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The KBPC3501FP is a single-phase silicon bridge rectifier from Diotec Semiconductor, rated for a repetitive peak reverse voltage of 100 V and a maximum average forward current of 35 A. It features fast-on terminals and an isolated aluminum baseplate within a plastic case. The device supports a non-repetitive peak forward surge current of 375 A at 50 Hz and 400 A at 60 Hz. Operating characteristics include a typical reverse recovery time of 1500 ns and a junction-to-case thermal resistance below 1.5 K/W per diode. The unit is designed for commercial and industrial applications with a maximum operating temperature of 150°C.
Verify the specific ordering suffix to confirm terminal type and compliance status. The standard FP designation indicates fast-on terminals suitable for screw mounting or soldering. Confirm RoHS exemption details if required by local regulations. Ensure the procurement documentation matches the exact part number to avoid confusion with wire-terminal WP variants or automotive-qualified AQ versions.
Select this component when a 100 V blocking voltage and 35 A continuous current are required. The low thermal resistance facilitates heat dissipation through the metal baseplate. Verify that the application environment does not exceed the specified 150°C junction temperature limit. Consider the physical dimensions and terminal spacing during PCB or chassis layout planning.
This component belongs to the KBPC series of single-phase bridge rectifiers manufactured by Diotec Semiconductor. The series covers a wide range of voltage ratings from 100 V to 1600 V while maintaining a consistent 35 A current capability. The KBPC3501FP specifically addresses low-voltage high-current rectification needs within this standardized product family.
Direct substitutes within the same manufacturer line include KBPC3500FP (50 V) and KBPC3502FP (200 V). Cross-manufacturer replacements must match the 35 A current rating, 100 V minimum reverse voltage, and KBPC-4 package footprint. Verify terminal compatibility and thermal performance before implementation.