theyimpractically narrow. Finding this middle ground between generality and specificity is importantin consideration of preparing students for future contributions in industry. Though industrialfunctions require specialized skills, it is impossible to predict the exact skills needed by everystudent in a university program due to the number of possible career paths available to eachstudent, each requiring different technical knowledge. By providing students with generalknowledge applicable to a wide diversity of PLM processes, students are better equipped tospecialize according to their own interests. They are also better suited to excel in any arbitraryrole, having previously understood the basic, common functions of many different tasks. 7
2014, received the College of Engineering Graduate Student Mentor Award in 2018, and was inducted into the Virginia Tech Academy of Faculty Leadership in 2020. Dr. Matusovich has been a PI/Co-PI on 19 funded research projects including the NSF CAREER Award, with her share of funding being nearly $3 million. She has co-authored 2 book chapters, 34 journal publications, and more than 80 conference papers. She is recognized for her research and teaching, including Dean’s Awards for Outstanding New Faculty, Outstanding Teacher Award, and a Faculty Fellow. Dr. Matusovich has served the Educational Research and Methods (ERM) division of ASEE in many capacities over the past 10+ years including serving as Chair from 2017
at the University of Alabama, Dr. Jalili led a significant increase in external research awards and enrollment as well as the creation of the Alabama Initiative on Manufacturing Development and Education (Alabama IMaDE®), designed to better prepare future highly skilled workers through a convergence of education, research and service. The Alabama Initiative has guided multiple research projects in the core areas of automation, human-robot collaboration/integration and augmentation and has partnered with numerous outreach programs to promote new career paths for middle and high school students in the region.Dr. Daniel J. Fonseca, University of Alabama ©American Society for Engineering
points of viewC. Professional Identity and EthicsProgram Goal: The successful student will be able to understand the profession in relation toself and society and be able to operate professionally, ethically, and with societal awareness andintegrity.To meet this program goal, the successful student will be able to: 1. Fully describe the discipline of engineering and the sub-discipline of mechanical engineering. a. Initiate a clear career path utilizing discipline 2. Discern the ethical considerations and implications of engineering decisions, in the context of their environment, profession, and society at large. a. Consider multiple viewpoints b. Engage in meaningful debate with others about difficult
Paper ID #42530Designing and Evaluating Virtual Reality Applications for a Machine DesignCourseDr. Andrea Gregg, Penn State University Dr. Gregg’s career sits at the unique intersection of instructional design, faculty development, educational technology leadership, curriculum planning, and educational research and evaluation. She is an established higher education professional with over twenty years’ experience in online, distance education. As the manager of an instructional design (ID) team responsible for the design, development, and support of nearly 150 courses, she worked with a diverse portfolio including STEM
on theirown, but overall, 83% did discover the challenges with help from other students. Studentcomments expressed how inquiry-based activities promoting curiosity are valued by students.IntroductionLifelong learning is a critical component of any technical career, and its importance is evident bythe ABET requirement that accreditation requires engineering programs to teach lifelonglearning skills [Naimpally, 2011]. In addition, engineers must not only learn how to use newtechnologies but also comprehend the underlying principles and physics that govern them. Thisknowledge helps them make informed design decisions and evaluate the pros and cons ofdifferent technologies better. Moreover, by grasping the fundamentals of a component'soperation
importantinformation and knowledge essential to helping them to excel in engineering careers. Second, thethought of grades has a profound effect on student emotional and well-being. These are importanttopics for high education professionals to consider and help develop systems to address these areasaffecting student learning.IV.5 Question 5: How do you feel when you have high grades in your class?Figure 5 illustrates examples of the different emotions and feelings students have when doing wellacademically in a course. As evidenced by the chart, the students experienced low stress levels andgeneral mild feelings of nervousness, fear, and anxiety.Summary of Feedback and Guiding Question Five. For the guiding question, “How do you feelwhen you have high grades
students for careers in robotics and automation. In a traditional undergraduatemechanical engineering program, an introductory controls course is mandatory. A typicalcontrols course covers topics such as mathematical models of systems, feedback control systems,and an introduction to frequency response methods, among other topics. This type of controlscourse may or may not have a lab component associated with the class. Lab topics often includesystem identification, dynamic response characteristics, and tuning a PID controller for aphysical system such as a DC motor with an encoder [3] or a magnetic levitation system [4].A traditional undergraduate controls course is often highly theoretical, and students sometimesstruggle to connect the underlying
more educated and higher achieving population. Providing an education allows formore opportunities in better careers, and higher paying jobs. The economic success is deeplyintertwined with the quality of education in a society. [47] In the modern world education isespecially important. New information is being produced at a much faster rate than it used to be,shortening the lifespan of knowledge significantly, and rendering old learnings irrelevant to today.[41] New technology and information are constantly being released and updated. Students andcareer workers now not only need to recall what they learned in school and in trainings, but alsobe capable of learning new skills throughout their entire career. Learning and education hasbecome a
make comparisons between groups. • Apply one-way ANOVA to determine differences in numerical outcomes between groups • Use standard software (MS Excel) to run one-way ANOVA • Create or revise a resume to get started on building your engineering career experiences 9,15 • Recognize common communication platforms that are used in the workplace, e.g., LinkedIn, F. Career Development and their associated purposes Create a professional resume • Set expectations and timeline for seeking engineering-related summer internship or and online presence. supplemental skills training
Education. Teamwork is one of thecritical skills for success in undergraduate engineering education and beyond. Engineeringprojects require collaboration among individuals with different disciplines and expertise [1].Therefore, engineering students must learn how to contribute, communicate effectively, delegatetasks, and resolve conflicts among team members [1]. Team members bring unique perspectivesand ideas, promoting creativity and innovation [2]. Moreover, the ability to perform in teamsettings is highly valued by employers. It demonstrates adaptability, collaboration, andleadership [3]. Engineering students can enhance their ability to complete the project effectivelyand gain essential skills that would serve well in their future careers by
career development, which they feltwas essential for preparing for work in industry: It's definitely more the hands-on collaborative work, kind of troubleshooting, figuring stuff out, design process stuff that I'm more – feel like well if I don't get to do that then it's definitely going to be a problem.Another student explained that when their laptop crashed, they faced a real-life scenario intheir engineering field, which made them realize the importance of practical work, andhow much they valued that. They felt that transitioning to online classes robbed them ofpractical experience and limited their ability to communicate with others: I really came to realize just how much I value being able to do practical work and to be
generally. Mostrespondents indicated that the project increased their interest in undergraduate research.ConclusionIn conclusion, collaborative, project-based learning can help to create community among firstyear students. Survey results suggest that such activities can create a support network,particularly for our first-generation students. A project focused on research has the potential toengage first-year students in research at the beginning of their academic career. Programmablemicrocontrollers such as the Arduino Uno offer a platform for simple research projects that canteach students about the research cycle and prompt interest in further undergraduate research. Inthe future, we will continue to refine this course. The purchased kits have a
. Between sequences (i.e., heat transfer to design), Team Teaching Experiences students Do integrated projects, undergraduate research should have experiences, design-build-test every year, in class team activities, transition to workplace/career planning Assessments Lower stakes assessments, equitable grading, emphasis on mastery not performance, motivational grading-motivate students to
Paper ID #37714Assessment of the Efficacy of a Recently Proposed AlternativePresentation of the Second Law of ThermodynamicsDr. Indranil Brahma, Bucknell University Doctor Brahma is an associate professor of mechanical engineering at Bucknell University. His primary research focus is physics-based machine learning. Prior to his academic career he worked for about eight years in the automotive industry. ©American Society for Engineering Education, 2023Assessment of the Efficacy of a Recently Proposed Alternative Presentation of the Second Law of ThermodynamicsAbstract: The traditional
objective, demonstrating the potential forthe use of EMG in the design and operation of future orthotic devices. This will no doubt be auseful device for people who suffer from physical disabilities or injuries, therefore for improvingtheir quality of life.The second objective is fulfilled, the team of four mechanical engineering students improvedtheir undergraduate learning experience by gaining knowledge and hands-on experience inArduino programming, sensors, and robotics, as pedagogical materials which will help them intheir future career as engineers.The third objective of the project, which will impact the engineering education field, was topresent the prototype at the student university’s capstone projects show. Many students andfaculty
Fluid Dynamicscourse, and even those who have taken a fluid power course may not have any hands-onexperience designing, testing, or controlling pneumatic circuits. However, there is a wealth ofinteresting and challenging design projects involving pneumatic circuits that can lead torewarding careers in automation and controls. If left unfilled, this gap between student skill setsand project requirements will significantly limit what students can achieve on a design projectand may prevent students from working on these types of projects altogether. This paperdescribes the development of a pneumatic breadboard and associated “sandbox” for students in amechanical engineering capstone design course. The pneumatic breadboard, similar to anelectronic
University.References[1] Career Cornerstone Center, “Mechanical engineering, the field,” Accessed February 2, 2024.[Online]. Available: https://www.careercornerstone.org/mecheng/mefield.htm.[2] Brian Yoder, “Engineering by the numbers: ASEE retention and time-to-graduationbenchmarks for undergraduate engineering schools, departments and programs.” AmericanSociety for Engineering Education. Washington, DC. 2016.[3] Vincent Tinto, “Through the eyes of students,” Journal of College Student Retention:Research, Theory and Practice, vol. 19, no. 3, pp. 254–269, 2017. doi:10.1177/1521025115621917[4] Vincent Tinto, “Reflections on student persistence,” Student Success, vol. 8, no. 2, pp. 1-8,July 2017. doi.org/10.5204/ssj.v8i2.376[5] R. M. O'Hara, C. Bolding, J. H
) Fluid Dynamics Technical Committee provided the list of CFD-relatedconcepts and different approaches to introduce CFD into a undergraduate engineeringcurriculum [1]. Integrating CFD topics into a fluid mechanics course is a suitable approach tobenefit engineering students in general, while a separate CFD course is more appropriate toengineering students who are interested in CFD research or careers. [2] and [3] designed separateundergraduate CFD courses and provided the detailed information on course contents andassigned projects. There are a number of studies that integrated CFD topics into theirundergraduate fluid mechanics courses to increase students understanding of flow behaviors( [4], [5], [6], [7], [8], [9]). In the present study, the
activities based on time or what they thought may be easiest, studentswere encouraged to select activities that allowed them to grow their CAD skillset. This is alsowhy they were asked to reflect on what they learned, not just present a final product.To help students reflect on their EM experience there were in class activities that discussed theoverall idea of EM, growth mindset, and the importance of character spread throughout thequarter. The goal of focusing on EM, specifically on persisting through failure, was to encouragestudents who are still very early in their engineering career to push past failures and understandthat no everything may come easily during their engineering education.Student ExperienceStudents were given a brief survey at
studies allow students to actively learn byencouraging critical thinking, problem solving, and decision-making just as they would in a realscenario. Creating case studies follows the 9-step problem design process as outlined by Hung[12]. Table III presents a framework for creating and scaling case studies for use in engineeringeducation. This framework aims to universally cater to and facilitate students with differentneeds and skill levels in learning. Through systematic implementation of case studies, educatorscan effectively integrate troubleshooting skills into their engineering curriculums, preparingstudents for real-world challenges in their future careers. Table III. Framework for Engineering Case Study Creation and Scaling expanding the 9
Paper ID #43363Promoting Transfer Students’ Success through Articulation Agreements: AnEmpirical Case Study in Mechanical EngineeringAnna-Lena Dicke, University of California, Irvine Dr. Dicke is an Associate Project Scientist within the School of Education at the University of California, Irvine. In her research, she aims to understand how students’ motivation and interest in the STEM fields can be fostered to secure their educational persistence and long-term career success. Trying to bridge the gap between theory and practice, she is currently involved in an NSF-funded project aimed at fostering the persistence and
workshop participation, extracurricular activityparticipation, and interest in the AIMS program. Example workshops that students may haveparticipated in include Introduction to Python and Career Development, among others. Someextracurricular activities that students may have engaged in include a university-sponsoredHackathon, involvement in engineering student organizations, and other campuswideorganizations. We hypothesize that students who go out of their way to participate in additionalopportunities like workshops and extracurricular activities might be afforded more occasions todevelop their ESE and EJ. Interaction terms were not included for the ANOVA, in part due to therelatively small sample size currently available. The outputs used were
. Judging by the significant success of manyinterventions, we would like to point to some that should be considered as a permanent changefor future Statics courses in general. For example, reflective practices such as the ones seen inGoldberg et al. (2015) and Goldberg et al. (2021) can provide healthy lifestyle changes tostudents that benefit them well in their student careers. The significance of the results mentionedis easy to assume and is only further established within the paper. We believe that implementingthese interventions more regularly can provide easier communication between students andteachers and future testing can better show this in other courses as well.Group work has shown mixed results and even the significant ones are not
at MIT. Her work includes the development and running of MOOCs and the development of digital education tools. Prior to joining MIT, she worked in industry at an original equipment manufacturer.Prof. Nicholas Xuanlai Fang, University of Hong Kong Professor Nick Fang recently moved to HKU to continue his passion for optical and acoustic research after nearly two decades of academic career in US. As an example of his public outreach effort, A 3D printing module has been successfully developed through the partnership with the NSF Center for Nanoscale Chemical-Electrical-Mechanical Manufacturing Systems, and engaged students and teachers from more than 10 high schools, showcased at the Illinois State Capitol
. ● 2021 Grad - [instructor] did a good job of prepping us for the real world in Heat Transfer. It was a really hard class because of how it was structured, but it is a whole lot more real world. ● 2021 Grad - [instructor] taught me how to present information and work in teams. ● 2022 Grad - Heat Transfer was one of the hardest classes in my college career and taught me how to ask good questions and figure things out on my own. ● 2022 Grad - [instructor] helped us problem solve, form groups, learn complex material, and really wanted to help us learn. ● 2023 Grad - [instructor] encouraged a lot of development of independent learning, thinking, and problem solving. ● 2023 Grad - [instructor’s] course structure
unnoticed in the CAD model, suchas comparing improper physical sizing to real-world objects like their hands or ID cards.Many students felt gratified in having produced a final 3-D printed part for Project 1. Studentswho 3-D printed the ID badge holder still wear it with their intern work IDs or wallet cards.Having a unique, physical final product gave students pride in their effort and served as anexcellent conversational piece during career fairs and engineering job interview processes. Onestudent wore their badge holder to the career fair and used it as a talking point!Time management is always a major concern for student projects. Many students ran out of timeand only could print once. Some did not get to “see” how good a re-design can turn out
constructivistlearning, and is easily designed according to existing laboratory equipment and, thereforetransferable to any institution. References[1] Understanding the Educational and Career Pathways of Engineers, National Academy of Engineering, Washington, DC: The National Academics Press, 2018.[2] The Engineer of 2020: Visions of Engineering in the New Century, National Academies of Sciences, Engineering, and Medicine, Washington, DC: The National Academics Press, 2004.[3] M. Miller, “New UC institute looks ahead to ‘Industry 5.0’,” UC News, December 8, 2022. [Online]. Available: https://www.uc.edu/news/articles/2022/12/new-uc-institute- partners-with-industry-to-solve-most-pressing-tech
kinematics of thehuman body during sit-to-stand motion. By introducing students to such problems and involvingthem in design exercises early in their academic careers, they can undergo a transformative learningexperience, providing them with a sense of purpose and agency to learn mechanism design. Therefore, one of the goals of our research has been to create an intuitive and simple mech-anism design tool for robots and machines, which can provide both simulation and synthesiscapabilities. This paper introduces such a tool called MotionGen Pro [31] available at http://www.motiongen.io originally developed in the Computer-Aided Design and Innovation Lab inthe department of Mechanical Engineering at Stony Brook University. MotionGen Pro provides
develop the necessary connections between courses,concepts and applications that engineering professionals require in their careers. In thiswork-in-progress study, we present one aspect of a larger engineering research program that aimsto develop such activities and promote knowledge transfer.The goal of this larger program is to develop an intervention that promotes knowledge transferand helps make the links between a student’s courses more explicit. The study is based on priorresearch [8,9] that observed student difficulties in applying mathematical concepts in anengineering context and which piloted a 3-stage intervention aimed at promoting the transfer ofknowledge from mathematics to an engineering course. The piloted intervention was based