The pH value, redox voltage, and NH3 (ammonia) concentration are all measured and controlled with this JUMO pH Transmitter-AQUIS 500. The device’s function can be altered immediately. Combination electrodes (for example, pH/redox combination electrodes, gas-sensitive sensors) or separate versions (glass/metal electrodes with separate reference electrode) can be linked depending on the measured. The second input value is temperature measurement, which can be done using a device such a Pt100/Pt1000. As a result, automatic temperature correction is possible using the ph value and NH3 measured.
The JUMO pH Transmitter-AQUIS 500 are controlled via a big LCD graphic display and precise keys. The measured value is clearly legible on this display. The parameter display in plain text makes configuration easier and helps the user programmer the device appropriately.
The JUMO AQUIS 500 is a high-precision pH transmitter designed to deliver reliable and accurate measurements for industrial and laboratory applications. With its advanced technology and robust construction, it is ideal for monitoring and controlling pH levels in a wide range of processes, including water treatment, chemical manufacturing, and food production. Its user-friendly interface and versatile connectivity options make it a trusted choice for professionals seeking efficient pH management solutions.
Key Features
- High Measurement Accuracy: Ensures precise pH readings, critical for sensitive applications.
- Multifunctional Design: Measures pH, redox (ORP), and temperature simultaneously.
- User-Friendly Operation: Equipped with a clear LCD display for real-time monitoring and parameter adjustments.
- Flexible Outputs: Provides analog (4–20 mA) and digital (RS485 Modbus) outputs for easy integration.
- Robust Housing: Designed for industrial environments, offering IP65-rated protection.
- Customizable Parameters: Adjustable alarm limits and output ranges to meet specific application needs.
- Temperature Compensation: Automatic compensation ensures accurate readings regardless of temperature variations.