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The AP39303S16-13 is a three-phase gate driver manufactured by Diodes Incorporated, designed for driving power switches in motor control and power conversion applications. It integrates three independent low-side drivers within a single HSOP-16 package. The device supports supply voltages up to 20V and provides output currents capable of driving MOSFETs or IGBTs efficiently. Key electrical characteristics include propagation delays typically ranging from 4ns to 50ns depending on the specific variant configuration, with rise and fall times optimized for high-frequency switching operations. The component operates within an industrial temperature range, ensuring reliability in demanding environments.
Verify the exact pinout and electrical parameters against the official Diodes Incorporated datasheet for the AP39303 series, as suffixes may indicate variations in packaging or thermal performance. Confirm that the HSOP-16 package matches your PCB footprint requirements. Ensure compatibility with your target voltage levels and switching frequencies before finalizing procurement specifications.
Select this component when designing compact three-phase power stages requiring integrated low-side driving functionality. Consider the HSOP-16 package for space-constrained layouts. Evaluate the specific propagation delay and output current requirements of your application to ensure the selected variant meets the switching speed and load driving needs of your chosen power transistors.
This part belongs to the AP39303 family of three-phase gate drivers from Diodes Incorporated. These drivers are engineered to replace discrete solutions, reducing board space and assembly complexity. The family focuses on providing reliable isolation and drive strength for industrial and consumer power electronics applications.
Check for direct substitutes within the AP39303 series or compatible three-phase drivers from other manufacturers such as Texas Instruments or STMicroelectronics. Verify pin-to-pin compatibility and electrical parameter equivalence before substitution.