
Explore what biomedical engineering is and how it contributes to humanity, from medicine to mechanical engineering and computer science, highlighting multidisciplinary trends and career pathways.
Explore how biomedical engineering merges biology, medicine, and engineering to create devices, imaging, biomaterials, and software. Compare biotech and biomedical engineering, and examine careers, regulation, and industry trends.
Explore how biomedical engineering products extend beyond hospitals to consumers, highlighting the finger pulse oximeter and wristwear such as Apple and Samsung watches that monitor blood oxygen levels.
Explore biomedical imaging modalities from X-rays and CT to ultrasound, MRI, PET, SPECT, endoscopy, and OCT, and learn how they support diagnostic and therapeutic imaging across scales.
Explore MRI fundamentals, including proton alignment, energy release, and tissue contrast, and compare MRI with CT, PET, SPECT, endoscopy, and OCT in biomedical imaging.
Explore biomechanical engineering, a subfield of mechanical engineering that applies physics and math to the human body, with core areas in biomechanics, biomaterials, medical robots, and rehabilitation.
Examine biomechanical medical applications and medical robots, from general robotics to robotic and surgical systems, highlighting components, programming, sensing, and the da Vinci system for minimally invasive surgery.
Explore medical robots across surgical and procedural types, including the Vicarious Surgical System. Review features like single-incision access, articulating wrists, virtual reality visualization, and the Monarch bronchoscopy platform.
Explore implantable medical devices and medical equipment through biomechanical engineering, highlighting pacemakers, stents, and implants, while examining corrosion, robustness, waterproofing, and bedside imaging guidance.
Explore biomechanics in sports, rehabilitation, and physiological simulation to explain human movement, assess performance, and guide device design using advanced motion capture, gait analysis, and computer simulation.
Explore how artificial intelligence enables data mining, automation, and personalized care in biomedical engineering, applying AI to biomedical imaging, drug discovery, and healthcare data.
Data mining in healthcare uses AI to extract patterns from EHRs, imaging, genomics, and claims to improve care and predict AKI early with ML, including CGM for diabetes.
Explore how AI and machine learning accelerate drug discovery by analyzing molecular databases, predicting protein interactions, and prioritizing candidates, with Standigm BEST and Genimpas from Genome Biologics.
Welcome to the overview of biomedical engineering!
For more than 15 years, I have been working in the biomedical engineering field, in both academia and industry. A few years ago, I had the opportunity to teach different groups of people about biomedical engineering. I realized that many Youtube and other Udemy courses are dealing with individual subjects in biomedical engineering, but it was not easy to find some topics which cover in macro view, especially with career perspectives. So I decided to present it by myself.
Biomedical engineering (BME) includes a wide variety of topics, so it is difficult for even biomedical majors to understand how things work outside of their field. Also, BME itself is changing very quickly. This course is designed for those who want to choose a major or are curious about what BME does.
This is a lecture to show a forest rather than a small tree. Therefore, it did not include detailed mathematics, formulas, coding, or physics laws, but focused more on what it can do, why it is needed, and how it can contribute to humanity. It also shows the comparison with other adjacent disciplines (for example, biotechnology), multi-disciplinary characteristics (medicine, mechanical engineering, computer science, physics, computer engineering, material engineering, and so on), and recent industry trends.
The actual results of BME are, of course, used a lot in hospitals, clinics, and laboratories, but you will find that there are so many items that are often used in daily life. Through this lecture, you will know that the beneficiaries of BME are not only doctors and patients, but also the general public.
This course will help you learn biomedical engineering, guide your future studies, and even help you decide whether or not to choose this major.
Note: All images & videos in this course are copyrights-checked.