Thermistors generally imply the use of semiconductors, and these provide a much larger resistance variation for a given temperature change. Of the two types of material used for thermistors, the metallic compounds were the first to be discovered.

Thermistors are ceramic semiconductors. In most cases they are composed of metal oxides, which are dried and sintered to obtain the desired form factor. The types of oxides and additives determine their characteristic behavior. For NTC’s cobalt, nickel, iron, copper or manganese are common oxides.

The most common materials to be used for these thermistors are Manganese oxide, nickel oxide, cobalt oxide, copper oxide and ferric oxide.

Of the basic sensor types, an NTC thermistor’s ability to achieve the highest accuracy is within the -50°C to 150°C range, and up to 250°C for glass encapsulated thermistors. Accuracy ranges from 0.05°C to 1.00°C.

Thermistors are used as temperature sensors. They can be found in every day appliances such as fire alarms, ovens and refrigerators. They are also used in digital thermometers and in many automotive applications to measure temperature.

Thermistors are thermally sensitive resistors whose prime function is to exhibit a large, predictable and precise change in electrical resistance when subjected to a corresponding change in body temperature.

No, if the thermistor is bad, you can not bypass it. It must be replaced. A good thermistor should have an ohm reading around 11K Ohms at room temperature. If your ohm reading is far higher or lower than this then you should replace the thermistor.

In general, a thermostat is a cruder device than a thermistor. A thermostat only permits the metals to rise above or press upon a contact as temperature changes. A thermistor is more complex because it can read changes in conductivity and, thus, can express minute changes in temperature as conductivity changes.

Before any heat is applied to the thermistor, its resistance value should be very closely near its rated resistance value. So, for example, if we are testing a 10KΩ thermistor, before we apply any heat, its resistance value should be very close to 10KΩ. If you’re in a relatively warm room, it may be about 9.3KΩ.

Thermistor. As the name implies, the thermistor (i.e., thermal resistor) is a temperature-sensing device whose resistance is a function of its temperature. Thermistors are available in two types: PTC (positive temperature coefficient) and NTC (negative temperature coefficient).

The thermistor is a sensor whose resistance varies with temperature and it can be used to sense temperature.

A thermistor is a resistance thermometer, or a resistor whose resistance is dependent on temperature. When temperature increases, the resistance increases, and when temperature decreases, resistance decreases. This type of thermistor is generally used as a fuse.

The main two types of thermistors are NTC (Negative Temperature Coefficient) and PTC (Positive temperature coefficient). Thermistors measure temperature by using resistance.

The Thermistor is a solid state temperature sensing device which acts a bit like an electrical resistor but is temperature sensitive. Thermistors can be used to produce an analogue output voltage with variations in ambient temperature and as such can be referred to as a transducer.