Ocypus SIGMA L36 PRO BK 360mm AIO Liquid CPU Cooler With 3.5" Square IPS Display

Ocypus SIGMA L36 PRO BK 360mm AIO Liquid CPU Cooler With 3.5" Square IPS Display

The Ocypus SIGMA L36 PRO BK 360mm AIO Liquid CPU Cooler combines advanced technology with stunning visual design for demanding PC enthusiasts. This Ocypus CPU Cooler features an impressive 3.5-inch square IPS screen integrated into the pump head, offering a vibrant 640 by 480 pixel resolution with ultra-narrow bezels that display real-time system information. The innovative display supports multiple content formats, including videos, images, and GIFs, allowing users to personalize their cooling system creatively. Built with a floating design and bright silver frame, the Ocypus SIGMA L36 PRO BK 360mm CPU Cooler adds remarkable visual depth while utilizing precision magnetic mounting for effortless installation and rotation. At the heart of this Ocypus SIGMA L36 PRO BK AIO CPU Cooler lies an advanced ceramic bearing architecture featuring 0.1mm microchannels paired with an ultra-large 3700 square millimeter copper base, delivering consistently high-efficiency heat dissipation with an impressive 310W TDP rating. The Ocypus SIGMA L36 PRO BK CPU Cooler includes three high-performance PWM fans equipped with fluid dynamic bearings that operate between 500 and 2400 RPM, producing up to 90 CFM airflow and 5.8mmH2O air pressure. For users seeking quieter operation, the included speed reduction cable lowers fan speeds to 2000 RPM, reducing noise levels from 36 decibels to just 29 decibels. This Ocypus Liquid CPU Cooler supports broad compatibility with Intel LGA 115X, 1200, 1700, and 1851 sockets, along with AMD AM4 and AM5 platforms. The Ocypus SIGMA L36 PRO BK 360mm Liquid CPU Cooler has customizable ARGB ring enables users to select various colors and dynamic lighting effects, synchronizing seamlessly with other devices. With 400mm flexible tubing and aluminum radiator construction, the Ocypus CPU Cooler provides excellent installation flexibility while maintaining optimal thermal performance for extended periods.