administer their database system. For this reason, we decided that it might be bestto add a new area of specialization to our Computer Science program called DatabaseEngineering.Recently, we have been evaluating the content of our Database Engineering curriculum to makesure that we are covering enough materials in this track. In this process, we consulted with ouradvisory board members, industry experts and academic professionals in this field. Thisconsultation has concluded that our Database Engineering curriculum does not address DataMining / Data Warehousing areas. To remedy this issue, our Database Engineering curriculumhas been extended by addition of a new data mining course. This course will be a core course forour Database Engineering area
2006-960: CHANGING TIMES: THE STATUS OF COMPUTING EDUCATION INTHE UNITED STATESBarry Lunt, Brigham Young University Barry M. Lunt is an Associate Professor of Information Technology at Brigham Young University in Provo, UT. Dr. Lunt received a B.S. and an M.S. degree in EET from BYU, and a Ph.D. in Occupational and Adult Education from Utah State University in Logan, UT. He has spent seven years in industry as a design engineer, and 19 years in engineering technology education. His present research emphases are the physical design of electronic circuits and systems, IT curriculum, and engineering technology education.Joseph Ekstrom, Brigham Young University Joseph J. Ekstrom (Ph. D
Azzedine received a PhD in Biomedical Engineering from North Carolina State University in 1992. From 1992-1998, he was a senior researcher at MANTECH, NC. He joined Zayed University in August 1998. Currently he is an assistant professor of Information systems. His research interests include systems model-ing, educational technology and curriculum design in Information Systems. His teaching interests include instructional technology and statistical modeling.Faouzi Bouslama, Zayed University Faouzi received a PhD in Electronics Engineering from Shizuoka University, Japan, in 1992. From 1992-1994, he was a researcher at Toshiba Co., Tokyo. From 1994-2000, he was Associate Professor of
member of the Executive Board of the NASA Oklahoma Space Grant Consortium. He secured a B.S. (Honors) degree in Mechanical Engineering from Punjab University, M.S. degree in Industrial Engineering and Management from Oklahoma State University, and Ph. D. in Operation Research and Systems Engineering from University of MassachusettsDavid Barnes, Pennsylvania State University-Altoona College Page 12.226.1© American Society for Engineering Education, 2007 AN INTERDISCIPLINARY APPROACH TO INFORMATION SYSTEMS SECURITY EDUCATION: A CASE STUDYAbstractSociety is becoming increasingly dependent upon multi
engineering curriculum, a new course was created anddesigned to provide students with a deep understanding of routing protocols and switchingtechnologies. Course content builds upon subject matter taught in previous courses, including thenew data communication and networking course and the redesigned routing design andimplementation course. Education will revolve around carrier-class routing technologies,including label switching and advanced BGP implementations. In addition, students will learnabout some of the more advanced options available with Interior Gateway Protocols, such asOSPF and EIGRP. On the local area network side, core switching topics such as Spanning Treeand switch /router redundancy protocols will be reinforced and expanded
is vital that parallel computingconcepts be integrated into undergraduate computer science curriculum. Educators need toprepare their students for the parallel era.Parallel Computing Courses in ChinaA majority of universities in China have integrated parallel computing concepts into theircurriculum7. These universities have taken two different approaches for integrating parallelconcepts in to their programs. One approach has been to offer a new course on parallelprocessing. The other approach has been to alter the content of an existing course. Following isa list of traditional courses that have been altered to introduce mutli-core processing concepts: • Computer Organization • Computer Architecture • Operating System
. Page 14.447.1© American Society for Engineering Education, 2009 Developing an Effective Network Course Using the Cisco CCNA Exploration CurriculumAbstractUndergraduate Computer Science (CS), Information Technology/Information Systems (IT/IS)curricula in many US Universities and Colleges only include one course in networking. Thiscourse, usually called Networking and Data Communications, varies in content and focus.Moreover, a number of popular textbooks lack in scope and content, and sometimes do not evenaddress the basics of networking or how networks operate. The Cisco Networking AcademyCCNA Exploration curriculum offers in-depth theory, challenging labs, and a detailed overviewof protocol operations. It
Faisal University, Saudi Arabia. He has worked at several academic institutions of which the last three were Zayed University, University of Missouri-Columbia, and Columbia College, MO. His teaching interests include programming languages, Networks, logic de-sign, and computer architecture. His research interests include computer simulation, web-caching architecture, and curriculum design. He holds cer-tifications in A+, Network+, Sun Certified Java Programmer, ICDL, i-Net+, Server+ and CCAI.Faouzi Bouslama, Université Laval Faouzi Bouslama received a Ph.D. in Electronics Engineering from Shizuoka University, Japan, in 1992. From 1992-1994, he was a researcher at Toshiba Co., Tokyo. From 1994
"Deploying IPv6 Networks" book. Page 12.988.1© American Society for Engineering Education, 2007 IPv6 Course Development for Information Technology CurriculumsAbstractThe integration of the Internet Protocol version 6 (IPv6) into networks and interest in itscapabilities are picking up pace yet most networking courses in Universities currently presentonly a brief overview of the new protocol. We present a case study of a special topics course onIPv6 taught during the summer semester of 2006. Issues that are addressed include instructortraining, textbook selection, equipment compatibility, lab
2006-1079: COMPUTING CURRICULA: THE HISTORY AND CURRENT STATUSOF 4-YEAR COMPUTING PROGRAMSMichael Bailey, Brigham Young UniversityBarry Lunt, Brigham Young UniversityGordon Romney, Brigham Young University Page 11.346.1© American Society for Engineering Education, 2006 Computing Curricula: The History and Current Status of 4-Year Computing ProgramsAbstractThe invention and creation of the digital computer in the mid-20th century gave rise to ahost of new industries and dramatic changes in some of the programs offered at 4-yearacademic institutions. The first of these was the discipline of computer science, followedby the disciplines of information
Company.Jones, M.D., (1998). The Thinker’s Toolkit: Fourteen Powerful Techniques for Problem Solving,New York: Three Rivers Press. p. 5.Juran, J. M. (1986). The Quality Trilogy: A Universal Approach to Managing Quality, Thispaper was presented at the ASQC 40th Annual Quality Congress in Anaheim, California, May20, 1986. p.2.Kowalkowski, F. F. and McElyea, L., (1996). Enterprise Analysis. Prentice-Hall, Upper SaddleRiver, N.J.Laware, G., (1993). Achieving Business Goals through Information Systems TechnologyHandbook of Information Systems, Boston, MA. Auerbach Publishing, S3-S22.Martin, J., (1990), Information Engineering: Book II Planning and Analysis, Prentice-Hall, Englewood Cliffs, N.J.Merriam-Webster’s Collegiate Dictionary, 11th Edition, Merriam
than many isolated parts. We will discuss thecurrent curriculum and laboratory approach and present a prototype of an integrated advancedundergraduate telecommunications and computer networking laboratory.IntroductionThe current growth in telecommunications indicates that, in the near future, not only data, butaudio and video services will be integrated and there will be a growing market for bundledservices. This industry trend requires broader technical expertise at all levels to developapplications, support the new technologies and maintain the competitive edge required forsuccess in the global environment. Having recognized these needs, Southeast Missouri StateUniversity developed a new Telecommunications and Computer Networking (TCN
AC 2010-1357: HOW A DATA MINING COURSE SHOULD BE TAUGHT IN ANUNDERGRADUATE COMPUTER SCIENCE CURRICULUMReza Sanati-Mehrizy, Utah Valley UniversityPaymon Sanati-Mehrizy, University of PennsylvaniaAfsaneh Minaie, Utah Valley UniversityChad Dean, Utah Valley University Page 15.646.1© American Society for Engineering Education, 2010 How a Data Mining Course Should be Taught in an Undergraduate Computer Science CurriculumAbstractData mining is a relatively new area of computer science that brings the concept of artificialintelligence, data structures, statistics, and database together. It is a high demand area becausemany organizations and businesses can benefit
system users areneeded to maximize the usability, functionality, and goals of adaptive hypermedia systems.This paper offers a new approach for the autonomous computer-based assessment of preferredcognitive style that can support studies in user modeling and human-computer interface domains.It further posits a conceptual model that attempts to determine the preferred cognitive style of anonline educational hypermedia user through click-stream analysis of their web-based hypermediachoices and browsing patterns.KeywordsAdaptive hypermedia. Cognitive style. Neural networks. Click-stream analysis.IntroductionResearch in the use of hypermedia in learning has increased with the expansion of the Internet.Long posited as a promising medium for an
, UAE. He has worked at several academic institutions of which the last two were the University of Missouri-Columbia and Columbia College, MO. His teaching interests include programming languages, logic design, and computer architecture. His research interests include computer simulation, web-caching architecture, and curriculum design.Abdallah Tubaishat, Zayed Univeristy Dr. Abdallah Tubaishat received his PhD degree in Software Engineering from Illinois Institute of Technology. He is conducting research that spans two main areas, one is technical: software engineering and the other is non-technical: e-learning. He is conducting both types of research in parallel and has presented his work
Communication Technologies, June 16-18, 2004, Las Vegas, NV.3. Bogen, A. and D. Dampier, “Preparing for Large-Scale Investigations with Case Domain Modeling,” Proceedings of the 2005 Digital Forensics Research Workshop (DFRWS), New Orleans, LA, August 17-19, 2005.4. Bogen, A. and D. Dampier, “A Software Engineering Modeling Approach to Computer Forensics Examination Planning,” Proceedings of the First International Workshop on Systematic Approaches to Digital Forensic Engineering (SADFE 2005), Taipei, Taiwan, November 7-10, 2005.5. Bogen, A., D. Dampier, and J. Carver, “Domain Modeling in Computer Forensics Examination: An Empirical Study”, Proceedings of the 2007 Hawaii International Conference on the System Sciences
engineering andcomputer science. Social influences, family influences, peer influences, fundamentalpsychological differences, and motivational issues have all been broken down, dissected, andresearched on numerous occasions. Typically, solutions call for 8, 9, 10:≠ Improved mentoring.≠ Increasing student exposure to professional women in computer science and engineering.≠ Providing a better sense of opportunities in computer science and engineering to young women.≠ Big sister programs.≠ Attempts to promote a larger feeling of belonging among the community of women involved in computer science and engineering.Studies have suggested the implementation of new improvements to curriculums, yet enrollmentsof women in computer science
been to provide a qualityprogram that meets accreditation standards while providing the students with a skill set thatallows them to succeed in computing careers. The curriculum content for the Computer Sciencedegree is based on the 2001 ACM Curriculum Report. The Computer Science degree at UVUwas accredited by Accreditation Board for Engineering and Technology (ABET) in 2002 andcurrently has more than 600 students. Students in this program take core courses until the firstsemester of their junior year, when they begin choosing their electives from differentspecialization areas.Capstone Design CoursesAccording to Computing Curriculum – Computer Engineering (CE2004)3, the culminatingdesign experience must be an integral part of the
tutorialswere very positive. Finally, although most participants found the system relatively easy to useand consistent to their learning styles, one mentioned that “it’s a great program, but the programdidn’t work for me.” Unfortunately, he neglected to elaborate his response.Unique ContributionsThis module is one part of comprehensive curriculum development in Civil Engineering atMissouri S&T. Instead of developing a separate course on Geographic Information Systems,GIS modules were developed especially to integrate into existing courses. Such an approachhas broad implications for a model in which new technological approaches can be seamlesslyintegrated into existing courses. Second, this research demonstrates how a systematicqualitative approach
. Softwareengineers must cope with the dramatic challenges in today’s business environment. Facing moresevere pressure in allocating a firm’s e-resources, they should possess proficientskills/knowledge to find more effective and efficient approaches for solving business problems.This is the great challenge in the software engineering (SE) discipline. There might be greatimpacts occurring in the teaching and learning in the SE education sector. In this study, weempirically investigated what EC knowledge topics are critical for software engineers in Taiwan.More than 150 software engineers participated in this study to provide what they thought about28 e-commerce knowledge topics. The respondents were asked to rate the knowledge level thatthey had learned about
15.615.1© American Society for Engineering Education, 2010 Geospatial Technology in a Multidisciplinary Academic CenterBecause the technical evolution of the geospatial technologies has led to new and excitingapproaches to problem solving in technology fields, the Center of Multidisciplinary Studies atthe Rochester Institute of Technology has developed six geospatial technology courses and iscurrently proposing a BS degree that focuses on developing, advancing, and studying theapplication of geospatial technology.The Center has been the home for numerous certificate programs and BS and MS degrees in Artsand Sciences that encourage students to build personalized degree programs based onconcentrations drawn from across the Institute. These
emerging technologies in undergraduate teaching. She has developed curriculum for business education and information technology at the secondary, post-secondary, undergraduate, and graduate levels. Page 15.150.1© American Society for Engineering Education, 2010 An Experience with Cloud Computing in the ClassroomIntroductionCloud computing is a general term for shared applications and infrastructure provided by anexternal service provider and paid for on a pay-per-use basis. For enterprise computing based ona business model that relies heavily on in-house computing infrastructure, the cloud concept hasmajor
also learn about new approaches for teachingengineering topics.Accreditation boards, university administrators, department heads, and teaching faculty can findvaluable information about how to implement assessment programs in engineering andtechnology programs in this database. Students at all levels working on their research papers intechnical related areas will find out, for example, how to utilize equipment in a lab environment.The general public would also benefit. As indicated earlier, the formation of a diverse andhighly-capable technical workforce is key for the healthy social and economic future of thecountry. This database can provide the general public information about efforts to improvetechnical education.Technical Functionality of
described above. The specific problem we seek to address is how to increase thepopulation of skilled practitioners who have the requisite training, knowledge, and skills todesign, develop, deploy, and operate HPC systems to support discoveries and analyses inindustry and academe.ApproachOur group approach to address this problem is to develop a curriculum that leverages existingcourses and skills within the department. This effort, described in detail in Hacker13, seeks toprovide training in systems and applications. The goals of the curriculum are to increase studentawareness and use of cyberinfrastructure technologies for problem solving. Within this context, Ideveloped new courses in high-performance computing systems and parallel data systems
the College of Technology atPurdue University is in the process of developing a new curriculum in the areas of highperformance computing and cyberinfrastructure. This effort, which is a collaborative effort thatincludes faculty from across the College of Technology as well as researchers and faculty fromPurdue University Discovery Park, and Rosen Center for Advanced Computing, is working tointegrate research and development efforts in the area of cyberinfrastructure and highperformance computing that are taking place across campus, which are focused on developinginformation technology solutions to address significant problems in science and engineering.As part of this effort, two years ago the College initiated plans to develop a research
AC 2010-1815: FACILITATING TEACHING AND RESEARCH ON OPEN-ENDEDPROBLEM SOLVING THROUGH THE DEVELOPMENT OF A DYNAMICCOMPUTER TOOLMatthew Verleger, Purdue UniversityHeidi Diefes-Dux, Purdue University Page 15.575.1© American Society for Engineering Education, 2010 Facilitating Teaching and Research on Open-Ended Problem Solving Through the Development of a Dynamic Computer ToolAbstractModel Eliciting Activities (MEAs) are realistic open-ended problems set in engineering contexts;student teams draw on their diverse experiences both in and out of the classroom to develop amathematical model explicated in a memo to the client. These activities have been implementedin
. Many IT programs do not havesufficient space and computational resources to dedicate laboratory rooms to individual topics,much less to dedicate computers to individual students within those labs.These concerns are universal among educators, and have been addressed with varying degrees ofsuccess through various means. Some institutions or programs have required students to ineffect, provide their own development systems in the form of a laptop computer. As stated byCampbell1, “Budget conscious universities are realizing that requiring students to purchaselaptops can reduce the need for expensive multimedia classrooms.” The pervasiveness of thispractice can be found quickly by means of an internet search engine. While this approach isavailable
prevalent, by far, is the Web-based servicesin which we access most commonly by web-browsers. Two other services, however, arebecoming increasingly prevalent in the role of everyday computing. Software as aService (SaaS) is providing simplicity of development, installation, and managementalong with a new approach to licensing software. This licensing provides predictablepayments, little to no upfront costs, scaling, and is subscription based. VirtualInfrastructure as a Service provides virtualization of computing systems, enablingdevelopers to access and modify the computer resources needed. Companies such asAmazon provide services that enable developers to change resources on the fly usingonly a few lines of code. Virtual Infrastructures are
Science and Engineering, and theVirtual Reality Applications Center.Bibliography1. Boyer, E. College: The Undergraduate Experience in America. New York: Harper & Row, 1987.2. Lenning, O. T., & Ebbers, L. H. (1999). The Powerful Potential of Learning Communities: Improving Education for the Future. ASHE-ERIC Higher Education Report Volume 26, No. 6. Washington, D.C.3. Martin, C., Bratton, B., Dillard, D., Ellis, M., Bump, M. Incorporating a Learning Community Approach to Enhance a Fuel Cell Research Experience for Undergraduates (REU), Proceedings of ASEE Annual Conference and Exposition, 2008.4. Hewett, Baecker, Card, Carey, Gasen, Mantei, Perlman, Strong and Verplank. ACM SIGCHI Curricula for Human-Computer
13.768.10Bibliography1. Zeng, Fanyu, “A new approach to integrate Computer Technology Certification into Computer Information System Programs”, Proceeding of the 2004 American Society for engineering education annual conference & Exposition”, Session 2558. http://www.asee.org2. Koziniec, Terry & Dixon, Michael, “ICT Industry Certification: Integration Issues for post Secondary Educational Institutions in Australia”, InSITE, June 2002. http://proceedings.informingscience.org/3. A Model Curriculum for K-12 Computer Science: Final Report of the ACM K-12 Task Force Curriculum Committee, October 2003. http://www.acm.org/education/curric_vols/k12final1022.pdf4. IT Model Curriculum 2005, http://www.acm.org/education/curric_vols/IT_October_2005