Wide temperature measurement range, high accuracy and long reading distance.
Small size, firm installation, no need to change the original equipment status in the cabinet.
Passive Temperature Sensor specially designed for moving contacts of power switch cabinets.
Digital communication, independent ID, no confusion or interference in sensor data.
Using UHF RFID technology, it is not affected by equipment electrical parameters and power load
Tag Dimension: 29.2*17.2*16.6mm
Chip: CAB1/VBL7 ( Protocol: ISO18000-6C GEN2 V2)
Memory: TID/UID 112bit+ EPC/Block 192bit+ User File_0 with 512bit of data+ Reserve 112bit
Operating Frequency: 920.5-924.5Mhz
FaceStock/Housing: Silicon Housing
Reading Range: Upto 7 meters (depends on reader)
Installation: Tie up,tight up,Inserting or Locking Style
Characteristic: On Metal Use/Temperature Sensor
Feature Option: Free consulting and free samples with solution proposal & evaluation, Fast sampling within 2-3days is provided to support ODM/OEM/SKD in order to meet the customized printing including mono/color barcode and text Embossing, laser-engraving, personalization and encoding service

Using RFID (Radio-Frequency Identification) technology in combination with a temperature sensor for a power switch cabinet can be a valuable solution for monitoring and controlling the temperature within the cabinet. This integration can help prevent overheating and ensure the proper functioning of the equipment. Here's a general outline of how you might implement an RFID temperature sensor for a power switch cabinet:
1. RFID System:
- Choose an RFID system that suits your needs. RFID tags and readers come in various frequencies (HF, UHF), each with its advantages and limitations.
- Consider the operating range and the number of RFID tags you need for your application.
2. RFID Tags:
- Attach RFID tags to the power switch cabinet and other relevant equipment. Each tag should have a unique identifier that can be associated with specific cabinet information or temperature zones.
3. RFID Readers:
- Install RFID readers at strategic locations within the power switch cabinet or its vicinity. These readers will communicate with the RFID tags to gather information.
4. Temperature Sensors:
- Integrate temperature sensors within the power switch cabinet. Choose sensors that are suitable for the temperature range and conditions expected within the cabinet.
5. Microcontroller or PLC:
- Connect the RFID readers and temperature sensors to a microcontroller or a Programmable Logic Controller (PLC). These devices will process the data and make decisions based on the information received.
6. Communication Module:
- Implement a communication module (such as Ethernet, Wi-Fi, or cellular) to enable the system to transmit data to a central monitoring system or cloud-based platform.
7. Monitoring and Control System:
- Develop a monitoring and control system that receives data from the RFID readers and temperature sensors. This system should be able to alert personnel or take automated actions if the temperature exceeds predefined thresholds.
8. User Interface:
- Create a user interface for monitoring the temperature and RFID data. This can be a web-based dashboard, a mobile app, or an integrated system within your existing monitoring infrastructure.
9. Alarm and Notification System:
- Implement an alarm and notification system to alert personnel in case of temperature anomalies or RFID tag changes.
10. Maintenance and Calibration:
- Regularly maintain and calibrate the temperature sensors to ensure accurate readings.
Remember to follow industry standards and safety guidelines when implementing such systems to ensure the reliability and safety of your power switch cabinet.