HCF4098M013TR

Multivibrators Overview

The HCF4098M013TR is a dual retriggerable and resettable monostable multivibrator manufactured by STMicroelectronics. It operates within a supply voltage range of 3V to 20V and features a propagation delay of 100ns. The device is housed in a 16-SOIC surface-mount package and supports an operating temperature range from -40°C to 125°C. It is designed for digital timing applications requiring precise pulse generation.

Multivibrators Feature Summary

• Dual independent monostable multivibrator channels
• Retriggerable and resettable functionality
• Wide supply voltage operation range
• High-temperature automotive-grade reliability

Multivibrators Applications

• Industrial control systems
• Consumer electronics timing circuits
• Digital signal processing interfaces

Multivibrators Procurement Notes

Verify the specific suffix M013TR corresponds to the Tape & Reel packaging configuration. Confirm RoHS compliance status as some sources indicate varying information. Ensure the AEC-Q100 qualification aligns with automotive application requirements before final procurement decisions.

Multivibrators Selection Notes

Select this component when dual-channel monostable timing is required in a compact SO-16 footprint. Consider the 3V-20V input range for compatibility with various logic families. Evaluate the 100ns delay specification against system timing constraints to ensure adequate performance margins.

Multivibrators Part Context

This part belongs to the HCF4098 series, which provides dual monostable multivibrators. It complements other logic devices like the HCF4093 NAND gates within the same 4000-series family. The device is suitable for replacing older discrete timing solutions with integrated IC alternatives.

Multivibrators Replacement Considerations

The NLV14093BDR2G is listed as a similar alternative by onsemi, though it is a NAND gate rather than a monostable multivibrator. Direct functional substitution requires verifying pinout compatibility and electrical characteristics against the original design specifications.