Ultimate Biomaterials Course For Biomedical Engineers

Master biomaterials Fundamentals: In-Depth Learning of tissue engineering, metals, polymers, ceramics, and composites

What you'll learn

Understand the structure, properties, and classifications of biomaterials used in medicine.

Analyze biocompatibility and how materials interact with living tissues.

Compare metals, polymers, ceramics, and composites for biomedical applications.

Evaluate real case studies of implant success and failure.

Understand mechanical behavior: stress, strain, fatigue, and failure modes.

Explore tissue engineering, biodegradation, and regenerative medicine strategies.

Apply material science concepts to medical devices like stents, valves, and prostheses.

Learn how FDA regulations impact biomaterials design and approval.

Identify surface modifications to improve osseointegration and hemocompatibility.

Explain polymerization mechanisms and their impact on medical polymer properties.

Requirements

Some Chemistry would be useful, but not necessary.

Description

Learn everything you need to know about biomaterials — from molecular foundations to real-world medical devices. Whether you're a student, engineer, or healthcare professional, this comprehensive biomaterials course will give you the skills and knowledge to understand, evaluate, and apply biomaterials in medicine and biotechnology.In this course, you will explore every major category of biomaterials — metals, polymers, ceramics, composites, and biodegradable materials — with special focus on biocompatibility, mechanical behavior, surface properties, degradation, and clinical applications.You’ll also cover the biological side: human tissues, immune responses, and how implants integrate (or fail) in the body. Through engaging real-world case studies and failure analyses (like metal-on-metal hips or Teflon-coated implants), you'll see why material choice truly matters.Here's how the course is structured:Core principles: Materials science basics, solid state, and stress-strain behaviorMaterial-specific modules: Metals, polymers, ceramics, composites — structure, processing, applicationsBiological interaction: Tissue types, immune responses, biofilms, osseointegrationClinical applications: Heart valves, stents, prostheses, tissue engineering, 3D printingRegulatory insights: FDA pathways, material selection standards, safety concernsDesigned for beginners, this course combines theory, clinical relevance, and biomedical engineering insight.Enroll now to confidently master the science and applications of biomaterials — and bring your work or studies to the next level in biomedical innovation. See you in the course!

Overview

Section 1: Introduction to Biomaterials

Lecture 1 Introduction: Why Study Biomaterials?

Lecture 2 How the Body Reacts to Foreign Materials

Lecture 3 Real Case — Orthopedic Screws & Osteogenesis

Lecture 4 Real Case — How a Well-Designed Hip Prosthesis Works

Lecture 5 Failed Hip Prosthesis — When Materials Are Mismatched

Lecture 6 Material Failure & Infection Risk in Implants

Lecture 7 Patient-Specific Prostheses — The Custom Approach

Section 2: Regenerative Medicine & Tissue Engineering

Lecture 8 Tissue Engineering 101

Lecture 9 How Tissue Engineering Works — Step by Step

Lecture 10 Real Cases in Tissue Engineering

Lecture 11 Regenerative Medicine in Practice — Cartilage Repair

Section 3: Foundations of Biomaterials

Lecture 12 What Is a Material — and What Makes It a Biomaterial

Lecture 13 Biocompatibility

Lecture 14 How the Body Responds — and How Smart Biomaterials Work

Lecture 15 How We Classify Biomaterials

Lecture 16 Wear & Degradation in Biomedical Devices

Lecture 17 Bacterial Growth & Biofilms

Lecture 18 Aseptic Loosening

Lecture 19 Stress Shielding

Lecture 20 Controlled Drug Release Implants

Section 4: Solid Structures — The Big Picture

Lecture 21 States of Matter & The Solid State

Lecture 22 Types of Solids — Amorphous, Crystalline, Semi-crystalline

Lecture 23 Isotropy vs. Anisotropy

Lecture 24 Monocrystals & Polycrystals

Lecture 25 Unit Cells & Bravais Lattices

Lecture 26 Atomic Packing & Coordination

Lecture 27 Close-Packed Structures — FCC & HCP

Lecture 28 Ionic Solids — Structure & Properties

Lecture 29 Covalent, Molecular & Metallic Solids

Lecture 30 Layered & Chain Solids — Special Cases

Lecture 31 Real vs. Ideal Crystals — Why Defects Matter

Lecture 32 Point, Line & Surface Defects

Lecture 33 Defects & Mechanical Behavior

Lecture 34 Stress-Strain Behavior

Lecture 35 Stress-Strain Curve — Reading & Using It

Lecture 36 Fracture Modes — Tough vs. Fragile

Section 5: Relevant Human Tissues in Biomaterials

Lecture 37 The Extracellular Matrix — Nature’s Scaffold

Lecture 38 Collagen — The Body’s Structural Backbone

Lecture 39 Elastin — Flexibility and Energy Return

Lecture 40 Load-Bearing Tissues — Bone & Cartilage

Lecture 41 Special Tissues — Blood, Soft Tissues & Inflammation

Section 6: Stress Shielding in Hip Prostheses — Concepts & Design

Lecture 42 The Hip Joint — Function, Pathologies & Replacement

Lecture 43 What Is Stress Shielding_ — Bone Remodeling & Load Sharing

Lecture 44 How Implant Design Affects Stress Shielding

Lecture 45 Design Solutions to Minimize Stress Shielding

Biomedical engineering students looking to strengthen their foundation or prepare for advanced coursework.,Materials science and mechanical engineering students interested in applying their knowledge to medical and healthcare technologies.,Healthcare professionals, such as dentists, surgeons, or physiotherapists, seeking to understand the science behind implants, prosthetics, and tissue repair.,Medtech professionals and startup founders who want a reliable, structured overview of biomaterials for product development.,Anyone curious about how artificial joints, heart valves, sutures, or tissue scaffolds are made — and what makes them safe and effective.