GAMDIAS NOTUS M1-1201 Processor Liquid cooling kit 12 cm Black 1 pc(s)

SILENT. STURDY. POWERFUL.
The NOTUS M1-1201 is engineered for high-performance cooling with impressive quietness. Capable of reaching to 1,600 RPM, it minimizes air leakage to enhance airflow efficiency. Even at maximum speed, it operates at just 25dBA, ensuring near-silent performance. Built from durable PBT material, this fan offers long-lasting reliability, making it the ideal choice for demanding cooling applications.

SUPERIOR AIRFLOW PERFORMANCE
Built with emphasis on performance, the NOTUS M1-1201 fan operates within a dynamic 400-1600 RPM range, delivering powerful air pressure. Its optimized design and PWM control enable airflow of up to 57.56 CFM, ensuring maximum cooling efficiency with whisper-quiet operation.


WHISPER-QUIET OPERATION
The NOTUS M1 fan delivers ultra-silent operation, maintaining a noise level of just 25dBA even at maximum speed, ensuring a peaceful gaming experience.

STEADY RPM TECHNOLOGY
The closed-loop system ensures steady RPM and consistent airflow, delivering reliable cooling performance across PCs, air coolers, and liquid coolers.

ADVANCED P/Q CURVE
The NOTUS M1 fan is engineered to deliver exceptional performance across all cooling applications. Whether integrated into a radiator or an air cooler, this fan stand as the optimal choice.

OPTIMIZED TIP CLEARANCE
The NOTUS M1 features a precision blade-to-frame design that enhances airflow performance while ensuring quiet operation. With a tight 1 mm tip clearance, this fan minimizes airflow leakage, delivering efficient cooling with reduced noise.

PREMIUM HYDRAULIC BEARING
With near-zero friction between moving parts, the fan delivers whisper-quiet operation, exceptional airflow, and extended durability, ensuring peak performance and longevity.

ENGINEERED FOR OPTIMAL COOLING
The anti-vibration rubber pads, molded in place, reduce fan vibrations, enabling higher RPMs without increasing noise. Covering 80% of each corner, these pads help maintain quiet operation even at elevated speeds.