CLINICAL APPROACH
How I
Work
A systems-based approach to musculoskeletal medicine
Musculoskeletal problems do not exist in isolation. A tendon does not simply become inflamed without context. A joint does not degenerate without reason. My clinical approach begins with understanding the biological environment in which a problem has developed — and designing treatment around that, not just the structure that happens to be painful.
THE SYSTEMS VIEW
Starting with the
whole picture
Before considering any intervention, I want to understand: What is the metabolic environment? Is there chronic inflammation driving tissue breakdown? Is the hormonal backdrop — testosterone, oestrogen, cortisol, thyroid — working against recovery? Is nutrition adequate? Is sleep restorative? Is load management appropriate for the person’s biology, not just their training programme?
Metabolic and inflammatory environment
Hormonal backdrop and cellular health
Nutrition, recovery and restorative sleep
Load management for the individual’s biology
These are not peripheral questions. They are the questions that determine whether an injection works, whether a rehabilitation programme sticks, and whether the problem comes back in six months.
THE FACTORS I CONSIDER
Six clinical
lenses
01
Metabolism and Inflammation
Chronic low-grade inflammation is one of the most significant drivers of tendon degeneration, poor tissue healing, and treatment resistance. Understanding metabolic health — insulin sensitivity, body composition, inflammatory markers — shapes every clinical decision.
03
Nutrition and Body Composition
Tissue repair requires the right building blocks. Protein sufficiency, micronutrient status, and overall energy availability all influence how well a body responds to treatment. This is not nutrition coaching — it is recognising that deficiencies impair clinical outcomes.
05
Biomechanics and Load Management
Understanding how load is distributed across a joint or tendon — and how movement patterns, training volume, and sport-specific demands have contributed to a problem — is essential to designing rehabilitation that lasts.
Metabolism · Hormones · Nutrition · Sleep · Biomechanics · Ageing
02
Hormones and Cellular Health
Testosterone, oestrogen, thyroid function, and cortisol all directly influence muscle mass, tendon structure, bone density, and recovery capacity. A person’s hormonal environment is part of their musculoskeletal environment.
04
Sleep and Recovery
The majority of tissue repair occurs during sleep. Chronically poor sleep suppresses growth hormone, elevates cortisol, and impairs the cellular processes that underpin musculoskeletal recovery. Sleep quality is a clinical variable, not a lifestyle preference.
06
The Hallmarks of Ageing
Sarcopenia, tendon degeneration, cartilage loss, and poor recovery are not inevitable. They are downstream consequences of ageing biology that can be modified. Understanding where a patient sits in this spectrum shapes both the urgency and the direction of treatment.
THE TREATMENT APPROACH
Where intervention fits
Once the biological picture is clear, I consider what interventions are appropriate and in what order.
Orthobiologics such as PRP, hyaluronic acid, BMAC and Arthrosamid are powerful tools.
But they work best when the biological environment is prepared, the rehabilitation programme is appropriate, and the patient understands the role each element plays in recovery.
I am also direct about the limits of what an injection can achieve.
Not every problem benefits from an injection.
Not every patient is a candidate for orthobiologics.
Sometimes the most useful thing I can do in a consultation is clarify what is driving a problem and redesign a rehabilitation plan.
