Omniathlete

One of the most important reframes a strength and conditioning coach can make is to stop thinking of plyometrics as a goal and start thinking of them as a tool. Plyometrics are a method — a highly effective one — but the outcome must come first. Before selecting any training modality, the question to answer is: what physiological objective are we pursuing right now, within this block of the periodized program?

What is readiness, and from which observations is it actually inferred, given that a single autonomic signal does not provide it? The answer is less convenient than a single number, but it is more consistent with how the organism behaves. Readiness is best treated as a property of the whole system, estimated from several converging sources rather than read directly from one indicator.

Recovery has become one of the most important aspects of modern athletic performance. Elite athletes, collegiate programs, sports medicine professionals, and active individuals all recognize that how you recover between training sessions can be just as important as how you train.

Recovery, like loading, should be a deliberate process with physiological targets. And the most important place to start is not the muscle. It is the brain. The brain consumes over 20% of the body's total energy at any given moment. Roughly 50% of that is dedicated to oculomotor function and visual processing. These are not abstract statistics — they carry direct implications for how we think about fatigue, fuel delivery, and the recovery strategies we apply.

The anterior cruciate ligament rupture is one of the most studied injuries in sports medicine. The volume of research produced on ACL rehabilitation, surgical outcomes, and return-to-sport criteria over the past three decades is extraordinary. And yet, ACL re-injury rates remain stubbornly high. This article argues that ACL return to sport is not primarily a structural problem. It is a systems problem.

After nearly four decades working at the highest levels of track and field and professional sport, one misunderstanding stands out as the most damaging and pervasive in high-performance coaching: the conflation of strength and power. These are not the same quality. They do not respond to the same training. And if you confuse them in prescription, you will systematically fail to develop the athletic attribute that determines performance in virtually every dynamic sport.

Coaching change of direction is not primarily a biomechanics problem. It is a human problem. Before any technical model can be successfully delivered, a practitioner must first establish the conditions under which an athlete will actually want to change, engage, and take ownership of the process.

Heart rate variability (HRV) has become a widely adopted tool in sport science and athlete monitoring, often interpreted as a straightforward indicator of recovery status. In many applied settings, higher HRV values are assumed to reflect better recovery, greater readiness, and a more favourable autonomic state. Conversely, lower HRV values are frequently interpreted as signs of fatigue, stress, or insufficient recovery.

In athlete monitoring, a blood biomarker is frequently evaluated the same way it is in a clinic: a single value compared against a population reference range and pronounced "normal" or "abnormal". Ferritin sits within range, testosterone is adequate, vitamin D is sufficient — and the panel is filed as reassurance. Yet this approach answers a narrow question.

For more than 120 years, over-the-counter orthotics have been built around a single idea: control excessive pronation by propping up the medial longitudinal arch. The reasoning seemed obvious — if a collapsing arch drives the foot into pronation, then supporting that arch should stop it. The problem is that recent research has quietly dismantled this assumption.

Understanding the dominant mechanical stresses experienced by rugby players can help practitioners make more informed decisions when planning strength training. By considering not only how much work athletes perform, but also the type of stress they repeatedly encounter, practitioners may be better positioned to develop targeted and context-specific strength training interventions.

Speed is one of the most coveted qualities in sport. It is pursued obsessively, dissected in slow motion, and marketed through countless training systems that promise to unlock it. Yet for all the attention it receives, speed training remains one of the most misunderstood domains in strength and conditioning.