sustainabledevelopment concepts, exposed the students to the challenges of sustainable development froman engineering design perspective. The course objectives were that students would: 1. Be able to define sustainability 2. Identify sustainability issues in the atmosphere, hydrosphere, and lithosphere 3. Apply the engineering design process to sustainable projects 4. Summarize methods to measure sustainability 5. Analyze examples of sustainable and non-sustainable programs.Participants were also exposed to field experiences to observe issues in sustainability.Assessment of the course objectives illustrates the need for cooperation among engineering andother disciplines, such as economics and politics, in the design process for a sustainable
toMotorsports Engineering) and re-activation of one that had been in hiatus (Internal CombustionEngines), the program quickly gained momentum1. The three classes filled easily and there werenumerous volunteers after the announcement of a student project to build a racecar on campus.Within two years, the motorsports program had grown to the point that the classes were beingoffered as part of a Motorsports Technology Certificate. The racecar which was built as astudent project, shown in Figure 1, was actively and successfully competing in Sports Car Clubof America (SCCA) competition. Additionally, the School of Liberal Arts had recognized themomentum of the engineering program and created its own Motorsports Studies Certificate2 for
TMS320C6713 DSK). Therefore, in this paper, we firstpresent a complete digital crossover platform, MATLAB design and simulations, developed Ccode inserted in both of DSP boards, crossover outputs and test results. Secondly, we address theoutcomes of students learning achievement including continuous applications of their acquiredDSP skills in other related courses and their motivations for continuing to pursue the upper-levelsignal processing related courses such as the advanced digital signal processing with multimediaapplications. More importantly, we examine the course assessment according to analysis of thecollected data from students’ learning outcome survey, project evaluation, and further addressthe possible improvements of the course content
Johns Hopkins University, Laboratory for Computational Se ©American Society for Engineering Education, 2025 Integration of Capstone Class and Student Competition Design TeamsAbstractMany student competition design teams, such as SAE Collegiate Design Series teams, ASMEdesign project teams, and others, feature interesting and challenging projects. These projects areoften open-ended and require use of material from multiple engineering classes and disciplines,which suit them in many ways for capstone projects in senior design classes. In this paper, a teamof faculty who have been involved with student competition design teams and have taughtcapstone classes analyze the student experiences with capstones and
SigmaAbstractIn this paper, a Lean Six Sigma project aimed at improving the course scheduling process in alarge engineering department at Texas A&M University is presented. The current schedulingprocess faces numerous challenges, including inadequate enrollment capacity, a lack ofdocumentation, and inefficiencies that frustrate students and faculty members alike. By applyingthe DMAIC (Define, Measure, Analyze, Improve, Control) methodology, this project identifiescritical areas for improvement and proposes a new streamlined scheduling process. Keyoutcomes include reducing classroom overcapacity and ensuring equitable access to courses.This case study demonstrates how Lean Six Sigma tools can address systemic issues in academicoperations, benefiting
staff member covering thetopic of their respective field. Numerous site visits to current and completed DCC constructionprojects provide hands-on field experience by allowing students to meet with project andconstruction managers on each site to better understand project details, quality control measuresand construction techniques. Students selected for this program will also have the opportunity tolearn about business practices, history and culture of the Middle East, creating an environmentfor professional and personal development. In addition to midterm and final examinations,students are required to produce a comprehensive technical report detailing each construction sitevisit and construction associates visits, reflecting their individual
Paper ID #49706Preparations for an Engineering Education GrantDr. Sunai Kim, California State Polytechnic University, Pomona Sunai Kim is an Assistant Professor in Civil Engineering with a specialty in Structural Engineering and is a licensed structural engineer in the state of California.Giuseppe Lomiento, California State Polytechnic University, Pomona Giuseppe Lomiento is Assistant Professor in the Civil Engineering Department at Cal Poly Pomona. He holds a Master Degree and PhD in Structural Engineering from the Sapienza University of Rome. Prior to joining Cal Poly, he was Project Scientist in theDr. Jeyoung Woo
Full Paper: Paying it Forward: How Current Students Advised Future Students in an Engineering Design CourseIntroductionThis Full Paper shares our method and results for exploring feedback from students about theirlearning experience in a foundational, project-based engineering design course Students wereprompted to provide advice to future students with strategies for academic success. Theirresponses provided the data for this study.Instructors in engineering and other STEM-based courses eagerly advise their students abouthow to successfully meet or exceed the expectations of a course [1], but students may notnecessarily heed their recommendations [2]. However, students may be more likely to listen tosimilar advice
engineering curriculum2. The vehicle for this thread was to bethe core design sequence at Stevens known as the Design Spine3. The first five courses are core designcourses taken by students from all intended disciplines; the last three are taken in the discipline - a juniorcourse followed by a 2-semester capstone senior year project. In most cases the core design courses arelinked to concurrent engineering science courses, thus providing context for the latter. The Design Spineis a key vehicle to develop a number of threads that build both technical and so-called “soft”competencies. The latter include communications, creative thinking, teaming, economics of engineering,problem solving, project management etc. It should be noted that the first four
Theory and Practice: Active Learning and Real-World Applications in Mathematical Analysis Course Djedjiga Belfadel, and Danushka Bandara Fairfield UniversityAbstract:This Evidence-Based Practice Paper outlines the redesign of the sophomore-level Mathematical Analysiscourse at Fairfield University, focusing on enhancing the practical application of mathematical conceptsfor engineering students. The course has been redesigned from a predominantly theoretical frameworkinto a hands-on, project-based approach. Building upon the successful integration of MATLAB, theredesign emphasizes active learning techniques and interactive programming
Lab, he has been the co-instructor of an innovative project-based course, Diagnostic Intelligent Assistance for Global Health, that exists as part of the University of Michigan’s Multidisciplinary Design Program.Caleb William Tonon, University of MichiganGuli Zhu, University of Michigan Guli Zhu is a graduate student in the Health Data Science program at the University of Michigan. His research interests include machine learning, large language models, and multimodal learning, particularly in the context of healthcare applications.Tyler Wang, Stony Brook UniversityRafael Mendes Opperman, University of Michigan Rafael Opperman is a second-year undergraduate pursuing a B.S.E. in Industrial & Operations Engineering
and advanced vector networkanalyzers, that are typically used in the SI laboratory, which tends to be very expensive andbeyond the standard laboratory equipment in an undergraduate program. In this paper, we reporton the efforts that we have made to keep our signal integrity lab current with new laboratoryexperiences and capstone projects and undergraduate research. For example, recently, we haveobtained support from the Office Naval Research and the local administration to acquire newVector Network Analyzer to enhance undergraduate/graduate education and research in signalintegrity. We have also received a time domain reflectometer (TDR) donation from a localcompany, and submitted a new Major Research Instrumentation (MRI), National
the interactions between student motivation and their learning experiences. Her projects include studies of student perceptions, beliefs and attitudes towards becoming engineers and scientists, and their development of problem-solving skills, self-regulated learning practices, and epistemic beliefs. Other projects in the Benson group involve students’ navigational capital, and researchers’ schema development through the peer review process. Dr. Benson is an American Society for Engineering Education (ASEE) Fellow, and a member of the European Society for Engineering Education (SEFI), American Educational Research Association (AERA) and Tau Beta Pi. She earned a B.S. in Bioengineering (1978) from the University of
competencies necessary for engineers to perform well,contribute to their field and lead [4,5]. Key components include communication skills, that is, theability to effectively convey, receive, and interpret information through verbal, non-verbal, andwritten means for different audiences; teamwork, which entails collaborating effectively withothers and exhibiting leadership; and the metacognitive skills needed to remain effective in arapidly evolving field, including problem-solving, leadership, project management and self-management.At the University of New South Wales (UNSW Sydney, Australia), design thinking andprofessional practice are taught to Chemical Engineering undergraduate students in the Level 2course DESN2000 Engineering Design and
, Engineering and Science (ELATES) Program.Elizabeth Generas, Wright State University Elizabeth Generas is an external evaluator for education and social justice projects. She completed a graduate certificate in Program Evaluation from Wright State University, where she is also a doctoral candidate in the Doctor of Organization Studies program.Dr. Leanne Petry, Central State University Dr. Leanne Petry is a Materials Engineer and Professor in the College of Engineering, Science, Technology, and Agriculture (CESTA) at Central State University (CSU). Her expertise lies in analytical and materials characterization techniques, including microscopy, spectroscopy, chromatography, and electrochemistry. Her research focuses on
codes to suit there needs. The toolbox can also be used in student projects because of this versatility. It would be a great tool for students to be able to create a concept model for any robot they planned to create in a classroom setting or otherwise. The examples using the toolbox include both representations of typical industrial robot configurations (e.g., PUMA 560) and robots with structures and dimensions which can be edited by both the student and instructor. These examples provide the mathematical representations and solutions of the designed robot. In this current project, our goal is to complete the development of the teaching toolkit using therobotics toolbox. The faculty advisor supervising this project
parameters. Crestron (Rockleigh, NJ, USA) provides enterprise control andautomation solutions for AV equipment. One of their products permits system monitoring acrossa large network of AV equipped spaces. This product is Crestron Fusion, and it enablesmonitoring of connected systems, scheduling of services such as repairs and alerts for AVtechnicians. The purpose of this project is to utilize the Crestron Fusion service to trackinformation about a room’s AV system, such as lamp hours, microphone battery levels, androom occupancy. This information would be saved to a centralized database and would beavailable for analytics, monitoring, and generation of alerts when needed. Such a system wouldimprove the ability to monitor classrooms' operational
InquiryMotivation and GoalsThis capacity-building project, which is supported by the Institutional and CommunityTransformation track of the NSF Improving Undergraduate Education in STEM (IUSE ICT)program, is designed to build capacity for future efforts to support STEM faculty in collaborativeinquiry processes to explore questions on student learning and success and to inform changes toimprove individual classes, student pathways, and curricula. Recognizing that providing facultyaccess to data is not sufficient to effect change, this project aims to cultivate faculty interest andmotivation in using evidence-based instructional strategies by including faculty as co-designersin the development of data analytics tools, engaging them in inquiry and developing
collaboration were identified. Over ten different areas forevaluation and other projects were identified before shifting the conversation to prioritizing certainareas for immediate evaluation versus future evaluation projects. Ultimately, the team decided toexplore five specific projects, three of which pertained to the external evaluation. These aredescribed below:Project 1: Evaluation of the unexpected impacts of The Center. The purpose of this project was 1to understand how The Center impacted the university in unexpected ways, outside of teaching-related outcomes. This question was being explored as The Center employees recognize that theyare often asked to participate in events, committees, and
summer of 2021, eight middle school and high school teachers from two local public-schooldistricts spent six weeks engaged with research activities on biologically-inspired computingsystems. They worked on discovery-based research projects and obtained transdisciplinaryresearch experience on biologically-inspired computing systems spanning application (cancerdetection), algorithm (Spiking Neural Networks), architecture and circuit (synaptic memorydesign), and device (memristor). The USA faculty mentors, curriculum development specialistfrom school districts, Instructional Coach from Science/Mathematics faculty at USA coachedparticipants as they designed standards-compliant curriculum modules and conductedprofessional development activities. The
and high school students with racially minoritized backgrounds, theCatalyzing Inclusive STEM Experiences All Year Round (CISTEME365) initiative aimsto better understand practices that increase students' motivation and capacities in pursuitof careers in STEM fields. Overall, the project aims to develop transformative paradigmsfor advancing interests, self-efficacy, abilities, and pathways in STEM with a set of threeinterconnected strategies. • School-based teams of classroom teachers and academic advisors participate in year-round professional learning experiences focused on diversity, equity, and inclusion in STEM, as well as a project-based electrical engineering curriculum. • Participating schools receive resources and
Session 004 Integrated Circuits Design Course to Satisfy ABET Design Requirements in Electrical Engineering E. H. Shaban Electrical Engineering Department Southern University Baton Rouge, LA 70813 AbstractAccreditation Board for Engineering and Technology (ABET) requires that electricalengineering graduates must be able to solve open ended theoretical problems and providepractical design engineering solutions for projects utilizing the knowledge they gainedfrom the
Education where she has also served in key leadership positions. Dr. Matusovich is recognized for her research and leadership related to graduate student mentoring and faculty development. She won the Hokie Supervisor Spotlight Award in 2014, received the College of Engineering Graduate Student Mentor Award in 2018, and was inducted into the Virginia Tech Academy of Faculty Leadership in 2020. Dr. Matusovich has been a PI/Co-PI on 19 funded research projects including the NSF CAREER Award, with her share of funding being nearly $3 million. She has co-authored 2 book chapters, 34 journal publications, and more than 80 conference papers. She is recognized for her research and teaching, including Dean’s Awards for
participating classes. The secondyear added the option of co-facilitating a project between the two classes. All teaching,assignments, and projects were completed through virtual platforms. Several travel opportunitieshave been provided for student and faculty participants. These have either been through theattendance of international technology bootcamps that were organized by the French Embassy, apartner IUT, or through a travel program organized by the IEI. Travel includes experiences thatprovide an overview of French engineering and technology education, industry, history, andculture. Study-travel opportunities and hosting faculty colleagues and leaders from partnercampuses also supply key motivators for funders, students, and faculty. It should be
article are twofold: (1) to present the maincharacteristics of a novel, project-based, technical elective course on Introduction to T-LiDAR forstudents in the Civil Engineering (CE), Construction Engineering (ConE) and ConstructionManagement (CM) programs at Georgia Southern University, and (2) to assess students’acquisition of knowledge through the adopted hands-on approach. This work describes details ofthe developed course to expose students to the fundamentals of T-LiDAR and engage them inspecialized activities involving this modern technique to successfully complete 3D point-cloudmodels of real, service-learning projects. These projects benefit the community and could assistuniversities in attaining or maintaining their Carnegie Community
each of these three areas utilizing the nine principles.Financial support is provided in the form of scholarships. The programming then supportsstudents both academically and develops community through two main components, a first-yearseminar and seminar grouping subsequent years together. The first-year seminar focuses on keyskills related to the transition to college. In subsequent years, the program shifts its focus toapplications, incorporating a community-based learning project and developing skills to findinternships and research opportunities. We initially tried an approach of using as many of theseresearch-backed best practices as possible. This beginning tactic has helped us identify thecomponents that make the largest impact on
our engineering students with an interdisciplinaryexperience, such as by leveraging the talent of students in our world-class Schools of PublicHealth, Business, Medicine and Law. Third, while students are currently trained and encouragedto explore the entrepreneurial aspects and cultural context of their global health tech projects,these aspects often receive less emphasis. The current generation of engineering students areeager to tackle global challenges and positively impact patients’ lives. Therefore, our objectivewas to create a new, experiential course in global health innovation and entrepreneurship wherestudents from various educational levels and schools, specifically the Schools of Engineering(SEAS) and Public Health (PH), will
1 Session 2020 Vertical Column Wind Speed Measurement at PVAMU Michael Brown, *Christopher Medlow, Penrose Cofie, John Attia, Warsame Ali, Shuza Binzaid, Electrical Engineering and *Mechanical Engineering Prairie View A&M University AbstractThis project was designed to report wind data such as speed, frequency, direction, and temperaturefor future plans to install a multitude of wind turbines at Prairie View A&M University
engineering course which allcomputer, mechatronics, and electrical engineering students are required to take. The class isoffered, assessed, then data is collected every semester for electrical and computer engineeringstudents only. Assessing EECE 344 every semester is necessary to be able to capture asatisfactory subset of the low number of computer engineering students in the department. Oneof the main learning objectives in the class is to train students to collaborate, work in teams, andcommunicate effectively using oral and written communication. The course learning outcomesare evaluated using a total of 6 lab assignments and one final project assignment. Most of the labassignments are performed in teams of two (5 out of the 6 assignments), and
2021 ASEE Midwest Section Conference Arduino Controlled Irrigation System Nur-E-Afra Anika, Kabilananthan Asokan ,Bryar Pim Department of Engineering and Technology, Southeast Missouri State UniversityAbstractIn this era of technology, machines are used to make people's lives easier. Using this knowledge,we can improve and design simple methods of keeping people healthy. This project focuses onagriculture. By implementing technology, we can reduce manpower, time and still produce healthyorganic produce. Therefore, an automatic plant irrigation system has to be designed to controldifferent aspects necessary for plant growth. These parameters are