TT Electronics/IRC

GS8A023002DBT

GS8A023002DBT Description

The GS8A023002DBT from TT Electronics/IRC is a high-precision 8-resistor isolated network designed for demanding surface-mount applications. Encased in a 16-pin SOIC ceramic package, it features 30KΩ thin-film resistors with an exceptional ±0.5% tolerance and ±50ppm/°C temperature coefficient, ensuring stable performance across a wide temperature range (70°C to 125°C). With a 0.8W total power rating (0.1W per resistor) and 100V maximum voltage rating, this network is engineered for reliability in precision circuits. Its gull-wing termination and 1.27mm pitch facilitate easy PCB integration, while the ceramic case enhances thermal and mechanical durability.

GS8A023002DBT Features

• High Precision: ±0.5% tolerance and ±50ppm/°C TCR for stable signal conditioning.
• Robust Construction: Ceramic SOIC package ensures thermal stability and mechanical strength.
• Isolated Design: Eight independent resistors (30KΩ each) for flexible circuit design.
• Surface-Mount Ready: Gull-wing leads and 1.27mm pitch for seamless PCB assembly.
• Wide Operating Range: Derated power up to 125°C, suitable for industrial environments.
• Non-Automotive: Ideal for industrial, telecom, and instrumentation applications.

GS8A023002DBT Applications

This resistor network excels in precision analog circuits, voltage dividers, and sensor interfaces where tight tolerance and low TCR are critical. Its isolation makes it suitable for medical equipment, test/measurement systems, and communication infrastructure. The ceramic package’s thermal performance is advantageous in high-density PCBs or environments with fluctuating temperatures.

Conclusion of GS8A023002DBT

The GS8A023002DBT stands out for its combination of precision, durability, and isolation, making it a superior choice for engineers designing high-reliability systems. While not PPAP or RoHS compliant, its thin-film technology and ceramic casing deliver unmatched performance in industrial and telecom applications. For projects demanding stable resistance values under thermal stress, this network is an optimal solution.