The V39ZA20PX1347 is a versatile electronic component that belongs to the category of varistors. This entry provides an in-depth overview of the product, including its basic information, specifications, detailed pin configuration, functional features, advantages and disadvantages, working principles, application field plans, and alternative models.
The V39ZA20PX1347 features a radial leaded disc package with two leads for easy integration into circuit designs. The pin configuration includes a positive lead and a negative lead, which are clearly marked for proper orientation during installation.
The V39ZA20PX1347 operates based on the non-linear voltage-current characteristics of zinc oxide. When subjected to overvoltage conditions, the varistor rapidly changes its resistance, effectively shunting excess current and limiting the voltage across the protected circuit.
The V39ZA20PX1347 finds extensive use in various applications, including: 1. Power Supplies: Protects sensitive electronic components from voltage transients in power supply circuits. 2. Telecommunications Equipment: Safeguards communication systems from lightning-induced surges and other transient events. 3. Industrial Control Systems: Provides reliable overvoltage protection for control panels and automation equipment. 4. Consumer Electronics: Enhances the durability of electronic devices by mitigating the impact of voltage spikes and surges.
For applications requiring different voltage ratings or energy absorption capabilities, alternative varistor models include: - V18ZA20PX1347: 18V voltage rating, 1347J maximum energy - V47ZA20PX1347: 47V voltage rating, 1347J maximum energy - V39ZA20PX2000: 39V voltage rating, 2000J maximum energy
In conclusion, the V39ZA20PX1347 varistor offers reliable transient surge protection and voltage clamping capabilities, making it a valuable component in diverse electronic systems.
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What is V39ZA20PX1347?
How does V39ZA20PX1347 work?
What are the typical applications of V39ZA20PX1347?
What are the key specifications of V39ZA20PX1347?
How should V39ZA20PX1347 be integrated into a circuit?
What are the potential failure modes of V39ZA20PX1347?
Are there any alternatives to V39ZA20PX1347 for overvoltage protection?
What are the temperature limitations of V39ZA20PX1347?
Can V39ZA20PX1347 be used in automotive applications?
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