how can I learn how to use edgework in ice hockey when skating

Welcome! I would love to help you master your skate edges and build that effortless, fluid agility on the ice. Before we lace up our skates and dive into the mechanics of the blade, tell me a bit about where you are starting from.

How would you describe your current skating experience?

I play hockey regularly, but I struggle with transition play and tight control.

It makes total sense that transitions and tight turns are giving you trouble if your skate edges don't feel completely locked in yet. Transitioning at high speed is basically a high-wire act of shifting your weight from one tiny piece of steel to another.

Your path

Advanced Transitions and Agility

To build that rock-solid stability, we need to look closely at your . If you look at the bottom of a hockey skate, you'll see it isn't just a flat piece of metal. It actually has a hollow groove carved right down the middle, creating two distinct, razor-sharp edges.

Cross-section of a hockey skate blade tilted in a hard turn, showing the concave hollow and only the inside edge digging deep into the ice.

As you can see, you have an inside edge (the side closest to your big toe) and an outside edge (the side closest to your pinky toe). When you make a tight turn or transition, you're constantly leaning your ankles to force these edges to bite into the ice.

Continue to weight distribution on the blades

To master your edges, we have to look at how you balance on them. When you are skating, your weight shouldn't be back on your heels, nor should it be digging too far forward into your toes.

Instead, the sweet spot for maximum control is keeping your weight centered right over the . This specific alignment acts as your body's athletic suspension system on the ice, allowing you to react dynamically.

A side-profile view of a hockey skate blade resting on the ice, highlighting the optimal pressure point under the ball of the foot.

By keeping your weight focused here, you can easily shift pressure from the front to the back of the blade to pivot, and you'll have the leverage needed to drive your edges deep into the ice when changing directions. Let's look at how we actually shift that weight to start a turn.

Continue to shifting weight for turns and stops

Shifting your weight from one edge to another is all about how you manage your center of gravity and use your as the steering wheel.

To start a sharp turn, you have to transition your weight off your glide edge and purposefully engage a new one. Let's look at a tight right-hand turn as a step-by-step example:

Lead with the hips: You begin the movement by leaning your hips and core slightly into the direction of the turn.
The inside skate (right foot): Your right foot tilts outward, driving its outside edge into the ice.
The outside skate (left foot): Your left foot tilts inward, driving its inside edge into the ice.
The weight transfer: You shift your body weight so it is evenly distributed across both of those active edges, pushing down through the balls of your feet to carve a smooth arc.

An overhead view of figure skating boots during a sharp right-hand turn, showing the left boot on its inside edge and the right boot on its outside edge.

I've started building a visual diagram to show you exactly how your blades tilt during this right-hand turn. When you get this weight shift down, you stop skidding through your turns and start carving right through them, which is exactly what keeps your speed up during tight transitions.

How do I do this weight shift for a stop?

When you are executing a hockey stop, you are actually shifting from carving a turn with both skates to driving almost all your weight onto a single, dominant stopping edge to shave off your speed.

To make this happen, you transition your weight entirely onto the inside edge of your lead skate (the skate closest to the direction you are traveling). Rather than letting that edge carve a smooth, curved path into the ice, you tilt your ankle to keep the blade slightly flatter, allowing the edge to slice and scrape across the surface. This creates friction, sending up a spray of ice and bringing you to a halt.

An overhead schematic comparing skate blade alignments: parallel tilting during a curved turn versus a high-friction perpendicular T-stop stance.

This highlights the major difference between turning and stopping. While a turn requires you to divide your weight between both the inside and outside edges of your skates to carry momentum, a hockey stop relies on a heavy weight transfer to a to completely break that momentum. If you try to keep weight distributed across both skates like you do in a turn, your trailing skate will catch and you'll likely trip over your own feet.