obstacles.One team implemented a state-of-art algorithm introduced during the recitation for stage 2,dynamic obstacle avoidance. As the course was designed for seniors and graduate students, mostof the students aimed to pursue their careers in robotics. They were motivated to work onimproving their algorithm performance as they were already interested in the topics. Having thesystem dynamics course listed as a prerequisite course, some students wanted to design their ownPID trajectory tracking controller instead of time-based control. We plan to include this as anoptional lab activity.Successes and ChallengesFirst of all, having Windows-based PCs in the lab caused some issues at the beginning of thesemester. Although ROS started with a Linux-based
Department. Althoughthis project was not centered on a specific industry partner, it provided the same experience inworking with industrial equipment and creating an industrial environment within a laboratorysetting. The scope of the project was such that the students needed to adequately research theFANUC robotics platform as well as the safety equipment and procedures required for anindustrial robot work cell. This adequately mimicked the industry experience.The knowledge of robotic platforms is extremely valuable in industry today. Not only operatingbut having installed and configured a robot is an experience that will be helpful moving forwardinto other, larger projects in future careers. This project will help the community at
with afocus on research and development.CHUKWUEMEKA GEORGE OCHIEZE is a PhD student at the Department of Mechanical and AerospaceEngineering in the University of Virginia. He earned his master’s degree from Michigan Technological Universityin the department of Mechatronics. During his master’s degree program, Ochieze was a mechatronics instructor inthe 2020-21 academic year for the Career Technical Education program in Mechatronics, which was recentlylaunched by Michigan Tech and the Copper Country Intermediate School District. Prior his master’s program, heworked with Lafarge Africa PLC as a mechanical design engineer and instructor.AHMAT OUMAR has a master’s in Mechatronics from Michigan Technological University. Prior to pursuing aMaster of
assessment data will becollected from future offerings as part of the program’s continuous improvement plan.References1. J. D. Lang et al., “Industry expectations of new engineers: A survey to assist curriculum designers,” Journal of Engineering Education, pp. 43-51, Jan 1999.2. W. Stone and H. Jack, “Project-based learning integrating engineering technology and engineering,” Proc. ASEE Annual Conf., 2017.3. G. Figgess and R. Vogt, “Building career-ready students through multidisciplinary project-based learning opportunities – A case study,” Proc. ASEE Annual Conf., 2017.4. J. Song and D. Dow, “Project-based learning for electrical engineering lower-level courses,” Proc. ASEE Annual Conf., 2016.5. R. Ulseth et al., “A new
, agriculture, materials, career planning, and other topics. b) This is Engineering, taken in the second semester, will be a freshmen design style class, with hands-on problem-based learning, with sustainability embedded in all projects. c) A seminar on Justice, Equity, Diversity, and Inclusion will be developed for students to explore issues such as implicit bias and paternalism and reinforce the idea that co-design with communities will reduce discrimination and lead to better solutions. d) New courses, Wellbeing and Sustainability Economics will be developed to introduce students to essential ideas of natural capital, circular economies, and measures of well-being and prosperity. e) Other new courses include Products, Services, and
experiences andprepare students for the challenges of the 21st century in the engineering industry.This paper illustrates a few case studies on integrating these tools in the classroom. This paperalso explains the outcome of the student's perspective in using them. In addition, the paper alsocovers other programs using these tools that may encourage critical thinking, stimulate real-world scenarios, and solve problems more effectively. Overall, using these tools should providestudents with valuable skills and knowledge that will benefit them in their future careers and bein tune with the new technology that the industry offers.Introduction“AI” is a method of making a machine, a computer, a computer-controlled robot, or a softwarethink like the human
., identifying hazards) and analyze design solutions (e.g., walkthroughs of 3D models). AI-powered VT platforms can personalize learning by tailoring modules based on individual strengths and weaknesses. Additionally, real-time feedback on designs can enhance critical thinking skills.Some future research and implementation on using VR technology in engineering education is: Longitudinal studies: Investigate the long-term impact of VT integration on student learning outcomes, career readiness, and problem-solving skills in the workplace. Faculty training: Develop training programs to equip faculty with the necessary skills and knowledge to effectively integrate VT tools into their courses. Assessment
, and career stages, should thenumber of applications exceed the available slots.The week-long workshop will be structured to provide a comprehensive introduction to ethical-epistemic pedagogy, focusing on its background, pedagogical strategies, and course redesignprinciples. Each day will concentrate on a specific theme, facilitated through a combination ofexpert presentations, interactive group discussions, and individual planning sessions. Facultyparticipants will benefit from the expertise of the GWU Instructional Core team, which will delivermini-lectures on active learning, student work evaluation, and effective course design, furthertailored to the application of ethical-epistemic analysis in engineering education. By the end of
interface through molecular dynamics.Naser Haghbin, Fairfield University Dr. Naser Haghbin is an Assistant Professor and Director of the Innovation Annex at Fairfield Univer- sity’s School of Engineering and Computing. With a distinguished career in Mechanical Engineering, he focuses on advancing industrial automation, robotics, and smart manufacturing. Driven by an inter- disciplinary approach, he seamlessly integrates traditional and advanced manufacturing processes with CNC machining, contributing significantly to academia and industry. Moreover, he excels in operating two fully automated robotic paint shops, showcasing his expertise in manufacturing processes, practical automation, and robotics in large-scale
artificial intelligence andits impact on their career prospects. Students found to be more confident through position-of-stress surveys administered later in the academic term were found to be more positive about theirfuture in a world more influenced by artificial intelligence. The figures below show this result. Figure 1. Boxplots for the confidence levels. Figure 2. Three groups of confidence levels and their associated ECTD scores (Y axis) and confidence levels (X axis).In short, students who lack confidence see themselves as being impacted and possibly evencontrolled by artificial intelligence. Students who are more confident see themselves controllingartificial intelligence and are
shown that student performance increases when students are engaged through active,application-based projects.4,5 Abstract concepts (such as static mechanics) need to be contextualizedto motivate students and prepare them for a career outside of the classroom.5,6 Procedural andtechnical skills are not enough to succeed in the workforce; a well-rounded engineer must think“beyond the numbers” and be able to solve open-ended, context-based problems.2Ultimately, the study presented in this work-in-progress paper aims to expose students to a real-lifeapplication of static mechanics and evaluate its impact on student learning. Proceedings of the 2023 ASEE Gulf-Southwest Annual Conference
measurement of human performance. Over the past 40 years he has developedsystems performance theory and various human performance measurement systems. These are employed in lab, clinic,and web-based/mobile contexts with applications ranging from Parkinson’s Disease and rehabilitation engineering toacademic, surgeon, and sport performance. He is a Fellow of the IEEE and a charter Fellow of the National Academy ofInventors.LAWRENCE R. DISALVIMr. DiSalvi is currently pursuing a doctoral degree in Bioengineering at the University of Texas at Arlington. A formermilitary helicopter pilot, his career includes 25 years in the aerospace industry as an engineering development and testdirector. His research interests include human performance modeling and human
project will enhance the current system for abetter arrangement and location of sensors used. IntroductionA capstone project is a key component to assessing a student’s comprehension of the knowledgeobtained throughout their undergraduate studies as well as their readiness to enter the next stage intheir careers. One of the primary benefits of a capstone project is that it helps students bridge the gap Proceedings of the 2024 ASEE Gulf-Southwest Annual Conference West Texas A&M University, Canyon, TX Copyright © 2024, American Society for Engineering Education 2between the
core materials.Matt Pharr, Texas A&M University Matt Pharr is an Associate Professor and J. Mike Walker ’66 Faculty Fellow in Mechanical Engineering at Texas A&M University with a courtesy appointment in Materials Science & Engineering. His scientific research focuses on mechanics of materials in areas including energy storage and conversion, soft ma- terials, irradiated materials, stretchable electronics, coupled electro-chemo-mechanics, and materials for neuromorphic computing. He teaches classes primarily in mechanics of materials and materials science. He has received an NSF CAREER Award, the Kaneka Junior Faculty Award, a Texas A&M Engineering Experiment Station (TEES) Young Faculty Award, the
% 16.90% <70% none <70% 1.90%Path to Professional CertificationThough not a course catered to a technician career, there is an added benefit of passing thiscourse/lab as part of the 4-year ABET-accredited B.S. degree – this involves accruing hourstoward an NDT Level-II certification. NDT personnel certification is conducted by the AmericanSociety for Nondestructive Testing (ASNT) standardization organization, with additionalcertifications at the corporate level conducted by the particular companies themselves. In generalthere are four requirements toward certification, which include education, training, testing, andwork experience. The table below highlights the training hours requirement for
future careers. Recognizing the significant value of practicalexperience, it is essential to incorporate such opportunities into the engineering curriculum[1].West Texas A&M University (WTAMU), located in the Texas Panhandle, distinguishes itself as aneducational institution. As a Primarily Undergraduate Institution (PUI) and a Hispanic ServingInstitution, WTAMU serves a diverse student population, including many first-generation collegestudents. The College of Engineering at WTAMU offers a variety of disciplines and is supported byadvanced research facilities like the Palo Duro Research Center. This research hub boasts cutting-edge equipment such as microfabrication and high-speed microscopic imaging tools, high-endmaterial characterization
technical standards,ensuring their readiness for lifelong learning. The synthesis of these demonstrated student outcomesequips engineers to exhibit critical thinking, creativity, and leadership in diverse team roles withinthe industry.The curriculum's depth extends to include content in essential areas for all engineers, such as ethics,devices, integrated circuits, and engineering economics. The objective is to offer a comprehensiveelectrical engineering education that serves as a foundation for graduates to specialize in their earlyprofessional careers and pursue advanced studies through graduate education.The College holds annual programmatic assessment meetings every Spring semester. These sessionsevaluate the assessment, enabling College
, and access to careers in STEM fields for students from historically underrepresented groups. Sharona is a founding organizer of ”The Grading Conference”, an annual two-day online confer- ence focused on reforming grading as we know it across STEM fields throughout higher education, now entering its fifth year. She coordinates a large general education Quantitative Reasoning with Statistics course for over 1,400 students per year as well as teaches a wide range of mathematics courses including Calculus and Linear Algebra.Mr. Robert Christopher Bosley, California State University, Los AngelesDr. Dina Verdin, Arizona State University, Polytechnic Campus Dina Verd´ın, PhD is an Assistant Professor of Engineering in the Ira
time and experience of professionals in theengineering education system and the students. This optimization would open up opportunitiesfor students to learn and practice multidisciplinary projects as well as prove a student’s ability toadapt and apply their skills to any industry.Introduction While the engineering education system breaks down the discipline of engineering intosubdisciplines, such as electrical and mechanical engineering, it is not realistic to expect a projectgroup to be made up of monodisciplinary engineers. Real-world problems demand a range ofexpertise and perspectives to develop the optimal solution. In addition, experienced engineersdeviate from one another based on the direction of their career and the area of
faculty from time to time about the classes, encourage peer observations, promote the lead-professor model, direct faculty to teaching effectiveness resources, review the grade distributions, review faculty teaching evaluations one-on-one, and provide feedback.Another respondent suggested: “Encourage faculty to stay current in their field by attending conferences, trade shows, etc. Encourage faculty to work outside the university during summers; industry experience is paramount to good teaching. Ensure faculty talk about themselves and their career path, not just the subject matter.”It is evident that personal experiences and stories tend to make
engineering students, as well asinstructors and academic departments. Helping engineering students succeed within their FYEPis important for ensuring the continuing success of the student throughout their entireundergraduate career. Encouraging students to understand the academic expectations within theirengineering discipline in their first year could help them make more informed choices aboutwhich discipline to pursue in the future.LimitationsNo comparisons were made to universities with a direct-to-department matriculation model tobetter ascertain the benefits and drawbacks that arise from attending a university with an FYEPmodel. Including universities without an FYP matriculation model would help pinpointdifferences in academic performance that
by Isabel Briggs Myers, categorizes individuals into 16 unique personalitytypes identified by a four-letter code as indicated in Table 1. This code reflects preferences infour key dimensions: ENERGY (E for Extraversion or I for Introversion), INFORMATION (Sfor Sensing or N for iNtuition), DECISION (T for Thinking or F for Feeling), and LIFESTYLE(J for Judging or P for Perceiving). Understanding this code provides valuable insights into one'spsychological preferences, promoting self-awareness, informed decision-making, and personaldevelopment. For students, the MBTI aids in comprehending their learning styles,communication preferences, and problem-solving approaches, facilitating more informededucational and career decisions. Educators can
Institute for Artificial Intelligence (AI). Her career in higher education began at Howard University as the first Black female fac- ulty member in the Department of Computer Science. Her professional experience also includes Winthrop University, The Aerospace Corporation, and IBM. She is a graduate of Johnson C. Smith University (B.S., ’00) and North Carolina State University (M.S., ’02; Ph.D., ’05), becoming the first Black woman to earn a Ph.D. in computer science at the university and 2019 Computer Science Hall of Fame Inductee.Shaundra Bryant Daily, Duke University Shaundra B. Daily is the Cue Family professor of practice in Electrical and Computer Engineering & Computer Science at Duke University and Levitan
, environmental, and mechanical engineering students have doneindependent learning of the LEED rating system since this time as CENG 4097 Civil EngineeringResearch (3 semester credits per student). It brings something unique to the engineering programsand encourages students to consider engineering licensure and credentialing (i.e. LEED AccreditedProfessional) in their engineering careers. Students learn the LEED system and submit weeklyreports, a final summary report including a case study LEED project, and produce a presentationbased on lessons learned and the final case study. Students are not required to take the LEED exambut are sufficiently prepared that if they wish, they may take the LEED Green Associate Exam at thesame testing centers that also
areexpected to be a part of in their future careers as successful engineers as well as to develop thenecessary communications skills.[4] Proceedings of the 2024 ASEE Gulf-Southwest Annual Conference West Texas A&M University, Canyon, TX Copyright 2024, American Society for Engineering Education 2Five groups of senior engineering students were involved in the fall 2023 semester thermos-fluiddesign course. One of these engineering design groups is reviewed in this study. The design groupopted to select to develop an instrument to demonstrate the pool boiling curve and experiment.This topic is initially discussed as part
underrepresented in engineering. Prior to joining Virginia Tech, Dr. Waller was Interim Director of the Office of Academic Diversity Initiatives at Cornell University. In this role, he was responsible for building academic and professional-development support and resources for undergraduate students who are traditionally underrepresented and/or underserved in higher education. Dr. Waller was the inaugural lecturer and director of the Ronald E. McNair Postbaccalaureate Achievement Program at Cornell Uni- versity. Dr. Waller began his career in student affairs and undergraduate education at Averett University, Radford University, and the University of South Carolina.Dr. Jeremi S London, Virginia Polytechnic Institute and State
with the knowledgeand tools necessary for success in their chosen careers. In the realm of engineering, artificialintelligence (AI) has emerged as a crucial tool, demanding integration into educational settings.While challenges exist, the benefits of incorporating AI into the classroom far outweigh the risks.In engineering education, AI offers significant advantages when introduced thoughtfully. In anintroduction to computer programming class, three primary benefits of AI were highlighted.Firstly, AI can generate code based on simple prompts, introducing students to promptengineering—an essential skill in modern programming. Although not mandatory at thefreshman level, this exposure lays the groundwork for efficient prompt creation in later
extend beyond the classroom environment and prove beneficial for their careers. Thefindings of this study contributed to the field of engineering education to facilitate sharedlearning environments for graduate engineering students.Purpose of the StudyAn increasing number of national reports emphasize the importance of developing newapproaches to science, technology, engineering, and math (STEM) education to maintain thecountry's leadership in scientific and technological breakthroughs [1], [2]. Educators andresearchers from diverse fields have been exploring a wide range of innovative ideas to enhanceand refine teaching and learning methods within STEM disciplines. An inquiry-based approachstands out as a promising and effective instructional
integration of programming into courseworkthrough live editor environments.Learning Activities Developed in MATLAB Live EditorDeveloping engaging learning materials is critical to active learning. However, faculty, especiallythose early in their careers, often face the challenge of dedicating sufficient time to coursepreparation, considering their heavy workload. Therefore, instructors highly appreciate open-source materials for classroom implementation. Mechanical Vibrations, a 3-credit engineering © American Society for Engineering Education, 2024course, and Vibrations and Control Laboratory, a 1-credit lab, are integral to the mechanicalengineering program at Kennesaw State University. Both courses are deeply mathematical
(such as broad vs. narrow) to refine your results?As in Question 3, it was expected that most of the students in Class 1 would say they haveexperimented with constructing prompts, but the two sections’ responses were very similar. InClass 1, 66% of students answered yes vs. 50% for Class 2. To account for this response, somestudents in Class 1 may have used AI in alternative ways, such as for editing sentences ratherthan generating material by starting broad and refining results.Figure 4. How often do you expect to use Generative AI in your engineering career?For Question 4, a significant difference between the sections can be seen in the “will never use”response. In Class 2 (no instruction), 25% of students said they would never use Generative