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The LT8362EMSE#TRPBF is a high-efficiency synchronous boost, SEPIC, and inverting DC/DC converter manufactured by Analog Devices Inc. It features an integrated 60V switch capable of delivering up to 2A output current. The device operates with an input voltage range from 2.8V to 60V and supports adjustable output voltages between 2.8V and 60V. Key electrical parameters include a fixed 3MHz switching frequency, a typical quiescent current of 9µA, and operation across a temperature range of -40°C to +150°C. It is housed in a 10-lead MSOP package.
Verify the specific suffix TRPBF indicates tape-and-reel packaging when ordering. Confirm that the EMSE designation corresponds to the MSOP-10 package variant. Ensure compatibility with the required thermal management solutions given the high junction temperature rating. Cross-reference the manufacturer datasheet for exact pinout and recommended external component values before finalizing procurement specifications.
Select this component when designing circuits requiring high input voltages up to 60V without external boosting stages. The fixed 3MHz frequency allows for smaller passive components compared to lower-frequency alternatives. Consider the thermal performance in the MSOP-10 package for applications with continuous high-current loads. Verify that the target application does not require synchronous rectification in inverting mode, as this topology typically uses diode rectification.
This part belongs to the LT8362 family of high-voltage DC/DC converters designed for space-constrained applications. It shares functional similarities with other LT836x variants but differs in package type and shipping configuration. The series is engineered for industrial and automotive environments where reliability and wide operating temperature ranges are critical requirements.
LT8362HDD#PBF offers identical electrical performance in a DFN-10 package. LT8362EMS8E#PBF provides the same functionality in an MSOP-8 package. Verify pinout compatibility and thermal dissipation characteristics when substituting these variants.