othersupporting scientific articles. Students defined design requirements, generated evolutionarysolutions through multiple iterations, and demonstrated the utility of scientific literature byapplying knowledge to enhance their designs. This approach facilitated a deeper exploration ofbiomedical technology, involving critical analysis and improvement of materials, methods, andmanufacturing techniques.Seventeen students participated in the project, divided into six groups, each assigned specifictopics related to wearable and implanted technologies. Over 14 weeks, students followed astructured process, making presentations associated with three design iterations, showcasing theirprogress, and receiving feedback from a teaching team consisting of the
Paper ID #39095Board 20: Work in Progress: Investigating the Impact of InternationalEducation on Cultural Understanding, Health Disparities andCollaboration through Project-based LearningBreanna Kilgore Breanna Kilgore is a graduating senior biomedical engineering student at the University of Arkansas. Breanna has participated in an REU at Johns Hopkins university and studied development policy and global health in Switzerland. She has been named an international Gilman scholar, a NSF Honors College Path Scholar, and selected as a Senior of Significance at her university.Dr. Luis Carlos Estrada Petrocelli, Universidad Latina
Professor and Director of Engineering program at Simpson University. His teaching interests are in statistical quality control, manufacturing processes, engineering/project management, engineering economy and production and operations analysis. His research interests are in sustainable manufacturing, entrepreneurially minded learning and project based learning approaches in educationDr. Lisa Bosman, Purdue University Dr. Bosman holds a PhD in Industrial Engineering. Her engineering education research interests include entrepreneurially minded learning, energy education, interdisciplinary education, and faculty professional development. ©American Society for Engineering Education, 2024
Monitoring Industry-ClassroomProgram for Undergraduate Biomedical Engineering Students Dr. Alexis Ortiz-Rosario,1 and Ali Kaveh Rahimi21 Department of Biomedical Engineering, The Ohio State University, Columbus OH, USA; 2Ohio AtHome Health Care Agency, Columbus, OH, USA AbstractThe at-home remote monitoring sector of healthcare is a growing industry. This healthcaremarket is valued at $24 billion, and it is projected to reach $166 Billion by 2030 [1]. Thisgrowing industry has unique challenges and can promote unique learning opportunities forundergraduate biomedical engineering students [2]. A collaborative industry-classroomprogram was developed along with Ohio At Home Health Care Agency
graduate TAs the why (i.e., theoreticalknowledge) and the how (i.e., actionable strategies and skills) of equitable pedagogy, such asdesigning learning objectives and rubrics or discussing critical pedagogy and culturallyresponsive teaching. See Appendix A1 for an overview of weekly topics and learning objectives.Final Project: A final project allowed course participants to tie their conceptual understandingto practice [1]. Each participant chose a personally meaningful pedagogical project, such asmentoring a summer undergraduate student or preparing to instruct a future class and designed aplan for effectively and equitably carrying out their role utilizing skills learned in the course. SeeAppendix A3 for more details about the final
was a postdoctoral fellow at Advanced Technologies and Regenerative Medicine, LLC. She received her doctoral degree in Biomedical Engineering from Tufts University, M.S. degree from Syracuse University, and B.S. degree from Cornell University. ©American Society for Engineering Education, 2024 Work in Progress: Promoting Equitable Team Dynamics in a Senior Biomedical Engineering Design CourseIntroductionTeam-based engineering design projects are common mechanisms to promote hands-onengagement with the engineering design process. Team-based projects are often implemented inboth introductory and senior level courses in the undergraduate engineering curriculum.Navigating the complex team
] Because ofthe effectiveness of these hands-on techniques, there have even been studies evaluating the designof biomechanics labs that could be done in an online or hybrid class format.[3]The inclusion of numerical techniques in solving the complex mechanics problems inherent inbiomechanics problems has also been of interest in studies on biomechanics classes. One suchstudy effectively incorporated finite element analysis (FEA) into a design project in anintroductory biomechanics course.[4]In developing my own new Biomechanics course, I aimed to incorporate multiple learningmodalities for interacting with the course material which incorporated hands-on labs, exposure toscientific literature and inquiry-based projects. Inclusion of diversified
summer research internship open to students over the ageof 16 attending eligible high schools in Massachusetts and is located at a large state university campus.Eligibility is determined by the Massachusetts Life Science Center, the funding entity, and incudes Chapter 74Vocational Technical High Schools, high schools located in “Gateway Cities,” and high schools in cities with apopulation of at least 25% classified as low income [1]. High school students participate in projects sponsoredby Principal Investigators with daily mentorship provided by graduate students and post-doctoral candidates inthese labs.The internal program goal is to provide as many of the research internship spots to potential first-generationcollege students and
engineering is an interdisciplinary major that offers lectures, team projects, andlaboratory tasks. One of the milestone courses, Biothermodynamics, which encompassesformulas, equations, and physical applications of biology systems, is traditionally taughtpassively through lecturing and note-taking. In the past two decades, active learning methodshave been studied and promoted vastly in engineering education, including adding group workand peer interaction into the teaching and learning of such courses to increase studentengagement [1-4]. This work-in-progress study further explores the ability to create a“neighborhood” in a sophomore-level Biothermodynamics classroom. The present study aims todesign a new learning environment that maximizes students
. The video hosting site also auto generated captions.Figure 2. Example of drawing from assignment. Students replicated the model and instructor gave VF on the submitted model.Data Collection and MetricsThis is a retrospective study, using data from four semesters taught by the same instructor (theUniversity of Miami IRB has determined that this study is exempt from review.) The traditionalcohort (Fall 2019 n=9 students) was taught using written feedback, while the VF cohort consistsof three classes (Fall 2021/Spring 2022/ Fall 2022/ n=4/11/20 = 35 total). Two sets of data werecollected from each cohort: analysis of student final projects and video file data.The final project in each class was similar, asking the students to create a model or
implementations through the Massachusetts Health Information Exchange. At Wentworth, Dr. Feldman is focused on project-based instruction, hands-on simulations, experiential learning approaches, and first year curriculum. Dr. Feldman is one of the lead instructors for Introduction to Engineering courses, with enrollments in the hundreds each fall. His re- search and teaching interests, in addition to first year engineering, include telemedicine, health informat- ics, rehabilitation engineering, and medical robotics. Dr. Feldman has collaborated with researchers and engineers from organizations including Tufts School of Veterinary Medicine, Boston Children’s Hospital, Vecnacares, and Restoreskills.Dr. George D. Ricco, University
to increase students’ technical skills as related to the design process, it also aims to buildconfidence and develop students’ abilities to work not only with their peers but also withinstructors and local clinicians. During the students’ senior years, they are required to take SeniorDesign 1 during the fall semester and Senior Design 2 during the spring semester. As aprerequisite to Senior Design, the Clinical Observations and Needs Finding course is intended tointroduce students to the design process. Projects that are initially developed in ClinicalObservations are intended to be carried to Senior Design, where prototype creation occurs. Thiscourse fits logically into the undergraduate biomedical engineering curriculum, but the
].According to Minerick [24], advanced research skills include "Safety, Research and thelaboratory, How to maintain a lab notebook; Literature searches and article applicability to yourresearch; Dissection of a research article; Effective scientific presentations; Preparing an abstractof your research project, and Preparing a scientific poster" (p. 6). The National ScienceFoundation (NSF) funds Research Experiences for Undergraduates (REUs), which are programsdedicated to increasing the number of STEM students who pursue advanced degrees, focused onrecruiting traditionally underrepresented students in the field [24], [32]. Students who are offereda position in an REU program at a university are provided with housing, meals, and a stipend for,commonly
University of Virginia Social and Behavioral Sciences IRB,protocol number 3236.This study was conducted in concert with a second-year course in design for biomedicalengineering students. The course itself was focused on the development of software, hardware,and fabrication skills of particular use to biomedical engineers [3]. These included CAD,microcontrollers, basic circuits, 3D printing, subtractive approaches to prototyping (dependingon semester), and digital image analysis. The course culminated in a closed-ended team-baseddesign project with a physical prototype due at the end.Students would have taken 0 to 3 courses prior to the design course in question. This is becausestudents at our institution enter their major after their first year, and
todescribe the job titles and roles for biomedical engineers working to develop a new medical device.The average number of codes, each representing a unique job title or role in industry, generallyincreased from cohorts 1 to 4, where students in cohorts 1, 2, 3, and 4 named on average 0.28 ±0.18, 0.43 ± 0.15, 0.69 ± 0.14, and 0.91 ± 0.02 codes, respectively (Figure 1B). Research anddesign engineer was the most named job title/role by students across cohorts; however,project/program manager, manufacturing engineer, design quality engineer, and clinical fieldspecialist were also named, albeit at a lower frequency (Appendix D, Table 7). Importantly, manystudents in cohort 1 (82%) and cohort 2 (83%) specifically reported in their survey responses they
system and novel meaningful use implementations through the Massachusetts Health Information Exchange. At Wentworth, Dr. Feldman is focused on project-based instruction, hands-on simulations, experiential learning approaches, and first year curriculum. Dr. Feldman is one of the lead instructors for Introduction to Engineering courses, with enrollments in the hundreds each fall. His research and teaching interests, in addition to first year engineering, include telemedicine, health informatics, rehabilitation engineering, and medical robotics. Dr. Feldman has collaborated with researchers and engineers from organizations including Tufts School of Veterinary Medicine, Boston Children’s Hospital, Vecnacares, and
Project (2018). 5. Cheryan, S., Master, A. & Meltzoff, A. N. Cultural stereotypes as gatekeepers: increasing girls’ interest in computer science and engineering by diversifying stereotypes. Front. Psychol. 6, (2015). 6. Boucher, K. L. & Murphy, M. C. Why so few? The role of social identity and situational cues in understanding the underrepresentation of women in STEM fields. in Self and social identity in educational contexts 93–111 7. Malone, K. R. & Barabino, G. Narrations of race in STEM research settings: Identity formation and its discontents. Sci. Educ. 93, 485–510 (2009). 8. Sparks, D. M. Navigating STEM-worlds: Applying a lens of intersectionality to the career identity
supporting STEM faculty on STEM education research projects.Dr. Sharon Miller, Purdue University Sharon Miller, PhD, is an Associate Professor of Practice in the Weldon School of Biomedical Engineering at Purdue University. She received a BS degree in Materials Science and Engineering from Purdue University and MS and PhD degrees in Biomedical Engineering from the University of Michigan. Her educational efforts focus on biomedical engineering discipline-based educational research, including design self-efficacy, project-based learning, critical reflection in ethics, and high-impact practices. ©American Society for Engineering Education, 2024Work in Progress: A Multi-level Undergraduate Curricular
students feel successful, thus reinforcingSTEM identity. The perspectives of all three groups help to describe essential components of aresearch internship that can be employed in the development of high school STEM programs andways in which these programs can support URM students.Background and SignificanceCurrently, there are over one million STEM job openings without qualified applicants in theUnited States, and the field of Biomedical Engineering (BME) is projected to grow 10% from2021 to 2031 [7]. To meet growing BME workforce needs, it is essential to support initialstudent interests in STEM to aid students’ decision making. One strategy that has seensignificant success in encouraging students to pursue STEM and engineering fields has been
Nathaniel Hunsu is an assistant professor of Engineering Education. He is affiliated with the Engineer- ing Education Transformational Institute and the school of electrical and computer engineering at the university. His interest is at the nexus of the resPravalika Irukulla, University of Georgia Pravalika Irukulla is a Masters student pursuing Biological Engineering at the University of Georgia. She obtained her Bachelors degree in Biological Engineering at the University of Georgia, where she started her research focus on breast cancer metastasis in a tissue engineering laboratory. As a project during graduate degree, she focused on the development of virtual laboratories in the tissue engineering class.Dr. Cheryl T