TT Electronics/IRC

GS8B022150JDT

GS8B022150JDT Description

The GS8B022150JDT from TT Electronics/IRC is a high-performance ceramic resistor network designed for precision applications in demanding environments. This 16-pin narrow SOIC package features 15 bussed resistors with a 215Ω resistance value and a ±5% absolute tolerance, ensuring consistent performance. Built with thin-film technology, it offers a ±50ppm/°C temperature coefficient, making it stable across a wide operating temperature range of -70°C to +125°C. The 0.05W (1/20) power rating per resistor and 0.8W total power rating provide reliable operation in compact circuits. Its 100V maximum voltage rating and gull-wing termination facilitate easy surface-mount assembly, while the ceramic case ensures durability and thermal stability.

GS8B022150JDT Features

• High-Density Integration: 15 resistors in a compact SOIC-16 package (9.91mm × 5.99mm × 1.45mm).
• Precision Performance: ±5% tolerance with ±0.5% ratio tolerance for matched resistance values.
• Wide Temperature Range: Operates reliably from -70°C to +125°C with derated power.
• Robust Construction: Ceramic substrate enhances thermal and mechanical stability.
• Low TCR: ±50ppm/°C ensures minimal resistance drift.
• Surface-Mount Ready: Gull-wing leads with 1.27mm pitch for easy PCB integration.
• Non-Automotive Grade: Suitable for industrial and commercial applications.

GS8B022150JDT Applications

This resistor network is ideal for:

• Voltage divider circuits requiring matched resistance ratios.
• Signal conditioning in precision analog systems.
• Bus termination for digital communication lines (e.g., SPI, I²C).
• Industrial control systems where temperature stability is critical.
• Embedded electronics needing compact, high-density passive components.

Conclusion of GS8B022150JDT

The GS8B022150JDT stands out for its combination of precision, durability, and space efficiency, making it a superior choice for high-reliability applications. Its ceramic construction, tight tolerance, and low TCR provide performance advantages over polymer-based networks, particularly in thermal or mechanically stressful environments. While not PPAP or automotive-qualified, it excels in industrial, telecom, and instrumentation designs where stability and miniaturization are paramount.