Ventilator NZXT F140P 14 cm wit 500-1500 RPM Fluid Dynamic Bearing

The NZXT F140P 14 cm White fan is a case fan engineered to deliver high static pressure for forcing air through tight spaces such as heatsinks and radiators. It uses a Fluid Dynamic Bearing and operates between 500 and 1500 RPM, providing up to 2.75 mmH2O of static pressure for improved cooling performance in compact compartments. The fan is compatible with NZXT CAM for fan control and lighting effects and is finished in white to match common builds.

Advantages

High static pressure design concentrates airflow to push air through radiators and dense heatsinks. The seven-blade impeller produces effective airflow while maintaining controlled noise levels. Anti-vibration rubber corners on the frame reduce transmitted vibration and noise. The Fluid Dynamic Bearing increases durability with an estimated 60,000-hour lifespan. PWM control enables automatic speed adjustment between 500 and 1500 RPM for optimized cooling and acoustic balance.

Suitable for

• Cooling AIO liquid cooler radiators
• Blowing air through dense CPU or GPU heatsinks
• Use in compact case compartments where static pressure is required
• Systems requiring PWM fan control and NZXT CAM compatibility

Key specifications

• Type: Fan
• Fan diameter: 140 mm
• Speed: 500–1500 RPM (PWM)
• Maximum static pressure: 2.75 mmH2O
• Bearing: Fluid Dynamic Bearing (60,000-hour lifespan)
• Colour: White
• MPN: RF-P14SF-W1
• EAN: 5056547200057

How to use

Install the fan in the desired location on the radiator or case using the supplied screws, aligning its airflow direction with your cooling layout. Connect the PWM cable to a compatible motherboard header or fan controller and configure fan curves in BIOS or NZXT CAM to take advantage of automatic speed scaling. Ensure rubber corner mounts are in contact with the case or radiator mounting points to reduce vibration transfer.

Recommendations

For optimal results, pair the F140P with radiators and heatsinks that have moderate to high fin density. Use PWM control to balance cooling performance and noise, and check airflow direction during installation to maintain an effective front-to-back or push-pull configuration.