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The RB298T100HZC9 is a silicon Schottky barrier diode designed for automotive applications, adhering to the AEC-Q101 standard. It features a dual common cathode configuration housed in a TO-220FN (3-pin) leaded package. The device supports a maximum repetitive reverse voltage of 100 V and an average rectified forward current of 30 A. Key electrical parameters include a maximum forward voltage of 0.87 V at 15 A and a maximum reverse current of 0.01 mA at 100 V. It operates with a junction temperature range up to 150 °C and a storage temperature range from -55 °C to 150 °C.
This component is designated as not recommended for new designs. Production is limited strictly to supporting existing customers. Engineers initiating new projects should select alternative active components from the manufacturer's current portfolio. Verify specific ordering suffixes and packaging configurations directly with authorized distributors or the manufacturer before procurement to ensure compatibility with legacy systems.
Select this part only for retrofitting or maintaining existing equipment where the RB298T100HZC9 is already specified. Due to its discontinued status for new designs, availability may be constrained. Ensure that the TO-220FN package dimensions and thermal requirements match the existing board layout. Consider the 30 A current rating and 100 V blocking capability when validating circuit performance under load conditions.
The RB298T100HZC9 belongs to ROHM Semiconductor's RB298 series of high-reliability Schottky barrier diodes. This series is engineered specifically for automotive environments, meeting stringent AEC-Q101 qualification standards. The component utilizes silicon technology to provide robust performance in high-temperature applications, serving as a critical rectification element in vehicle electronic control units and power management systems.
As this part is not recommended for new designs, consult the official ROHM replacement guide for equivalent active components. Potential substitutes within the same family or newer generations should be evaluated for pin compatibility and electrical parameter alignment.