Biomedical Engineering roadmap
Medical instrumentation, imaging, biomaterials and healthcare AI.
Start with Foundations of Biomedical Engineering, follow the steps in order, then build a project, prepare for interviews and earn your certificate.
Foundations
- Foundations of Biomedical Engineering — The body as an engineering system. What biomedical engineers do, human physiology in quantitative terms — heart, lungs, kidneys, nerves and homeostasis — and the bioelectricity that underlies every heartbeat and thought.
- Biomechanics & Biofluids — Forces in bones and joints, flow in vessels. Stress, strain and elasticity, joint and muscle forces, tissue viscoelasticity and gait, pipe flow, and blood-flow mechanics behind stents, valves and heart pumps.
Core skills
- Bioinstrumentation & Medical Devices — Measuring and supporting the body. Op-amps, signal conditioning and digital filters, biosignal acquisition and processing for ECG, EEG and EMG, and how monitors, pacemakers, defibrillators, infusion pumps and biosensors work.
- Medical Imaging — Seeing inside the body. The Fourier foundations of imaging, X-ray and CT with radiation safety, MRI, ultrasound and nuclear medicine — how each modality forms an image and what it reveals.
Advanced
- Biomaterials & Regenerative Medicine — Implants, scaffolds and engineered tissues. Biocompatibility and implant materials, stress shielding, degradation and wear, and tissue engineering with cells, scaffolds, bioreactors and organoids.
- Drug Delivery & Healthcare Data — Pharmacokinetics, statistics and medical AI. First-order ODEs and pharmacokinetic models for dosing and controlled release, probability and Bayes for diagnostics, and machine learning evaluated the way clinicians need.
- Regulation, Safety & Quality — From prototype to approved device. Measurement uncertainty and calibration for verification, and medical-device regulation, risk management, software and usability standards, and IEC 60601 electrical safety.