
1.1 Definition and Scope
1.2 History and Evolution of Biomedical Engineering
1.3 Key Disciplines within Biomedical Engineering
1.4 Current Trends and Future Directions
2.1 Overview of Human Body Systems
2.2 Cellular and Molecular Biology Basics
2.3 Key Organs and Their Functions
2.4 Physiological Processes and Homeostasis
3.1 Types of Biomaterials
3.2 Properties and Characterization of Biomaterials
3.3 Biocompatibility and Toxicity
3.4 Applications in Implants and Prosthetics
4.1 Principles of Imaging Modalities
4.2 Image Processing and Analysis
4.3 Diagnostic Applications
4.4 Emerging Technologies in Imaging
5.1 Basics of Biomechanics
5.2 Mechanics of Biological Tissues
5.3 Motion Analysis and Kinematics
5.4 Applications in Orthopedics and Rehabilitation
6.1 Principles of Bioinstrumentation
6.2 Sensors and Transducers
6.3 Signal Processing and Data Acquisition
6.4 Clinical and Research Applications
7.1 Introduction to Biomedical Signals
7.2 Signal Acquisition and Sampling
7.3 Filtering and Noise Reduction
7.4 Feature Extraction and Analysis
8.1 Fundamentals of Biotechnology
8.2 Genetic Engineering and CRISPR
8.3 Bioinformatics Tools and Techniques
8.4 Applications in Personalized Medicine
9.1 Ethical Principles in Biomedical Engineering
9.2 Regulatory Bodies and Standards
9.3 Clinical Trials and Human Subjects Research
9.4 Intellectual Property and Patents
10.1 Principles of Tissue Engineering
10.2 Stem Cells and Regenerative Medicine
10.3 Scaffolds and Bioreactors
10.4 Applications and Challenges
11.1 Design and Development of Medical Devices
11.2 Wearable Health Technologies
11.3 Telemedicine and Remote Monitoring
11.4 Case Studies of Notable Medical Devices
12.1 Basics of Computational Modeling
12.2 Modeling Biological Systems
12.3 Simulation and Visualization Techniques
12.4 Applications in Drug Development and Disease Modeling
In the course "Basics of Biomedical Engineering," you will embark on a journey at the intersection of biology and engineering. This introductory course is designed to familiarize you with the fundamental principles and applications shaping modern healthcare technology.
You will start by exploring the diverse disciplines within biomedical engineering, from biomaterials and imaging technologies to biomechanics and bioinstrumentation. Discover how these fields contribute to developing medical devices, prosthetics, and innovative treatment solutions.
Gain a deeper understanding of human anatomy and physiology, focusing on how engineering principles are applied to study and enhance bodily functions and health outcomes. Dive into the world of biomaterials, learning about metals, polymers, ceramics, and composites used in implants and medical devices, and explore their properties and biocompatibility.
Delve into biomedical imaging techniques such as X-ray, MRI, CT scans, and ultrasound, understanding their principles, diagnostic applications, and emerging technologies. Learn how signal processing techniques analyze biological data from devices like electrocardiograms (ECGs) and electromyograms (EMGs), aiding in clinical diagnostics and research.
Throughout the course, you will discover the ethical considerations, regulatory standards, and intellectual property issues essential to biomedical engineering practice. By the end, you will have a foundational knowledge base, empowering you to appreciate the impact of biomedical engineering on healthcare advancements and inspiring further exploration in this dynamic field.