TT Electronics/IRC

GS7B035900CBT

GS7B035900CBT Description

The GS7B035900CBT from TT Electronics/IRC is a high-precision ceramic thin-film resistor network designed for demanding applications requiring tight tolerance and stability. Housed in a 14-pin narrow SOIC package, this bussed (BUS) configuration integrates 13 resistors with a common node, each rated at 590Ω ±0.25% absolute tolerance and ±0.1% ratio tolerance. The device operates over a wide temperature range (-70°C to +125°C) with a derated power capability, ensuring reliability in harsh environments. Its ±25ppm/°C temperature coefficient and 0.05W (1/20) power rating per resistor (0.7W total) make it suitable for precision analog and digital circuits.

GS7B035900CBT Features

• High Precision: ±0.25% absolute tolerance and ±0.1% ratio tolerance for matched resistance values.
• Stable Performance: Thin-film technology with ±25ppm/°C TCR ensures minimal drift.
• Robust Construction: Ceramic case and gull-wing termination enhance durability and solderability.
• Space-Efficient: Compact SOIC package (8.66mm × 5.99mm × 1.45mm) with 1.27mm terminal pitch.
• Wide Voltage Rating: Supports up to 100V, ideal for industrial and instrumentation use.
• Non-Automotive: Not PPAP-capable, but excels in medical, aerospace, and test equipment applications.

GS7B035900CBT Applications

This resistor network is ideal for:

• Precision voltage dividers in data acquisition systems.
• Current sensing and signal conditioning circuits.
• Impedance matching in RF and communication hardware.
• Feedback networks for op-amps and ADCs/DACs.
• Industrial control systems requiring long-term stability.

Conclusion of GS7B035900CBT

The GS7B035900CBT stands out for its exceptional accuracy, thermal stability, and compact form factor, making it a superior choice for precision electronics. While not automotive-grade, its ceramic construction and thin-film technology deliver unmatched performance in high-reliability applications. Engineers seeking a low-drift, high-tolerance resistor network will find this model optimally balanced for critical designs.