Ice Hockey

Move · High-Intensity · Movement, Typed Supps

A skating stride pushes sideways rather than backwards, which is why hockey players' groins take a beating that runners' never do.

Stage by stage

Each stride (Frontal-plane push-off): The gliding blade forces lateral rather than backward propulsion, loading adductors and hip abductors.
During the shift (Anaerobic supply dominates): Phosphocreatine and glycolysis cover a 30 to 45 second shift at close to maximal heart rate.
On the bench (Aerobic recovery decides): Phosphocreatine resynthesis is oxidative, so aerobic fitness determines how much output survives to the third period.
Across a season (Adductor strain risk): Eccentric deceleration of the recovering leg makes adductor-to-abductor strength ratio a repeated risk factor.

Muscles trained

Primary: quads, glutes, adductors
Secondary: calves, heart, lungs

Intensity

8 METs (Hockey, ice, general).

Time to effect

Weeks: Skating stride power, edge control, and puck-handling under fatigue improve within the first few weeks of regular ice time.
Months: Repeated-shift conditioning — the ability to hit near-maximal output shift after shift with only a couple of minutes of bench rest — builds over months, alongside greater groin and adductor strength that helps protect against strains.

Related supplements

Common myth

Hockey is not that demanding physically because shifts only last 30 to 45 seconds. In reality: Those short shifts are run at close to maximal heart rate and effort, drawing heavily on anaerobic energy systems; the brevity is a consequence of intensity, not a sign of an easy workout, and a full game still adds up to a serious aerobic and anaerobic load.