Sauermann Inclined Liquid Column Manometers HP 10

Sauermann Inclined Liquid Column Manometer HP 10

Product Description

The Sauermann HP 10 is a high-sensitivity inclined liquid column manometer designed for very low differential pressure measurement. With its precision scale and inclined design, it ensures accurate readings in applications where small pressure variations must be detected. The instrument includes zero adjustment by a movable slide strip and an integrated spirit level for correct horizontal alignment. Compact and reliable, the HP 10 is suitable for laboratory, industrial, and HVAC applications requiring high precision at low pressure ranges.

Key Features

1. High measurement sensitivity for low differential pressures

2. Measuring range of 0–10 mmCE (0–100 Pa)

3. Inclined liquid column design for enhanced accuracy

4. Zero adjustment via movable slide strip

5. Integrated spirit level for proper horizontality

6. Compact and easy-to-mount design with optional wall support

Applications

1. Monitoring low differential pressures in HVAC systems

2. Laboratory calibration and testing at low pressure levels

3. Cleanroom and filter performance monitoring

4. Industrial process control with sensitive pressure requirements

5. Educational use in demonstrating fluid dynamics and pressure principles

Technical Specifications (HP 10)

1. Differential pressure range: 0–10 mmCE (0–100 Pa)

2. Manometer type: inclined liquid column manometer

3. Manometric liquid: AWS 10 red oil, density 0.87 at 15 °C

4. Maximum static pressure: 6 bars

5. Reservoir capacity: 20 ml

6. Operating temperature: -30 °C to +60 °C

7. Mounting: wall-mounted, with or without white PVC support

Conclusion

The Sauermann HP 10 is an accurate, high-sensitivity inclined liquid column manometer designed for applications requiring precise low-pressure measurement. Its inclined scale, adjustable zero, and integrated spirit level make it an essential tool for laboratories, cleanrooms, HVAC systems, and industrial environments where detecting small pressure variations is critical.