expertise, through working on long-term problems ofimportance to the Navy, so that an adequate pipeline of new researchers, engineers, and facultyexists to meet anticipated future needs and opportunities. Seven key science and technology(S&T) emphasis areas for the program were identified: ship design tools, ship structuralmaterials, hydromechanics, advanced hull designs, ship propulsion, ship automation, andsystems integration.Following a workshop in 2002, several university consortia, consisting of teams ofcomplementary universities were formed under an ONR BAA to work with the newly formedCenter for Innovative Ship Design, NSWC-CD (CISD) (see for example, Keane et al.1). TheFAU Consortium consisted of Florida Atlantic University, University
Paper ID #45786Engineering Student Preferences on Homework Grading and Exam PreparationDr. Gafar Abbas Elamin P.E., The Citadel Dr. Gafar Elamin is an Assistant Professor in the Department of Mechanical Engineering at The Citadel. He holds a Ph.D. and Master of Science in Mechanical Engineering from North Carolina A&T State University and a Bachelor of Science in Mechanical Engineering from the University of Khartoum in Sudan. Prior to his current role, Dr. Elamin gained valuable experience at various institutions and companies, including the University of Wisconsin-Platteville, King Faisal University in Saudi Arabia
engineering course at Carnegie Mellon University. Journal of Engineering Educations, 173-181.2. Boehringer, D., Jeschke, S., & Richter, T. (2009). Lila - A European Project on Networked Experiments. Paper presented at the Sixth International Conference on Remote Engineering and Virtual Instrumentation.3. Corter, J., Nickerson, J., Esche, S., & Chassapis, C. (2004). Remote vs. Hands-On Labs: A Comparative Study. Paper presented at the 34th ASEE/IEEE Frontiers in Education Conference.4. Duro, N., Dormido, R., Vargas, H., Dormido-Canto, S., et al. (2008). An Integrated Virtual and Remote Control Lab: The Three-Tank System as a Case Study. Computing in Science & Engineering, 10(4), 50-59.5. Felder, R. M., & Brent
Paper ID #34455Work in Progress: On Teaching Requirements in Engineering DesignMr. Alexander Pagano, University of Illinois at Urbana - Champaign Alex Pagano is a PhD student studying engineering design. His work is focused on the early phases of design and the use of human-centered design or design thinking as a teaching tool. Alex holds a BS in Materials Science and Engineering from University of Arizona and a MS in Mechanical Science and Engineering from University of Illinois at Urbana - Champaign American c Society for Engineering Education, 2021 Work-in
, wire-guided switches, motors and other equipment to design, construct, and controlrobots to maneuver in a 3-4 foot deep pool. This paper will explore the impact of the project onthe students, specifically, changes in understanding of the key science concepts embedded in thecurriculum and changes in knowledge about, and attitudes toward, engineering. It will alsoexplore gender differences in attitudes toward the engineering aspects of the curriculum and inthe pedagogical strategies embedded in the curriculum, including hands-on learning and groupwork.Theoretical FrameworkRobotics has been demonstrated as an effective vehicle to teach STEM concepts at many levels.The theoretical foundation for using robotics in education has been put forth by
would sparkmy interest. It’s like “hey here memorize Aristotle.” I like hands on and doing things. Sciencedoes take memorization but it’s more hands on.”Olivia describes her visit to a new planetarium when she was a student as influential.Alicia: I have an older brother who was in a science fair and created an amusement park out ofK’NEX and I thought it was so cool! The Ferris wheel moved. Also, I really loved RollercoasterTycoon. I spent hours designing. I knew I was an engineer right there. Playing that I knew thatI was going to be an engineer.Alicia describes the influence of her brother’s participation in a science fair as an early interesttrigger.Sarah: We did a lot of residential work growing up. At first I only watched and then I
Reverse Engineering and Product Dissection, in engineering education. Theoutcome of the laboratory indicated that the knowledge learned as a result of engaging in DAAactivities can be transferred to design tasks. Following an activity that required students to takeapart a one-time use camera and analyze its components to discover how it works, 43% of thestudents were able to describe an approach for modifying the camera that involved the adaptationof a current mechanism. In addition, the results of the post-laboratory survey indicate that theDAA activity elicited high levels of motivation.IntroductionThe insightful findings from Seymour and Hewitt1 about the causes for discontentment amongpersisters and switchers in science, engineering and math
Examining Students’ Beliefs on the Use of ChatGPT in EngineeringAbstractAn Open Artificial Intelligence language model called Chat Generative Pre-Trained Transformer(ChatGPT) was developed by engineers. This kind of AI system produces text responses thatresemble those of a human being in response to a variety of prompts and inquiries. A few benefitsof ChatGPT are its round-the-clock assistance, prompt question answering, ability to locateresearch-related material, ability to write code, etc. Despite these benefits, ChatGPT may provideinaccurate or irrelevant results due to its limited contextual understanding of a given topic.Feedback that is unfair or erroneous may result from bias in the data that was used to train theprogram. Regrettably
program. Most programs are partially funded bylocal foundations and federal grants; institutional support is also provided in the form of campusclassrooms, laboratories, and voluntary faculty efforts. The goals of the program, which includeincreasing the diversity of participating students, have not changed over the course ofimplementation. However, the recruitment strategies and program activities have evolved duringthe course of this project. Our best practices for inspiring minority students in STEM werebelieved to be: Hands-on experiences completing real science and engineering projects; Working in peer based teams for the solution of projects; On-going support and encouragement from the instructor; Real world examples
developed MEMS-based ©American Society for Engineering Education, 2024 azCo-Developing a Social Entrepreneurship Program with a Focus on EngineeringintroductionThis paper describes the processes and lessons learned through co-developing a degree programin social entrepreneurship, with a focus on engineering. We worked with students, faculty,business leaders, and funding stakeholders to develop a graduate certificate and master’s degreeprogram that (hopefully) will prepare students to leave the university with hands-on experiencein building their own businesses that have a social improvement focus. The paper, and theprocesses involved in creating this degree program
Paper ID #6469Faculty Perspectives on Service-Learning in Engineering Education: Chal-lenges and OpportunitiesDr. Bowa George Tucker, UMass Lowell Dr. Bowa George Tucker is a research fellow for the National Science Foundation-funded Engineering Faculty Engagement in Learning through Service and Engineering for the Common Good in the College of Engineering at the University of Massachusetts, Lowell. He received his doctorate from the University of Massachusetts-Boston in Higher Education Administration in 2010. Dr. Tucker has extensive experience in program management and evaluation of multi-year, multimillion dollar
AC 2009-1867: EDUCATING ENGINEERING STUDENTS ON ENERGY SYSTEMSTHROUGH INVESTOR-DRIVEN CLASS PROJECTSTom Ferguson, University of Minnesota, Duluth Tom Ferguson is a Visiting 3M McKnight Professor at the University of Minnesota Duluth. He holds Bachelor's and Master of Science degrees in Electrical Engineering from the University of Minnesota. He is a retired utility operations and engineering executive, a registered professional engineer, and a consultant to the industry.Paul Weber, University of Minnesota, Duluth Paul J. Weber is a Temporary Assistant Professor at the University of Minnesota Duluth. Since completing his Ph.D. at Michigan Tech in 2006, he has taught courses in digital and computer
Dominguez is the coordinator of the conTIgo T3 Latin America group that focuses on an effective and efficient use of the Texas Instrument technology in the mathematics and science classroom, and is member of the Executive Committee of international association (ASEE-EPPD, ICTMA and PME-NA).Dr. Jorge Eugenio de la Garza Becerra, Tecnologico de Monterrey (ITESM) Jorge de la Garza is a Lecturer of the Physics Department within the School of Engineering at the Tec- nologico de Monterrey, Monterrey, Mexico. He holds a bachelor degree in Physics Engineering and a doctoral degree in Education both from Tecnologico de Monterrey. Dr. de la Garza has been recognized by the government as a member of the Researchers’ National System
language.Later, I was a teaching graduate assistant for "Engineering Properties of Biological Materials."The guidance of the faculty and my advisor's support have been key in teaching this course. Ialso received guidance from Hector on how to efficiently use technology tools to buildcommunity among students.Language is vital in my life. Spanish keeps me connected to my culture, and English is essentialfor my career. In the engineering lab, I use Spanish with my colleagues and English for officialinstructions. Although I face challenges with complex English technical terms, I am improvingthrough online tools like YouTube and the Merriam-Webster website. My bilingual skills arevaluable in the lab's diverse setting, enabling me to connect with various
supportmicroelectronics in the Northern Alabama area. Therefore, an option in VLSI engineering wasincorporated into the program. Currently, there are six undergraduate courses in this option.Since the program is new, there are no facilities to support this option. To provide laboratorysupport, a collaboration was established with the University of Massachusetts, Lowell. Everysummer, students in this option take a special hands-on six-week course in Massachusetts.Funds to support this activities have come from the National Science Foundation and theArmy’s Aviation and Missile Command in Huntsville.Collaborative Activities in the Department of Mechanical EngineeringTHE BOEING COMPANYDuring the final stages of curricular development for the Mechanical Engineering
transitions and retention of underrepresented students in engineering and also research about engineering global preparedness and engineering innovation. She also has research expertise in STEM K-12 and in STEM assessment. She chairs USC’s STEM Consortium.Dr. Lisa Benson, Clemson University Lisa Benson is an Associate Professor of Engineering and Science Education at Clemson University, with a joint appointment in Bioengineering. Her research focuses on the interactions between student moti- vation and their learning experiences. Her projects involve the study of student perceptions, beliefs and attitudes towards becoming engineers and scientists, and their problem solving processes. Other projects in the Benson group
choose this plan based on a perception of “easier coursework” or “lighter workload”. It is expected that students will choose this based on interest or career objectives. 4. Courses which are being augmented already contained some of the material desired by our stakeholders. Those faculty teaching these courses are able to see a path to strengthening this material without sacrificing core elements in these courses. Particularly in the EE and CompE senior electives both of these courses already used software to explore in-depth topics. These courses will restructure the software portion in a way that emphasizes software engineering approaches and tools in the study of the topic at hand. In this way
science instruction also increased4. In thesecond year of this program, the PISA built on professional development efforts by providing 43 Page 15.1164.2grade 3-5 teachers in N.J. with inquiry-based coursework focusing on strengthening teachers’understanding of science concepts (in this case, earth science); hands-on experience usingresearch-based science and engineering curricula; classroom-support visits; , and mentoring inadditional key content topic areas. As in the first year, the partnership included six urban districtsin northern N.J., a science center, a teacher education institution, and an engineering university.Teachers received 124
12.1487.112. Undergraduate Research Fellowships (original program, 2001)Up to fifteen fellowships are granted each year in both the USC College and in the USCViterbi School of Engineering to support summer and academic year research. The goal is tofamiliarize students with laboratory research and link them with a mentor early on. It ishoped that through the experience of first-hand research at the undergraduate level, thechances will increase that students will choose to pursue a graduate degree in science orengineering. Student recipients of the fellowship are expected to work on their researchproject at least 12 hours per week during the academic semester in which they receive theaward ($2,500). For the summer, the expectation is about 300 hours or
projects that constitutes PBL practice. The lack of integration is furtherdiminished by the deficit of assessment studies used to describe the efficacy of the PBL inassisting students in achieving learning outcomes. With a focus on a PBL-based freshmanengineering course, in this paper we present: (1) The novel use of a PBL classification framework grounded on dimensions of structuredness, complexity, and team environment. (2) Assessment strategies for analyzing the alignment between the PBL learning experiences and the intended student learning outcomes. (3) The classification and assessment of a freshman PBL project focused on reverse engineering a hand-held mixer. (4) Suggestions on how PBL projects such as the
, there are a number of studies that have adopted goal orientation as aframework to investigate engineering students’ motivation [21]. Most of these studies, however,targeted graduate, undergraduate, or high school students, and little research has focusedspecifically on younger children. Meanwhile, research on children’s engineering design anddesign thinking (e.g., [22]) and related motivation constructs, such as identity or attitude (e.g.,[23]), has increased in the past few years. Often featuring hands-on, project-based tasks andlearning experiences, engineering design activities provide opportunities for children to work onreal-world challenges using engineering tools and materials within contexts that focus onproblem-solving and systems
of Science, Boston, where she oversees curric- ular materials development, teacher professional development, and research and evaluation efforts related to K-16 engineering and science learning and teaching. Her projects focus on making engineering and science more relevant, understandable, and accessible to everyone, especially marginalized populations such as women, underrepresented minorities, people from low socio-economic backgrounds, and people with disabilities. She is the Founder and Director of the Engineering is Elementary project.Mia Jackson, Foundation for Family Science & Engineering Mia Jackson, an Associate with David Heil & Associates, Inc., specializes in program and exhibit develop- ment
, is an assistant teaching professor of Civil Engineering at Missouri University of Science and Technology. He received his BS (2001), MS (2003) and PhD (2009) in civil engineer- ing with emphasis in structural engineering, from University of Tehran, Iran. His research interests and experiences are in the field of computational mechanics, cement-based composite materials as well as in- novative teaching techniques. Dr. Libre is the manager of Materials Testing lab at Missouri S&T, teaches mechanics of materials and develops digital educational resources for the engineering students. He had the opportunity of leading several scientific and industrial research projects and mentoring graduate and undergraduate
alongside key concepts and practicesin the informal teaching and learning space.Implementation StrategiesThis case study is based on an informal education program which provides students with anopportunity to dive into hands-on engineering. This program also serves as a laboratory settingfor teacher-researchers to pilot new programming that they would not have the opportunity to trywithin the formal classroom. The program serves approximately 100 diverse 6th and 8th gradegirls in an engineering summer program. The diversity of the educators may add to theinnovation with formal educators including a secondary math teacher, K-5 STEAM specialists,an inclusion coordinator, a tech integration specialist, secondary science educationundergraduates
; Theundergraduate enrollment at Missouri S&T has increased 23% in the past 10 years. This paperdocuments and describes the educational summer camp program developed for high schoolstudents. The overarching, broader impact goal of the summer camp is to introduce students tovarious engineering disciplines and help them to make a better decision on choosing a career ordiscipline within engineering. Several activities are designed to achieve the goal. The summercamp attracts about 300 to 400 high school students across the country every summer. Thisresearch study focuses on the hands-on activities offered by Missouri S&T, College ofEngineering and Computer Science programs. Activity details in the Civil Engineering,Architectural Engineering and
LASER 2015-ASEE-K12-Proposal-Form.docxPage 1 of 7 WORKSHOP PROPOSAL FORM 2015 Annual ASEE K-12 Workshop on Engineering Education “Authentic Engineering: Representing & Emphasizing the E in STEM” Presented by Dassault Systems Saturday, June 13, 2015 8:00 A.M. – 5:00 P.M. Sheraton Seattle | Seattle | WAPlease provide a one-paragraph bio for each presenter (in the order listed above). The bio shouldnot exceed 70 words and should be written as you would want it to appear on the ASEE websiteand program materials.1) Dr. Ann P. McMahon is Vice President of Science and
Paper ID #9669A Multidisciplinary MOOC on Creativity, Innovation, and Change: Encour-aging Experimentation and Experiential Learning on a Grand ScaleDr. Kathryn Jablokow, Pennsylvania State University Dr. Kathryn Jablokow is an Associate Professor of Mechanical Engineering and Engineering Design at Penn State University. A graduate of Ohio State University (Ph.D., Electrical Engineering), Dr. Jablokow’s teaching and research interests include problem solving, invention, and creativity in science and engineer- ing, as well as robotics and computational dynamics. In addition to her membership in ASEE, she is a Senior
2006-1086: DESIGN AND EVALUATION OF INNOWORKS: A PORTABLE,INTERDISCIPLINARY SCIENCE AND ENGINEERING PROGRAM BYVOLUNTEER COLLEGE STUDENTS FOR MIDDLE SCHOOL YOUTH FROMUNDERPRIVILEGED BACKGROUNDSWilliam Hwang, United InnoWorks Academy and Duke University William L. Hwang is a senior Angier B. Duke Scholar at Duke University majoring in Biomedical Engineering, Electrical and Computer Engineering, and Physics and minoring in Chemistry. He co-founded United InnoWorks Academy in 2003 and is in his third year serving as CEO and program director of InnoWorks. In addition to his work in K-12 educational outreach, William is conducting research on developing early cancer detection biosensors and pin
engineering is the ability to meet basic needs while not compromisingthe needs of future generations, in a way that incorporates social, economic, andenvironmental perspectives (Mihelcic et al. 2006). If this perspective of “sustainability asa luxury or privilege” is in any way widespread among students at any level, there maybe a need to adjust the approaches used to teach sustainability at the K-12 and universitylevels.ACKNOWLEDGEMENTSThis material is based upon work supported by the National Science Foundation underGrant No. 1827251.REFERENCESBell, R. L., Blair, L. M., Crawford, B. A., & Lederman, N. G. (2003). Just do it? Impact of a science apprenticeship program on high school students’ understandings of the nature of science
Page 26.1184.10I’m a different person because of the experience. At first I was nervous because I onlythought I could help with structural engineering—but I ended up doing lots of process and mechanical engineering. I worked with pumps and piping and even some electrical work. I learned so many new things. I went in thinking that my math and science in college were the most important but I realized when I worked that the interaction with my coworkers was even more important. I learned what it meant to be a working person. Now I really like encouraging people towards doing a work experience—I even gave a talk one time at a co-op meeting and lots of the students asked me questions afterwards. I would