STL15N60DM6 - N-channel 600 V, 0.190 Ohm typ., 14 A MDmesh™ DM6 Power MOSFET

The STL15N60DM6 is a high-performance N-channel Power MOSFET from STMicroelectronics, designed using the latest MDmesh™ DM6 technology. This advanced MOSFET is ideal for a wide range of power applications, including switch-mode power supplies (SMPS), lighting, welding, and high-efficiency converters. Its 600 V breakdown voltage and low on-resistance of just 0.190 Ohm typ. ensure efficient power handling and reduced conduction losses.

Key Features:

• High Voltage Capability: With a drain-source voltage (V<sub>DS) of 600 V, the STL15N60DM6 is suitable for applications requiring high voltage operation.
• Low On-Resistance: A typical on-resistance (R<sub>DS(on)) of 0.190 Ohm minimizes conduction losses and improves overall efficiency.
• High Current Rating: The device can handle continuous drain current (I<sub>D) up to 14 A, making it capable of powering demanding circuits.
• Fast Switching Speed: The MOSFET is optimized for fast switching, reducing switching losses and improving performance in high-frequency applications.
• Enhanced Efficiency: The MDmesh™ DM6 technology integrates a vertical structure that enhances current flow and reduces on-state resistance, thereby increasing efficiency.
• Improved Ruggedness: The device offers increased ruggedness and immunity against the harsh conditions often found in industrial environments.
• Reduced Gate Charge: A low gate charge (Q<sub>g) facilitates faster switching and reduces the energy needed to control the MOSFET, leading to lower driving costs.

The STL15N60DM6 is housed in a TO-220 package, which is known for its robustness and good thermal performance, making it suitable for through-hole mounting. This packaging, combined with the MOSFET's advanced characteristics, ensures reliable and long-lasting performance in a variety of power applications.

STMicroelectronics' commitment to innovation is reflected in the STL15N60DM6, offering designers a powerful and efficient solution for their high-voltage power conversion challenges.