TT Electronics/IRC

GS8B025230FT

GS8B025230FT Description

The GS8B025230FT from TT Electronics/IRC is a high-performance ceramic resistor network designed for precision applications. Packaged in a 16-pin narrow SOIC (SOIC-C series), it features 15 bussed resistors with a 523Ω resistance value and a tight ±1% tolerance. Built using thin-film technology, it delivers excellent stability with a ±50ppm/°C temperature coefficient, ensuring reliable performance across a wide operating range of 70°C to 125°C. The 0.05W (1/20) power rating per resistor and 0.8W total power rating make it suitable for low-power circuits, while its 100V maximum voltage rating enhances versatility. The gull-wing termination and surface-mount design facilitate easy PCB integration.

GS8B025230FT Features

• Ceramic case for superior thermal and mechanical stability.
• Bussed network (BUS) simplifies circuit design by interconnecting resistors.
• Thin-film technology ensures high precision and low noise.
• ±1% absolute tolerance and ±50ppm/°C TCR for consistent performance.
• SOIC package (9.91mm × 5.99mm × 1.45mm) with ±0.1mm dimensional tolerances for compact layouts.
• Wide temperature range (70°C to 125°C derated) for harsh environments.
• Non-automotive, non-PPAP compliant, ideal for industrial and commercial use.

GS8B025230FT Applications

This resistor network excels in:

• Voltage dividers and pull-up/pull-down networks in digital circuits.
• Signal conditioning for sensors and ADCs in measurement systems.
• Impedance matching in communication devices.
• Power supply feedback loops requiring stable resistance values.
• Industrial control systems where precision and durability are critical.

Conclusion of GS8B025230FT

The GS8B025230FT stands out for its ceramic construction, thin-film accuracy, and bussed design, offering reliability in compact, high-density PCB applications. While not RoHS-compliant, its robust performance in extended temperature ranges makes it a preferred choice for industrial and instrumentation use. Engineers seeking stable, low-power resistor networks with tight tolerances will find this model highly effective.