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The DMS3019SSD-13 is an asymmetric dual N-channel enhancement mode MOSFET in an SO-8 package. It integrates a Schottky diode on one die (Q2) and a standard MOSFET on the other (Q1). Q1 features a 30V drain-source voltage, 7.0A continuous current at 25°C, and 10mΩ on-resistance. Q2 offers 30V breakdown, 5.7A current, and 15mΩ resistance. The device supports -55°C to +150°C operation, utilizes avalanche-rated technology, and meets AEC-Q101 standards.
Verify component authenticity through authorized Diodes Incorporated channels. Confirm the specific ordering suffix matches the required tape and reel packaging quantity. Ensure compliance with RoHS and halogen-free definitions if environmental specifications are mandatory for the assembly process.
Select this component when asymmetric dual-channel performance is required. Compare the distinct on-resistance and current ratings between Q1 and Q2 against circuit load requirements. Evaluate the integrated Schottky benefits for reverse recovery reduction versus discrete solutions.
This part belongs to the DMS series of asymmetric dual MOSFETs from Diodes Incorporated. It is designed for compact power solutions where space efficiency and reduced switching losses are critical. The SO-8 case provides a balance of thermal performance and footprint size for surface mount applications.
The datasheet explicitly states 'NOT RECOMMENDED FOR NEW DESIGN' and 'NO ALTERNATE PRODUCT'. No verified substitute part numbers are available in official documentation.
Q1 is a standard N-channel MOSFET with lower on-resistance and higher current capability. Q2 is an N-channel MOSFET monolithically integrated with a Schottky diode, featuring different threshold voltages and slightly higher on-resistance.
Yes, the device is qualified to AEC-Q101 standards for high reliability, making it suitable for automotive power management applications.
The integrated Schottky diode on Q2 reduces reverse recovery charge (Qrr), which lowers body diode switching losses and minimizes the risk of shoot-through currents at high frequencies.