©American Society for Engineering Education, 2023Impact of Self-Directed Learning Modules on Preparing Students to Take the FE Exam Impact of Self-Directed Learning Modules on Preparing Students to Take the FE ExamAbstractPrevious studies have shown that a positive relationship exists between engineering students'self-directed learning abilities and online learning experience. The objective of this study is toevaluate the impact of using self-directed learning modules (SDLMs) to prepare students to takethe Fundamentals of Engineering (FE) exam. The SDLMs include micro review and examplevideos for concepts included in the NCEES Reference Handbook, live/recorded review sessionswith students
should not be examined in isolation). Apart of this small sample size is also likely due to COVID-19. At the time that data was collected,students were still mostly engaging in their classes and schoolwork online and adding on anotheronline task may have seemed unappealing at the time. It is likely that collecting more data in thefuture using a similar survey would alleviate many of the concerns that arose due to COVID-19.Lastly, our study focus was investigating students who participated in extra-/co-curricularactivities. Therefore, we did not explore other students' activities that could be sources of self-efficacy and impact students' performance. Not choosing a specific extra/-co-curricular activityand exploring that in depth enabled us to
exams, two on Arduino C++ programming and one on Matlab 5. 3 projects (2 in Fall 2020) that are completed by project teams with weekly deliverables and end of project reports.A secondary goal of the course is to encourage retention of first-year mechanical engineeringstudents through engaging content and community development. Previous work in thedepartment identified retention of first generation students as a significant issue [1]. First-generations students can have several definitions, here we will use the definition of studentswhose parents/guardians have not completed a bachelor’s degree. At the university, only 64.7%of first-generation students who started in Mechanical Engineering graduated from the universitywithin 6 years
Paper ID #38274Board 131: Investigating the Impact of a Mechanical EngineeringUndergraduate Research Experience on Student Learning (Work in Progress)Nosakhare Iyobosa Idiaghe Idiaghe Nosakhare is a PhD Student of Engineering Education Research at University of Nebraska, Lin- coln. He holds a Masters degree in Industrial Engineering and a Bachelors degree in Petroleum Engineer- ing.Dr. Jessica R. Deters, University of Nebraska Lincoln Dr. Jessica Deters is an Assistant Professor of Mechanical and Materials Engineering and Discipline Based Education Researcher at the University of Nebraska - Lincoln. She holds her Ph.D. in
from the University of North Carolina at Wilmington, and Ph.D. in Science Education in 2016 from North CaMin Jung Lee, Old Dominion University ©American Society for Engineering Education, 2023 The impact of a multidisciplinary service-learning project onengineering knowledge and professional skills in engineering and education studentsAbstractA multidisciplinary service-learning project that involved teaching engineering to fourth andfifth graders was implemented in three sets of engineering and education classes to determine ifthere was an impact on engineering knowledge and teamwork skills in both the engineering andeducation students as well as persistence in the engineering students
mechanical engineering students. Technical Communications features situatedexperiences in which students take on the role of product design engineer at a commercialcompany. Students engage in a range of industry-relevant assignments, including composingemails to colleagues and superiors, interpreting data sets from sales associates and vendors, andcomposing memos and technical briefs. In addition to writing composition, the courseemphasizes graphical representation of data, experimental design and statistics, and presentationskills. Following recommended pedagogical practices in the field, Technical Communications isthe foundational course in our program’s WAC thread; and it features templates, exemplars, andrubrics designed to be carried forward
and Development. Joined the Department of Mechanical Engineering at the University of Maryland in 2000. Served as the Associate Dean for Faculty Affairs, Diversity Officer, and Equity Administrator for the Engineering School, then as a Jefferson Science Fellow at the U.S. Department of State in 2019. Her research focuses on sensors, combining organic materials, including polymers and biological cells, with conventional devices. ©American Society for Engineering Education, 2023WIP: Engaging Mechanical Engineering Students in Projects of Caring: Socially andenvironmentally responsible projects that go out into the public domainThis paper discusses the piloting of a new undergraduate course
developadvanced manufacturing research and a rapid prototyping-based teaching laboratory, materialextrusion and material jetting-based AM machines were acquired. The overall goal of thisinitiative is to support design and manufacturing-based educational activities and createopportunities to engage undergraduate students in research. However, there were no such formalcourse offerings on the AM that would allow students to learn and engage in the full spectrum ofthe AM process such as 3D design with optimization in mind to hands-on experience inmanufacturing and testing of these designs. In Spring 2023, a senior elective on AM was offeredfor the first time in the Mechanical Engineering Program. In order to fulfill the growing demandfor a skilled workforce
addition to textbook problems could deeply engage students inthe learning content and enhance students’ critical thinking skills and knowledge comprehension.However, to the best of our knowledge, the impact of these two teaching pedagogies has notbeen evaluated concurrently. In this study, we conduct a comparative analysis between twogroups of students (n = 200) to determine the role of BTL and PBL in a similar class setting.Both groups were taught in active learning classrooms with online polling, in-class groupdiscussions, and in-class assignments. The BTL group was exposed to Bloom’s Taxonomy-basedassignments, while the PBL group was involved in a group-term project. Our results show thatboth BTL and PBL students demonstrated comparable problem
,equity, and inclusion (DEI) as well as student agency, or the feeling of empowerment toact. The effort is multi-faceted and includes curriculum changes, faculty training, andassessment. The implementation is eventually intended for all departments across thecollege of engineering, and there has been interest from multiple units. However, theinitial focus has primarily been on Mechanical Engineering, the largest major within thecollege, because it is the home unit for the majority of the faculty team.Part of the approach includes providing project-based opportunities, focusing onprojects that can have positive impact and go out into the public domain [2]. Theseefforts target student empowerment, providing real-world opportunities to
for multiple compressor pressure ratios toanalyze its impact on the power output and efficiency. Or in dynamics, instead of calculating therange and maximum height of a projectile, they can plot and visualize the trajectory of theprojectile for various initial conditions. While there are significant advantages for helping students develop fluency usingcomputer programs to solve engineering problems, there are some challenges to consider. Forinstance, when teaching computer programing to first-year engineering students, the class sizesare typically large, making it difficult to provide timely and relevant feedback. For second- andthird-year students, the computer assignments should help students explore the relevantengineering concepts
past years, she has taught several thousands of students of diverse backgrounds. She has a strong passion for teaching innovations, in particular, active learning strategies, engagement pedagogies, and open education. Dr. Yan strives to make sustained contributions to support holistic student success and wellbeing through her teaching practices and scholarship of teaching and learning. She is an active contributor to UBC, professional societies, and the broader communities through her K-12 outreach program and committee work within and beyond UBC. Dr. Yan is a registered P.Eng. with EGBC (Engineers and Geoscientists BC), and a member of CEEA (Canadian Engineering Education Association) and ASEE (American Society for
, based on the concept of digital twins,to create an identical model of the physical object, which can communicate wirelessly.Findings from a comprehensive analysis of multiple studies suggest that the integration of digitaltwins has the potential to significantly enhance learning motivation and retention in engineeringeducation. Notably, leveraging strategies such as game-centered learning, personalized learning,and virtual prototyping can effectively promote these outcomes. Of particular significance is theobservation that digital twins can diversify the range of laboratory options within engineeringclasses without entailing additional equipment costs. Consequently, this expansion of resourcesmitigates barriers for students, providing them with
self-efficacy can lead to improvedproblem-solving skills and the ability to transform analytical models into practical solutions [5].Moreover, motivation, particularly in the form of intrinsic motivation and academic self-regulation, plays a vital role in students' willingness to study engineering and their commitmentto completing challenging tasks [4]. This is especially relevant in the context of numericalmethods, where sustained effort and engagement are necessary for mastering the subject.Research has shown that self-efficacy and motivation are strong predictors of academicachievement in engineering education. Existing research provides insights into the impact ofself-efficacy and motivation on engineering education, particularly in the
Mechanical Engineering program at Utah Valley Universityis now building up across the curriculum, and the students who learned this skill on this projecthave been impacted for the better by development of this skill.Additionally, working on this project helped students to improve their teamwork andcommunication skills. They learned how to carry out their independent responsibilities throughinterdependent interactions, sharing their insights and talents freely with each other to helpeveryone to be better at their job. They learned effective communication skills. One student saidthe following: “Each week we put together short presentations detailing our progress for theweek and presented it to the other members of the lab. This process taught me how
, "The value of student created videos in the college classroom-an exploratory study in marketing and accounting," International Journal of Arts & Sciences, vol. 5, no. 1, p. 273, 2012.[20] S. Taylor, G. Hunter, H. Melton and S. Goodwin, "Student engagement and marketing classes," Journal of Marketing Education, vol. 33, no. 1, pp. 73-92, 2011.[21] T. Hawk, "Being “Physically Present While Cognitively Truant”: On the Likely Impact of Digital Technologies on Learning," Journal of Management Education
students [1]. Studies have shown that the adoptionof OER materials provides significant cost savings without sacrificing academic outcomes [2,3],and that students appreciate the variety and ease of access of the resources [4]. Additionally, OERsallow for more interactivity as well as having a smaller impact on the environment, reducing paperwaste [5]. Lastly, OERs were shown to have more positive impact on historically underservedstudents, international students, and low-income students [3,6].At the University of Prince Edward Island, an informal survey by the Student Union from Fall2022 showed that 94% of the nearly 600 students would use an OER if it were available, with 69%of surveyed students rating the quality as a good or very good
the workforce [8]. However,conventional instructor-centered learning environments in higher education can lack essentialsupport structures to help students develop these skills [9]. Therefore, understanding theimportance and benefits of exposing undergraduate students to interdisciplinary project-basedlearning strategies and integrating them into their curricula can help educators provide theworkforce with the expertise needed. Although various interdisciplinary project-based learningmodels and strategies have been highlighted in the literature [10-11], research on the benefits andthe impacts of this approach on students' teamwork skills and team satisfaction is limited [12]. This paper investigates the benefits of leveraging an
. Dr. AbdelGawad’s interests are centered around materials and manufacturing, with a strong focus on corrosion of advanced materials, and the study of statics and mechanics. With an extensive teaching background, she has developed a keen interest in advancing innovation in engineering education. At present, she actively explores various methods to enhance student engagement and optimize their learning experiences through curriculum and course design. ©American Society for Engineering Education, 2024 WIP: The Use of Animated Visual Aids in the Education of Undergraduate Engineering StudentsIntroductionA common issue in many classes, particularly in materials
theoreticalconcepts in practice.1. IntroductionThe use of hands-on learning devices is a well-accepted instruction method in the active learningdomain [1-6]. It allows students to engage directly with the subject matter which enhancesunderstanding, retention, knowledge, and skills. In addition, hands-on devices provideopportunities to apply theoretical concepts in real-world scenarios that help students bridge thegap between theory and practice, allowing learners to develop practical skills and gain valuablereal-life experiences. Moreover, hands-on projects often involve tackling real-life problems thatnurture critical thinking, problem-solving, and decision-making skills as learners navigate throughobstacles and seek innovative solutions. Furthermore, hands
modules, which shows their positive impact on students’ lab reportwriting. Among the nine outcomes, outcomes 1 (Address technical audience expectations), 3(Illustrate lab data), 4 (Analyze lab data), and 5 (Interpret lab data) were the experimentalgroup’s top four outcomes that improved by the most significant margins over the control group.The transfer-focused modules contain fruitful content on lab data presentation (module F-5), labdata analysis (modules F-4, I-3, A-2, A-3), and logical appeals (module A-1), which aim toenhance engineering undergraduates to engage in critical thinking practices, including analysis,interpretation, and evaluation of their lab data/products. Additionally, audience awareness(modules F-1, F-3) is well covered in
. Thisprovided the researchers in the present study a unique opportunity into the domain of creating acourse structure that can help STEM instructors to teach effectively in all modes of coursedelivery, including the traditional face-to-face, hybrid, and online classes.The present study designed and implemented an effective course delivery structure at TexasA&M University and Saint Ambrose University. To obtain comprehensive results, the studydesign utilized multiple modes of instruction, multiple instructors at two higher educationinstitutions with varied student demographics. It requires high-level student engagement for thestudent learning and success. On part of faculty and instructors, it requires a lot of effort, hardwork and innovation to
emphasizesapplying dynamics modeling to predict hardware performance. Afterwards students work inteams of 4 or 5 on a capstone design project with sponsors from industry, the medical school,engineering faculty, and the community. This study was conducted during the mechatronicsproject in the first five weeks of the sequence, where emphasis was placed on curiosity in lectureand lab activities. The study took place during the winter quarter of 2023 with 131 studentsenrolled in the course. A survey was conducted at the beginning of the class and at week 5,which will be discussed in the Results section.The first 5 weeks of the class were based on a mechatronics project where students connected anArduino to a motor driver which was used to spin an acrylic
graduates, objectives of this course were decided as: (1) prepare students to beeffective in presenting their abilities and accomplishments to prospective employers; (2) preparestudents to communicate with others properly and effectively in a professional businessenvironment; (3) instill a basic understanding of proper professional conduct and ethical behavior.(4) provide students with an introduction to the variety of career paths available and develop anunderstanding of the potential processes and importance of professional development and on-goinglearning. (5) encourage a practice of critical analysis of ideas, concepts and information. Aligningwith the course objectives, a set of learning outcomes were decided, which includes: (i) a well
during the COVID-19 pandemic.” 2020.[9] C. Woolston. “Signs of depression and anxiety soar among US graduate students during pandemic.” Nature, pp. 147-148. 2020.[10] S. D. Molock, & B. Parchem. “The impact of COVID-19 on college students from communities of color.” Journal of American College Health, pp. 1-7. 2020.[11] A. M. Lederer, M. T. Hoban, S. K. Lipson, S. Zhou, & D. Eisenberg. “More than inconvenienced: The unique needs of US college students during the COVID-19 pandemic.” Health Education & Behavior, vol. 48, no. 1, pp. 14-19. 2021.[12] S. Rudenstine, K. McNeal, T. Schulder, C. K. Ettman. M. Hernandez, K. Gvozdieva, & S. Galea. “Depression and anxiety during the covid‐19 pandemic
simplified version communication for people who are unfamiliar with them. skills from I think I gained a lot of interpersonal communication skills by working with the education education students. studentsTable 6. Sample quotes from participating students on engineering pedagogical skills Engineering-Pedagogical Skills Lesson Sage helped walk us through the lesson planning process. planning Lesson planning, how to work with kids, how to break down difficult concepts, and how to ENGAGE students. Classroom management She was really good at handling the kids in all aspects, like when they would get off-topic. And it made it easier to apply what I watched her do
clearlyapplicable to design project work. The Oral Communication rubric has items on having a“Central Message” and “Organization,” both of which are critical facets of technicalcommunication. For presentations only, we score the “Delivery” item drawn from the OralCommunication rubric. Presentations typically use slides with text; such writing, as well aswriting in reports, is reasonably scored with our “Style” dimension, the descriptors of which aretaken from the “Control of Syntax and Mechanics” Written Communication dimension.SO 4: Professional Decision-MakingABET Student Outcome 4: an ability to recognize ethical and professional responsibilities inengineering situations and make informed judgments, which must consider the impact ofengineering solutions
, students used the Behaviorally Anchored Rating Scaleversion of the Comprehensive Assessment of Team Member Effectiveness (CATME BARS)[13], an alternative to CATME [14], to assess their teammates' teamwork effectiveness skills. Toevaluate each teammate, students answered five Likert scale-based questions with responsesranging from 1 to 5, where 1 corresponds to "strongly disagree" and 5 to "strongly agree." TheCATME survey assesses five categories of teamwork effectiveness: contribution to the team'swork, interaction with teammates, keeping the team on track, expecting quality, and havingrelevant knowledge, skills, and abilities (KSAs). The project's impact on the team effectivenessindicators based on CATME BARS was evaluated using analysis of
to the research team by the university IT department.Descriptions of each LMS feature used in this study can be found in Table 2. The data includedbinary (on/off= 1/0) data which represented whether a course used an LMS feature or not, aswell as numeric (“count”) data which reflected the number of times a LMS feature was used.Table 2. Description of LMS Features [22] LMS Feature Description Announcements Communication tool allowing instructors to post announcements for all users in a course Assignments Any activity created by the instructor. May include Assignments, Discussions, and Quizzes Assignment Tool that separates students into smaller course units to facilitate Groups
sustainability center. We also discuss potential areas for improvementand future directions, with the goal of enhancing the integration of sustainability principles intothe curriculum and amplifying the impact of such collaborations. By sharing our experiences andinsights, we hope to provide a valuable resource for educators and institutions seeking toincorporate mechatronics into sustainability initiatives. More importantly, we aspire to inspireothers to embark on similar collaborative endeavors, fostering a culture of sustainable innovationamong students and empowering them to become change-makers in their communities andbeyond.The Introduction to Mechatronics course (MECH330) is a cornerstone of our curriculum, offeredevery fall semester and designed