Modern Design Thermasgard® Rgtf2 Pt1000 300/80mm Kv Unlock 85% Savings [CVQ9ir3l]

Modern Design Thermasgard® Rgtf2 Pt1000 300/80mm Kv Unlock 85% Savings [CVQ9ir3l]

Introducing the Modern Design Thermasgard® Rgtf2 Pt1000 300/80mm Kv Unlock 85% Savings [CVQ9ir3l], a robust and reliable thermocouple sensor designed for precise temperature measurement in demanding environments. This high-quality sensor is engineered to withstand challenging conditions, making it an ideal choice for a variety of applications.

• Accurate Temperature Measurement: The RGTF2 Pt1000 sensor offers exceptional accuracy, ensuring reliable temperature readings in both liquid and gaseous mediums.
• Robust Construction: Constructed with durable materials, the sensor is designed to endure harsh conditions and maintain its performance over time.

Key Features and Specifications

The Modern Design Thermasgard® Rgtf2 Pt1000 300/80mm Kv Unlock 85% Savings [CVQ9ir3l] is equipped with a passive output, providing flexibility in system integration. It comes with two options for connection: a cable gland or an M12 connector, both compliant with DIN EN 61076-2-101 standards.

• Passive Output: The sensor's passive output simplifies integration with various systems, offering a seamless installation process.
• Connection Options: Choose between a cable gland or an M12 connector to suit your specific application requirements.

Practical Applications

The Modern Design Thermasgard® Rgtf2 Pt1000 300/80mm Kv Unlock 85% Savings [CVQ9ir3l] is designed for applications involving the measurement of high temperatures in fluids or gases. Its versatile design makes it suitable for a wide range of industries, including HVAC, power generation, and industrial processes.

• Wide Range of Applications: From air exhaust and flue gas temperature measurement to industrial process control, the RGTF2 Pt1000 sensor is a versatile solution for various temperature measurement needs.
• Enhanced Performance: The sensor's robust construction and precise measurement capabilities ensure optimal performance in challenging environments.