Mares Dual Adj 62X DIN Regulator White/Aqua

Compact Powerhouse for Travel and Cold-Water Diving
The Mares Dual Adj 62X DIN Regulator is built for divers who demand high performance in a compact form. As the smallest and lightest diaphragm first stage ever developed by Mares, the 62X first stage weighs only 464g and measures 63mm-perfect for travel. Despite its size, it delivers impressive airflow and protection through Auto Sealing Technology (AST), guarding internal components from water entry during dives or transportation.

Advanced Breathing Performance in Any Environment
Engineered for versatility, the Dual Adj second stage features Pneumatic Assisted Design (PAD) and Vortex Assisted Design (VAD), delivering smooth inhalation at all depths. Divers can easily fine-tune their experience using the adjustable breathing knob, even while wearing gloves. The second stage's ultralight technopolymer construction ensures comfort and reduced jaw fatigue, while the Superflex hose provides enhanced flexibility during movement.

Ready for Extreme Conditions
Cold-water divers will appreciate the redesigned valve stem seat and optional Twin Balanced Piston (TBP) compatibility, which boosts sealing and efficiency in frigid temperatures. The chromed pearl-effect finish adds durability and corrosion resistance. This DIN 300BAR regulator is built to exceed performance at 200m and tested to 400m, offering exceptional value with top-tier features and reliability trusted by technical and recreational divers worldwide.

Technologies

Ultralight Technopolymer
Abrasion resistant and affordable, ideal for diving in warm and moderate water temperatures.

Superflex Hose
Extreme light weight and exceptional softness guarantee the maximum freedom of movement.

VAD - Vortex Assisted Design
The air bypass tube delivers air to the mouthpiece creating a swirling vortex with a low pressure area in the center that keeps the diaphragm down during inhalation, for very sensitive and easy breathing at all depths.

DFC - Dynamic Flow Control
Minimizes intermediate pressure drop during inhalation thus maximizing gas delivery, especially under extreme conditions.