student assessment. ©American Society for Engineering Education, 2024 Work In Progress: Factors Influencing Career Choice and Success in Undergraduate Biomedical Engineering StudentsIntroductionThe field of biomedical engineering (BME) has witnessed significant growth in recent years,driven by advances in technology and a growing emphasis on healthcare innovation. This growthhas led to a large range of post-graduation career paths for BME undergraduates includingmedical and professional school, graduate school, and direct employment as engineers in themedtech, biotech, and healthcare industries [1]. Much of the literature on career choice andmotivations of these students focuses on their plans at
-efficacy as educators, empowering them to contribute moreeffectively to learning environments. We have offered the course in the Spring quarters of 2021,2022, and 2023. In each iteration, we sought to actively demonstrate evidence-based inclusivepedagogical techniques through our course design and instruction. In the future, we plan to 1)evaluate the effectiveness of our course design on participant accomplishment of learning goals,and 2) examine the impact of course participants as TAs on the broader bioengineeringcommunity.Course Design: Enabling effective learning of pedagogical skillsCourse Learning Goals: We designed a course to address a critical need in the training ofgraduate TAs by allowing them to build pedagogical skills before their
development of suchcompetencies of both students and teachers for active learning. We want to use the data to seekevidence of better practice in promoting student learning in engineering core courses, especiallythe traditional lecture-based ones.Course structureThis study has been conducted in a sophomore-level Biothermodynamics class for two semesters(2022 Spring and Fall). Previously, the course was taught with lecture-based materials relying onnote-taking and individual homework traditionally. Under the new design, students will receive adetailed content structure at the beginning of the semester, shown in Appendix, Figure 1.Students will obtain a general view of the course content, types of assignments/exams, and theirdue times from this plan
the classroom. The current solution to tackle these challengeswas implementing a professional identity assessment [3], as well as utilizing the reflectionsto better understand their experiences and what needs arose from the program. IntroductionThe at-home remote patient monitoring sector of healthcare is a growing industry. Thishealthcare market is valued at $24 billion and is projected to reach $166 Billion by 2030 [1],[4]. This industry provides individuals with disabilities or chronic medical conditions withnew levels of independence by allowing them to remain at home. These companiesleverage technology and personally crafted care plans that address the needs of theirclients. The technologies
Postdoctoral Fellow at Harvard Medical School at Brigham and Women’s Hospital in Boston, Dr. Feldman developed informatics metrics to quantify performance of clinicians when using digital diagnostic tools. He has published in Radiology, Academic Radiology, IS&T, SPIE, and RESNA. As a Latino and native Spanish speaker, born in Peru, Dr. Feldman has created markets and commercialized innovative telemedicine products in Latin America for medical device companies, including Orex Computed Radiography, Kodak Health Group, and ICRco. Dr. Feldman also served as Chief Information Officer (CIO) of Boston Healthcare for the Homeless Program where he led the strategic planning and migration to EPIC Electronic Health Records
with otherresearchers [9], [10], [11]. Students tend to enjoy REU programs and find them valuable inhelping direct their future plans, often including graduate school and further research [12], [13].Recent research argues for developing an entrepreneurial mindset (EM) in engineering students[14], [15], suggesting that it is crucial that BME programs, including research experiences,emphasize EM competencies [16], [17]. EM interventions in engineering education exist toenhance the traditional technical-focused education engineers receive and encourage well-rounded engineering graduates [14], [18]. Students exposed to EM interventions in researchexperiences expressed gaining confidence in business skills and value recognition [19], [20],which are
to feel comfortable with both their peers and their TA tobe able to recover from a setback quickly. 1. Student experiences a setback (lab does not go as planned). 2. Student looks to a) lab partner(s) or peers, and/or b) TA, and/or c) class and lab materials to decide how to respond. 3. Student's ability to move past the setback depends on whether a) others experience the same setback, b) others normalize setbacks, and c) they know where to look to help them troubleshoot. These factors impact whether they can effectively manage their frustration in the moment.Figure 1. Student Response to Setbacks in Lab Settings FlowchartConclusion To summarize, students’ ability to recover from
DevelopmentGoals. In 2015, the UN General Assembly adopted a resolution for 2030 that included SustainableDevelopment Goals (SDGs). These SDGs have prompted changes to the engineering field to solvethese broad issues by increasing the capabilities and capacity of engineering through theinvolvement of young, student populations. It also prompts a change in engineering education tofocus more on sustainability in the curriculum [18].One final solution is the National Science Foundation’s (NSF) Strategic Plan. The NSF hassupported multiple engineering education programs, such as Engineering Research Centers(ERCs) as well as the Research Experience for Undergraduates (REU). The main goal of theseprograms is to support research opportunities for students in
,constitutive modeling of solids, solution strategies for biomechanics problems, finite elementtechniques and biological responses to mechanical forces. This class has 6 major learningobjectives shown in Table 1.Table 1: Course Learning Objectives 1 Describe the basic structure and mechanical properties of various human body parts. 2 Understand force and moment vector operations and the center/axis of resistance concept when applied to the human body. 3 Understand the concept of axis/center of rotation and how to plan the correct axis/center for a specific biomechanics problem. 4 Describe how different body regions respond to static and transient loads: biomechanical and physiological response. 5 Use numerical methods to obtain solutions to
Evaluation #1occurred at the same time as those offerings that did not include asset activities (Pre). As shownin Figure 2, evaluation ratings were at a similar level to ratings in the offerings prior to assetactivities (Pre), also suggesting that the additional time may have contributed synergisticallywith asset-based activities to achieve higher peer evaluation ratings.Future plans to collect additional feedback will deepen our understanding of the impact andvalue of asset-based activities on all students in our senior level team-based design course.Additionally, further studies are needed to investigate how to effectively scaffold theundergraduate curriculum with equity-minded team dynamics instruction.References[1] Choi, J. H. (2021, July), Work
aligned with the high expectations that the students expressed for each question inthe post-course survey. The questions in the educational experience category gauged students'understanding of product development, implementation, viability and scalability. Many of thestudents commented on learning about the financial and business models for productdevelopment as an important component of the course, indicating the usefulness of thiscomponent in helping students better develop low-cost sustainable solutions with potential forbroad impact across diverse populations. In the future, we plan on engaging with non-governmental organizations like ‘Physicians for Peace’ to provide valuable insights andperspectives on real-world challenges that are
School at Brigham and Women’s Hospital in Boston, Dr. Feldman developed informatics metrics to quantify performance of clinicians when using digital diagnostic tools. He has published in Radiology, Academic Radiology, IS&T, SPIE, and RESNA. As a Latino and native Span- ish speaker, born in Peru, Dr. Feldman has created markets and commercialized innovative telemedicine products in Latin America for medical device companies, including Orex Computed Radiography, Kodak Health Group, and ICRco. Dr. Feldman also served as Chief Information Officer (CIO) of Boston Health- care for the Homeless Program where he led the strategic planning and migration to EPIC Electronic Health Records system and novel meaningful use
: equitable use;flexibility in use; simple and intuitive use; availability of information; tolerance for error; lowphysical effort; size and space for approach and use; and aesthetic and minimalist design [8].Biodesign is a method of training future health technology innovators that was founded at StanfordUniversity [9]. This approach engages medicine, engineering, and business in a curriculum thatchallenges participants to identify (needs finding and screening), invent (concept generation andscreening), and implement (strategy development and business planning) [10]. A recentlydeveloped diversity, equity, inclusion, and justice (DEIJ) toolkit for the Biodesign process providescurriculum developers and instructors with information on diverse team
of the experience: “The way that [they] kind of planned out this internship was very, very, very smart. [It] helped us stay on track and focus on what we're doing. [I] definitely worked with [Faculty Mentor 1] a lot.”The planning alluded to by Intern DP became clear when interviewing Faculty Mentor 2. In herinterview, she elaborated on the design of the research experience and how she developed anddistributed a calendar detailing shadowing assignments, experiment information, and scheduledtime for lunches and breaks (see Figure 1). In addition to the schedule, Faculty Mentors 1 and 2set aside time for one-on-one meetings with the interns each week, creating a space for thestudents to share not just science interests but to
Paper ID #43336Assessment and Impact of a Clinical Observations and Needs Finding Courseon Biomedical Engineering Education OutcomesMs. Jacquelynn Ann Horsey, University of Arkansas Jacquelynn is an undergraduate student in the Department of Biomedical Engineering.Thomas Hudnall McGehee, University of Arkansas Thomas ”Hud” McGehee is an undergraduate student in the Department of Biomedical Engineering. While Hud’s primary research focus is on nanocomposite biomaterials for orthopedic applications, engineering education prevails as another area of interest. Hud plans to pursue higher education by utilizing his engineering
severaliterations take place before reaching the final solution. Each iteration is improved upon based onfeedback from the previous iteration.”“Iterative design is characterized by a process in which the design is refined and improved througha series of multiple iterations. Each iteration, the design is improved incrementally based onfeedback and testing from previous iterations.”“More specifically, the iterative design methodology begins with an initial planning step, whereinthe engineering requirements for a new device are developed and enumerated.”“Essentially, each subsequent stage of the iteration process only occurs after the current stagehas been made successful. This leads to much more efficient development of technologies andensures the final
will work on this endeavor. Describe the job titles and roles for the various biomedical engineers who would aid in the development and translation of this proposed medical device. If you do not know of any, please type "don't know".3. What experiences and/or skills do you think you (i.e., an undergraduate) should plan to pursue/obtain during your undergraduate tenure to prepare for a career? If you don't know of any, please type "don't know".Appendix B: Alumni Panel Questions1. How/why did you choose the post-graduation route that you did?2. For those who went into industry, why did you choose to go into industry directly with a B.S. or after obtaining your M.S.? How difficult was it to find a job?3. What kinds of extracurriculars