TT Electronics/IRC

GS7B023830JBT

GS7B023830JBT Description

The GS7B023830JBT from TT Electronics/IRC is a high-performance ceramic resistor network designed for precision applications. This 14-pin narrow SOIC device features 13 bussed resistors with a 383Ω resistance value, offering a ±5% absolute tolerance and an exceptional ±0.1% ratio tolerance. Built with thin-film technology, it ensures stable performance across a wide temperature range (70°C to 125°C) and delivers a power rating of 0.7W (0.05W per resistor). The SOIC package with gull-wing termination enables reliable surface-mount assembly, while its ±50ppm/°C temperature coefficient guarantees minimal resistance drift.

GS7B023830JBT Features

• Robust Construction: Ceramic case ensures durability and thermal stability.
• High Precision: Tight ratio tolerance (±0.1%) for matched resistance values.
• Wide Operating Range: Rated for 125°C max temperature and 100V max voltage.
• Space-Efficient: Compact 8.66mm × 5.99mm × 1.45mm footprint with 1.27mm terminal pitch.
• Reliable Termination: Gull-wing leads for secure PCB mounting.
• Non-Automotive: Suitable for industrial and commercial applications (PPAP not required).

GS7B023830JBT Applications

This resistor network excels in precision analog circuits, voltage dividers, and signal conditioning where matched resistances are critical. Ideal for:

• Test & Measurement Equipment: Ensures accuracy in sensor interfaces and calibration circuits.
• Medical Devices: Stable performance in diagnostic and monitoring systems.
• Industrial Controls: Reliable operation in PLCs and motor drivers.
• Communication Systems: Low-drift performance for RF and baseband filtering.

Conclusion of GS7B023830JBT

The GS7B023830JBT stands out for its ceramic-based reliability, tight tolerance, and thermal resilience, making it a superior choice for demanding electronics. While not RoHS-compliant, its high power density and precision cater to specialized industrial and instrumentation needs. Engineers seeking stable, space-saving resistor networks will find this model an optimal solution for critical circuit designs.