Thread Content
S-type thermocouple: Platinium-rhodium 10-platinum thermocouple; temperature range: 1600°C. B-type thermocouple: Platinium-rhodium 30-platinium-rhodium 6 thermocouple; temperature range: 600–1800°C. K-type thermocouple: Nickel-chromium-nickel-silicon thermocouple, nickel-chromium-nickel-aluminum thermocouple; temperature range: -200–1300°C. N-type thermocouple: Nickel-chromium-silicon–nickel-silicon thermocouple; temperature range: -270–1300°C. E-type thermocouple: Nickel-chromium-silicon–copper constantan thermocouple; temperature range: -270–1000°C. J-type thermocouple: Iron–copper constantan thermocouple; temperature range: -210–700°C. T-type thermocouple: Copper–copper constantan thermocouple; temperature range: -270–400°C. PT100 type thermoresistor: Platinum resistance; temperature range: -200–850°C. Copper resistance: temperature range: -50–150°C℃
Study*study*, the original poster has worked hard.
I’ve learned it; thanks to the original poster for sharing!
Now, Pt100 resistors are mostly used.
Thermal resistors are generally used when the temperature does not exceed 500, as this makes it easier to purchase spare parts
Theoretically, that’s the case; the matching components look great!
Can a PT100 measure 850°C? I really haven’t read any books on this topic. I reached 500 and I could no longer hold on
There are quite a few PT100 options, but it seems that the price difference compared to PT1000 isn’t that large