PT100 Temperature Transmitter, 0-150℃, 4-20mA/0-10V

SKU: SUCH-TS-SBWZ
$60.39
● Output Signal: 4-20mA/0-10V ● Power Supply: 16-36 VDC ● Accuracy: 0.2%FS ● Range: 0-150℃
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🕒 Delivery date: 6-12 days
🔁 30-day Returns
Overview

The PT100 temperature transmitter is a high-quality, reliable solution designed for precise temperature measurement in a variety of industrial applications. With a wide temperature range of 0-150℃ and an output signal option of either 4-20mA or 0-10V, it provides flexible integration into different systems. SUCH transmitter operates with a power supply of 16-36 VDC and boasts an accuracy of 0.2% FS, ensuring reliable and accurate temperature data. Its robust ABS flame-retardant enclosure offers excellent durability and protection in harsh and complex environments. Easy to install and built to last, the PT100 Temperature Transmitter is a versatile choice for a wide range of applications.

Feature

  • The transmitter is safe, durable, of excellent quality, and easy to install.
  • It is suitable for various field instruments: distribution cabinet system control, smart temperature control instruments, and PLC modules.
  • Equipped with an ABS flame-retardant enclosure, it is designed to withstand various complex environments.
  • Built-in reverse polarity protection circuit; when the power supply is reversed, the output will be 0mA.
  • Built-in π-type EMI filter signal, with surge voltage absorption of 36V, capable of handling most industrial field interference signals.
  • The terminal block is made of copper-nickel plated stamped parts.

Dimension (Unit:mm)

Pt100 temperature transmitter dimension

Wiring Diagram

Pt100 temperature transmitter wiring diagram

Note:

  • The transmitter module uses two-wire loop-powered, with the actual power supply taken from the loop in the range of 10-30V.
  • If the actual supply voltage drops below 14V, it will affect the transmitter's accuracy; if it drops below 10V, the transmitter will not operate.
  • Allowable wire resistance: ≤0.5Ω. The mirror current source compensates for wire signal deviations, and resistance greater than 1Ω will cause significant measurement errors.
  • The analog multiplication circuit achieves linearization of the PT100 signal, ensuring a good linear 4-20mA output, with non-linearity ≤0.05%.
Specs
Accuracy 0.2%FS
Power Supply 16-36V (Two-wire Loop-powered)
Input Signal Three-wire PT100 Platinum Resistance Thermometer
Output Signal 4-20mA / 0-10V
Range 0-150℃ (Voltage Output Model)
Application
Temperature control in food processing

Food Processing

Temperature monitoring in pharmaceutical manufacturing

Pharmaceutical Manufacturing

Temperature control in wastewater treatment

Wastewater Treatment

FAQ

Installing a PT100 temperature transmitter involves a few key steps. First, choose a suitable installation location where the sensor can accurately measure the target temperature. Next, connect the PT100 sensor to the transmitter, typically using a two-wire, three-wire, or four-wire configuration. After making the connections, provide power supply to the transmitter. Once powered, calibrate the transmitter to ensure accurate readings. Calibration involves adjusting the transmitter to match known reference temperatures. Finally, integrate the transmitter with your control or monitoring system for real-time temperature data.

The output signal of a PT100 temperature transmitter is typically 4-20mA or 0-10V, which are standard analog signals used in industrial applications. The 4-20mA signal is commonly used because it is less susceptible to noise interference over long distances, making it ideal for transmitting temperature data in industrial environments. On the other hand, the 0-10V signal is often used for shorter distances or when a low current signal is required. Both output types allow for easy integration with monitoring systems and controllers.

Most modern PT100 temperature transmitters are designed with built-in features to minimize electromagnetic interference (EMI) and ensure stable operation in noisy industrial environments. These transmitters typically include EMI filters and other protective measures to reduce the impact of electrical noise. The level of immunity to interference can vary depending on the transmitter model, but high-quality devices are engineered to maintain accurate temperature measurements even in environments with strong electromagnetic fields or electrical disturbances.

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