SL2210005

Inrush Current Limiters (ICL) Overview

The SL2210005 is a radial leaded inrush current limiter from the Vishay Ametherm SL22 series. It features a nominal resistance of 10 Ohms with a tolerance of ±15%. The device has a maximum steady-state current rating of 5 A and supports voltage ratings of 115 VAC and 230 VAC. Physical dimensions include a diameter of 22 mm, width of 6 mm, and lead spacing of 7.8 mm. It utilizes PCB mount installation.

Inrush Current Limiters (ICL) Feature Summary

• Provides high initial resistance to absorb electrical equipment inrush current during power-on events
• Features UL certification for safety compliance
• Utilizes NTC thermistor technology for effective current limiting

Inrush Current Limiters (ICL) Applications

• Power supply input protection
• Transformer inrush current suppression
• Capacitive load switching circuits

Inrush Current Limiters (ICL) Procurement Notes

Verify component authenticity through authorized distributors or direct manufacturer channels. Confirm datasheet version matches specific lot requirements. Ensure storage conditions comply with humidity sensitivity levels. Validate that the selected package type aligns with automated assembly processes. Cross-reference part numbers to avoid confusion with similar series variants.

Inrush Current Limiters (ICL) Selection Notes

Select based on required steady-state current capacity and nominal resistance value. Consider physical footprint constraints regarding diameter and lead spacing. Evaluate thermal management needs for continuous operation. Verify voltage ratings against system operating parameters. Assess compatibility with PCB mounting techniques and soldering profiles.

Inrush Current Limiters (ICL) Part Context

This component belongs to the SL22 series of inrush current limiters designed for general-purpose applications. It represents a standard size option within the product line, balancing performance with compact physical dimensions. The series offers various resistance and current combinations to suit different circuit demands.