Temperature & Humidity Transmitter, Analog/RS485, Rail-mounted

Temperature & humidity transmitter is designed for accurate environmental monitoring. It uses a digital temperature and humidity sensor with a stable signal processing circuit to ensure reliable measurement. Supporting RS485, 0-10V, and 0-5V outputs, it connects easily with different control systems. With dual temperature ranges (0-50°C / -40~+60°C) and a humidity range of 0-99.9%RH, analog temp humidity sensor offers quick response and steady performance. The compact DIN rail-mounted design allows convenient installation and is suitable for industrial automation and HVAC systems.

Feature

• High Accuracy and Stability: Ensures precise temperature and humidity measurement with strong resistance to drift, maintaining long-term stability and reliability in continuous operation.
• Digital Sensing Technology: Uses a high-quality digital temperature and humidity sensor combined with a reliable signal processing circuit to convert environmental temperature and humidity into standard corresponding signals.
• Multiple Output Options: SUCH temp humidity sensor supports voltage, current, and RS485 signal outputs, allowing flexible integration with various monitoring and control systems.
• Dual Temperature Range Switching: Features two selectable temperature ranges to meet different application requirements across diverse environments.
• Fast Response and Long-Term Consistency: Provides rapid data acquisition with stable, consistent readings over extended periods, suitable for real-time environmental monitoring.
• Rail-Mounted Design: Compact DIN rail-mounted structure for easy installation and maintenance, ideal for industrial automation and HVAC systems.

Dimension (Unit:mm)

Electrical Installation 

Note: All installation operations below must be performed with the power supply disconnected.

The voltage-type temperature and humidity transmitter adopts a four-core connector. The pin functions are shown in Figure 1;

The terminal pin definitions are shown in Figure 2.