The STL9N65M2 is a high-performance, N-channel power MOSFET designed and manufactured by STMicroelectronics, a global leader in semiconductor solutions. This MOSFET is part of STMicroelectronics' MDmesh™ M2 series, which is renowned for its excellent efficiency at low gate charge and low on-resistance.
Key Features
- High Voltage Capability: With a drain-source voltage (V<sub>DS) of 650V, the STL9N65M2 is well-suited for high voltage applications, providing a robust and reliable solution for power conversion challenges.
- Low On-Resistance: The device features an extremely low on-resistance (R<sub>DS(on)) of 0.68 Ohm, maximizing efficiency and reducing conduction losses in a variety of applications.
- Reduced Gate Charge: A low gate charge (Q<sub>g) results in faster switching performance and reduced switching losses, making the STL9N65M2 highly efficient for high-frequency operations.
- Enhanced Switching Performance: The fast recovery diode characteristic of this MOSFET ensures improved switching performance, which is critical for applications requiring high switching frequencies.
- 100% Avalanche Tested: Guaranteeing the reliability of the MOSFET, each device is tested for avalanche ruggedness, ensuring it can withstand challenging conditions.
Applications
The STL9N65M2 is versatile and can be used in a wide range of applications, including:
- Switch Mode Power Supplies (SMPS)
- LED Lighting applications
- High-efficiency DC-DC converters
- Power factor correction circuits
- Motor control applications
Package and Availability
The STL9N65M2 is available in a TO-220 package, which is widely used and suitable for through-hole mounting, making it easy to integrate into a variety of circuit designs. The package ensures sufficient heat dissipation for reliable operation under high-power conditions.
For designers and engineers looking for a robust and efficient power MOSFET solution, the STL9N65M2 from STMicroelectronics offers the perfect blend of high-voltage capability, low on-resistance, and fast switching performance to meet the demands of modern power applications.