Rugby Bricks Vortex Mid-Cut Kicking Tee

Rugby Bricks Vortex Mid-Cut Kicking Tee

Trusted by pros, built in New Zealand - the Rugby Bricks Vortex Mid-Cut Tee delivers consistency and control under pressure.

Designed and developed in Otago, the Vortex Mid-Cut is the go-to kicking tee for serious rugby players chasing accuracy from any angle. It strikes the perfect balance between height and stability, helping goal kickers find a smooth, repeatable strike every time - whether from the sideline or right in front.

The mid-cut design provides solid strike height without losing control, while the premium thermoplastic head allows you to easily adjust the ball angle between 25° and 75°. Every detail is engineered to support clean contact and reliable performance in all conditions.

Key Features

• Mid-cut height: Offers the ideal balance between low and high tees for controlled, powerful strikes.

• Adjustable ball angle: Set your preferred angle from 25° to 75° for personalised setup and consistency.

• Durable thermoplastic construction: Built to last and perform in all weather.

• Designed in NZ: Created by Rugby Bricks in Otago and trusted by top players worldwide.

• Used by professionals: Backed by athletes like Quade Cooper, Damian Willemse, and Ryan Papenhuyzen.

• Dimensions: 92 mm (height) × 154 mm (length).

Available in multiple colours.

Why We Rate It

The Vortex Mid-Cut is the most popular tee in the Rugby Bricks range for a reason - it delivers the versatility and precision goal kickers need to perform consistently at every level of the game.

FAQs

Q: Who is the Rugby Bricks Vortex Mid-Cut best for?
It’s ideal for goal kickers who want a balanced tee height and reliable strike setup for consistent results.

Q: What makes it different from the Low or High Cut models?
The Mid-Cut offers a middle ground - more height than the Low Cut for extra power, but less than the High Cut for improved control.

Q: Is it suitable for all weather conditions?
Yes. The thermoplastic base holds firm in wet, muddy, or dry surfaces, maintaining stability through contact.