innovation and efficiency, as well. Curiosity about the subject played a big role in helping us tackle project challenges. Because we were new to coding and design, our curiosity drove us to explore various resources and learn more. We spent time researching online, watching tutorials, and asking questions, which helped us understand complex parts of the project step-by-step. Our curiosity also motivated us to try different methods and experiment with new ideas rather than just following basic instructions. This helped us solve issues creatively, especially when we ran into problems with coding and button functions. Curiosity kept us engaged, helped us stay positive, and ultimately led us to find solutions that we might not have considered otherwise
constructing robots). The role ofevaluation and communication are stressed. The course provides an important overview andhands- on experience normally not available to engineering students until their senior designcourse.BackgroundManaging Creativity is a concept developed based on the author’s 35 years of experience in avariety of creative enterprises, including management of NASA’s $150M per year MarsExploration Program and of the Pathfinder microrover, Sojourner Truth, which roamed Mars in1997. In 1997 and 1998 the author and a collaborator (Alice M. Fairhurst, a counselingpsychologist with expertise in personality type), developed a short course in how to managecreativity for NASA’s Jet Propulsion Laboratory in Pasadena, California. The course
-up, the laboratory activities, and the execution of the STEM-based ECE project.Section 3 summarizes the assessment of learning outcomes based on the on-line surveycompleted by the students. Section 4 outlines the conclusions and future considerations.Section 5 lists the references.Section 2: STEM-based ECE ProjectThe broad objectives of the STEM-based ECE project chosen for the Engineering Dayevent were to (a) complete the design, and (b) test the operation of the circuit to controlthe operation of a three-light traffic signal.Project DescriptionThe project comprises the timer and the counter circuit to operate the red, yellow, andgreen light-emitting diodes (LEDs) in the sequence as shown in Figure 1. The timercircuit provides clock pulses
research use, it often has had a laboratory component. Thechallenge in the first graduate course is to review and build enough of a foundation to launch thestudent into product design and research and to wet his or her appetite for advanced study.IntroductionA half century ago the first course at the graduate level in electromagnetic theory commonly wasbased on a textbook such as Plonsey and Collin.1 The course strongly emphasized Ma eequations and their analytical solution with applications to open- and closed-structures. In manyrespects the course outline followed that of its undergraduate cousin, but at the graduate levelvirtually every topic was approached with increased mathematical rigor. This theoreticalemphasis was especially strong in the
2006-185: INNOVATIVE TECHNIQUES TO TEACH TRANSPORTATIONENGINEERINGYusuf Mehta, Rowan University Dr. Mehta is an Assistant Professor at the Department of Civil and Environmental Engineering at Rowan University. Dr. Mehta has extensive experience in teaching transportation engineering, pavement materials and pavement systems. Dr. Mehta has published several technical and educational papers in leading professional organizations. Page 11.772.1© American Society for Engineering Education, 2006 Innovative Techniques to Teach Transportation Engineering
backgroundinformation on the EnableOA process, the participating university and the associated accrediting agencies.EnableOAEnableOA is a web-based, software-driven outcomes assessment process that was designed to be consistentwith the nine Principles of Good Practice for Assessing Student Learningiv published by the AmericanAssociation of Higher Education (AAHE), and the Program Evaluation Standardsv approved by theAmerican National Standards Institute (ANSI).The EnableOA processvi, vii collects descriptions of educational experiences that instructors intend for theirstudents, and descriptions of educational experiences that students perceive they have received from theirinstructors. Instructors write the former, students write the latter. Every description
knowing the composition of the dust, the group carefully packaged asmuch of it as possible and then made an appointment with their chemistry professor. That professorhelped the group run a series of simple experiments to determine the dust’s properties. The groupdiscovered that an Etch-A-Sketch is filled with aluminum dust. These students stated that they gainedmore from that chemistry experience than in their regularly scheduled laboratory projects because “it wasfun”.From the instructor’s view, the project reports were engineering-related and well organized. Studentswere less nervous while giving presentations because the topic (their object) was very familiar and theexpectations had been well defined. Every group had a unique object. Students
trigonometry, appropriate to the student outcomes and the discipline; 2. Design topics such as those related to industry and engineering codes and standards. 3. Topics related to professional responsibilities, ethical responsibilities, respect for diversity, and quality and continuous improvement; 4. Physical or natural science content of the curriculum appropriate to the discipline and must include laboratory experiences. 5. At least one-third of the total credit hours for the curriculum but no more than two-thirds of the total credit hours for the curriculum must be technical in nature. 6. A capstone or integrating experience
Paper ID #22525Computing and Engineering Scholarship Program at SCSUDr. Susantha Herath, St. Cloud State University Dr. Susantha Herath is a professor and the Chair of the Information Systems (IS) department at St. Cloud State University. He holds a Ph.D. in computer engineering. His current research interests are in risk management, cyber security and information assurance. He has 25 years of college-level teaching experience at graduate and undergraduate levels and 31 years of research experience. He has published over 75 peer-reviewed articles. He has submitted over 45 competitive grant proposals and received over
undergraduates in research. The program at UT Austin is called GLUE: Graduates Linked withUndergraduates in Engineering. Through this program, undergraduates are matched with agraduate student mentor for one semester to work on research projects within the engineeringcollege. The program is open to male and female students, and the majority of undergraduatesare in their second or third year.7A program implemented at Brigham Young University brings a unique approach to designing aresearch experience specifically targeted to first and second year women students in engineeringand technology majors. The intent is to improve women student retention by helping studentsexperience engineering, make connections, and gain self-confidence. While the program
design, fuelcell experiments, manufacturing process, mechatronics, international business and entrepreneurship.These courses are offered by different departments from the engineering and business schools. Studentswith different backgrounds are required to complete two to three courses in the curriculum dependingon his/her interest. Upon completion, they are formed into several teams from different disciplines towork together as a virtual company in creating a new product that could be used to solicit funding forfuture commercial purposes. The final evaluation is then based on the feasibility of the business planand the merits of the product.Starting from February of 2003, 52 students joined this virtual company and 31 students fulfilled all
and it allows rapid prototyping of researchideas. Typically, this is through the lens of complex computer simulations that try to approximatephysical environments. To accommodate the complexities of a wide range of multi-agentsystems, various simulation platforms are utilized such as, JADE, VOLTRON, MASON, GAMAetc. [15]. However, physical experiments are equally as important, for both validation as well aseducation. For example, wind tunnels can be simulated using computation fluid dynamicssoftware, but using a physical wind tunnel to test designs can provide more accurate data. Inaddition to being more accurate in real world conditions these physical simulators have beenshown to be more likely to inspire interest for students in a given
University. He is a registered Professional Engineer in the state of Texas. His major areas of inter- est include wireless networking and embedded microcontroller-based data acquisition, instrumentation, and control systems. Morgan has also served as Director of Engineering and as a Senior Consultant to the private sector where he has been involved in several design, development, and system integration projects sponsored by the FAA, USAF, and major airport authorities. As a Texas A&M faculty member, he established the Mobile Integrated Solutions Laboratory (MISL), a joint university-industry partnership focusing on the design and development of hardware and software products Morgan served 22 years in the Air Force
• NMSU Doña Ana Branch • Navajo Community College • San Juan College • New Mexico Junior College • Santa Fe Community College • New Mexico Institute of Mining & Technology • UNM Gallup CampusSummer Internship Program The New Mexico AMP and Los Alamos National Laboratory have instituted a summer program toprovide students with SMET research experiences in two areas: 1) at a university during the first summer; 2) ata national laboratory during the second summer. New Mexico AMP also sponsored an internship program in conjunction with New Mexico Mathematics,Engineering, Science Achievement, Inc. During the summer of 1995, ten New
Engineering Education, 2020 Work in Progress: Embedded Ethical Inquiry and Reflection in a Biomedical Engineering CurriculumIntroductionThe field of biomedical engineering (BME) aims to improve medicine through design. Amplecurricular resources guide instructors when helping students practice application of theorytoward design; however, few content-rich, teaching resources exist for faculty to incorporateengineering ethics throughout a student’s BME undergraduate experience. BME programscontinue to refine the implementation and assessment of ethics assignments, as the recent 2018ABET changes identify the ability to recognize ethical responsibilities as a necessary studentoutcome in the preparation of engineers that can make
graded exam, the students were given a laboratory assignment inwhich they interacted with ChatGPT-3.5 to obtain feedback on their MATLAB exam. Qualitativedata on the students’ experiences with the use of ChatGPT as a tool in studying were collectedand analyzed. The results revealed that while students found the capabilities of ChatGPTintriguing, they remained skeptical in the output and reasoning given in regard to their MATLABassignment.1 IntroductionIn November of 2022, OpenAI introduced ChatGPT, a natural language processing model, to theworld. Two months later, it gained 100 million users, making it the fastest growing consumer appin history [1]. The name stems from the model’s dependence on the Generative Pre-trainedTransformer (GPT
conference on engineering education. Manchester, UK, 2002. 7. Jia, Ruiqing, et al. "A virtual laboratory on fluid mechanics." 2006 Annual Conference & Exposition. 2006. 8. Whitefoot, J. & Vipperman, J. S. (2021). Designing at-home laboratory experiments using smart phones and basic test equipment for senior mechanical engineering students. Proceedings of the 2021 Annual Conference for the American Society for Engineering Education (ASEE), Long Beach, CA.9. Feisel, Lyle D., and Albert J. Rosa. "The role of the laboratory in undergraduate engineering education." Journal of engineering Education 94.1 (2005): 121-130.10. Grossman, David. “How Do NASA’s Apollo Computer Stack Up to an iPhone?” Popular Mechanics. 13 March
laboratory/design courses are offered simultane-Engineering Clinic sequence. ously to all engineering students in all four dis- Year Clinic Theme (Fall) Clinic Theme (Spring) ciplines. Indeed, the hallmark of the engineering Frosh Engineering Meas- Competitive program at Rowan University is the multidisci- urements Assessment Lab plinary, project-oriented Engineering Clinic se- Soph Total Quality Man- Multidisciplinary quence1,2. agement Design Project Junior Product/Process Product/Process The Engineering Clinic is a course that is Development
, Longitudinal Investigation of Students’ Motivational Values,” J. Eng. Educ., vol. 99, no. 4, pp. 289–303, 2010.[22] Ruling our Experiences, “Girls, STEM & Careers: Decoding Girls’ Future in an Age of Social Media,” 2017.[23] S. T. Wei and T. W. Hill, “An evaluation on engineering identity of K-12 youth using the engineering ambassador network (Evaluation),” in 125th ASEE Annual Conference & Exposition, 2018.[24] G. W. Ellis, I. Huff, A. Rudnitsky, B. McGinnis-Cavanaugh, and S. K. Ellis, “Engaging children in design thinking through transmedia narrative (RTP),” in ASEE Annual Conference and Exposition, Conference Proceedings, 2018.[25] J. Buontempo, C. Riegle-Crumb, A. Patrick, and M. Peng, “Examining Gender
.’ Animated computer-based lectures, presented in a standardizedsetting, could facilitate this development process.Professional engineers rely on computers for various purposes (design, verification, testing, etc.). Page 12.941.3Traditional engineering classrooms, however, are technologically unequipped to teach thecomputer skills required by industry10. This is primarily a result of limited lecture time. In thetraditional classroom model, the instructor’s lecture time is limited to teaching mathematics andtheoretical concepts. It is common for students to learn computer skills on their own, or withinthe framework of a laboratory assignment outside
in the industries where our students will end up, and our response to industrial needs has been to try toincrease students’ opportunities for oral reporting. I’d like to present some ways in which we can help makestudents' oral communication experiences more successful, useful, and lasting by making them more comfortable. When I first started teaching the oral presentation seminar for junior-level chemical engineering studentsat Michigan Tech six years ago, I inherited a course where each student gave two 10-minute speeches on sometechnical or scientific topic. The topic could be one they had researched in a journal, something covered in class,or, for those lucky enough to have co-oped, a review of that co-op or internship work. As
how surfaceroughness experiments have led to successfully designing and building projects in thedevelopment of course, curriculum, and laboratory1-4. In the globally competitive market,the ability to produce cost-effective products under strict time frame and quality controldictates the survival of the manufacturing industry. This kind of external pressure fromthe customers has created the need to re-look at the way manufacturing process isconducted in typical factory setup. Furthermore, major manufacturing industries likecarmakers have evolved rapidly by establishing manufacturing branches at differentgeographical locations to capture the global market. In such a scattered setup of humanresource personnel and manufacturing equipment, the
through the use of co-roboticplatforms, in broadening and sustaining student engagement in STEM. The paper presents aweek-long residential STEM learning curriculum designed and implemented to introducestudents to hands-on engineering. The week-long program has been offered for middle schoollevel students, and its effectiveness has been studied. Pre and post surveys have beenconducted to study the impact of the experience in increasing students’ interest in roboticsand engineering. The results of this study show that co-robotic activities increased students’awareness about the role of engineering in protecting the environment and improving humanlife.1. IntroductionScience teachers across the nation have to find innovative ways to incorporate the
including lectures, laboratory activities, fieldexperiences, industrial visits and cooperative programs. The curricula of the Department of Technology provides a blend of general education,technical and professional courses designed to prepare individuals for careers as leaders in businessand industry and as teachers. The department offers several degree programs and options leading toa Bachelor of Science degree. Each program is designed to meet the educational needs of studentswith a variety of backgrounds and career aspirations.University of Massachusetts, Lowell, Plastics Engineering Department The faculty and administration at the University of Massachusetts, Lowell, has create aworld renowned Plastics Engineering program
Work-In-Progress: Enhancing Students’ Learning in Introductory Power Electronic Course Using an LED Driver Project Taufik, Dale Dolan California Polytechnic State University, San Luis ObispoAbstractThis paper presents a new hardware project assignment introduced in the first course of powerelectronics at Cal Poly State University, San Luis Obispo. The new project is a culmination ofseries of experiments in the laboratory portion of the course. There are several objectives forassigning the project. First, the project is aimed to enhance students’ learning by exposingstudents to practical issues in dc-dc converter designs. Secondly
existing schemata that areinadequate to explain the experience 6.Scott, Asoko, and Driver 7 described strategies that can be used to promote conceptual change.The first centers around the issue of cognitive conflict and ways that conflicting perspectives canbe resolved. The second considers strategies (such as the use of metaphors and analogies) whichfacilitate the construction of ideas that start by building upon the learners’ existing ideas. Theseresearcher suggested several teaching strategies designed to bring about conceptual change. Anexample of one such strategy is the connection of new topics via linkages to other “real worldphenomena.” Putting unfamiliar material into a familiar context is helpful in terms of promotingconceptual
butlacks a connection to actual physical behavior, DLMs often lack adaptability or measurability,and full-scale structures are rarely able to be loaded to produce observable behavior. An ideallearning experience for students would include the synthesis of all of these tools to help studentsdevelop cognitive connections between mechanics principles, engineering design tools, and real-world structures through active, constructive, and interactive/collaborative learning.Pedagogical Theory and Research MethodsChi [9] defines active learning activities as engaging the learner’s attention, constructive learningactivities as requiring the learners to produce some outputs which contain some new ideas, andinteractive learning activities as participating in
students.This paper describes the implementation of a state funded project to provide an outside of theclassroom opportunity for students to receive training on calculating building energy efficiencythrough exposure to Energy Star, Portfolio Manager and brief content on the Leadership inEnergy and Environmental Design (LEED) program. Students studied the energy consumption ofseveral buildings in the vicinity both on and off campus and calculated their respective energyefficiency ratings, which they reported back to the building facility managers. Through thistraining, students received real world exposure to building operations and maintenance activities.Assessment of student experiences through this project was conducted through surveys whichrevealed
Paper ID #24600Board 49: Enhancing Student Active Learning via Concept Mapping in anUndergraduate Engineering CourseProf. Ning Fang, Utah State University Ning Fang is a Professor in the Department of Engineering Education at Utah State University, U.S.A. He has taught a variety of courses at both graduate and undergraduate levels, such as engineering dy- namics, metal machining, and design for manufacturing. His areas of interest include computer-assisted instructional technology, curricular reform in engineering education, and the modeling and optimization of manufacturing processes. He earned his Ph.D., M.S., and B.S
curriculum, instruction, assessment, professional development, materials and equipment support and administrative and community support, 2) Facilitating alignment of science and engineering instructional materials to state and national standards and, 3) Establishing a K-8 science and engineering program that is designed to improve teaching and learning in classrooms and schools across Washington State in the 21st Century.Immersive engineering experiences and our science/engineering notebook tool will be featured. Page 18.27.3WA LASER 2015-ASEE-K12-Proposal-Form.docxPage 2 of 7 WORKSHOP PROPOSAL FORM 2015