Voeding MEAN WELL SFTN01M-15 1 W 15 V ingang 10,8–13,2 V

The MEAN WELL SFTN01M-15 is a compact DC-DC converter designed for PCB mounting. It accepts an input voltage range of 10.8–13.2 V DC and provides a single regulated 15 V DC output at up to 0.067 A (1 W). The module is supplied in an SMD package, has a shallow depth of 15.2 mm and is RoHS compliant, making it suitable for space-constrained electronic designs and volume installations.

Advantages

The SFTN01M-15 offers a small footprint and SMD packaging for automatic PCB assembly, regulated single-output performance and protection against short circuits with a 1 second short protection feature. Its narrow input range is suitable for systems powered from nominal 12 V sources, and the compact depth helps integrate the converter into confined enclosures. RoHS compliance ensures adherence to environmental standards.

Suitable for

• Powering low-current control and sensing circuits from 12 V vehicle or battery systems
• Embedded and compact PCB assemblies with limited space
• High-volume production where SMD assembly is used

Key specifications

• Model: MEAN WELL SFTN01M-15
• Input voltage: 10.8–13.2 V DC
• Output voltage: 15 V DC
• Output current: 0.067 A (67 mA)
• Output power: 1 W
• Protection: 1 second short-circuit protection
• Package: SMD (PCB mount)
• Depth: 15.2 mm
• Compliance: RoHS

How to use

Mount the SFTN01M-15 on the PCB using appropriate reflow soldering processes for SMD components, following the manufacturer’s footprint and soldering recommendations. Provide input connections within the specified 10.8–13.2 V DC range and verify correct polarity before powering. Place decoupling and filtering components as required by the system design and maintain adequate clearance for thermal dissipation.

Recommendations

Use the converter in applications that draw currents within the rated 67 mA and ensure input voltage stays inside 10.8–13.2 V. For continuous reliability, follow MEAN WELL’s layout and thermal guidelines and verify system-level interactions under expected environmental and load conditions.