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NTC Thermistors

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10K3A542I
BetaTherm
Thermistors, NTC;
Quantity: 2653
Ship Date: 3-12 working days
1+ $12.0529
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Ext. Price: $36.15
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100K6A372I
BetaTherm
Thermistors, NTC;
Quantity: 694
Ship Date: 3-12 working days
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Ext. Price: $34.03
MOQ: 2
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100K6A1B
BetaTherm
±0.5% Through hole mounting
Quantity: 155
Ship Date: 3-12 working days
1+ $17.2095
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Ext. Price: $34.41
MOQ: 2
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10K3A1B
BetaTherm
Thermistors, NTC;
Quantity: 1049
Ship Date: 3-12 working days
1+ $12.0529
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x $12.0529
Ext. Price: $36.15
MOQ: 3
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30K6A309I
BetaTherm
Thermistors, NTC;
Quantity: 263
Ship Date: 3-12 working days
1+ $14.8665
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x $14.8665
Ext. Price: $29.73
MOQ: 2
Mult: 1

NTC Thermistors

NTC Thermistors Definition:
NTC stands for "Negative Temperature Coefficient," and an NTC thermistor is a type of resistor whose resistance decreases with an increase in temperature. This property is due to the semiconductor material used in their construction, which exhibits a negative temperature coefficient.

Function:
The primary function of an NTC thermistor is to sense and measure temperature changes. It operates by allowing a current to flow through it and measuring the voltage drop across it. As the temperature increases, the resistance decreases, leading to a change in the voltage drop. This change can be calibrated to provide a temperature reading.

Applications:
1. Temperature : Used in various applications to monitor and control temperature, such as in HVAC systems, industrial processes, and automotive engines.
2. Overheat Protection: In devices like batteries and power supplies to prevent damage from excessive heat.
3. Compensation in Sensors: To correct for temperature-induced errors in sensors like pressure and humidity sensors.
4. Inrush Current Limiting: In power circuits to limit the initial surge of current when a device is powered on.
5. Temperature Compensation in Electronic Circuits: To maintain stability and accuracy in electronic devices over a range of temperatures.

Selection Criteria:
1. Temperature Range: Choose a thermistor that can operate within the temperature range of the application.
2. Accuracy: Consider the required accuracy of the temperature measurement.
3. Sensitivity: The rate at which the resistance changes with temperature should be suitable for the application's sensitivity needs.
4. Stability: Look for thermistors with long-term stability to ensure consistent performance over time.
5. Response Time: Depending on the application, a faster or slower response time may be necessary.
6. Size and Shape: The physical dimensions should fit within the design constraints of the device.
7. Cost: Consider the budget and the cost-effectiveness of the thermistor for the intended application.
8. Reliability: Ensure the thermistor is from a reputable manufacturer and has a proven track record of reliability.

NTC thermistors are a versatile and cost-effective solution for temperature sensing and control in a wide range of applications, making them an essential component in many modern devices and systems.
Please refer to the product rule book for details.