Publication Date
In 2025 | 3 |
Since 2024 | 8 |
Since 2021 (last 5 years) | 13 |
Since 2016 (last 10 years) | 13 |
Since 2006 (last 20 years) | 13 |
Descriptor
Active Learning | 13 |
Engineering Education | 9 |
Biomedicine | 8 |
Student Projects | 6 |
Teaching Methods | 6 |
Undergraduate Students | 5 |
Biology | 3 |
COVID-19 | 3 |
Graduate Students | 3 |
Inquiry | 3 |
Interdisciplinary Approach | 3 |
More ▼ |
Source
Biomedical Engineering… | 13 |
Author
Christopher J. Panebianco | 2 |
A. Huang-Saad | 1 |
Ademola Dare | 1 |
Alain B. Bomgni | 1 |
Amy L. Lerner | 1 |
Andrea J. Vernengo | 1 |
Angela Huang | 1 |
Ann Saterbak | 1 |
Annie L. Jeong | 1 |
Ashley Taylor | 1 |
Carol Lushbough | 1 |
More ▼ |
Publication Type
Journal Articles | 13 |
Reports - Research | 8 |
Reports - Descriptive | 5 |
Tests/Questionnaires | 2 |
Education Level
Higher Education | 11 |
Postsecondary Education | 11 |
Audience
Location
Nigeria | 1 |
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
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
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
Jessica L. S. Zylla; Alain B. Bomgni; Rajesh K. Sani; Mahadevan Subramaniam; Carol Lushbough; Robb Winter; Venkataramana R. Gadhamshetty; Parvathi Chundi; Etienne Z. Gnimpieba – Biomedical Engineering Education, 2024
Historically, research disciplines have successfully operated independently. However, the emergence of transdisciplinary research has led to convergence methodologies, resulting in groundbreaking discoveries. Despite the benefits, graduate programs face challenges in implementing transdisciplinary research and preparing students for real-world…
Descriptors: Research Methodology, Interdisciplinary Approach, Active Learning, Student Projects
Elizabeth A. Bullard; Christina R. Dubell; Charles W. Patrick; Frances S. Ligler; Michael J. McShane – Biomedical Engineering Education, 2024
Biomedical engineering (BME) spans a wide range of research fields and professional activities. Most BME departments use a seminar series to introduce graduate students to exciting research conducted outside their own university, learn about professional opportunities, and enhance their understanding of related topics (e.g., ethics in BME,…
Descriptors: Learner Engagement, Graduate Students, Seminars, Scaffolding (Teaching Technique)
Christopher J. Panebianco; Poorna Dutta; Jillian R. Frost; Angela Huang; Olivia S. Kim; James C. Iatridis; Andrea J. Vernengo; Jennifer R. Weiser – Biomedical Engineering Education, 2023
Bioadhesives are an important class of biomaterials for wound healing, hemostasis, and tissue repair. To develop the next generation of bioadhesives, there is a societal need to teach trainees about their design, engineering, and testing. This study designed, implemented, and evaluated a hands-on, inquiry-based learning (IBL) module to teach…
Descriptors: Active Learning, Inquiry, Human Body, Biomedicine
Joan E. Adamo; Erin L. Keegan; John W. Boger; Amy L. Lerner – Biomedical Engineering Education, 2024
Successful translation of medical devices requires a clear pathway through the business environment, including regulatory obligations and the protection of intellectual property. Introducing these topics can be challenging for biomedical engineering programs, as students prefer hands-on activities and retain concepts best when directly applied to…
Descriptors: Biomedicine, Engineering Education, Equipment, Medical Services
Sally F. Shady – Biomedical Engineering Education, 2025
Challenge: As biomedical engineers revolutionize medicine, biomedical engineering programs must adapt to the diverse learning styles of the current student population. Students are learning in new ways and instructional strategies need to be adopted. Novel Initiative: Understanding generational attributes is crucial for developing effective…
Descriptors: Undergraduate Students, Biomechanics, Science Instruction, Problem Based Learning
Padraic Casserly; Ademola Dare; Joy Onuh; Williams Baah; Ashley Taylor – Biomedical Engineering Education, 2024
Amidst the dual challenges of an eight-month university closure from nationwide public university strikes in Nigeria and the lingering impacts of the COVID-19 pandemic, we needed to innovate the delivery of BME graduate curriculum to ensure graduate students continued to progress in their studies. To ensure BME graduate students were engaging in…
Descriptors: Biomedicine, Engineering Education, Video Technology, Lecture Method
Christopher J. Panebianco; Madhura P. Nijsure; Erin E. Berlew; Annie L. Jeong; Joel D. Boerckel – Biomedical Engineering Education, 2024
Mechanobiology is an interdisciplinary field that aims to understand how physical forces impact biological systems. Enhancing our knowledge of mechanobiology has become increasingly important for understanding human disease and developing novel therapeutics. There is a societal need to teach diverse students principles of mechanobiology so that we…
Descriptors: Learning Modules, Active Learning, Inquiry, Interdisciplinary Approach
R. Rosario; T. S. Hopper; A. Huang-Saad – Biomedical Engineering Education, 2022
There are increasing calls for the use of research-based teaching strategies to improve engagement and learning in engineering. In this innovation paper, we detail the application of research-based teaching strategies in a computer programming focused biomedical engineering module. This four-week, one-credit undergraduate biomedical engineering…
Descriptors: Undergraduate Students, Biomedicine, Engineering Education, Programming
E. K. Bucholz – Biomedical Engineering Education, 2021
In the spring of 2020, brick and mortar colleges had to abruptly adapt to the reality of COVID-19 and transition to entirely online environments in a manner of weeks. This required a rapid (< 2 weeks) acquisition of knowledge and flexibility in using technology, most commonly Zoom. Upon completion of the semester, and after debriefing with…
Descriptors: Online Courses, Educational Environment, Biomedicine, Engineering Education
James Long; Evan Dragich; Ann Saterbak – Biomedical Engineering Education, 2022
Recent advances in teaching, many of which incorporate elements of active learning, seek to provide students with learning experiences indicative of real-world problem solving. Problem-based learning (PBL) is one form of active learning that challenges students to address open-ended problems. In this work, we evaluate the efficacy of PBL in…
Descriptors: Problem Based Learning, Self Esteem, Undergraduate Students, Biomedicine
Eileen Haase – Biomedical Engineering Education, 2021
Team projects and in-class interactions are the hallmark of a freshmen introductory course in biomedical engineering (BME). Our challenge was to continue team activities, mentoring, and the semester-long design project in a virtual environment after in-person classes ended due to the COVID-19 pandemic. This paper highlights some of the adaptations…
Descriptors: Teamwork, College Freshmen, Biomedicine, Engineering Education