ASEE 2014 Zone I Conference, April 3-5, 2014, University of Bridgeport, Bridgpeort, CT, USA. Operating System and Decision Making Hussain A. Alhassan Dr. Christian Bach Department of Computer Science & Engineering Associate Professor, Department of Engineering University of Bridgeport University of Bridgeport Bridgeport, CT, USA Bridgeport, CT, USA halhassa@my.bridgeport.edu cbach@bridgeport.edu Abstract—The diversity of operating systems offer
, our research delves into the realm of student-teacher dynamicsthrough the lens of learning styles, as evaluated by the Silverman-Felder Index of Learning Styles(ILS). This study aims to contribute to the discourse within engineering education by examining thecorrelation between the alignment of student and instructor learning styles and its impact onstudent academic performance. The Silverman-Felder ILS, a well-established tool, delineateslearning styles across four dimensions: active/reflective, verbal/visual, sensing/intuitive, andsequential/global. We operationalize alignment as the proximity in four-dimensional space betweena student's ILS score and that of their instructor. Initial findings based on a cohort of 300 Cadets atthe United
student population compared to other schools in the district. HS-1 is recognized for its high academic per-formance, extensive AP and dual-credit courses, and competitive athletics programs. Middle School MS-2 servesapproximately 800 students and maintains a demographic profile similar to the district’s averages, with about 60%White, 15% Hispanic, 10% African American, 5% Asian, and 10% multiracial or other ethnic groups. Around50% of students qualify for free or reduced-price lunch. The school is known for its STEAM (Science, Tech-nology, Engineering, Arts, and Math) focus, which integrates hands-on, project-based learning to foster criticalthinking and innovation. This demographic composition provides opportunities for teachers to employ
American Society for Engineering Education, 2018 Demystifying tensors: A friendly approach for students of all disciplinesAbstractThe concept of a “tensor” is an extremely important one in science and engineering. And yet, it isnotoriously one of the most difficult concepts for students to grasp. In fact, there is muchconfusion as to what tensors truly are and why they exist in the first place. In this paper, I pose thequestion: “How should tensors be introduced to science and engineering students for the firsttime, and at what point in their education?” I seek an answer to this question that is both formallyand pedagogically correct. I note that there are two primary approaches to tensors currently
undergraduate research bothon-campus and through external REUs, including at Harvard, Loyola, National Institute ofStandards and Technology (NIST) and the American Museum of Natural History. Of theseresearchers, 25 did two summers of full-time undergraduate research and 21 were admitted to theTRiO McNair Scholars program.To date, one alumnus has completed a Ph.D. from the University of Minnesota in chemistry;seven have completed Master’s Degrees including from UW Madison (engineering), Universityof California San Diego (engineering), and University of Minnesota (computer science).Twenty-two have entered graduate programs including programs at California Institute ofTechnology (chemistry), University of San Diego (engineering), Mayo Clinic (virology
-traditional students. This new learning environment utilizesand encompasses a variety of modern technologies that include World Wide Weband I.V.D.L. (Interactive Video Distance Learning). In addition, certaininstructors utilize a variety of well structured independent internet activitiesknown as “Research Reports” and “Tech. Topic Term Papers.” Basically, theprinciple has been to encourage faculty utilize modern technological innovationsin their educational methodologies to supplement, enhance and expand studentlearning beyond the boundaries of the traditional classroom. In this paper, theauthor tries to describe his accomplishments at the School of Engineering andApplied Science at Miami University of Ohio.IntroductionResearchers have shown that
can helpto “demystify” the tenure process and to ensure success. Mentoring programs, some formal, some informal, can be found throughout business andeducation1-4, yet not all are effective. This is due in part to a misunderstanding of the role of bothmentor and mentee. Furthermore, much of the available literature on mentoring in academiaaddresses the mentorship of graduate students, not new faculty colleagues. Therefore, thesefledgling professors are often neglected. This paper presents the results of interviews with new engineering faculty on theirexperience at the receiving end of mentoring. Important techniques for developing a goodmentoring relationship with a senior colleague and practical suggestions for making the
Paper ID #38110Development of a Product Pipeline System to Teach IndustrialManufacturing AutomationMr. Mina Morcos, Vaughn College of Aeronautics and Technology Mina Morcos is a senior student in Mechatronic Engineering at Vaughn College of Aeronautics and Tech- nology. He is an active member of multiple clubs such as Robotics, IEEE, SHPE, and NSBE. Also, he is A supplementary instructor for the course Microprocessors to assist students to understand how Micropro- cessors and Microcontroller work, also, assist students to Compile and Troubleshooting the pseudo-code on Arduino UNO boards.Dr. Shouling He, Vaughn College of
2025 ASEE Northeast Section Conference, March 22, 2025, University of Bridgeport, Bridgeport, CT, USA. Unlock the Mystery: Puzzle Box Marlon Jost1,3, Umme Hani Bootwala1,2, Don Heiman1 and Haridas Kumuraku1 1 Department of Physics, 2Department of Chemical Engineering, 3Khoury College of Computer Science Northeastern University Boston, MA 02115 USA Abstract—This project develops an interactive are needed to power the chip, while the other legs are set to be anpuzzle box with an electronic locking mechanism to engage input or output
Course Wonki Lee Purdue University, West Lafayette Nathan Mentzer Purdue University, West Lafayette Introduction Student engagement, as measured by cognitive, affective, attentional participation in aneducational setting, is prominent in recent engineering education [1], [2]. It is inextricablyintertwined with students’ motivation, and those two constructs have a strong impact onstudent’s meaningful learning experience, academic achievement, and knowledge development[3]. Project-based learning with authentic hands-on experiences in a collaborative setting
teaching-aid serves as hands-on experience workstations for students withmultidisciplinary backgrounds who are enrolled in the advanced energy storage courses. Thestudents are also encouraged to design their own experimental tests using the current setup as abaseline. The teaching-aid augments the students’ knowledge on electric energy storagetechnologies. The developed teaching-aid not only enhances the advanced energy storagetraining and education, but also inspires students’ interest in the green movement of renewableenergy.AcknowledgementsThis work was supported in part by the National Science Foundation, CCLI-Phase I:Exploratory, under grant number DUE-0941809
Paper ID #18271Networks Security Lab Support: A Case Study for Problems Facing DistanceEducation ProgramsDr. Tamer Omar, East Carolina University Tamer Omar is an Assistant professor with the department of Technology systems at East Carolina Uni- versity. Dr. Omar earned his Ph.D. from the Electrical Engineering department at Iowa State University, USA and his MBA with emphasis on MIS from the Arab Academy for Science and Technology, Egypt and his B.S. degree in Electrical Engineering from Ain Shams University, Egypt. Dr. Omar research interests include wireless networks architecture, resources allocation in wireless
technical questions and discussed whether social networking tools could be used as a platform for self-directed learning in engineering education. Asa pivotal role in helping students pursue a self-directed learning newer technological advancements such as Generative Artificialapproach (SDL) by providing real-time feedback or adjusting Intelligence (GenAI) became available, researchers startedinstructional materials based on student-AI interaction [8], [9]. exploring potential application areas. Since AI becameOn the other hand, these tools may also provide a shortcut for available, it provided many opportunities and brought manynuanced
11973 AbstractIn the summer of 2007, the faculty and student team (FaST) program from Southern Universityin Baton Rouge, Louisiana supported by NSF, DOE, and LS-LAMP conducted a detailed studyto design, simulate, build and test a micro-pattern x-ray fluorescence gas detector at BrookhavenNational Laboratory (BNL). We used AutoCAD to design the detector’s parts that weremachined and assembled to form the proposed detector. We have used Maxwell software topredict the electrical field and potential in the drift and amplification regions of the detector. Thispaper describes the hands on learning process and in depth research accomplishment that theundergraduate students have undertaken in the ten weeks
Master of Engineering de- gree in Systems Engineering from the University of Virginia. She received her Ph.D. in Interdisciplinary Engineering from Texas A&M University in 1998. She is the recipient of numerous awards and honors, including the National Science Foundation’s most prestigious, Faculty Early Career Development (CA- REER) award. She is a Fellow of the American Society of Engineering Education, holds membership in a number of organizations and presently serves on the National Advisory Board of the National Society of Black Engineers. c American Society for Engineering Education, 2019 Revising the Dissertation Institute: Contextual Factors Relevant to
received the Bachelor of Science degree in Electrical Engineering in 1988, the Master of Science degree in Engineering Sciences in 1990, and the Ph.D. degree in Electrical Engineering in 1995 from Arizona State University, Harvard University, and Purdue University, respectively. He was a visiting scholar at Massachusetts Institute of Technology-Lincoln Laboratory. He co-authored two textbooks on microcontrollers and embedded systems and authored over 70 journal and conference papers. He is a member of Eta Kappa Nu, Tau Beta Pi (faculty advisor), IEEE (senior), and ASEE. He is a registered Professional Engineer in Colorado. In 2005, Pack was named “Colorado Professor of the Year” by
the College of Engineering. Thechanges have resulted from a decision to remove most of the course lecture “content” andfocus more on a very “hands-on” approach (on the instructors’ part) to managing andencouraging multidisciplinary teams working on multidisciplinary projects. The “lecture”material has been “repackaged” and is now presented in interactive, cohort meetings9.The course is organized to provide “just-in time” (JIT) instruction to as many as 24 four-person, multidisciplinary teams working on industry and faculty sponsored designprojects. Each team member is personally responsible for the one oral and one (different)written report. These reports could be a proposal, a progress report or a technical report.These two reports represent
,” 2023. Accessed: May 26, 2023. [Online]. Available: https://ncses.nsf.gov/pubs/nsf23315/report/the-stem-workforce#representation-in-the-stem-w orkforce[3] Board on Science Education, Board on Higher Education and Workforce, National Academy of Engineering, and National Academies of Sciences, Engineering, and Medicine, Imagining the Future of Undergraduate STEM Education: Proceedings of a Virtual Symposium. Washington, D.C.: National Academies Press, 2022, p. 26314. doi: 10.17226/26314.[4] Z. Wilson-Kennedy, G. S. Byrd, E. Kennedy, and H. T. Frierson, Broadening Participation in Stem: Effective Methods, Practices, and Programs. Bingley, UNITED KINGDOM: Emerald Publishing Limited, 2019. Accessed: Feb. 04, 2023. [Online
perplexed by the concept of stability.In order to address the question of how this became a pitfall for a grand majority of our students,we decided to introduce the material differently, i.e., to first establish the “aha” moment instudents’ minds, giving students something tangible to which they can relate - based on their owndaily experiences. This was accomplished using visually pleasing, intuitive, hands-on examples,experiments, demonstrations and analogies that were introduced in a step-by-step manner, whileconnecting the concept of stability to other related concepts. These were followed by moretraditional textbook-based math and physics explanations.We created a 21-minute YouTube video (https://www.youtube.com/watch?v=glM-gVp4FUM)aimed at
Education. You can enhance traditional textbook with simulationsthat pop right out of the book to the world around you, or can think on the ability to put newcontent in the textbooks; material that can be updated on demand. Next level of AR meansadding interactivity, possible by the creation of "digital manipulatives" that can support hands-onlearning. There is a lot of work done finding ways to use AR to simulate the physical world. Forexample, the creation of SimSnails offers an interactive visualization of a 3D snails colony thatlives, breeds, and is eaten by predators. It could be used in museums, but also as a teaching tool,because it can be easily carried to classroom5.Assistive technology is another area where AR has been playing a role. One
other supporting components for Engineering majors such as mathematics and science E. Developing methods to assess the results of implementation of the overall assessment programThese tactical steps will be described in more detail in the rest of this paper, using the notation listed above. Results and Current Status of Implementation ProgramThe COE Assessment Coordination Committee at San Jose State University (SJSU) has taken on the responsibilityof attempting to implement an assessment program in the college. After consideration of numerous alternativeprocedures, the following have been utilized and a summary of the results is provided.1.1 Determination of the current status of development for
learning and attitude results to two inquiry-based experiments and suggested thatobjectives and philosophy need to be clearly communicated to the students for these types ofexperiments to be successful.5In general, the education community has recognized that science learning has room forimprovement. One initiative, termed POGIL, or Process Oriented Guided Inquiry Learning, hasrecently gained traction in both high schools and colleges.6 In 2012, Douglas, et. al. reported onusing POGIL in an engineering course and, as with other active-learning-type classroom use,determined that the methods can be successful, but the instructor must be careful to addressstudent expectations, as students can feel that they are not being “taught.”Both authors have
) and professional growth (through hands-on experiences in the classroom).The current BS curriculum requires all students to take the same CIT courses during the first foursemesters. After completing these required prerequisite courses, students can choose to takeelective courses in such areas as network engineering, system administration, databasemanagement systems, systems analysis and design, project management, cyber forensics,bioinformatics, and of course software development.The CIT Department also participates in the Master of Science (MS) in Technology degree Page 12.472.2program, offering a specialization in Information Technology
and Social Sciences. She holds a Ph.D degree in higher education from Beihang University. Her research interests include engineering education and international and comparative higher education. ©American Society for Engineering Education, 2024 InnovatingMotivationMechanismsandInteractionChannelsof University-IndustryEducationalCollaboration:APilotChineseCaseAbstractThis article explores the collaboration between universities and industries in the fieldof engineering education, with a focus on a case study conducted at BeihangUniversity in China.The study examines the motivations and interaction channels ofuniversity-industry educational collaboration, highlighting the impact of suchcollaboration on
. Additional laboratories described include a Spacecraft AttitudeDynamics and Control Simulator, and a “design, build, and fly” project to be launched in late 2001.Topics in AstronauticsSome topics in aerospace engineering, such as structures, are common to both aeronautics andastronautics, so that related laboratories benefit both parts of the curriculum. There are howeversome space-specific topics that typically have no laboratory component, primarily related to themotion of spacecraft. Satellite motion is a complicated combination of the orbital motion of thesatellite around the earth and the attitude, or pointing, motion of the satellite platform. The overallmotion is affected by gravity, controlled thrusters, material outgassing, motion of
Both IM course conversions described in this paper took place in Computer Engineering I(CompE I) at the University of Illinois at Urbana-Champaign – a large, research-intensiveuniversity. CompE I enrolls 200 students per semester. Around 80% of students are male eachsemester and the majority of students identify as White or Asian. The course is required forelectrical engineering and computer engineering students. Most of these students take the courseduring their second year of study. The course has two one-hour lectures per week (one hour eachon Mondays and Wednesdays) and one one-hour discussion section per week (on Thursdays).The overarching goal of the course is to teach students about how to design digital logiccomponents and analyze or
illustrates an example of two volatile beneficiary demand profiles, with refugee camp 2’sdemand rising more rapidly. Figure 12 shows the supply chain response when a fully automated gamesimulation is used to analyze the scenario. As expected, a pronounced bullwhip effect materializes in Figure 12. Supply chain orders and back orders resulting from volatile and increasing demand profiles.SUMMER 2020 VOLUME 8 ISSUE 2 19 ADVANCES IN ENGINEERING EDUCATION Humanitarian Aid and Relief Distribution (HARD) Gamethis scenario. A modified game template file for this demand profile is included on
and researcher of the Universidad Andr´es Bello (UNAB). She graduated as physics teacher (for middle and high school), physics (M.Sc.) and Ph.D. in Physics at Universidad Nacional de C´ordoba, Argentina. In 2013 she obtained a three-year postdoctoral position at the Universidade de Sao Paulo, Brazil. Her focus is set on educational research, physics education, problem-solving, design of instructional material and teacher training. She teaches undergraduate courses related to environmental management, energy and fundamentals of industrial processes at the School of Engineering, UNAB. She currently is coordinating the Educational and Academic Innovation Unit at the School of Engineering (UNAB) that is engaged with
Conference of the American Society forEngineering Education" 8[4] Siau, K., Sheng, H., and Nah, F. (2006) “Use of a classroom response system to enhance classroom interactivity”, IEEE Transactions on Education, vol. 49, no. 3, pp. 398-403Biographical InformationDr. Douglas R. Carroll, PE is a Professor in the Interdisciplinary Engineering Department at theUniversity of Missouri-Rolla. He is best known for his work with solar powered race cars, winning twonational championships and publishing a book on solar car design. He has received many teaching awardsin his career. His research interests are composite materials, solar-electric
Physics Cornell University, 2007 M.S. – Engineering Physics Cornell University, 2004 B.S.E.E. – Univer- sity of Evansville, 2000 Areas of specialization include electromagnetics, lasers and optics, electro-optics, microcontrollers, plasma science and applications.Dr. Dick Blandford, University of Evansville Dick Blandford is the department chair of the Electrical Engineering and Computer Science Department at the University of Evansville.Dr. Katherine Michelle Chandler Katherine Chandler received her B.S. in Nuclear Engineering Sciences from the University of Florida in 1997 and her Ph.D. in Electrical Engineering from Cornell University in 2005. Her research interests include x-ray spectroscopy, plasma dynamics