TT Electronics/IRC

GS4B036650BAT

GS4B036650BAT Description

The GS4B036650BAT from TT Electronics/IRC is a high-precision 7-resistor bussed network in an 8-pin narrow SOIC package, designed for demanding electronic applications. Featuring a 665Ω resistance with an ultra-tight ±0.1% absolute tolerance and ±0.05% ratio tolerance, this ceramic-based thin-film resistor network ensures exceptional accuracy and stability. Its ±25ppm/°C temperature coefficient and 125°C maximum operating temperature make it suitable for environments requiring thermal resilience. The 0.4W total power rating (0.05W per resistor) and 100V maximum voltage rating further enhance its reliability in precision circuits.

GS4B036650BAT Features

• High Precision: ±0.1% tolerance and ±25ppm/°C TCR for stable performance.
• Robust Construction: Ceramic case with gull-wing termination for durability.
• Optimized Layout: 8-pin SOIC (4.9mm × 5.99mm × 1.45mm) with ±0.1mm dimensional tolerances.
• Thermal Performance: Operates from 70°C to 125°C with derated power.
• Bussed Design: Simplifies circuit routing in multi-resistor applications.
• Non-Automotive: Ideal for industrial and instrumentation use (PPAP not required).

GS4B036650BAT Applications

This resistor network excels in:

• Precision Analog Circuits: Voltage dividers, feedback networks.
• Test & Measurement Equipment: Calibration modules, sensor interfaces.
• Medical Electronics: High-accuracy diagnostic devices.
• Industrial Control Systems: Signal conditioning, PLCs.
• Aerospace & Defense: Avionics, ruggedized electronics (non-EU RoHS).

Conclusion of GS4B036650BAT

The GS4B036650BAT stands out for its combination of precision, compactness, and thermal stability, making it a superior choice for applications demanding tight tolerances and repeatability. While not automotive-grade, its ceramic thin-film technology and bussed architecture offer unmatched reliability in industrial and high-performance electronics. Engineers will appreciate its ease of integration and consistent performance across varying operational conditions.