

For servers, UPS systems, and telecom equipment, 9G1211G1D01 combines 12 VDC operation with a 120 × 120 × 38 mm DC axial fan design. High airflow is highlighted together with a high-static-pressure design. Its listed airflow of 232.9 m³/h is the standout performance value. Check thermal margin assessment selection parameters.
| Rated Voltage(V) | 12 |
|---|---|
| Size(mm) | 120*120*38 |
| Max.Air Flow(m³/h) | 232.9 |
| Max.Pressure(Pa) | 135 |
| Input Power(W) | 11.76 |
| Speed(rpm) | 3600 |
| Noise(db) | 49 |
9G1211G1D01 is intended for dependable forced-air cooling in servers, storage systems and ICT equipment. This SANYO DENKI DC axial fan fits equipment designs where thermal stability affects service continuity.
With up to 232.9 m3/h airflow and 135 Pa static pressure, the model can move cooling air through vents, filters and compact internal passages. OEM qualification should check startup demand, installation orientation and the exact electrical interface. Installed sound and airflow depend on the surrounding cabinet structure.
Confirm the operating environment for the suffix. The process documents the required installation conditions. Confirm the final fan curve in the assembled equipment.
The San Ace 9G1211G1D01 supports thermal management in server chassis and computing nodes. Reliable ventilation reduces hot spots around sensitive electronics and supports consistent equipment availability. This helps maintain dependable equipment operation.
For storage arrays and data appliances, 9G1211G1D01 provides a dedicated forced-air cooling path. Reliable ventilation reduces hot spots around sensitive electronics and supports consistent equipment availability. This helps maintain dependable equipment operation.
SANYO DENKI 9G1211G1D01 serves network and other ICT hardware that operate with sustained internal heat. Reliable ventilation reduces hot spots around sensitive electronics and supports consistent equipment availability. This helps maintain dependable equipment operation.
PWM or sensor functions depend on the exact suffix. Confirm the control lead and interface in the applicable Sanyo Denki datasheet.
Its 12 VDC rating and documented its listed airflow of 232.9 m³/h is the standout performance value. provide model-specific selection data without relying on unlisted claims.
The worksheet lists 11.76 W. Check supply capacity and operating conditions before commissioning.
Verify the exact bearing, rated life, temperature range, and duty limits. The supplied family description alone does not confirm continuous operation for every suffix.
The exact bearing is not stated in the supplied row. Confirm it from the complete model suffix and current Sanyo Denki datasheet.
Use rated voltage, 120 × 120 × 38 mm dimensions, 232.9 m³/h airflow, 3600 rpm, and 11.76 W input for preliminary comparison.

Aimed at Boiler Systems, the ebm-papst G1G146-BA07-52 is a 24 V EC backward-curved centrifugal fan, for which the table lists a listed pressure capability of 500 Pa. This assists electrical and mechanical review.
Read More
Integrated into Boiler Systems, the ebm-papst G1G133-DE19-15 is a 24 V EC backward-curved centrifugal fan, specified with a documented 45 W input rating. The rating aids system-fit checks.
Read More
Suited to Boiler Systems, ebm-papst G1G097-AA05-01 is a 24 V EC backward-curved centrifugal fan, marked by a documented 16 W input rating. It provides a practical sizing reference.
Read More
Built for hvac, G1G170-AB53-80 is a 230 V EC centrifugal blower. 5,830 rpm operation with 0-10 V/PWM speed control is its clearest differentiator in the supplied data. It supports exact-model comparison for OEM sourcing.
Read More
A 230 V EC centrifugal blower for boiler systems, G1G170-AB53-01 has a clearly defined selection profile. Its selection profile is led by 2,500 Pa pressure with 5,830 rpm operation.
Read More
Targeting hvac, G1G170-AB31-53 pairs 230 V operation with a EC centrifugal blower layout. The model's defining specification is PWM speed control with 6,530 rpm operation. It supports exact-model comparison for OEM sourcing.
Read More