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Penelope Georges; Sami Kahn – Biomedical Engineering Education, 2025
Rapid advancements in bioengineering call for broad public literacy to help individuals better understand the changes these technologies bring to our lives. However, making bioengineering concepts accessible and relevant, especially to non-science majors, is often challenging. To address this challenge, we designed a general education course aimed…
Descriptors: Biology, Engineering, Engineering Education, Teaching Methods
Huma Shoaib; Aasakiran Madamanchi; Elsje Pienaar; David M. Umulis; Monica E. Cardella – Biomedical Engineering Education, 2023
In response to the growing computational intensity of the healthcare industry, biomedical engineering (BME) undergraduate education is placing increased emphasis on computation. The presence of substantial gender disparities in many computationally intensive disciplines suggests that the adoption of computational instruction approaches that lack…
Descriptors: Computation, Self Concept, Engineering Education, Thermodynamics
Steven Higbee; Devany Harrell; Anthony Chase; Sharon Miller – Biomedical Engineering Education, 2025
Purpose: Engineering students gain confidence and competency through continual practice of key skills. The social cognitive theory construct of self-efficacy provides a useful measure to assess students' beliefs in their ability to succeed or perform tasks. Research focused on the impacts of curricular engineering design experiences on student…
Descriptors: Biomedicine, Engineering Education, Undergraduate Students, Self Efficacy
Isabel Miller; Holly Golecki; Karin Jensen – Biomedical Engineering Education, 2024
Mental health is a rising concern in higher education, with increasing numbers of students experiencing mental health challenges. Stress is a common experience for undergraduate students and the first semester of college can be especially stressful for students as they navigate new coursework and surroundings and being without familiar supports.…
Descriptors: College Freshmen, Biology, Engineering Education, Mental Health
Alick O. Vweza; Sara Mehta; Matthew Wettergreen; Ann Saterbak – Biomedical Engineering Education, 2024
A challenge in building the biomedical engineering human factors course at Malawi University of Business and Applied Sciences was integrating meaningful direct experiences with medical products. The instructor also noticed a significant gap between the topics in the course and their surrounding clinical context, a low-income setting. Recognizing…
Descriptors: Experiential Learning, Hands on Science, Biomedicine, Engineering Education
Samuel A. Acuña – Biomedical Engineering Education, 2024
Should your department offer a course on how to be a scientist and a successful graduate student? We offer this course at George Mason University as a mandatory part of the graduate curriculum, but this is not common practice for graduate biomedical engineering programs. Graduate education in biomedical engineering is evolving rapidly, with an…
Descriptors: Biomedicine, Engineering Education, Graduate Students, Courses
Marissa Gray; Jennifer R. Amos; Soraya Bailey; K. Jane Grande-Allen; Celinda Kofron; Sabriya Stukes – Biomedical Engineering Education, 2024
Authored by six current and former Biomedical Engineering (BME) Master's Program Directors, this article aims to summarize the types of BME master's programs that are offered in the U.S., delve into the value of BME master's programs, and reveal concerns of BME master's students and directors that are exacerbated among international and…
Descriptors: Biomedicine, Masters Programs, Engineering Education, Student Attitudes
Suzanne Lightsey; Michele Dill; Madison Temples; Taylor Yeater; Sarah Furtney – Biomedical Engineering Education, 2024
Hands-on laboratory courses seldom appear in biomedical engineering (BME) graduate programs, thus limiting graduate students' ability to acquire wet laboratory skills like cell culturing. At large, BME graduate programs rely on ad hoc training provided by senior graduate students; however, this method cannot be extended to new or non-BME…
Descriptors: Graduate Students, Engineering Education, Biomedicine, Cooperative Learning
Ellen P. Brennan-Pierce; Susan G. Stanton; Julie A. Dunn – Biomedical Engineering Education, 2025
Clinical immersion programs provide opportunities for biomedical engineering (BME) students to observe the clinical environment and medical devices in use, often leading to the identification of unmet clinical needs. Due to hospital restrictions during the COVID-19 pandemic, in-person clinical immersion programs were generally not possible in…
Descriptors: Biomedicine, COVID-19, Pandemics, Technology Uses in Education
Lyn Denend; Ross Venook; Ravinder D. Pamnani; Kunj Sheth; Joseph Towles – Biomedical Engineering Education, 2024
In design-oriented biomedical engineering courses, some instructors teach need-driven methods for health technology innovation that use a "need statement" to reflect a student team's hypothesis about the most fruitful direction for their project. While need statements are of the utmost importance to the projects, we were not aware of any…
Descriptors: Scoring Rubrics, Biomedicine, Engineering Education, Student Projects
May M. Mansy; Pavlo Antonenko; Walter Lee Murfee; Sarah C. Furtney; Christine Davis; Sujata Krishna; Brianna Pawlyshyn; Natalie Thurlow; Jean-Pierre Pierantoni – Biomedical Engineering Education, 2024
The Learning Assistant (LA) model trains undergraduate student leaders to enhance student learning and engagement by supporting the classroom with research-based instructional strategies. Many disciplines in the life sciences that implemented the LA model reported increased learning gains and decreased performance gaps. However, the model is…
Descriptors: Undergraduate Students, Teaching Methods, Evidence Based Practice, Biomedicine
Marissa L. Gray; Celinda M. Kofron – Biomedical Engineering Education, 2024
We have implemented a jigsaw framework in our biomedical engineering capstone design course by overlaying strategic consideration groups across our design teams. Collaboration in design courses is usually focused within a design team with some peer feedback, but opportunities to work across teams are often limited. The purpose of this teaching tip…
Descriptors: Biomedicine, Design, Cooperative Learning, Engineering Education
Isabel Miller; Grisel Lopez-Alvarez; M. Teresa Cardador; Karin J. Jensen – Biomedical Engineering Education, 2024
Biomedical engineering is a broad and interdisciplinary field that prepares graduates for a variety of careers across multiple career sectors. Given this breadth, undergraduate degree programs often have formal or informal opportunities for students to further specialize within the biomedical engineering major to develop skills in subdisciplines…
Descriptors: Career Choice, Decision Making, Biomedicine, Engineering Education
Salvador Gallegos-Martínez; Kristen Aideé Pérez-Alvarez; Grissel Trujillo-de Santiago; Mario Moisés Alvarez – Biomedical Engineering Education, 2025
Purpose: Hands-on training in tissue engineering is often associated with specialized labs and expensive equipment, such as CO[subscript 2] incubators. To minimize the use of costly commercial incubators and provide a more vivid engineering experience in a biology lab, we present a hands-on project that introduces medium to large groups of…
Descriptors: Cancer, Human Body, Engineering, Laboratory Equipment
Nawshin Tabassum; Steven Higbee; Sharon Miller – Biomedical Engineering Education, 2024
Clinical immersion experiences provide engineering students with opportunities to identify unmet user needs and to interact with clinical professionals. These experiences have become common features of undergraduate biomedical engineering curricula, with many published examples in the literature. There are, however, few or no published studies…
Descriptors: Biomedicine, Engineering, Science Education, Reflection