1 Preliminaries
- 1.1 Preface
2 Syllabus
3 Introduction
- 3.1 Course Introduction
- 3.2 Conceptual Overview of Orthopaedic Biomechanics
  - 3.2.1 The human body as a machine
4 Musculoskeletal Anatomy
5 Basic biomechanics
6 Link dynamic models
7 Mechanical Descriptions of Tissue
8 Cartilage biomechanics
9 Ligaments and tendon mechanics (Bartel Chapter 4)
10 Muscle mechanics
- 10.0.1
- 10.1 Meniscus
11 Arthroplasty
12 Tendon and Ligament: Anatomy, Function and Mechanics
- 12.1
13 Tendon and Ligament Mechanics (Jastifer)
- 13.1
- 13.2
- 13.3
- 13.4
- 13.5
- 13.6
- 13.7
- 13.8
- 13.9
- 13.10
- 13.11
- 13.12
- 13.13
14 Muscle Mechanics (Jastifer)
15 Structural Analysis
16 Beam Bending
17 Torsion of solid shafts
18 Finite elements
19 Bartel Chapter 7 Bone Implant Systems
20 Bartel Chapter 8 Fracture Fixation Devices materials were covered by Drs. Jaster and Geeslin
- 20.1
- 20.2
21 Bartel Chapter 9 Total Hip Replacement
- 21.1
- 21.2
- 21.3
- 21.4
22 Bartel Chapter 10: Total Knee Replacement
23 Bartel Chapter 11: Articulating Surfaces
24 Primer on Statistics
25 Probability Distributions
26 The Foundations of Statistic Analysis
27 Examples of power analysis calculations using R
28 Sizing based on initial data – look a ficticious data
29 Sample survivorships study
- 29.1 Number of mortalities requiring suspension and likelihood of case 1 (mortalities were random at suspension) and case 2 (mortalities were random at minimum survivorship) given the assumed survivorship.
30 Appendix
31 OpenStax slides
32 OpenStax chapter 8 images: Joints
33 Miscellaneous
- 33.1 Differential equations of static equilibrium
  - 33.1.1 Axial static equilbrium

ME5200 - Orthopaedic Biomechanics

28.12

tmp <- ggplot(df,aes(x=Type,y=Strength)) + 
    geom_boxplot() +
    xlab("Type") +
    ylab("Strength (N") +
    theme_grey()