literature regarding the challenges EWB students face, theprofessional growth they experience due to their project participation, the knowledge, and skillsthey acquire, and their plans to continue this type of work in their future careers.This study seeks to investigate the benefits and challenges of EWB's experiential learning programfor engineering students and to examine the impact of participation in EWB projects on students'personal and professional development, including their skills, knowledge, and career aspirations.Specifically, the study seeks to answer two research questions: What are the benefits andchallenges of EWB's experiential learning program for engineering students, and how doesparticipation in EWB projects impact students
overall planning, organizing,and time management. With that desire, we have reason to research if these project managementskills and concepts are being taught effectively enough to prepare students for senior-levelcapstone courses and future careers. Degree programs that do not heavily focus on managementprinciples may impact students' abilities to obtain manager-style roles. Outside the classroom,there are opportunities to obtain this experience, such as through internships and studyingabroad. Data collected stem from a self-efficacy questionnaire administered to 811 students andvoluntarily completed by 361. The survey was issued at the beginning of the semester for ninefall courses through 15 different majors and intended to take approximately
, 2023 Robotics Empowered Convergence Engineering Education He Shen, Aren Petrossian, Joseph Vizcarra, Eva Schiorring, Mark TufenkjianAbstract: This paper presents the design and first-time offering of a convergence engineering course,“Introduction to Autonomous Robotic Systems,” where students from four engineering majors worked ininterdisciplinary teams to create submarine robots and accomplish complex autonomous missions. Thetechnical knowledge covered in the course included: robot design, mechanical analysis, sensing andactuation, electrical system design, guidance, navigation, control, robot operating system, computer vision,object recognition, and mission planning. The students are engaged in a whole project cycle within
Technology programs. He is also member of AIChE and ASEE. Currently, he serves as director for ASEE’s Engineering Technology Council (ETC).Dr. Lisa Deane Morano, University of Houston Lisa Morano is a Professor of Biology and Microbiology at the University of Houston-Downtown (UHD). She is also the Director of the Center for Urban Agriculture and Sustainability (CUAS) at UHD. Her research has focused on the bacteria found inside plan ©American Society for Engineering Education, 2024A Student Experiential Learning Program – An Interdisciplinary Approach to Sustainability Vassilios Tzouanas1 and Lisa Morano2 1
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Paper ID #44544A Novel Curriculum for an Engineering Degree in STEM Education andTeacher PreparationDr. Mohamed Gharib, Texas A&M University Dr. Mohamed Gharib is an associate professor and program coordinator for the Mechatronics Engineering Technology and STEM Education programs at the School of Engineering at Texas A&M University. His research interests are in the fields of Robotics, Dynamics and Control, Vibrations, and STEM Education. He is an expert in designing, prototyping, modeling, and simulation of robotic systems. He is also a STEM education specialist and program developer, including planning
finally discarded only asa last resort (Hanacek, 2022). This paper will focus on the initial planning stages of introducingthis concept into existing plastics curriculum of an engineering technology program as part of theTraining for Plastics Circularity (TIPC) grant funded through NIST.The PET program at Pittsburg State UniversityThe Department of Engineering Technology (ETECH) is housed in the Kansas TechnologyCenter on the Pittsburg State University campus. ETECH programs are comprised oftechnological elements requiring scientific and engineering knowledge plus the hands-onmethods to provide practical skills in support of product producing industries, like plasticsmanufacturing. The Pittsburg State University Engineering Technology Programs
be systematically assessed and evaluated, withdocumented reflection and CI action items for implementation during the 3-years (2021-24). In asix-year period between ABET site visits, the plan is to have two iterations of the CI process tobe completed. Appendix (A-F) includes sample data for the assessment, evaluation, and CIefforts for the BS Electrical ET program.Strategy 2: Documented evidence of implemented action items (I a, I b) demonstrating that theresults of student outcome assessment and evaluation are systematically utilized as input for theprogram’s CI actions. This includes the assessment, evaluation, and CI efforts of the program forthe period, fall 2019 to summer 2022. The four constituents – faculty, students, IAB and
minute podcast again (or modify your original plan)5 Production 10 - 13 Update Storyboard Based on Feedback: Look at and planning address provided revisions, practice for time and consider format items (intro/outro, other sound items?)6 Podcast 14 - 16 Final Project + Reflection: Produce final podcast(s) and production and upload for distribution. Complete the final Metacognitive distribution Reflection.3.2 Data Collection The data was collected using a metacognitive reflection assignment consisting of twosections, with three questions in each section. The first set of three
positions. Dr. Kinney has significant experience in using technology to improve business practices, organizational change management, strategic planning, process improvement, and grant writing and evaluation. Prior to West Shore Community College, Dr. Kinney was the Dean for Business and Technology at Bay College in Michigan’s Upper Peninsula. ©American Society for Engineering Education, 2024 Paper ID #40983Prof. Scott A. Kuhl, Michigan Technological University Scott Kuhl is an Associate Professor of Computer Science and an Adjunct Associate Professor of Cognitive & Learning Sciences at Michigan
development of new STEM majors, particularly in emerging fields such asengineering, computer science, and information technology, emerges as imperative for fosteringSTEM growth at Keiser University. Addressing these challenges head-on is paramount tocultivating a more inclusive and supportive environment that empowers all students to pursue andpersist in STEM disciplines.As it is clear from tables 3 and 4, the major drawback are the retention and graduation rates forboth STEM and non-STEM majors. . In order to address the issue, a comprehensive mentoringplan will be the developed in the coming year.The proposed mentoring plan utilizes the mentors (a) To serve in an academic support role inwhich they will provide one-to-one or very small group
College a better understanding of whatwas already being done in this space and the future plans that others had in mind. The list of what was learned throughout building this micro-credential is invaluable. Theopportunities this program has for faculty to build their knowledge in the field, the benefits forstudents to begin or continue to learn a new trade, and the economic impact this program can haveonce students complete it and go out to work in the field, have all come from the process ofdeveloping this program.Lessons Learned A number of lessons were learned throughout the entirety of this micro-credential buildingprocess, the first being the importance of leadership. Having a leader who not only understood thenuances from an
States. In total, we will invite 500 studentsto complete the survey from various colleges and universities. By extending the invitation toparticipate across institutions of varying sizes, we are effectively strengthening the breadth anddepth of our findings.The 28-question survey seeks to understand the decision-making process that led students topursue the engineering technology program of study and their intended plans for the future uponcompletion of the degree. Questions also ask students to consider their degree of preparedness toenter the engineering technology program and their confidence that they will ultimately succeedin completing the degree. Additional questions ask students to reflect on how they handleacademic challenges, and to
and standard components TPK that can be purchased IV 12 Curricular development Preservice teachers’ own lesson plans TPCK3.2 Module II: 3D Printing3.2.1 Part 1 of Module II For Part 1 of Module II, each PST group will start with assembling a 3D printer, load a modelin software controller, print a model, and clean up. This allows the teachers to understand how 3Dprinting works. After this, we will start to explain its machine elements and manufacturingmethods by dissecting and referring to3D printer components. During thehands-on learning process, each groupwill disassemble and assemble variousparts of 3D printers as a reverseengineering approach to gain a
has a B.Sc in Biomedical Engineering and an M.E. in Mechanical Engineering. His research interests are in biomechanics and biomechanical modeling and simulation.Mr. Francisco Cima Francisco Cima is a PhD student of Engineering Management and Systems Engineering at Old Dominion University. He obtained his Masters in Business Planning and Regional Development from the Technological Institute of Merida. His areas of research include models of teamwork effectiveness, knowledge management, and engineering education.Dr. Stacie I Ringleb, Old Dominion University Stacie Ringleb is a professor in the Department of Mechanical and Aerospace Engineering at Old Dominion University and a fellow of the American Society of
-oriented curriculum model on Renewable Energy Sources (RES) as an important solution to theenergy problem, and training talents with relevant skills and qualities have become a key part oftheir overall energy strategy. Based on Taylor Principle and PDCA Cycle Theory (Plan, Do,Check, Act), this paper proposed a “Student-centered Inquiry” RES course model together withthree reference templates for the design, teaching, and evaluation processes of the course.In 2020, Elizabeth City State University (ECSU) received a grant from the U.S. DOE under itsMinority, Education, Workforce, and Training (MEWT) program to implement a comprehensiveeducation and training program to strengthen STEM education and increase the pipeline ofqualified workers, especially
on their specific interests and needs.The team received 31 applications for the summer camp, 18 from males and 13 from females.Figure 1 provides specific information on the grade levels of the applicants before the applicationdeadline. The team analyzed the data provided by the survey and application to plan the optimalclass size and curriculum to be taught that would cater to the majority of the campers. This helpedcreate a more tailored and effective learning experience for the campers. Number of Students 12 10 10 Number of Students
challenge theirunderstanding to a subject matter outside of their normal discussions. This provided a level ofrealistic work that they plan to see in future positions as their technical skills will be applied invarious applications.The tangible understanding of a structural application allowed more logical connection to theproject compared to other possible cases. Additionally, they developed a better understanding oftheir connection with technology as developers. There were various challenges they faced byhaving to utilize various software to develop a single product. This broadened their perspectiveof the capacity each software has and the need for integration of technology at various levels.Additionally, as creators, they began to visualize the
9 Black 5 2 1 Hispanic/Latino 2 4 2Limitations and Future workTracking long-term enrollment outcomes post-participation is a future focus, necessitating longerstudies and collaboration with more institutions. Assessment of the program's impact on students'academic and career choices through follow-up surveys or interviews is vital, however, ensuringscalability and replicability across diverse educational settings requires refining the program'smaterials and implementation strategies. The team is planning to employ a more comprehensiveevaluation methods such as pre- and post-program assessments and
project. Teamwork, proper scheduling, and organization are crucial elements in ensuring thesuccess of any project. By working together effectively, adhering to a well-planned schedule, andmaintaining proper organization, the project team can streamline their efforts, minimize errors,and maximize efficiency, ultimately leading to the achievement of their goals and the delivery ofhigh-quality results to the stakeholders. Also, document the process, results, and conclusions in acomprehensive report. Documenting the process, results, and conclusions in a comprehensivereport is essential for several reasons. Firstly, it provides a record of the project's journey, allowingfuture teams to learn from successes and failures. Secondly, it serves as a
IP address to ensure stable accessto the internet, to which an online user interface and data cloud are connected on the consumerside. The online interface allows the user to view pictures in the data cloud and request picturesto be taken directly from the device itself. A plan to possibly be implemented by futureresearchers is for the device to capture images and send them to the cloud at regular intervals, butthe current focus of the team is to have the device send pictures per request of the user.The device itself is enclosed in a mixture of Grey Pro resin and PLA. It is powered by a 12 Vsolar PV panel installed beside the probe itself as shown in Figure 4. This PV module includesseveral valve-regulated sealed lead acid/absorbent glass
-AI for enhanced learningRecent papers have explored the integration of G-AI into student learning, alongside conductingdata analysis on its effects on student learning and creativity. Despite these efforts, considerablework remains in identifying effective strategies for implementing AI within educationalframeworks to boost student learning outcomes 13,14 . One such work by Michel et al. discussesutilization of personalized feedback and supplementary learning resources with G-AI to promoteself-directed learning, especially among students with language barriers, learning disabilities, orthose engaged in distance learning 15 . Additionally, their work also mentions ideas for instructorsto create lesson plans, resources, and assessments
forward, the instructors plan to address the challenges identified in the survey andclassroom observations. This includes developing strategies to promote the judicious use of AItools, incorporating AI concepts across foundational EE courses, and establishing collaborationswith industry partners to ensure the relevance and applicability of AI skills in real-worldscenarios.In conclusion, the integration of AI in EE education presents a transformative opportunity toenhance teaching and learning experiences. However, its successful implementation requires athoughtful and critical approach, balancing the benefits of AI tools with the development ofessential problem-solving and decision-making skills. As educators and researchers, it is
thestudents poorly prepared for careers after graduation. If they can plan on using CAS calculatorsat work, can do the work faster and more reliably with these tools, and can retain this abilitylonger, then we should allow their use.Consideration of the Proposal – Seeking Input; Revisions Made Due to Input from ConstituentsAs part of Student Outcome Evaluation and Assessment in 2020-1, the author examined aperformance indicator (PI) covering calculus from the upper level problem-solving course.Results were collected from the upper level problem-solving class for a section taught in Fall,2019. As documented with a standard department PI assessment and evaluation form inDecember, 2020, the results fell below the department standard, requiring action
andorganizational skills to succeed. They encourage students to plan and prioritize their workefficiently.Life-Long Learning Mindset: Engineering and technology fields are constantly evolving, sofaculty members believe that students should have a mindset of continuous learning. Theyencourage students to seek out opportunities for professional development and further education.Awareness of Industry Trends and Practices: Faculty members often believe that studentsshould be aware of current industry trends, best practices, and emerging technologies. They mayencourage students to engage with industry professionals, attend conferences, and participate ininternships.Resilience and Perseverance: Engineering technology faculty members understand thatstudents may