Automobile rear window heating wire detection system mainly uses the current to generate heat through the glass inside of the resistance heating wire, with the heat uniformly distributed on the whole piece of glass. Then the thermal camera photographs the infrared imagery, set the number of heating wires in the rear window through the software, and output the report when the quantity is abnormal, which can be used to quickly detect the disconnection of heating wires.
System advantages
1. Check the number of heating wires in the rear window
2. Linkage with PLC to determine whether the heating wire is disconnected
3. Automated and standardized testing process to improve testing efficiency
System advantages
1. Check the number of heating wires in the rear window
2. Linkage with PLC to determine whether the heating wire is disconnected
3. Automated and standardized testing process to improve testing efficiency
The infrared thermal imager can help the automobile rear windshield heating system to be safer and more effective. The main reason of the automobile rear windshield heating system is that the heat generated by the electric current embedded in the glass is evenly distributed on the glass. The automobile development engineer can use the infrared thermal imager to quickly and conveniently obtain the heat image of the rear windshield during the heating process of the resistance wire, and analyze the rear window glass of the electric vehicle.Glass heating wire detection system mainly uses current to generate heat through the resistance heating wire embedded in the glass, evenly distributed on the whole glass, and then photographed by infrared thermal imager. The number of heating wire for automobile rear window glass is set by software, and the output report is used to quickly detect the breakage of heating wire for automobile rear window glass when an abnormal number is detected.The system has the following features:
1. Check the number of heating wires for automobile rear window glass;
2. Link with the PLC to judge if the heating wire is disconnected or not;
3. Automating and standardizing the detection process to improve the detection efficiency.
Common Parameter
Imaging distance |
About 20 focal lengths to infinity |
Temp measuring template |
High and low temp tracking, point/line/polygon temp tracking in template, set multiple shielding areas |
Image enhancement |
Adaptive drawing, manual enhancement, electronic zoom |
Color palette |
White hot, black hot, iron red, red saturated, user-defined and others |
Focus Mode |
Electric/manual, electric lens supports autofocus |
Data |
|
Single frame temp |
PNG / BMP/ JPG image format with temperature information
|
Temp flow |
Total radiant temperature information storage |
Digital video |
H.264, RTSP stream media protocol, MP4 files, HDMI output interface |
Data storage |
Support TF card expansion and storage, up to 32GB |
Electrical interface |
|
Power supply |
DC9~15V, typical power consumption 2.5W@25℃ |
Analog video |
NTSC/PAL compound video output |
Ethernet |
100/1000 Base, TCP, UDP, IP, DHCP, RTSP, ONVIF, etc.,provide SDK development kit |
Serial port |
RS485, support Pelco control protocol |
Electric lens |
12V power lens |
GPIO |
1 magnetic isolation input, 1 relay output |
Environmental parameters |
|
operating temp |
-10~+60℃ |
Storage temp |
-40ºC~+85℃ |
Humidity |
Non - Condensing 10%~95% |
Shell protection |
IP54 |
Impact resistance |
25G |
Vibration resistance |
2G |
Mechanical parameter |
|
Weight |
240g(excluding lens) |
Size |
59(L)*58(W)*67(H)mm(excluding lens) |
Installation |
4 UNC-20, 4 M3 thread mounting holes |
Yoseen X-series Thermal camera Temp Range List
Temp Range |
Temp Accuracy |
NETD |
-20~150℃ |
±2℃or±2% |
50mK |
0~300℃ |
±2℃or±2% |
70mK |
60~600℃ |
±2℃or±2% |
50/90mK |
100~1000℃ |
±2% |
--- |
160~1600℃ |
±2% |
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Customization |