men. WEPAN’s mission is to be acatalyst for change that enhances the success of women in the engineering profession.Since 1990, WEPAN has worked to ensure that a full range of talent – including women from alldemographic groups – choose to enter the engineering profession and will have the supportnecessary to succeed. With new technologies, global competitive pressures, and shiftingemployment patterns, that work has become even more critical. WEPAN has members fromover 200 engineering schools, corporations including Fortune 500 companies and non-profitorganizations
Center for Advanced Technological Education (MCATE). Participants presented their modules in October of 1997 at Purdue. After participating in this workshop we were more convinced than ever that we needed to give our students a concurrent engineering experience, and we began to acquire the various software tools necessary for this work and to outfit a machine shop to support it. In December 1997 we obtained an examination copy of Pro-Engineer and hoped to use it that spring for the FIRST robot design. We found that the learning curve for this software was too long, so we continued with AutoCAD AME. This is not to speak badly of Pro-Engineer. It is a very powerful software package, but for our purposes
Fellows and recommendations from theNational Science Education Standards on best practices for teaching K-12 science, the PrattSchool of Engineering created the MUSIC Program (Math Understanding through ScienceIntegrated with Curriculum). MUSIC is a GK-12 track 2 program funded by the NationalScience Foundation. The MUSIC Engineering Teaching Fellows receive intensive and pairedteacher/fellow training in inquiry-based instruction. The Pratt School of Engineering, partneredwith the North Carolina Department of Public Instruction, the North Carolina Science,Mathematics, and Technology Education Center, GlaxoSmithKline, Progress Energy and nineNorth Carolina school systems, has also developed a K-8 teacher training initiative known asTASC: Teachers
Annual Conference & Exposition Copyright 2005, American Society for Engineering EducationReferences1. ABET, ABET 2004-2005 Criteria for Accrediting Engineering Programs, Accreditation Board for Engineering and Technology, Baltimore, MD.2. Black, J.M., Bower, K.C., Mays, T.W., and Dion, T., “Multi-Disciplinary Capstone Design Class: Integrating Specific Civil Disciplines, Teaching Styles, and Teaching Effectiveness to Meet ABET Criteria,” Proceedings of the American Society for Engineering Education Southeastern Section Conference, Auburn, AL, April 4-6, 2004.3. Catalano, G.D., “Developing an Environmentally Friendly Engineering Ethic: A Course for Undergraduate Engineering Students
Session 3170 GUIDE: Helping Underrepresented Students Succeed in Engineering Amy E. Monte, Gretchen L. Hein Department of Engineering Fundamentals Michigan Technological University Houghton, MIAbstractThe Graduate, Undergraduate Initiative for Development and Enhancement (GUIDE) programcreates a supportive environment for first year engineering students from underrepresentedgroups. GUIDE provides first year students with undergraduate and graduate student mentors,financial
, American Society for Engineering EducationAcknowledgementsOhland’s work was supported by NSF DGE-9809663, “NSF Post-doctoral Fellowship inScience, Mathematics, Engineering, and Technology Education.” He also notes the mentors whohave helped him bridge the worlds of education and engineering—Tim Anderson (his post-doctoral mentor at the University of Florida), Marc Hoit (his Ph.D. advisor), and the entireSUCCEED leadership, particularly Rich Felder and Carl Zorowski.Palmer would like to thank the sponsors of RPI’s Electronics Manufacturing, his PhD AdvisorsMartin E. Glicksman and Krishna Rajan; and those who mentored him during the post-doctoralposition: Don L. Millard and Robert W. Messler Jr.Author BiographiesMATTHEW W. OHLANDis an Assistant
encourage placement of graduating engineers in a global environment?Objectives: • Profile engineering/technology academicians from China, India, South America and the Middle East to enhance understanding of country differences • Share Fortune 500 transnational engineering recruitment preferences • Explore marketing techniques to successfully attract international students • Create an environment for retention of all studentsProfile 1: ChinaHigher education opportunities in China are very limited as compared to the United States (US).1The Chinese government heavily funds economic growth, yet this is not the case for education.The government of China invests merely 2.3% of its GNP 2 into the educational system, ascompared to an
students’ actual performance at the time of graduation andtheir predisposition for growth and adaptability upon employment. The development processfollowed that defined above, with multiple iterations and participation of multiple focus groupsrepresenting both academic and non-academic engineering perspectives. Major stages ofdevelopment are described below.Engineer attributes and performance expectations were compiled from sources including: 1. Accreditation Board for Engineering and Technology (ABET) Engineering Criteria 3 and 4 educational outcomes and their expansion6,15, 2. Desired attributes and codes of ethics from engineering education consortia and professional societies1,2,4,5,16,17, 3. Core competencies and performance
: energy resources, energy conversion systems,energy conservation, and environmental pollution. During the course, exercises and teamprojects were assigned to design renewable and traditional energy conversion systems. Thispaper describes the assignments and projects used in the course to enhance the design experienceof the students. Detailed descriptions of each design project and the student design solution weregiven.Introduction Energy affects the lives of everyone in so many ways, economically, technically, andenvironmentally. Thus, integration of energy and its many aspects such as energy conservationtechnologies and environmental impacts of energy generation, in the educational curriculum ofscience, technology, and engineering
Cultivating a Community of Practice in Engineering Education Yifat Ben-David Kolikant1, Ann F. McKenna2, Bugrahan Yalvac11 The VaNTH Engineering Research Center in Bioengineering Educational Technologies/Robert R. McCormick School of Engineering and Applied Science2, Northwestern UniversityAbstractOver the past several years, as part of an NSF supported engineering research center, we haveworked in cross-disciplinary teams to enhance learning and instruction in the field of biomedicalengineering education. Our collaboration involved working with faculty and consultants withexpertise in learning science, assessment and evaluation, learning technology, and engineering.As cross-disciplinary teams we worked
2005-2548-1119 Software Engineering Standards in the ECET curriculum Ron Krahe Penn State Erie, Behrend CollegeAbstractThis paper introduces the need for including software engineering standards in the ECET(Electrical and Computer Engineering Technology) curriculum today, and discusses the desireddepth of coverage. ECET comprises a broad array of topics, including both hardware andsoftware design and development. Many current electrical and computer systems containembedded controls of one sort or another, and in nearly all of them, the control affects the safetyof the
technology entrepreneurship track.In 2002 we introduced a concentration in biomedical entrepreneurship within the MEM program.The educational objective of both tracks is to provide engineers with the business andmanagement context required to enable them to drive innovation within their companies whileserving in a technical capacity. In interactions with our corporate partners, we refer to graduatesof this program as “business minded engineers.”The program includes the academic coursework as well as an experience component (e.g., aninternship). Students may enter the program as undergraduates with senior status, typically inthe summer between the junior and senior years, and the program does not interfere withcompleting the undergraduate degree
the starting point. PBL is known fornaturally combining classroom learning with real-life applications. This approach places theburden of knowledge acquisition on the students and utilizes the instructor as a facilitator. It is astudent-centered approach emphasizing self-confidence and creativity. This paper presents theimplementation of PBL curricular materials (modules) in Engineering Thermodynamics that aresupported by technology through simulations and target higher levels of Bloom’s Taxonomy ofLearning. Undergraduate students go on to future courses with enhanced thinking skills andgreater retention of knowledge. Thermodynamics is restructured as modules presenting practicalapplications first whereas principles are introduced just-in
dire need for a transformative modelof engineering education and practice for the 21st century that: • Unleashes the human mind and spirit for creativity and compassion; • Expands engineers’ professional and personal commitments to include both technical and non-technical disciplines; • Inspires engineers to embrace the principles of sustainable development, renewable resources management, appropriate technology, and systems thinking; and • Prepares engineers for social, economic and environmental stewardships.A 2004 workshop at CU on “Integrating Appropriate-Sustainable Technology and Service-Learning in Engineering Education” further expanded on these ideas.Earth Systems Engineering is a general concept that embraces
-phase 2 goals were development of the Iron Man version of the Guide Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright @ 2005, American Society for Engineering Educationbased on the feedback gathered in sub-phase 1 and an extensive review process similar to thereview process for the Stone Man phase.126 Accreditation Initiatives In order to understand the accreditation initiatives for software engineering, it is worthwhileto examine the accrediting agencies here in the United States. The Accreditation Board forEngineering and Technology (ABET) is a federation of 28 professional engineering andtechnical societies. Representatives from these societies, who
), espoused by theAccreditation Board for Engineering and Technology (ABET) [5], has required manyengineering education professionals to consider the detailed articulation of educational objectivesand their assessment for the first time. Accordingly, a number of seminars and symposia havebeen developed to address these issues [6]. After some six years, many engineering educationalprofessionals still have many questions concerning educational objectives and their assessment;in many cases because they are unaware of the work of, for example, Bloom [7], Krathwohl [8],Harrow [9], and Mager [10,11].Educational objectives, and methods for their assessment, have been around for many years.Many of our so-called objectives are, in reality, goals and, as such
Session # 3432 A Laboratory Course for Telecommunications Systems Engineering Hazem H. Refai and James J. Sluss, Jr. School of Electrical & Computer Engineering Telecommunications Systems Program University of Oklahoma – Tulsa Abstract An integral part of the curriculum in the recently developed Master of Science in Telecommunications Systems program at the University of Oklahoma - Tulsa is a laboratory course. The course is designed to enhance student understanding of fundamental computer networking