RNF12JBD27K0

Overview

The RNF12JBD27K0 is a metal film axial through-hole resistor manufactured by Stackpole Electronics Inc. It features a nominal resistance of 27 kOhms with a tolerance of ±5%. The component has a power rating of 0.5W (1/2W) and operates within a temperature range of -55°C to +155°C. Its temperature coefficient is ±100ppm/°C. The physical dimensions are 0.093 inches in diameter by 0.250 inches in length (2.35mm x 6.35mm). It complies with RoHS3 standards.

Feature Summary

• Constructed with safety-rated flame-retardant coating for enhanced protection
• Utilizes metal film composition for stable electrical performance
• Designed with axial leads for reliable through-hole PCB mounting

Applications

• Industrial control systems
• Consumer electronics
• Automotive systems
• IoT devices
• Medical equipment

Procurement Notes

Verify the specific ordering suffix against manufacturer documentation to confirm exact tolerance and packaging configuration. Ensure the selected variant matches the required flame-retardant safety specifications and RoHS3 compliance status for your project. Cross-reference the datasheet for any updates on material composition or environmental restrictions before finalizing procurement orders.

Selection Notes

Select this component when a 27 kOhm resistance value with 5% tolerance is required in a 1/2W axial package. Consider the ±100ppm/°C temperature coefficient for thermal stability requirements. Verify that the 0.093-inch diameter fits the available board space and that the operating temperature range meets the environmental conditions of the target application.

Part Context

This part belongs to the RNF series of general-purpose and precision metal film resistors from Stackpole Electronics. The series is characterized by its flame-retardant coating and axial construction, making it suitable for standard through-hole applications where moderate precision and reliability are necessary.

Replacement Considerations

Public confirmed substitute part numbers are not provided in the source data.