a long history, with roots dating backto the 1950s [4]. Early NLP systems were limited in their capabilities and largely relied onrule-based approaches, but the development of machine learning algorithms in the 1980s and1990s led to significant advances in the field [5]. Nowadays, NLP is a rapidly growing field thathas the potential to revolutionize the way we teach and learn [6]. By enabling computers tounderstand and process human language, NLP can help educators identify patterns and trends instudent learning, facilitate more personalized and effective instruction, and provide students withnew ways to interact with educational materials [6], [7]. NLP has a wide range of applications,including language translation, text summarization, and
formingagain.Developing effective global leadership skills is a challenge for even the most experiencedengineering managers. However, offering proper (in)formal education in the area of globalengineering management can significantly help train emerging and current leaders and canenable them to identify and overcome the barriers in a global team. This paper takes a look atkey concepts that must be taught to and understood by managers seeking success in globalmarkets. The material presented in this paper can be formally integrated as part of a core coursein a MBA global management program or can be offered as an elective towards anundergraduate business management degree. Informally, it can be used as part of an executivecoaching program and/or an internal
problems and issues on a daily basis and we develop new ideas,services, and products for the betterment of the society. Because of these changes, organizationsalso have to align their operations based on changes to their products, services, processes,materials, regulations, and hiring processes, to name a few.One of the goals for educational institutions is to prepare students to meet the demand set by thesociety or industry. Therefore, it is critical that educators must be aware of those changes takingplace in industry and to keep abreast their curriculums with new changes implemented by theindustry. Moreover, each program within academia will be required to update course objectivesand materials constantly, depending on the needs and demands set
responsibility to the public, and how much evidence of technicalmalfunctions should be needed before an organization (in this case, the White House) isobligated to inform other stakeholders.1. IntroductionWhistleblowing is a topic of growing importance to students in all branches of engineering,including computer science and computer engineering. As Bowyer [24] has noted, whistle-blowing is mentioned in all the major codes of ethics relevant to the computing profession, theIEEE code, the ACM code, the AITP Standards of Conduct, and the IEEE-CS/ACM SoftwareEngineering Code of Ethics. However, most well known examples of whistleblowing hail fromother fields, such as civil and mechanical engineering. A notable exception is the case of RuthAldred and
://paultwa.com/the- case-for- maximalism#:~:text=Maximalism%20is%20often%20described%20with,be%20describe d%20much%20more%20positively. In this article, graphic designer Paul Twa espouses the benefits of maximalist design, showing five iconic representations of maximalism in visual design since the 1800s.ConclusionAs shown in a comparison of Appendices A and D, by exposing students to a few key principlesof visual design, educators can push students closer to becoming the dynamic, engaging publicspeakers employers seek. Along with their students, educators can begin modeling better visualdesign in their own classroom materials to improve student focus, clarity, and comprehension butalso to demonstrate a sense of passion for
National Academies panels: Survivability and Lethality Analysis, Army Research Laboratory (ARL) Au- tonomous Systems. Dr. Rodriguez received his Ph.D. in Electrical Engineering from the Massachusetts Institute of Technology in 1990. Personal Web site: http://aar.faculty.asu.edu/Ms. Anita Grierson Ms. Grierson holds Masters degree in Mechanical Engineering and Business Administration. She has served as Director of the METS Center for Motivated Engineering Transfer Students at Arizona State University for five years. Page 26.1169.1 c American Society for Engineering Education, 2015
low-power packages for use in consumer devices which require sophisticated communicationcapabilities and operating-system based software.Specific Constraints of embedded systemsIn all these new developments the constraints of embedded systems remain common. Namely: • Non-standard user interfaces without QWERTY keyboard and screen. Interfaces typically implemented through sensors and pushbuttons, although text-oriented devices (e.g. PDA) may also include alphabetic input mechanisms such as pens or on-screen keyboards. Sensor-oriented interfaces also require matching software access, which is typically different from standard computer peripherals. Device drivers are needed for these sensors
Paper ID #43774Board 391: SUCCESS Scholars: Early Findings from an NSF S-STEM ProjectMs. Krystal Corbett Cruse, Louisiana Tech University Dr. Krystal Corbett is the First-Year Engineering Programs Coordinator and Assistant Professor in the Mechanical Engineering Department at Louisiana Tech University. She is also the Co-Director of the Office for Women in Science and Engineering at Louisiana Tech.Dr. David Hall, Louisiana Tech University David Hall develops and promotes project-based engineering courses. He believes that projects build intuition and confidence which are important for the effective application of engineering
structures/materials engineering from Tufts University, 2003. His research interests include applied mathematics, cable supported structures, and high-performance materials used in construction. Dr. Palmquist may be reached at shane.palmquist@wku.edu. ©American Society for Engineering Education, 2023 Introducing Omnifinites and the Arithmetic Errorless Infinity Calculator Hunter C. Fred Ryan B. Greenwood Boyce D. Tate Professor, Shane M. Palmquist School of Engineering and Applied Sciences Western Kentucky UniversityAbstractTypically, in applied mathematics, only
- matics education exploring the connection between high school ACT mathematics scores and freshmen mathematic/engineering class grades.Dr. Marisa K. Orr, Louisiana Tech University Dr. Orr is an Assistant Professor in Mechanical Engineering and Associate Director of the Integrated STEM Education Research Center (ISERC) at Louisiana Tech University. She completed her B.S., M.S., and Ph.D. in Mechanical Engineering, as well as a Certificate of Engineering and Science Education at Clemson University. Her research interests include student persistence and pathways in engineering, gender equity, diversity, and academic policy. c American Society for Engineering Education, 2016 Predicting Success
engineering students, and thehigh school student participants. Not only the materials needed for the activities, but also lunchand giveaways were donated by businesses surrounding the Purdue Campus in West Lafayette,Indiana.Evaluation of ProgramOver the last year, through the Indiana Space Grant Consortium, PFSD has partnered with thePurdue College of Education to examine ways to develop a comprehensive evaluation plan forPFSD. These evaluations will continue to be refined and expanded and the use of evidenceprovided will improve both effectiveness and the program.Grade school Students and ParentsEvaluation sheets are distributed to all grade school students to complete. These evaluationscontain background details on each of the school students
: The Khepera robot shown in the microprocessor laboratory.functions of sensors, motion control, computer interfacing and programming. The workstation issetup in a laboratory environment which consists of a personal computer, the Khepera robot, anda maze box, Figure 2. Each student is given a simple instruction booklet which contains backgroundinformation on the Khepera robot, a description of its mechanical and electronic makeup, and a listof commands used to communicate. The instructor guides the students through the process in thefollowing steps:(1) Introduction to the Khepera, to include a. Stepper motor assembly and proper handling during operation b. Microprocessor and computer
Session 3620 A Modeling and Controls Course using Microcontrollers Hugh Jack, Andy Blauch Associate Professor / Assistant Professor Padnos School of Engineering Grand Valley State University Grand Rapids, MI email: jackh@gvsu.edu, blaucha@gvsu.edu1. IntroductionAs with most engineering programs, we offer a dynamic systems modeling and control course(EGR 345) to our students in Mechanical and Manufacturing Engineering [1][2]. This course hasevolved
allows students to work on projects thatsuit their particular interests. The six subteams are as follows:● The mechanical team specializes in the design and manufacture of the rocket’s metal components. This team is also responsible for designing and implementing the air-braking system used to throttle the maximum projected altitude of the rocket.● The avionics team develops custom electronic circuitry to log flight data and creates the software necessary to track the rocket’s performance characteristics while in flight.● The payload team is responsible for developing a scientific experiment to be launched atop the rocket, which is the main reason the rocket is launched in the first place. The team’s past scientific instruments
users can be notified of problems before they cause a criticalfailure that may cause the loss of life. In manufacturing, the increasing use of robots for massproduction has increased the need for reliability and fault tolerance14. In some sense the additionof fault tolerance however works against itself, as more hardware must be added which itself canalso fail. Reliable embedded computers include many mechanisms for system stability includingself-checks, and self-diagnosis15.The ultimate goal of a fault tolerant system is to maintain stability through a fault until a repaircan be made. If a faulty component is detected, a system may activate a backup unit, or simplydeactivate the unit if it is non-critical to system operation. Fault tolerance
. COL Welch received a BS degree in Engineering Mechanics from USMA in 1982 and MS and Ph.D. degrees in Civil Engineering from the University of Illinois at Urbana-Champaign in 1990 and 1999, respectively. Page 11.905.1© American Society for Engineering Education, 2006 Lowman’s Model Goes to the MoviesAbstractLowman’s Two Dimensional Model for teaching effectiveness has been included in the seminaron Teaching and Learning for the past seven years in the ExCEEd Teaching Workshops. Thetwo dimensional model describes nine different classifications of teachers that range low to highperformance in the
expressed in this material are those of the authors and do not necessarily reflect the views of the NSF. External Power Supply MyDAQ RASCL Board Laptop with ELVIS (a) (b) Figure 1. The portable electronics experiment kit (PEEK): (a) kit setup and (b) PEEK with a case (Figure excerpted from [1]).During Fall 2011, these toolsets were applied to laboratory activities associated with two courses:ENGR 3014—Circuit Analysis and ENGR 3050—Instrumentation and Controls; specifics of each aredescribed below:ENGR
’ social and technical skills to mitigate their initial struggles. In this paper, we ex-amine ART at the requirements-to-source-code level, which can be seen as a more focusedinvestigation along the maintenance spectrum. This is because, before attempting any modi-fication, engineers must locate and understand the parts of the software system relevant to thedesired change. In many cases, the relevant parts include not only source code but also otherartifacts, e.g., requirements.Incorporating the teaching materials that are of industrial strength is an important educationstrategy to ensure practical relevance. For example, Way18 developed a course that imple-mented a company-based framework in developing a software project. The course objectivewas
Paper ID #19534A Collaborative Capstone Industry Project for Community College StudentsDr. Ibrahim F. Zeid, Northeastern University Ibrahim Zaid is a professor of mechanical, industrial, and manufacturing engineering at Northeastern Uni- versity. He received his Ph.D. degree from the University of Akron. Zeid has an international background. He received his B.S. (with highest honor) and M.S. from Cairo University in Egypt. He has received var- ious honors and awards both in Egypt and the United States. He is the recipient of both the Northeastern Excellence in Teaching Award and the SAE Ralph R. Teetor National Educational
Paper ID #6386Engineering Students Perspective on Mentoring and LeadershipDiana Bairaktarova, Purdue University, West Lafayette Diana Bairaktarova is a doctoral candidate in the School of Engineering Education at Purdue University. She holds B.S. and M.S. degrees in Mechanical Engineering from Technical University at Sofia, Bulgaria and an M.B.A. from Hamline School of Business at St. Paul, Minnesota. Bairaktarova has over a decade of experience working as a design engineer. Her research is focused on human learning and engineering (i.e. understanding how individual differences and aptitudes affect interaction with
Technological University Dr. Kelly Steelman is an Associate Professor in the Department of Cognitive and Learning Sciences and an Affiliated Associate Professor in Mechanical Engineering and Engineering Mechanics at Michigan Technological University.Dr. Leo C. Ureel II, Michigan Technological University Leo C. Ureel II is an Assistant Professor in Computer Science and in Cognitive and Learning Sciences at Michigan Technological University. He has worked extensively in the field of educational software development. His research interests include intelligent learning environments, computer science education, and Artificial IntelligenceDr. Charles Wallace, Michigan Technological University Dr. Charles Wallace studied
bodies47. Part-time faculty are often denied a substantive role in academicgovernance, curriculum development, and other decision processes that affect their own work28.Findings have suggested that higher education institutions consider providing part-time faculty(and other contingent faculty) with support and training that would increase their performance inaddition to trust and commitment40. Similarly, Boyland43 found that programs were moresuccessful when they fully integrated part-time faculty and considered them as assets.Integration was described as providing support mechanisms such as orientation manuals andprograms encouraging participation in department meetings and mentoring programsBenefits, advancement, lack of communication, and
challenges finding instructional staff is a major motivation. Theyhighlight the basic mechanisms for developing such tools using the API programming interfaceand Visual Basic that come with SolidWorks®. However, they do not present a finalimplementation only a strategy for developing the system. Branoff et al. [7] in a similar fashionhighlight a range of grading strategies that can be applied to constraint-based CAD activities butdo not get into the question of automation of these. Renu et al. [8] describe the use of a shapesimilarity algorithm based on a tessellated representations of a solid model and its massproperties to assess the similarity of a student’s submission and the correct result. Use of atessellation makes their method CAD system
framework for AI-human transference learning, leveraging AIsystems to facilitate effective knowledge and experience transfer, thereby improving learning out-comes. The proposed method utilizes AI-generated content, synthesized from multiple sources,to deliver contextual and task-specific knowledge while simultaneously integrating the transfer-ence of experiential learning derived from AI systems operating across diverse environments.This approach encompasses the development of adaptive learning materials, dynamic presenta-tion formats, and optimized pathways tailored to individual learning needs. Additionally, the AIsystem employs continuous assessment inquiries to evaluate comprehension and provide person-alized feedback, ensuring a deeper
Engineering had no website, no curriculum, no operating budget,no furniture, no equipment, no vision, etc. Wake Forest Engineering was housed and is stillhoused in a College of Arts and Sciences that housed 30 departments and 26 interdisciplinaryprograms. Prior publications (Pierrakos, 2025; Pierrakos, 2024) offer more details about theprogram launch.At launch and to this day, Wake Forest Engineering offers one Bachelor of Science Engineeringdegree. In time and driven by student interest, five optional engineering concentrations(biomedical engineering, civil and environmental engineering, electrical and computerengineering, materials and chemical engineering, and mechanical engineering) were launchedstarting Fall 2021. The concentrations leveraged
also testing if different interventions are moreeffective for different cohorts (e.g., Veteran students, students in different majors, students withdifferent social responsibility perceptions).Finally more research is needed to identify and test interventions that increase student retentionin engineering, specifically among underrepresented populations such as Veteran students.AcknowledgementsFunding provided by the National Science Foundation (Award #1738145). Opinions, findings,and conclusions or recommendations expressed in this material are those of the author(s) and donot necessarily reflect the views of the NSF. The authors express their gratitude to all surveyparticipants and members of the advisory board for their role in this
application.Introduction to the Measurements and Instrumentation CourseThis is a required first semester junior-level course for Electrical and Computer EngineeringTechnology students. The course description covers measurement concepts, transducers, electronic-aided measurement, and mechanical and electrical measurements. A LabVIEW textbook isrequired for the students1. Prerequisite knowledge includes circuit analysis and design, analog anddigital electronics, microprocessor applications, and PLC applications. The students’ softwarebackground includes high-level programming, assembly language programming, and ladder-logicprogramming.The course is 3 credits and consists of 2 hours of lecture and 2 hours of lab per week. The lecturecontent of the course is divided
material handling policy 5. Develop a cash flow schedule and financial plan. 6. Prepare letters of recommended solutions for cost, schedule, change management, document submittal, and/or related issues. 7. Develop a comprehensive safety program. 8. Develop mechanical / electrical scopes of work. 9. Participate effectively in a change order process. 10. Assemble all project work into a single organized portfolio. 11. Take AIC AC examStudents’ performances and grades were assessed by the following factors: • Attendance and Leadership (25%): Students are required to attend all the activities in person, including both technical development and volunteer services for the facilities to fill up the 200 hours course
. c American Society for Engineering Education, 2018 Rethinking non-major circuits pedagogy for improved motivation1 IntroductionIt is no secret that student motivation is critical to learning. Put succinctly, students will onlyapply effort to learn if they see value in learning the material or skill at hand. This value maycome from a combination of one or more sources, such as the pleasure of attaining mastery of askill, the enjoyment of the material itself, the potential for better job prospects, or simply the needto earn a particular grade to keep a scholarship [1]. Many of these value factors are influenced bythe structure of our courses and the way we teach, and electrical engineering is
Paper ID #44190Implementing and Using ROS in Undergraduate Robotics CurriculaProf. Siobhan Rigby Oca, Duke University Siobhan Rigby Oca is an Assistant Professor of the Practice and Assistant Director of Robotics Programs in the Thomas Lord Department of Mechanical Engineering and Materials Science at Duke University, NC, USA. She received her B.Sc. from Massachusetts Institute of Technology and Masters in Translational Medicine from the Universities of California Berkeley and San Francisco. She completed her Ph.D. in Mechanical Engineering at Duke University. Her research interests include applied medical robotics