Scarpa instinct vsr lv climbing shoe

The __t1__ perfectly adapts to a wide range of foot strikes and angles, offering unrivaled grip in heel hook performance. it's designed for expert climbers who prefer a lower volume and a narrower heel box. it's the softest and narrowest model in the instinct family.

Made in asolo, italy.

Scarpa instinct vsr lv features

Upper surface

It has a 6-panel mixed material upper surface structure, where microfiber and leather are used together for a better fit to the foot.

The upper section utilizes microfiber. this construction conforms to the upper part of the foot, offering enhanced flexibility and comfort.

In the lower section, leather has been used in areas that require more balance and support.

Bi-voltage

The bi-tension system extends from the toe to the arch of the foot, providing high flexibility with optimal tension.

Midsole

The 1 mm flexan support part distributes the applied force to the entire foot and provides perfect flexibility in the back of the shoe.

Outsole

Approximately half the length of the shoe is covered in 3.5 mm thick vibram® xs 2 rubber. this is complemented by a 2 mm thick heel section, also handcrafted from the same xs 2 compound.

Scarpa instinct vsr lv technologies

Bi-voltage

Thanks to the rubber structure surrounding the foot on both sides of the shoe, it provides support without compromising sensitivity.

This system is particularly suitable for slightly asymmetrical climbing shoes. it offers enhanced sensitivity by freeing up the midfoot while providing support from toe to heel.

Vibram® xs2

The natural evolution of the vibram® xs compound, the xs 2 is widely used by professional athletes worldwide, especially in bouldering.

It offers significantly improved grip compared to the previous compound, and its compact design makes it particularly excellent for edge pressing and medium-slope handles.

It also delivers consistent and reliable performance across a range of temperatures. this rubber compound is recommended for applications requiring maximum adhesion to the substrate/handle.