Why Edges Matter in Figure Skating

The Figure Skate Blade: More Than Meets the Eye

At first glance, a figure skate blade looks like a simple strip of metal. But it’s actually engineered with incredible detail.

Key Features of the Blade:

• Toe pick: The jagged front used for jumps

• Rocker: A slight curve along the blade that allows turning and spinning

• Hollow (the most important part for edges)

What Is the “Hollow”?

If you flipped a skate blade over, you’d see that the bottom isn’t flat—it’s slightly concave. This creates two distinct edges:

• Inside edge → the edge closer to the arch of your foot

• Outside edge → the edge closer to your little toe

These edges are what allow skaters to:

• Grip the ice

• Create curves

• Control direction and flow

Without this hollow, skating would feel like sliding on a flat piece of metal—no control, no precision.

Inside vs Outside Edges: What’s the Difference?

Every time a skater moves across the ice, they are balancing on one of these edges.

🔹 Inside Edge

This edge is engaged when the skate tilts slightly inward.

What it does:

• Creates deep, curved paths

• Feels more natural and stable for most skaters

• Is often easier to learn early on

Biomechanically:

• Weight shifts toward the big toe

• Ankle rolls slightly inward

• Body leans into the curve

🔹 Outside Edge

This edge is engaged when the skate tilts outward.

What it does:

• Controls direction with more subtlety

• Is essential for advanced skills (like certain jumps and turns)

• Often feels less stable at first

Biomechanically:

• Weight shifts toward the little toe

• Ankle rolls outward

• Requires stronger hip and ankle control

Why Edges Are Everything

Edges aren’t just a technical detail—they’re the foundation of the entire sport.

1. Movement Comes From Edges

Skaters don’t “walk” on ice—they glide on curves created by edges. Even straight lines are actually slight edge-controlled paths.

2. Power Comes From Edges

Speed isn’t just pushing—it’s pushing through the correct edge. Without proper edge use, skating feels slow and effortful.

3. Jumps Depend on Edges

Many jumps are defined by their takeoff edge:

• Some require a clean outside edge

• Others rely on an inside edge

A small mistake in edge control can completely change the jump.

4. Turns and Flow Require Precision

Advanced turns (like three-turns, brackets, and counters) depend on:

• Entering on the correct edge

• Holding it through rotation

• Exiting cleanly onto another edge

This is what creates that smooth, effortless look.

Edges and Balance: A Controlled Imbalance

One of the most interesting things about skating is that you’re never truly “balanced.”

When using an edge, you are:

• Leaning your body

• Shifting your center of mass (COM)

• Trusting the blade to hold you

In other words:

Good skating is controlled falling—guided by edges.

Why Outside Edges Feel So Hard

If you’ve ever skated, you’ve probably noticed:

• Inside edges feel intuitive

• Outside edges feel… awkward

That’s not just you.

Humans naturally tend to:

• Collapse inward (toward inside edges)

• Avoid the instability of outside edges

Developing strong outside edges requires:

• Better ankle control

• Stronger hips (especially lateral stability)

• More confidence leaning away from your base of support

The Hidden Skill Behind Great Skating

When you watch elite skaters, what you’re really seeing is:

• Clean, deep edges

• Smooth transitions between edges

• Confidence in both inside and outside control

That’s what creates:

• Flow

• Speed

• Effortless movement

Not just jumps.

✨ Final Thought

Edges are invisible to most spectators—but they’re everything to a skater.

They are:

• The connection between body and ice

• The source of movement and control

• The difference between struggling and gliding

So the next time you watch figure skating, look a little closer.

Watch the curves on the ice.
Watch how the skater leans.

Because beneath every beautiful performance is something simple, precise, and powerful:

A blade balanced on an edge.