Paper ID #17160Gaining Insights into the Effects of Culturally Responsive Curriculum onHistorically Underrepresented Students’ Desire for Computer ScienceMs. Omoju Miller, UC Berkeley Omoju Miller is the lead researcher on the ”Hiphopathy” project at UC Berkeley. She has an undergrad- uate degree in Computer Science (2001) and a Master’s degree in Electrical and Computer Engineering (2004) from the University of Memphis. She has over a decade of experience in the technology indus- try. She is currently a doctoral candidate at UC Berkeley in Computer Science Education. Omoju also served in a volunteer capacity as an advisor to
AC 2008-442: THE IMPACT OF THE ALICE CURRICULUM ON COMMUNITYCOLLEGE STUDENTS' ATTITUDES AND LEARNING WITH RESPECT TOCOMPUTER SCIENCEAshlyn Hutchinson, Colorado School of Mines Ashlyn Hutchinson (ashutchi@mines.edu) received her M.S. in Applied Mathematics, and is a Ph.D. candidate in the department of Mathematical and Computer Sciences at the Colorado School of Mines. Her area of focus is statistics, and her research interests inlcude assessment and biostatistics.Barbara Moskal, Colorado School of Mines Barbara M. Moskal (bmoskal@mines.edu µ Post was tested. All tests were run for α = .05 and the results aredisplayed in Table 3. For comparison purposes, only courses that had control groups (asindicated
Asynchronous Computer Based Training as a Means of Integrating the Use of Engineering Software into the Curriculum Stephen W. Crown Robert A. Freeman Arturo Fuentes Department of Mechanical Engineering University of Texas – Pan AmericanAbstract: The continuous growth in the use of engineering software in the practice ofengineering has impacted engineering education. Graduates are increasingly expected to befamiliar with several engineering software packages. Although the use of engineering softwarehas allowed for the removal of some course
Session 2520 Computer Integrated Robust 3D Modeling and Analysis: A Required Tool for the Modernization of Design in Curriculum Hamid Khan East Carolina University Greenville, NC 287858 khana@mail.ecu.eduAbstract: Present day industries are specific about the acquired capabilities of DesignStream graduates in engineering technology programs. Their concerns are predicated onthe fact that graduates are not able to produce effective results as designers in their designteams immediately. This lack of effectiveness is
AC 2010-1887: STEM-BASED PROJECTS TO INTEGRATE THEUNDERGRADUATE ELECTRICAL AND COMPUTER ENGINEERINGPROGRAM WITH THE K-12 STEM CURRICULUMRamakrishnan Sundaram, Gannon University RAM SUNDARAM received his B.S. degree in Electrical Engineering from I.I.T., New Delhi, India, the M.S. degree and the E.E. degree from M.I.T., Cambridge, MA in 1985 and 1987, and Ph.D. in Electrical Engineering from Purdue University in 1994. He is currently a faculty member in the Electrical and Computer Engineering Department at Gannon University.Qing Zheng, Gannon University QING ZHENG received the B.Eng degree from North China University of Technology, Beijing, China in 1996, M.S.E.E. from the National University of
Paper ID #45167Technology and Society: Incorporating ethics, inclusion, and societal understandinginto computer and technology and engineering education curriculum design.Dr. Carrie Prior, Excelsior University Carrie Prior is the Associate Dean of the School of Technology at Excelsior University. In this role, she leads the school and contributes to the College’s leadership team, fostering a culture of innovation while supporting the strategic and operational direction of academic programs. Before joining Excelsior, Carrie served as a senior international officer in both public and private higher education settings. She is
curriculum incorporates a language-neutralteaching approach for mechatronics system design courses that links the educationalexperience more closely with the processes and projects found in industry. Mechatronicseducation at the University of Hartford focuses on four categories; components (sensorsand actuators), computer interfacing electronics, systems (modeling, analysis,simulation, and control), and language-neutral visual programming environments forimplementation. The last category is especially important when one considers the extentof general software knowledge in mechanical engineering and the complexity of thelanguage based software development process for developing real time embeddedapplications. The goals of this paper are to describe
AC 2005-1034: VIRTUAL LAB IN ENGINEERING CURRICULUMEhsan Sheybani, Virginia State UniversityGiti Javidi, VSU Page 10.1451.1© American Society for Engineering Education, 2005 Session XXXX Virtual Lab in Engineering Curriculum Giti javidi1, James White2, and Ehsan Sheybani1 1 Virginia State University, College of Engineering, Science, and Technology 2 University of South Florida, College of Education Phone: (804) 524-5722 Fax: (804) 524-6732
students seeking an Associate’s degree, and GMU already hadvery successful MS and PhD programs in Information Security, the BSIT, with a concentrationin Security and Networking, filled the gap at the baccalaureate level.Subsequently, GMU and James Madison University (JMU) were funded jointly under a CriticalInfrastructure Protection Project grant sponsored by NIST, to develop, deliver, and implementthe curriculum of a cyberdefense BS program over a 15 months period through the fall Semesterof 2004. The course material for the undergraduate option is now being incorporated intoundergraduate programs: a BS in Computer Science at JMU and in the Information Technologyundergraduate degree at GMU. This coordinated effort will help produce similar
Developing an Integrated Aerospace Engineering Curriculum Alfred G. Striz School of Aerospace and Mechanical Engineering University of Oklahoma Norman, OklahomaAbstractWhen the College of Engineering at the University of Oklahoma was given additional facultypositions to boost the major areas of Aerospace Engineering (AE), Electrical Engineering (EE),and Computer Science (CS), the three Schools started an ongoing discussion about the bestmultidisciplinary use for such faculty members. On recommendation of then Assistant Dean ofEngineering at OU, Donna Shirley, who was the manager of the NASA Mars
“An Interdisciplinary Laboratory Sequence inElectrical and Computer Engineering Curriculum Design and Assessment Results” IEEETRANSACTIONS IN EDUCATION, VOL 43, 2 MAY 2000.[5] L. Barry, J. Ekstrom, S.Gorka, G. Hislop, R. Kimali, E. Lawson, et al., “CurriculumGuidelines for Undergraduate Degree Programs in Information Technology”, Association forComputing Machinery (ACM), IEEE Computer Society, Information Technology, 2008.[6] www.acm.org.[7] Shiao-Li Tsao, “A Practical Implementation Course of Operating Systems: Curriculum Designand Teaching Experiences,” Shiao-Li Tsao, 14th IEEE International Conference on Parallel andDistributed Systems, 2008.[8] J. Rugelj, J. Marzo, S. Knockaert, R. Van, J Salonen, K Bjorn, K Vaz de Carvalho
2006-1674: SHARING SOFTWARE ENGINEERING CURRICULUM MATERIALSGregory Hislop, Drexel University Greg Hislop is on the faculty of the College of Information Science and Technology at Drexel University. He leads the college efforts in a BS and MS in software engineering offered jointly with the Department of Computer Science.Mark Sebern, Milwaukee School of Engineering Mark Sebern is on the faculty of the Department of Electrical Engineering and Computer Science at the Milwaukee School of Engineering. He directs the BS in Software Engineering.Michael Lutz, Rochester Institute of Technology Mike Lutz is on the faculty of the Golisano College of Computer and Information Sciences at Rochester
Session 1547 Shaping a Curriculum from Workplace Research Lynn G. Mack, Thomas V. Mecca, Sara Cushing Smith Piedmont Technical College Greenwood, SC 29648Abstract: The sixteen South Carolina Technical Colleges, through a National ScienceFoundation Advanced Technological Education (ATE) grant (DUE # 9553740), utilizinginterdisciplinary faculty teams (communications, mathematics, science, and engineeringtechnology), conducted workplace research as a strategy for designing a new integrated"workplace-focused," first-year core
continue torevise the curriculum to be more hands-on and industry focused.Members of the Strategic Corporate Alliance Initiative are asked to donate between$5,000 to $25,000 to support and enhance current programs, as well as to help launchnew and innovative programs that will help students succeed in the Engineering,Computer Science, and Technology professions upon graduation. Members will hold aseat on the Dean’s Advisory Board and become a stakeholder in the development of suchprograms.CSULA strives to be recognized as one of the leading universities for providing corporatepartners/investors with their highest return on investment for sponsored projects,research, student programs, and recruiting. In addition to becoming a strategic
Session 1526 Multidisciplinary Lab-Based Controls Curriculum Gregory L. Plett, David K. Schmidt University of Colorado at Colorado SpringsAbstractThis paper describes a multidisciplinary lab-based controls curriculum under development. Oneof the main focuses of the lab is that it be a multidisciplinary facility. It is shared by Electrical andComputer Engineering (ECE) and Mechanical and Aerospace Engineering (MAE) students. Thisarrangement allows more efficient use of space and equipment, better use of funds, andelimination of overlap among individual departmental
Session 1432 MS in Photonics – Recrafting a Curriculum Michael Ruane Electrical & Computer Engineering, Boston UniversityAbstractThe Master of Science in Photonics has been created as a new graduate offering in theDepartment of Electrical & Computer Engineering. This degree program has evolved slowly; acore of courses in the late 1980’s initially presented advanced electrical engineering topics likefiber optic communications and lasers. A university commitment to building a Photonics Center,and NSF Combined Research and Curriculum Development support allowed
Session # 3559 Virtual Labs in the Engineering Curriculum D. M. McStravick and M. K. O’Malley Both of Rice UniversityAbstractComputer simulations have been developed for use as student exercises to illustrate conceptsrequired for various engineering courses. These simulations or Virtual Labs are highly graphicaland interactive to help undergraduate students understand basic concepts by graphically solvingproblems and by visualization of real-time parametric changes. These Virtual Labs (or VL’s) canbe used productively in conjunction with existing laboratory experiments as pre-lab exercises,but the more
the emphasis on meeting industry needs with this new curriculum, input frommanufacturing fms was sought from the outset. During the initial planning stages, a survey was createdto find out what type of training they were looking for in potential employees. What level of degree(Certificate, Associates, Bachelors, etc.) was appropriate for most of their employees? What topics shouldbe covered in this degree? Participants were asked to rank material as “essential”, “desirable”, or “notneeded” from a list of topics. Selections included topics from mathematics, physics, computers,humanities, general manufacturing, general electronics, and electronics assembly. This survey wasdistributed and results obtained from a variety of electronics
program at BYU to do this using a variety of computer-based tools. We start byreviewing related research for computer-based curriculum management. We then review our firstattempts to manage curriculum using a curriculum matrix. Finally we discuss a web-based toolunder development which builds upon our earlier efforts.Relationship to Other Research Page 3.397.2The most significant attempts to use the computer for curriculum management appear to have beenin primary and secondary education, where, in some cases, outcomes-based programs have beenmandated for a number of years. Taylor et. al. (1989) discuss the possibilities for computer use
third is the ability to adapt segments fordelivery as short courses to engineers from industry.One of the original motivations behind initiating segmentation was indeed to provide aconvenient mechanism for delivery of educational materials to industrial students. Courses inMaterials Science and Engineering (MSE) were decomposed into segments. Simultaneously, theMSE faculty was developing a new joint master's program in Electronics Packaging withElectrical and Computer Engineering faculty. The potential benefits of course segmentation oncurriculum development soon became apparent.A seed project has been initiated at the Oregon Graduate Institute with the support of theNational Science Foundation. The focus has been on curriculum development in
learn the paradigm of learning-centered education that leads to successful outcomes-based measures. Each course has aspecific set of outcomes to be measured in that course. These outcomes, naturally, aremore content-based than the final outcomes. For example, the desired outcomes for thecore curriculum course in Statistics and Computations in Materials include (3) ;Students to be able to…1. Design experiments that improve the likelihood of statistically significant results which improve the performance of a material or system.2. Conduct experiments, gather data, analyze data, and report, both orally and written, on the experiment.3. Apply mathematical software packages to solve materials problems.4. Use visualization tools in the design
processing as well as human computer interaction. • Management/Leadership Skills A recent study of about 100 IE programs indicates that very few topics on management and leadership are being taught to our undergraduate Industrial Engineers1.It is surprising that nanotechnology and biotechnology, two rapidly growing technologies, werealso found at the bottom of the list. Some other topics including virtual reality, geographicalinformation system, and emergency management are not found important as well. Oneproportion test indicates that with confidence level of 95% the first 24 topics have been found tobe important to be incorporated into the undergrad IE curriculum by more than 50% of therespondents.5 ConclusionThis paper presents the initial
2006-2021: NEW CURRICULUM IN INDUSTRIAL ENGINEERINGM. Jeya Chandra, Pennsylvania State UniversityRichard Koubek, Pennsylvania State University Dr. Richard J. Koubek is Professor and Head for the Harold and Inge Marcus Department of Industrial and Manufacturing Engineering at The Pennsylvania State University. Prior to this appointment he held the posts of Professor and Chair for the Department of Biomedical, Industrial and Human Factors Engineering, and Associate Dean for Research and Graduate Studies for the College of Engineering and Computer Science at Wright State University. He served six years on the faculty in the School of Industrial Engineering at Purdue University and began
1998.4. Engineering Criteria 2000, Criteria for Accrediting Engineeering Programs: Effective for Evaluations during the 1999-2000 Accreditation Cycle: Engineering Accreditation Commission. Accreditation Board for Engineering and Technology; http://www.abet.org/download.htm, 30 th November 1999.5. Curricula 2002; Manufacturing Education for the 21 st Century; Volume I: David L. Wells, Editor, Society of Manufacturing Engineers, 1995.6. Panitz, Beth, “The Integrated Curriculum,” ASEE Prism, September 1997.7. Cherrington, B., “An Integrated Approach to Graduate Education in Manufacturing Systems--The U.T. Dallas Model”, Journal of Engineering Education, January 1993.8. Pardue, M.D., “Architecture for a Successful Computer-Integrated
Session 2661 Preparing for Uncertainty – Addressing Globalization in an Engineering Curriculum Stephen Williams, Jörg Mossbrucker, Steven Reyer, and Owe Petersen Department of Electrical Engineering and Computer Science Milwaukee School of Engineering, USAAbstractHow can an engineering curriculum more realistically prepare graduates for a changing worldwhere global effects and events are experienced increasingly on a local scale? Globalization is asignificant effect that is faced by graduates of all institutions and degree programs. Hence, thenature of this issue
that overall the students have been well served by all these technologies.X. SummaryThis paper has outlined some of the recent technology initiatives taken by PolytechnicUniversity. We are implementing the “design across the curriculum” concept starting withFreshman Engineering, and ending with their Senior capstone design courses. Through the use ofprojects within courses such as the design of a house or a robot, we are introducing students tothe methodology of working in inter-disciplinary teams from the beginning of their studies. Theuse of laptop computers and both wired and wireless technology is an important enabler of theseinitiatives. We expect to continue to evolve in the years to come.Acknowledgments:The authors would like to
social events Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering Education Session 1526 • Hands-on activities in the RP laboratory • Exposure to several different RP technologies at the same time • Exposure to RP post-processingThe areas to be improved include the following: • Need to include design on the computers (since some participants were new to RP) • Breakout sessions • More hands-on sessions • Less curriculum development • More attention needed on logistic detailsThe estimated number of
Session 3448 Retention Through a Coordinated Spiral Curriculum Robert J. Herrick, James Michael Jacob, Jeffrey J. Richardson Electrical and Computer Engineering Technology Department Purdue UniversityAbstractThe Electrical Engineering Technology (EET) Program of Purdue University at West Lafayette,Indiana implemented significant curriculum change in the fall of 1996. The focus of the changewas to produce a relevant coordinated curriculum to optimize the students’ learning process andprovide a curriculum path that retained qualified students rather than filtering them
needs and the wider societal impact of engineered systems withinthe innovation process.”1 Although the need to re-build the curriculum was identified based ondeficiencies, the desire to produce graduates equipped to impact society, or change agents,became the vision.The previous first-year engineering courses were fully replaced by a feedback-driven reconstructthat immediately immerses incoming freshmen in a course focused on computer program design,algorithmic thinking, and problem-solving, using Python, with a weekly peppering of digitalexplorations of various engineering disciplines. Many of the lab assignments for this courseinvolve developing code to address challenges encountered in their concurrent calculus course orsubsequent physics
AC 2008-959: ENRICHING A CURRICULUM WITH LOCAL CONTENTWillie Ofosu, Pennsylvania State University - Wilkes-Barre Dr. Willie K. Ofosu is an Associate Professor of Electrical Engineering Technology at Pennsylvania State University. He teaches telecommunications, wireless systems, computer networking, optoelectronics and analog and digital electronics at the Wilkes-Barre campus. He is a member of ASEE, IEEE, IET (England) and a Chartered Engineer (CEng) of England. He is currently involved in international activities in cooperation with some faculty members at Kwame Nkrumah University of Science and Technology in Ghana. He is an advocate of diversity in the education field. Dr