TT Electronics/IRC

GS8B032550FBT

GS8B032550FBT Description

The GS8B032550FBT from TT Electronics/IRC is a high-precision ceramic resistor network designed for demanding electronic applications. Housed in a 16-pin narrow SOIC package, this bussed configuration features 15 resistors with a 255Ω resistance value and an absolute tolerance of ±1%, ensuring reliable performance in precision circuits. The thin-film technology delivers a low temperature coefficient of ±25ppm/°C, maintaining stability across a wide operating range of -55°C to +125°C. With a power rating of 0.8W (0.05W per resistor) and a maximum voltage rating of 100V, this network is engineered for efficiency and durability in compact designs.

GS8B032550FBT Features

• Ceramic Case & Thin Film Technology: Ensures high thermal stability and low noise.
• Precision Tolerance: ±1% absolute, ±0.1% ratio tolerance for matched performance.
• Wide Temperature Range: Operates from -55°C to +125°C with derated power up to 125°C.
• Robust Construction: Gull-wing termination and SOIC package for reliable surface mounting.
• High Power Density: 0.8W total power dissipation in a compact 9.91mm × 5.99mm × 1.45mm footprint.
• Non-Automotive, Non-PPAP: Suitable for industrial and commercial applications.

GS8B032550FBT Applications

Ideal for precision analog circuits, voltage dividers, and signal conditioning in:

• Test & Measurement Equipment: High-accuracy signal processing.
• Medical Electronics: Stable performance in diagnostic devices.
• Industrial Control Systems: Reliable operation in harsh environments.
• Communication Hardware: Low-drift resistance networks for RF/analog modules.

Conclusion of GS8B032550FBT

The GS8B032550FBT stands out for its ceramic-based reliability, tight tolerance, and compact SOIC footprint, making it a superior choice for precision applications. While not automotive-grade, its thin-film technology and wide temperature range cater to industrial and commercial needs where stability and space efficiency are critical. Engineers will appreciate its balanced performance in high-accuracy circuits requiring minimal drift over temperature variations.