The myth: carbon content is a quality score. Higher percentage, better stick. A 90% carbon stick is a good stick and a 20% carbon stick is a cheap one, and the only reason to buy the cheap one is money.
The reality: hockey stick carbon content is a setting, not a grade. It tells you how stiff the stick is and how it behaves when the ball hits it. Turning that number up makes a stick harder in every sense — harder hitting, harder on your hands, harder to play well. For a large share of players, particularly juniors, dialling it down produces better hockey.
What the carbon is actually doing
A modern field hockey stick is a composite: layers of carbon fibre, fibreglass and often aramid, laid up around a core and set in resin. Carbon fibre is extremely stiff for its weight. The more of it there is, and the more of it that runs along the length of the shaft, the less the stick flexes.
Stiffness matters because of what happens at contact. A stiff stick barely deforms, so more of the energy you put into the swing arrives at the ball. That is real power, and at the top end it is why elite hitting and slap passing looks the way it does. But energy travels in both directions. The same stiffness that fires the ball off the face also sends the ball's energy straight back up the shaft into your palms and wrists.
A softer stick with less carbon does the opposite. It flexes a fraction on contact, loses a little power, and swallows a great deal of vibration. It is more forgiving on a mis-trap, quieter through the hands, and considerably more pleasant to play a full match with when your technique is still being built.
The other materials in the mix
- Fibreglass. The main partner to carbon. It is softer and more elastic, so a fibreglass-heavy layup absorbs shock and tolerates awkward contact. It also holds up well to the scuffing that any stick takes on a wet turf.
- Aramid. Usually present in small amounts and mostly there to damp vibration and add toughness. A stick can be very stiff and still be relatively civilised through the hands if the layup is sensible.
- The core and resin. Rarely advertised and genuinely influential. Two sticks quoting the same carbon percentage can feel different because of what sits underneath the fibre and how it has been bonded.
This is the first reason to stop treating the percentage as a league table: it describes one ingredient, not the recipe.
Reality: who a high-carbon stick genuinely suits
Sticks in the high-carbon bracket suit a fairly specific player. They are adults or strong senior juniors with technique that already holds up under pressure. They trap cleanly most of the time. They want more on the drive, more on the slap, and more zip on a drag flick. They are willing to accept a stick that punishes every mis-hit with a jolt through the hands, because the mis-hits are rare.
If that is you, the stiffness is doing something useful and you will feel it in the first ten minutes.
Reality: who it makes worse
Give the same stick to a developing player and it works against them. The ball bounces further off the face on a first touch, so receiving becomes messier just as they are learning to receive. Every mistrap stings, and stinging hands make players tentative — they start reaching for the ball rather than getting their body behind it. Cold weather makes the whole effect sharper. None of this is a complaint about the stick; it is simply the wrong setting for that player.
There is also a durability point that gets overlooked. Very stiff sticks are not more indestructible than softer ones. Hockey sticks fail at the edges and the toe, and a hard fibre-rich stick chips and cracks perfectly well when it is repeatedly jammed into a turf at a bad angle, which is exactly what young players do.
The junior question, answered straight
A junior does not need a 90% carbon stick. Buying one usually makes them a worse player and their hands sorer, and it costs several times what a suitable stick costs.
What a junior does need is the correct length, a weight they can swing repeatedly without their technique falling apart in the last quarter, and enough forgiveness that a bad trap does not hurt. That combination sits at the fibreglass-heavy, low-carbon end of the stick range, and it is not a compromise — it is the right tool. Move up the carbon scale when their skills, not their birthday, make the extra stiffness useful. In practice that is usually somewhere in the mid-teens, and often later.
Parents ask us whether the cheaper stick will hold them back at trials. It will not. Coaches watch first touch and body position. Neither improves because of a number printed on a shaft.
How to choose without reading the percentage first
Work in this order and the carbon figure becomes the last question rather than the first.
- Length. Sized to the player's height. Nothing else matters until this is right.
- Weight and balance. Can they swing it cleanly at the end of a match, not the start of one?
- Bow shape. Match it to how they actually play rather than to what the internationals use.
- Then carbon. More for a strong, technically sound striker of the ball. Less for anyone still building the basics, and less again for anyone with wrist or elbow trouble.
If you are somewhere in the middle — competent club player, want a bit more on your hitting but no interest in a stick that rings your hands on a cold Saturday — a mid-carbon composite is the sensible middle ground, and it is where a large share of adult club hockey is genuinely best served.
Come and hold a few. Two minutes of tapping a ball tells you more than an hour of comparing specifications, and while you are in the hockey section it is worth picking up a decent grip at the same time, because a fresh grip changes how much shock reaches your hands more than most people expect. Grips, bags and protective bits sit with the hockey accessories.