Gorilla Brakes disc brake pads

Disc Brake Pads Guide: Types, Compounds & How to Choose the Right Pads

New to disc brake pads? This guide explains how they work, when to replace them, and the differences between resin, sintered and semi-metallic compounds. For the full performance breakdown, visit our Complete Bike Brake Pads Guide.

What Are Disc Brake Pads and How Do They Work?

Disc brake pads create friction against the brake rotor to slow or stop your bike. When you pull the brake lever, hydraulic pressure pushes the pads against the rotor, converting speed into heat and controlled stopping power.

Each pad consists of a friction compound bonded to a metal backing plate. Over time, this friction material wears down and must be replaced to maintain safe braking performance.


When Should You Replace Brake Pads?

Replace pads when friction material reaches around 1mm or less, or if you notice:

  • Reduced braking power
  • Excessive noise or squealing
  • Visible wear or uneven pad surface

Regular inspections prevent rotor damage and keep braking consistent.


Brake Pad Types Explained

Resin (Organic)

Made from organic fibres and resins, these pads prioritise smooth modulation and quieter braking.

Best for:
  • Dry conditions
  • Road and XC riding
  • Riders prioritising quiet braking

Shop Resin Brake Pads

Sintered (Metallic)

Constructed from metallic particles fused under pressure, designed for durability and wet performance.

Best for:
  • Wet, muddy or winter riding
  • Long descents
  • e-bikes and heavier riders

Shop Sintered Brake Pads

Semi-Metallic

A balanced compound blending metallic durability with organic feel.

Best for:
  • Mixed conditions
  • Trail and all-round riding
  • Balanced performance and longevity

Shop Semi-Metallic Pads


Looking for Higher Performance?


Brake Pad Compatibility

We manufacture pads for all major brake systems. Choose your caliper brand below:


Still unsure which compound to choose?

Use our comparison chart to match performance level to your riding style.

Compare All Compounds
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