Introduction

Biomechanics and biomedical engineering are dynamic fields that combine principles of biology, mechanics, and engineering to improve human health and performance. In biomechanics, the focus is on understanding the mechanical principles governing the human body, while biomedical engineering applies these insights to design medical devices, prosthetics, and rehabilitation technologies. This course provides a comprehensive understanding of how biomechanics and biomedical engineering intersect to address real-world health challenges, with a particular focus on musculoskeletal, cardiovascular, and neurological systems.

Participants will gain knowledge in both theoretical and practical aspects of biomechanics, including human movement analysis, rehabilitation engineering, and medical device design. Additionally, the course will explore emerging technologies such as wearable sensors, 3D printing in healthcare, and robot-assisted surgeries.

Objectives

By the end of the course, participants will be able to:

1. Understand the key principles of biomechanics and their application to human motion and performance.
2. Analyze the forces and motions involved in human movement, including gait analysis and musculoskeletal modeling.
3. Explore the design and development of medical devices, implants, and prosthetics.
4. Gain insights into rehabilitation engineering, including assistive technologies and therapy devices.
5. Study the biomechanics of injury and the role of biomechanics in injury prevention and recovery.
6. Understand the integration of biomedical engineering with modern technologies like biomechanical simulations, robotics, and wearable health devices.
7. Learn about the latest trends in biomedical engineering, including 3D printed implants, bionic limbs, and neural interfaces.
8. Apply simulation tools and modeling techniques to analyze and design biomechanical systems.

Who Should Attend?

This course is designed for:

• Biomedical Engineers interested in deepening their knowledge of biomechanics and medical device design.
• Mechanical Engineers and Systems Engineers working on biomechanical simulations and wearable health technology.
• Physical Therapists and Rehabilitation Engineers involved in designing therapeutic equipment and devices.
• Design Engineers and Product Developers focused on prosthetics, implants, and assistive technologies.
• Researchers in biomechanics, tissue engineering, and rehabilitation science.
• Medical Professionals, including physicians, surgeons, and orthopedists, interested in understanding biomechanics to improve patient care and rehabilitation.
• Students and Graduates pursuing careers in biomechanics, biomedical engineering, or related fields.
• Athletic Trainers and Sports Scientists looking to apply biomechanics principles to enhance performance and reduce injury risk.

Course Outline

Day 1: Introduction to Biomechanics and Biomedical Engineering

• Morning Session:

  1. Overview of Biomechanics and Biomedical Engineering: Key Disciplines and Their Interactions
  2. Human Body as a Mechanical System: Anatomy, Joints, and Muscle Function
  3. Basic Principles of Mechanics: Force, Motion, Work, and Energy in Biomechanics
  4. Types of Biomechanical Forces: Kinetic, Kinematic, and Internal Forces

• Afternoon Session:

  1. Gait Analysis: Understanding Human Movement from the Ground Up
  2. Joint Mechanics: Movement, Range of Motion, and Load Transmission
  3. Biomechanical Modeling: The Role of Mathematical Models in Human Movement
  4. Hands-On Exercise: Using Motion Capture Technology for Gait Analysis

Day 2: Musculoskeletal Biomechanics and Medical Devices

• Morning Session:

  1. The Biomechanics of the Musculoskeletal System: Bones, Muscles, Tendons, and Ligaments
  2. Forces Acting on the Human Body During Movement: Kinetic Chains and Energy Transfer
  3. Understanding Bone Mechanics: Stress, Strain, and Bone Remodeling
  4. Biomechanics of Injury: How Forces Contribute to Muscle and Joint Injuries

• Afternoon Session:

  1. Medical Devices in Biomechanics: Prosthetics, Orthotics, and Implants
  2. Design and Functionality of Prosthetics: Mechanical Design, Materials, and Fit
  3. Rehabilitation Devices: Exoskeletons, Mobility Aids, and Functional Electrical Stimulation (FES)
  4. Hands-On Exercise: Introduction to Prosthetic Design and CAD Software

Day 3: Rehabilitation Engineering and Assistive Technologies

• Morning Session:

  1. Rehabilitation Engineering Overview: Design and Development of Devices to Aid Recovery
  2. Assistive Technologies for Mobility: Wheelchairs, Powered Prosthetics, and Adaptive Devices
  3. Gait Rehabilitation: Technologies and Strategies for Improving Walking Patterns in Patients
  4. Neurorehabilitation: Devices and Methods for Restoring Neurological Function Post-Injury

• Afternoon Session:

  1. Wearable Health Technologies: Applications in Injury Prevention and Monitoring
  2. Biomechanical Feedback Systems in Rehabilitation: Smart Fabrics and Sensors
  3. Robotics in Rehabilitation: Robotic Exoskeletons and Therapy Robots for Stroke Patients
  4. Hands-On Exercise: Building and Testing a Basic Assistive Device Using Sensors

Day 4: Advanced Biomechanical Modeling and Simulations

• Morning Session:

  1. Advanced Biomechanical Modeling Techniques: Finite Element Analysis (FEA) and Multibody Dynamics (MBD)
  2. Computational Biomechanics: Simulation of Human Tissues, Joints, and Musculoskeletal Models
  3. Understanding Human Motion Using Simulation Software: From Simple Movements to Complex Activities
  4. Modeling Load Distribution and Stress in Implants, Prosthetics, and Medical Devices

• Afternoon Session:

  1. The Role of Virtual Reality (VR) and Augmented Reality (AR) in Biomechanics Research
  2. Integration of Data from Wearable Sensors: Real-Time Monitoring and Analysis
  3. Applications of Biomechanical Simulations in Sports Science and Injury Prevention
  4. Hands-On Exercise: Using Biomechanical Simulation Software to Model Joint Movement and Load Distribution

Day 5: Emerging Technologies in Biomechanics and Biomedical Engineering

• Morning Session:

  1. Bionic Limbs and Advanced Prosthetics: The Integration of Robotics and Human Physiology
  2. 3D Printing in Biomedical Engineering: Creating Custom Implants and Prosthetics
  3. Biomaterials: The Role of Biocompatible Materials in Medical Devices
  4. Neuroprosthetics: Advancements in Brain-Machine Interfaces and Neural Control of Prosthetics

• Afternoon Session:

  1. Wearable Devices for Monitoring Biomechanics: Smart Sensors, Fitness Trackers, and Posture Correction
  2. Future Trends in Biomechanics and Biomedical Engineering: AI, Machine Learning, and Personalized Healthcare
  3. Ethical Considerations in Biomedical Engineering: Data Privacy, Accessibility, and Patient Care
  4. Final Project: Designing a Biomechanical System or Medical Device for a Specific Rehabilitation Challenge

Certification

Upon successful completion of the course, participants will receive a Certificate of Completion in Biomechanics and Biomedical Engineering. This certification recognizes their comprehensive understanding of biomechanics principles, medical device design, rehabilitation engineering, and the latest technologies in the field.

Participants who demonstrate exceptional proficiency in hands-on exercises, assessments, and the final project will be awarded a Certification of Excellence in Biomechanics and Biomedical Engineering.