TCX Boots COMP EVO 2 MICHELIN® Black / 42

Motocross and enduro boots that offer maximum protection, perfect ankle support at every stage of riding and optimal comfort for longer sessions. Comp Evo 2 Michelin® is characterized by the Double Flex Control system: an articulated structure placed at the ankle that allows great flexibility in the forward and backward movements of the joints while avoiding the risk of unwanted twisting and overstretching. Protectors are placed at all strategic points such as the shin, ankle, heel and toe cap. The Comp Evo 2 Michelin® are designed with the Michelin® Hybrid MX sole, whose profile and compound have been specially designed to ensure exceptional grip on the motorcycle's footpegs, even in adverse weather conditions and on all types of terrain, including the most extreme situations when enduro riding. The closure system includes four polyurethane and aluminum buckles with micrometric adjustment. The inner shaft has Velcro fasteners for millimeter-precise adjustment of the fit. To further adjust the fit, the Comp Evo 2 Michelin® feature the Calf Adjustment System, a system that allows you to adjust the front shin guard plate to two different positions, increasing the overall circumference. The breathable fabric lining and side ventilation slits keep the foot dry - for maximum comfort.

Features:
Upper material: upper made of highly abrasion-resistant microfibre and PU frame. Ergonomic stretch top collar to keep dirt and debris out
Lining: Breathable fabric with double density foam around ankle area
Reinforcements: Double Flex Control antitorsion system to reduce the risk of overstretching the ankle joint; Adjustable polyurethane shin plate; Polyurethane heel counter, toe guard and ankle plates. Internal heat protection for the best grip on the bike. Shift pad made of thermoplastic polyurethane
Buckles: 4 interchangeable and adjustable aluminum buckles, ergonomic design
Footbed: Ergonomic, removable footbed
Sole: MICHELIN® HYBRID MX rubber outsole with OC compound, very durable with optimal traction and stability on any surface