investigator or co-principal investigator of more than 17 major research grants.Dr. Lin Li P.E., Tennessee State University Lin ©American Society for Engineering Education, 2024 1 2 A Case Study of AFL Models on Factors of Engaged Learning 3 in STEM education 4 Abstract 5 With Active Flipped Learning (AFL) model, some STEM instructors and education instructors at 6 HBCUs provided instructional video, audio, lecture notes, and reading materials while initiating 7 active learning activities in class to engage students in active flipped learning. By monitoring 8 students’ engagement, instructors formulated a custom-tailored plan to fit each under- 9
students, the goal of this series of outreach activities was to inspire their careerawareness of engineering. Approximately sixty students all around the age of seven participatedin this event. All of them had some STEM experience through their participation in math andscience classes. Local students do not yet have solid career plans until the ninth grade, but most ofthe students involved in this outreach activity had an interest in engineering. There were sixactivities in the rotation: gum drop towers, popsicle stick structures, paper gliders, catapults,Legos, and homemade slime; each of these activities were associated with different tasks toaccomplish. To ensure students’ exposure to various aspects of AM projects and jobs, all thestudents had
various playgrounds in the world, analyzingusers’ photos, interacting with various users, andreading playground engineers’ stories. DAY1: PHYSICAL FORCES Students rotate to three learning centers to investigate forces in playground equipment. Swing set: Discuss how gravity and inertia are involved in swing sets and calculate the rate of the pendulum swing. Slide: Investigate how different materials influence friction on the slide. Seesaw: Predict and investigate how a lever works. DAY 2: ENTER THE USERS’ WORLD Enter: Identify users and problems that they need to solve. Plan to understand the users’ experiences
diversity ofperspective and experience. To help all students develop the skills necessary to attract, retain,and consider the needs of diverse populations, engineering students need to consider socialresponsibility in the context of their engineering careers and scope of practice [6].To help promote engineering students’ ability to develop their social responsibility capacity, theUniversity of Massachusetts Lowell S-STEM program began with an initial plan to recruit threecohorts of 8 low-income, high-achieving students (24 students total) who wish to pursue a careerin higher education (e.g., faculty at community colleges or universities) and engage them inongoing social responsibility and identity formation curriculum. Supporting scholars from
Datastorm challenges. We also plan to host annual full-day Datastormevents, which should provide visibility and outreach opportunities to other undergraduate studentsat our institution as well as highlight the relevance of the Computer Science program to thegeneral public.IntroductionComputer Science and computing based majors in general suffer from a variety of issues at theuniversity level.One of those issues is high drop out rates. The level of attrition in Computer Science is reportedto be between 9.8% [1] and 28% [2]. This represents both a direct loss in terms of students notcompleting the major as well as an indirect loss in terms of students not encouraged to pursue itbecause of a perceived difficulty given its high withdrawal rates.Figure
both theirlearning and portfolio creation. Further, this implementation plan inspired us to create the mostthorough materials possible and helped us narrow down methodology to ensure maximumaccessibility for students. Figure 1: Courses in U of A IE department where e-Portfolio curriculum has already been introduced or plans of future introduction are in progress.Iterative ImplementationThe team first introduced the content to the Fall 2023 on-sequence cohort of sophomoresgraduating in 2026 in the Introduction to Industrial Engineering (Intro to IE) course and afreshman honors research section of the Introduction to General Engineering course offered bythe First Year Engineering Program. Given that this was the first
address this, a comprehensive interview protocol wasdeveloped and refined using Clancy et al.’s Interview Protocol Development Process [1] andCastillo-Montoya’s Interview Protocol Refinement Framework [2]. The protocol was refinedthrough feedback and pilot testing, ensuring alignment with research objectives andconversational flow. This paper focuses on the development of the interview protocol. Theongoing study, with data collection planned for Fall 2024 and Spring 2025, aims to provideinsights into student perceptions of Statics and the impact of student preconceptions on theirexperiences, offering guidance for future educational research.KeywordsStatics, undergraduate, preconceptions, interview protocol, undergraduate student
the skills they possessed. The students rated themselves1-5 on the post survey, 5 being “great gain” and 1 being “little gain”, on questions divided intothree categories: accessibility, skill development, and career awareness. The scores for eachquestion within each category were averaged to form a composite score from which conclusionswere drawn. Questions in the accessibility category related to the confidence of studentscompleting a research project, the level of comfort developing and discussing research projects,and their feelings of belonging in STEM. Questions in the skills category related more to thespecific skills that will be valuable to their pursuit of a STEM career, including project planning,data analysis, lab techniques
, startsfundamental community building, and works on a career plan. Student success is often tied togrit, which includes a growth mindset and an ability to learn from failure. Orientation courses areessential foundational experiences for first-year retention and success, but it is challenging tocultivate a classroom environment where students feel safe sharing ideas and struggles. ThisGIFTS paper will detail the research regarding the benefits of using storybooks with olderstudents, the details (and individual modifications) of the activities done in the orientationcourses and the scenarios for storytelling, plans for future assessment of the classroom exercise,and the conclusions drawn from the faculty reflections.Justification of Picture Books “Picture
, while self-learning and recognizing the need forlifelong learning tied with applying engineering design process skills, each receiving 40% ofresponses. The utilization of appropriate computational tools and coding skills, such as Excel,MATLAB, and Arduinos, received the next most important skill with 34% of responses. Asshown in Figure 1b, the least emphasized skill among first-year students was the use of propercareer planning tools, with only 8% of respondents considering it important. Additionally,presenting ideas using appropriate presentation tools, applying the engineering code of ethics,and conducting a proper literature review were equally valued, with each receivingapproximately 11% of responses.Figure 1a: The first-year top
do you wish you had developed previously to help you with the project? Why? • What did you learn about your partner(s)? How did you learn this? • What have you learned about yourself? • What have you learned about the engineering process? Why? / Which aspects helped you learn this? 4. Norming • Did you establish performance expectations and behavior norms? If so, how and when? • If something wasn't meeting your expectations, what did you do to correct it? 5. Action Plan • What advice would you give about how to conduct a joint project like this in the future? • What
successfully for three straight years with plans to continue running in the future. Therecord for the cheapest bridge is $164,000 and the record for the most physical load held beforefailure is 141.5 pounds. The in-class presentations are exciting because students get to reveal theirfinal cost. The in-class testing is even more exciting because the students in each group get handson experience to test their own bridge to failure. Overall, the bridge design project, through the learning community, has been verysuccessful in engaging engineering students early on in their curriculum. It gives them experiencein designing an optimal product under constraints in a team environment and connects engineeringto fundamental courses. Student feedback at
Northeastern University. He studied at the University of Massachusetts at Amherst in 2006 then worked in industry as a Mechanical Engineer working on ruggedized submarine optronic systems. He returned to academia in 2011 at Tufts University planning to work towards more advanced R&D but fell for engineering education and educational technologies. His research now focuses on developing engineering technologies and learning environments, specifically makerspaces, to support engineering education at many levels. He’s also heavily involved with his local FIRST Robotics Challenge team as a mentor. 15th Annual First-Year Engineering Experience Conference (FYEE): Boston, Massachusetts Jul 28 Panel Discussion: Rethinking
, including academia, government, and private or-ganizations. Individual plans of study for participants will depend on many factors, including,but not limited to, their professional goals, course location/time/delivery method, ability to re-ceive reimbursement under company educational reimbursement policies, etc. There is no moni-toring of progress, exit exams, certifications or degrees awarded under this program. While thismay lack the perceived coherence and control of a more formal program, in this instance, the endgoals of a student’s continuing education is entirely defined by the student. While this is appro-priate for working professionals, the lack of a single end point such as a degree or certificate cre-ates an inherent challenge in
impacted by thedesign. To address this disconnect, a series of lectures and laboratory exercises havebeen incorporated into coursework at the university level. This material has beendemonstrated useful for orienting students to field issues that should be considered duringdesign, and may be useful to introduce other engineers whose responsibilities for trafficissues are not substantiated by their prior engineering experience.IntroductionAs a subset of Civil Engineering, Transportation Engineering has several sub-disciplines,ranging from urban planning and transportation systems analysis to highway design andtraffic operations. Materials are available for teaching theory in all of these areas,however, the application of traffic theory into applied
same time, some countries like China and India are continuing their nuclear program withdetermination. China has 16 existing nuclear power plants and is planning to add 197 new plantsof which 26 are already under construction [1]. India has 20 nuclear power plants and aims toadd 64 reactors that will supply 25% of their electricity demand by 2050 [1,2]. A third categoryconsists of countries that plan to jump start their nuclear programs; countries like Saudi Arabiahave high ambitions to build 16 nuclear reactors over the next 20 years [3]. Finally the UnitedStates with 104 operating nuclear power plants produces 30% of the worldwide electricgeneration by nuclear energy. Although this is the largest in the world, there have been no newreactors
object-oriented approach ● Users have more visibility of the ● It is a proven method in code running on their system implementation Next Steps Project Overview Challenges to integrate the Object- Overall demonstration project for Plan for Expanded Computing Environment Oriented VM with other systems an entire computing system with ● Hardware compatibility the following elements
and expensive materials for students,this would be a very good opportunity to gain the depth of knowledge and experience by planning,initiating, and conducting research in engineering technology principles throughout a firmlystructured weekly schedule of a senior capstone project course. Since the primary goal of thecapstone project course is to provide an opportunity for students to integrate principles, theories,and skills learned in previous courses to the solution of various realistic engineering technologyproblems, this course will help students learn how to develop, design, troubleshoot work,effectively in teams, and develop technical writing & presentation skills. Students will also learnand utilize a realistic simulation of the
Company, Edina, MN, 199111 Ledlow, Susan, “Cooperative Learning in Higher Education,” Center for learning and Teaching Excellence, http://clte.asu.edu/active/clinhighed.pdf12 Kohn, Alfie Kohn, “Punished by Rewards. The Trouble with Gold Stars, Incentive Plans, A's, Praise, and Other Bribes” (Boston: Houghton Mifflin, 1993 / 199913 Aronson, Elliot, History of Jigsaw, Social Psychology Network, http://www.jigsaw.org/history.htm14 Mel Silberman, Active Learning to Teach Any Subject, P 111, Allyn and Bacon199615 Criteria for Evaluating Engineering Technology Programs, ABET, 2011-2012 http://www.abet.org/Linked%20Documents-UPDATE/Criteria%20and%20PP/T001%2010-11%20TAC%20Criteria%2011-3-09.pdf16 Prince, M., “Does Active Learning Work
exposing allstudents (not merely those who self-select to take elective courses) to hands-on design and problem-solving and the application of science and mathematics principles toward the solution of relevant, real-world problems in the context of required K-12 courses, we expect that more students will be motivatedto enroll and succeed in gatekeeper courses in middle and high school and pursue engineering and otherSTEM careers.Inspired, in part, by Massachusetts’s leadership as the first state to introduce science and engineeringstandards1, program developers of Engineering Our Future NJ planned a two-phase campaign designed tostrengthen the New Jersey Core Curriculum Content Standards2 to: (1) articulate engineering in thelanguage of the
the World (STW) as part of their general education requirement.Beyond increasing their technical literacy, the STW course intends to help studentsrecognize how science and technology (S&T) relate to other parts of culture, preparingthem to reflect critically on the nature and scope of S&T, and develop a personalperspective of their own. The case study in this innovative teaching approach, isintended not only to facilitate stated course objectives, but to encourage students to studyother cultures on their own, where they may plan to travel, or have already visited, to seewhat role technology has played. In so doing, they may find nuanced instances of thedigital divide worldwide, and issues that may either realistically complicate or
aims to formulate a surveythat will complement the interviews where we will seek quantitative data regarding the identifiedthemes. For the survey, we plan to utilize the identified themes to generate survey questions thatwill include multiple choice and Likert scales to identify participants’ attitudes toward each of ouridentified themes. Additionally, we will collect demographic information and ensure that eachparticipant is actually a first generation women in a Computing graduate degree program. At theend of the survey there will be a place for participants to schedule their semi-structured interviewwith the research team. Table 1: Table of interview questions # Question 1 Who/What influenced you to
, educators and researchers alike have vested interest in incorporatingargumentation-based learning activities in K-12 science classrooms which center social justiceadvocacy.Scaffolded knowledge integrationThe scaffolded knowledge integration framework aims to develop learning environments whichmake science accessible, illuminate learners’ cognition, and promote a classroom culture ofcollaborative and lifelong learning [7]. Practical applications of the framework have sought outWeb-based Science Inquiry Environments (WISE) which allow educators to design, host, andshare lesson plans with a broader audience of teachers and learners. Thus, the WISE platform hasemerged as a platform which can facilitate scalable yet personalized unit plans for a
, we'll delve into existing literature and applications addressing analogous challenges, elucidating our approach in light of these insights. Following that, we'll analyze our application in-depth, detailing its implementation, merits, drawbacks, and forthcoming enhancements. We will also touch on the progress made with our application and explain what improvements will be made. Lastly, we'll offer conclusive remarks with implications for our project and lay out the plan and necessary steps to finish the project on time.Previous Studies uilding effective student groups for learning is a thoughtful process. Instructors should
studentscultivate a broader, interdisciplinary perspective. Two courses (Sustainable TransportationPlanning and New Orleans in 12 Movements) are explored based on their connection to spatialanalysis methods and use of GIS as a way to enhance student learning. In addition, two researchprojects (Sea level Rise Vulnerability Mapping and Transport of Hydraulic Fracturing Water andWastes) are presented as examples of GIS integration into undergraduate research.PedagogySustainable Transportation Planning (CENG432) is a senior level civil and environmentalengineering elective that focuses on integrating social, economic and environmental perspectivesinto transportation engineering. Since the field of transportation requires spatial analysis andtypically involves
ethical (i.e. authenticity of the material) as well as quality ofthe textbook. It also allows teachers to keep ownership of their work and make changes whennecessary. In two semesters of our trial study, we found that 100% of our students purchased thetextbook. In conclusion, we feel that self-publishing high quality textbooks have the potential tochange education for the better and we plan to continue using them in our classrooms in thesemesters ahead. © American Society for Engineering Education, 2015
significance of the procedure in predicting the behavior of the system andits relevance to biology. I developed an activity in which students can explore eigenvalueanalysis by sketching reaction trajectories. Following the 5E Model, I revised the lesson plan toplace this exploration of the eigenvalue analysis after engaging students in consideration of howchemical kinetics enable oscillations and prior to explanation and elaboration steps.
students with disabilities in science, engineering,mathematics, computer science, and some fields of business. To meet the challenge of thecompetitive global economy in the new millennium, private industry and government researchagencies must expand the pool of technical talent. Students with disabilities who havedemonstrated high motivation, persistence, and achievement in academic areas are placed ininternships in research and development throughout the country. Mentors advise the students onfuture undergraduate coursework, plans for graduate study, and/or employment.http://ehrweb.aaas.org/entrypoint/about.htmAccessibilityMaking Science Labs Accessible to Students with DisabilitiesApplication of Universal Design to a Science Labhttp
of rural schools needassistance in the following areas: (1) appropriate education materials to stimulate and challengestudents; (2) strategies to enhance problem-solving ability in students; (3) means to conductinquiry teaching; and (4) ways to foster cooperation between mathematics and scienceeducation. Engineering and education faculty at the University of Wisconsin-Platteville hadconceived an approach and a plan to address the above needs and to foster teachers’professional development. As pointed out in a recent report by the National Commission onMathematics and Science Teaching for the 21st Century [3], teachers' competence is pivotal forimproving quality of education in U.S. schools. One of the seven recommended strategies fromthat
and expensive materials for students,this would be a very good opportunity to gain the depth of knowledge and experience by planning,initiating, and conducting research in engineering technology principles throughout a firmlystructured weekly schedule of a senior capstone project course. Since the primary goal of thecapstone project course is to provide an opportunity for students to integrate principles, theories,and skills learned in previous courses to the solution of various realistic engineering technologyproblems, this course will help students learn how to develop, design, troubleshoot work,effectively in teams, and develop technical writing & presentation skills. Students will also learnand utilize a realistic simulation of the