ASEE Annual Meeting 2005 Session # 3568 A Control Systems Lab Sequence Designed to Foster Understanding1 Bradley T. Burchett Department of Mechanical Engineering, Rose-Hulman Institute of Technology, Terre Haute, IN 47803AbstractRose-Hulman Institute of Technology has a unique sophomore curriculum that culminates in amulti-disciplinary system dynamics course. Because of this curriculum, seniors entering theironly required control systems course in the mechanical engineering curriculum have
SIMPLE Design Framework for Interactive Teaching Development and a research initiation grant: Student-directed differ- entiated learning in college-level engineering education. Her research centers on facilitating and studying her role in faculty development self-study collaboratives.Dr. Lori C. Bland, College of William and Mary Lori C. Bland, Ph.D., is a clinical associate professor of curriculum and research, and the Director of Curriculum, Center for Gifted Education at The College of William and Mary. She teaches courses in program evaluation, educational assessment, educational psychology, data-driven decision-making, and gifted education. Bland received her Ph.D. in Educational Psychology from the University of
suggest work integrated learning (WIL) to be an effectiveapproach for professional studies. Both theoreticians as well as empiricists have shown thatthere are definite benefits from this type of education1.WIL is defined as an educational approach that enables students to experience relevant andauthentic work-based learning through engagement with industry and/ or community partnersas part of assessed university coursework2.WIL, as a structured education model, was started in 1904 by the University of Cincinnati incollaboration with a steel mill in the neighbourhood to meet the employability needs of itsgraduates3. Since then this model has grown across the United States, Germany, Australia,New Zealand, South Africa and Middle East and continues
developed (or exposed) merely through working on design problems. While it ispossible to learn effective design practice in an implicit manner, it is likely that this will takeyears. As a result, open ended design projects are much more difficult for students to handle thanthe faculty initially realized. Proceedings of the 2007 Middle Atlantic Section Fall Conference of the American Society for Engineering Education 6Faced with these observations, the faculty adopted a new model for design instruction. First, thebottle rocket project was expanded from a one-class ice breaker exercise into a four-week projectthat
wirelesscommunications and associated phenomenal applications, to radar technologies,” as well as radioastronomy, remote sensing, and others. [1]Replenishment of the STEM workforce is essential for the US to remain competitive in theglobal economy. New engineers must be prepared with the necessary and essential skills tounderstand and design antennas and integrate antennas into wireless systems and products.Antenna engineering is a difficult subject that is “abstract and highly mathematical” [1], andchallenging to many students. Also, proficiency with antennas requires the ability to visualizerelationships between antenna geometry and the resulting directional characteristics of theantennas. 1 Laboratory equipment that enables hands-on experimentation and
increasedtransportation systems in the Hampton roads area, and the intentional development of AfricanAmerican engineers through an experimental-centric curriculum (Hampton University School ofEngineering, n.d.). Additionally, Hampton’s College of Engineering and Technology has been inthe spotlight for partnerships and technical competitions. Hampton engineering students won anaviation human factors competition where they could utilize creative insight and technicalskillsets to design aviation solutions that connect to the broader issues of traveling in Virginia.Similarly, Hampton engineering and technology departments recently partnered with Amazon toexpose Black students and the broader community to critical engagements with augmentedreality in support of
. IntroductionThe increased use of microcontroller systems in solving industrial control problems has led to ageneral acceptance of microcontroller knowledge in other areas of engineering such asmechanical and biomedical engineering. An area that has normally been reserved for electrical orcomputer engineers is now multidisciplinary [1], integrating digital electronics, communications,and computing with a variety of systems ranging from medical to biological. With these newenhancements, microcontroller-based teaching has evolved over the past few decades. Thesechanges range from project-based microcontroller teaching that emphasize real worldapplications to the introduction of new educational tools such as robot kits. This new approach toteaching about
Course with Broader Appeal to StudentsAbstractThis paper features course material being designed at Miami University under the NationalScience Foundation’s (NSF) Course, Curriculum and Laboratory Improvement (CCLI) grant tospecifically address the problem of students’ declining interest in electromagnetics (EM), whileapplications of EM continue to permeate many areas of electrical engineering both in theindustry and academia. The new approach to teaching introductory course of EM aims to sparkstudents’ interest to the subject via offering them several real-world problems from the selectareas of signal integrity engineering, radar, antenna analysis and EM field propagation in humantissue. The problems are intuitively relevant and presentation of
Session 1675 “Getting from Here to There” A Self-Diagnostic for Stimulating Faculty Development Captain James Solti, Major James Greer, Major Paul Waters United States Air Force AcademyAbstractWith ABET 2000 making its way through our engineering education community, universities allaround the country are diligently and painstakingly developing and assessing specific coursegoals for their curriculum. Unfortunately, far less attention is being given to developing andimplementing processes that ensure course goals are successfully achieved in the classroom.This paper
in the implementation of programs at LSU, followed by the hire of two new staff members at BRCC in March. Personnel at BRCC include a coordinator and a counselor to act as a liaison between LSU and BRCC; the counselor works directly with students providing curriculum advising and personal counseling. Five upper-‐class students in the LSU College of Engineering were hired for the spring to be supplemental instructors (SI) for sophomore level courses; two additional SIs were hired for the summer as understudies. Initially only three courses were proposed for the first year; however, given the need the team quickly
represents a large time investment on the part of faculty and does not encouragepeer-to-peer learning that might otherwise occur in a classroom or seminar environment 6. It alsodoes not take advantage of the emergent benefits offered by faculty collaboration 7.Although research methods courses or seminars taught within a department offer opportunitiesfor students to learn from each other and from faculty within that department, new technologiesfor distance learning now offer the possibility of creating communities of practice withinspecialty areas 8. The faculty participating in the course described in this paper all specialize insustainability-related research, and they collaborate on faculty research as well as on the courseitself. This approach
in the class, department, or college levels, but also haspotential to form much larger and more diverse learning communities than what is possible bytraditional means. In fact, the removal of need for physical presence in an online setting canprovide opportunities for exposure to various environments and cultures that is impossible intraditional settings [5].Furthermore, online settings for engineering programs and courses can create some new potentialsto address some of the Accreditation Board for Engineering and Technology (ABET) criteria [6].Similarly, online settings can help in providing more equal educational opportunities by reducingthe cost of education for students by reducing the demand for physical infrastructure.In the
ofsolids, dynamics, control, and design. A new curriculum in the Mechanical Engineering Programset up the laboratory courses in this manner to provide students with a progressive learningopportunity through laboratorial work and development of advanced experimental skills. Theselab courses also provide students with opportunities in improving critical thinking and writtenand oral communication.1. The Goals of TFA LaboratoryThe TFA Laboratory, being a Senior-level oral communication intensive laboratory course, issupposed to provide critical components in accomplishing the mission and the educationalobjectives of the Mechanical Engineering Program and to deliver multiple outcomes in students’academic performances [3]. This laboratory course must be
currently Associate Professor of Electrical and Computer Engineering at ODU. In 1995, she received the Peninsula Engineer of the Year award. American c Society for Engineering Education, 2021 A Look into Increasing the Number of Veterans and Former Government Employees Converting to CTE Cybersecurity TeachersAbstractThe current state of technology with recent explosions in the digital processing of paperwork,computer networking use, and online and virtual approaches to areas, which until very recentlyhad traditional and non-computerized ways of operating, led to a steady increase in the demandfor jobs in the area of computer science and cybersecurity
, but was not accomplishing some of theessential goals that instructors had for preparing students for the engineering curriculum. In mostsections of the class, a typical class meeting consisted of a lecture in which the instructorintroduced a type of differential equation and showed the students how to identify and solve thattype of differential equation. The students then completed a worksheet that had them repeat theprocess that the professor just demonstrated on one or more examples of that type of differentialequation. In short, students were trained to be good at mimicking a process and identifying whento use that process. Applications were briefly mentioned, but accounted for only a small portionof the class and were not integrated with
, American Society for Engineering Educationinvolves students in real-world projects and problem solving from the freshman through the senioryear1-2. This interdisciplinary experience enables students to work on exciting and cutting edgeapplications of the very technologies they learn about in the rest of the engineering curriculum andsee how those technologies improve life for business and people. In this project, a group of utilitycompanies and their hardware suppliers requested that Rowan engineers develop a low cost,hand-held device that would assist them in the management of their field assets. As utilities mergeand the electrical infrastructure changes to meet ever-growing customer electrical demand keepingtrack of the location and maintenance
Session 3166 ACHIEVING COURSE OBJECTIVES: THE BENEFITS OF A HANDS-ON DESIGN PROJECT Captain Shad Reed Major Bret Van Poppel United States Military Academy, West Point, New YorkABSTRACT While there has been a push in the last few years to integrate more hands-on exercises inundergraduate education, all too often large enrollment engineering courses still rely on designprojects that require complex analysis and optimization of a particular situation to achieve course,program, and institutional objectives. Often
implementation of the Ideas to Innovation (i2i) Laboratory, which opened in August 2008 and houses classrooms and laboratories used by the 2000 students in Purdue’s First-Year Engineering Program. He oversaw the daily operation of the i2i lab, and was responsible for the personnel, logistics, and technology used in the classroom and labs. Eric also helped build and directed the College of Engineering sponsored Artisan and Fabrication Lab (AFL), which houses a machine shop, carpentry shop, and a prototyping lab used by all students in the College of Engineering for project work. In 2009, he received a New Employee Staff Award of Excellence from the College of Engineering for his work in launching the i2i lab. Eric has served
) professionaldevelopment budgets for teachers, probably also serve significant low-income and under-represented student populations. This creates a challenge for organizations like ASEE andvenues like the ASEE conference. Promoting a diverse and inclusive community of facultyparticipants will be complicated by the fact that so many educators lack access to funds forprofessional memberships, conference registrations, and/or travel costs.RecommendationsThe data from this survey can help faculty and educational leaders plan how to adapt courses andeducational programs to address emerging energy trends and to embed various new technologiesinto their curriculum. Engineering, engineering technology and energy education programs of alltypes would be wise to study the
. My reflections Highlight key findings and results along with impact.AnalysisThe thematic analysis was conducted by carefully examining and comparing the data across theincluded studies. The purpose of this approach is to highlight the core idea and results presented inthe latest research rather than generating new knowledge. The first phase of this approach was tooverview the 25 selected articles and build an understanding of the objectives, research questions,and results of each article. The lead researcher engaged in reflective analysis, taking note ofsubstantive findings, and making initial connections. In the second phase, a more in–depth analysiswas conducted, aiming to analyze the specific methodology used to generate the
. Commercially available lab equipmentis often expensive and space intensive. Technician support is often limited, so the ability oftechnicians to develop new equipment becomes limited as well. In some cases, the commerciallyavailable equipment does align with the desired course outcomes. Worse, some commercialequipment lends itself to cookbook type experiments that require limited student interaction, orhave little flexibility. When space is severely limited, mobile experimental stations can providelab experiences in the classroom or any other available space, however these are not oftencommercially available.Universities have used various approaches to allow students to develop their own experimentsand/or lab equipment. There are many cases in the
the impact of theproject. This study will help others in planning similar experiences for engineering undergraduatestudents.The purpose of this REU Site was to encourage talented undergraduates to enroll in graduate school byexposing them to research and increasing their interest in graduate research. In this case study, first thebasic approach adopted to plan the REU Site and associated activities are presented in its first section,followed by a detailed description of the projects executed. In the end, evaluation proceduresused, the lessons learned, and the outcomes from the whole experience are summarized. One of thestudents commented on the technical writing skill that he gained from the REU experience and felt thatwas very useful in his
reassurance through comparing experienceswith others because it normalizes the challenges they are encountering and helps them recognizethat they are not alone. In addition to noting parallel experiences, network members also oftenlearn from their peers about new approaches that could be relevant in their own change projects. Sch 3 Sr Personnel 1: There were several groups that we made notes on learning from previous years…[very quiet] curriculum change, what works and what doesn’t…peer mentoring…we saw some things while we were there that other people were doing that were interesting that we would like to hear more about.Through peer-to-peer learning, team members identify and leverage changemaking strategiesthat other teams
Session 3532 Java Enabled Opto-Electronic Learning Tools and A Supporting Framework Pratibha Gopalam, Alexander N. Cartwright, Electrical Engineering Bina Ramamurthy, Computer Science and Engineering University at Buffalo, State University of New YorkAbstractThe use of multimedia tools over the World Wide Web is an extremely desirable instructionalmethod. Unintentionally this has created a maze of online tutorials and demonstrations with hugeamounts of information in
offers and works with other partner two-year colleges to offer thesecourses to students in need of them. This level of support continues to be a gateway to a truepartnership between the two-year colleges and four-year universities as the colleges don’t need tochange their entire curriculum to meet all of the specific requirements of the transfer institution.Liz Cox, Director of Innovation and Engagement at Red Rocks Community College,summarized their experience as follows: “The Iron Range Engineering-Bell philosophy ofproject-based learning works well with the approach that Engineering at Red Rocks CommunityCollege has adopted, providing students who prefer learning by doing a transfer pathway to anengineering degree. Our students benefit from
included as part of requirements.Conclusion and Future WorksMobile and pervasive computing and security are still remain very young domain in currentresearch and education. Many more new malwares and analysis approaches and latest techniquesto identify novel malwares are expected and highly desired for our classroom and computercurriculum. To build the workforce of the future mille and fulfill the national security needs inthe job marketing, developing systematics and constructive laboratories will be the key in therecent computer science and STEM education. Challenge faced by educators and professionals,other than the curriculum, labs and projects, will be new teaching methodologies that are able tobe used to instill the classroom context and
the Frontiers in Education 23rd Annual Conference, 1993, pp. 618-622.8. Sharp, J.E., "Selecting and Presenting Writing Assignments in Engineering Classes: Tips for New Professors," Proceedings of the Frontiers in Education 25th Annual Conference, 1995, pp. 4b5.1-4b5.5.9. Tierney, R., "Using Expressive Writing to Teach Biology," in Two Studies of Writing in High School Science, Classroom Research Study No. 5, Bay Area Writing Project, University of California, Berkley 1981.10. Harb, J.N., R.E. Terry, and J.E. Sharp, "Writing Across the Curriculum and Around the Cycle," ASEE 1994 Annual Conference Proceedings, vol. 1, pp. 760-766.11. Garrison, R., One-to-One: Making Writing Instruction Effective, Instructor's Manual to
thegoal of recommending improvements to their designs. However, their study did not center onteaching industrial robotics through modular robotics. In another study by Correll et al.[11],computer scientists from the University of Colorado at Boulder used Cubelets modular robotconstruction kit to teach middle school students computer science. The work focused not onmodular robots, but on quickly preparing and delivering a short robotics session to middle schoolstudents. Hsieh [12], from Texas A & M University, has been teaching reconfigurable andscalable systems projects as a part of the industrial automation and controls curriculum whileapplying a comprehensive approach that addresses multiple learning styles and integratesknowledge and
course providedthe students with an affordable access to international communication and collaborationexperiences, global learning and research opportunities, and a chance to develop themselves asglobal engineering and science leaders. The course development and instruction may be utilizedas a model for a truly global classroom and may allow faculty in other fields to adopt a similarapproach to tackle global challenges in their field. The course content, instructional materials,and learning activities can be transferable to many other institutions, allowing this effort toachieve goals beyond the original proposed activities. Additionally, the course is aimed to be acatalyst for modernizing curriculum while infusing it with cultural competency
Paper ID #45602BOARD # 385: ITEST Quantum Education for Students and Teachers (QuEST):Preparing the Next Generation of Global Technology InnovatorsDr. Angela M Kelly, Stony Brook University Angela M. Kelly is a Professor of Physics and STEM Education and the Director of the MAT Program in Physics at Stony Brook University, New York.Dominik Schneble, Stony Brook University ©American Society for Engineering Education, 2025 ITEST Quantum Education for Students and Teachers (QuEST): Preparing the Next Generation of Global