The ON Semiconductor MM3Z8V2ST1 is a high-quality Zener diode that offers excellent voltage regulation with a nominal Zener voltage of 8.2V. Designed for optimal performance in a range of electronic circuits, this Zener diode is a go-to component for voltage stabilization and clipping applications.
Key Features
- Zener Voltage: The MM3Z8V2ST1 has a precise Zener voltage of 8.2 volts, making it suitable for a variety of applications where voltage regulation is critical.
- Power Dissipation: With a power dissipation of 300mW, this diode can handle moderate levels of power, ensuring reliable operation in different circuits.
- Package: The diode comes in a small SOD-323 package, which is ideal for space-constrained applications while providing robust mechanical and thermal performance.
- Operating Temperature Range: It operates over a wide temperature range from -55°C to +150°C, allowing for use in environments with varying temperatures.
- Tolerance: The Zener voltage tolerance is ±5%, which ensures consistent performance across various devices and applications.
Applications
The MM3Z8V2ST1 Zener diode is versatile and can be used in a multitude of electronic circuits. Common applications include:
- Voltage regulation in power supplies
- Surge suppression and transient protection
- Voltage reference in analog circuits
- Waveform shaping and clipping circuits
Quality and Reliability
ON Semiconductor is known for its commitment to quality, and the MM3Z8V2ST1 is no exception. Each diode is manufactured to high standards, ensuring that it meets or exceeds industry specifications for performance and reliability. Whether for commercial, industrial, or high-reliability applications, this Zener diode is designed to deliver consistent performance over its lifespan.
Conclusion
The ON Semiconductor MM3Z8V2ST1 Zener diode is a reliable and efficient solution for voltage regulation needs. Its small form factor, robust operating temperature range, and precise voltage control make it an excellent choice for designers looking to enhance the stability and performance of their electronic circuits.