TT Electronics/IRC

GUS-QS8A-01-6191-GF

GUS-QS8A-01-6191-GF Description

The GUS-QS8A-01-6191-GF from TT Electronics/IRC is a high-performance thin-film resistor network designed for precision applications. This 8-resistor isolated network features a 6.19KΩ resistance value with a tight 2% tolerance and a low ±100ppm/°C temperature coefficient, ensuring stable performance across a wide temperature range of 70°C to 125°C. Housed in a compact 16-pin QSOP package with gull-wing SMD termination, it offers a power rating of 0.75W (3/4W) total and 0.1W (1/10W) per resistor, making it suitable for high-density PCB designs. Its 100V maximum voltage rating and thin-film technology provide excellent reliability for demanding circuits.

GUS-QS8A-01-6191-GF Features

• Precision Thin-Film Technology: Delivers low noise and high stability.
• Compact QSOP Package: 4.9mm (L) × 6.02mm (D) × 1.47mm (H) with 0.64mm terminal pitch, ideal for space-constrained designs.
• Isolated Resistors (ISOL): Independent resistors for flexible circuit design.
• Wide Operating Range: -55°C to +125°C (derated power up to 125°C).
• Robust Construction: Gull-wing SMD termination ensures reliable solder joints.
• Non-Automotive, Non-PPAP: Suitable for industrial and commercial applications.

GUS-QS8A-01-6191-GF Applications

• Precision Analog Circuits: Voltage dividers, feedback networks.
• Signal Conditioning: Sensor interfaces, ADC/DAC circuits.
• Medical & Test Equipment: High-accuracy measurement systems.
• Industrial Controls: PLCs, motor drives requiring stable resistance.
• Communication Systems: RF and baseband signal processing.

Conclusion of GUS-QS8A-01-6191-GF

The GUS-QS8A-01-6191-GF excels in precision, compactness, and thermal stability, making it a top choice for engineers needing reliable resistor networks in high-density or thermally challenging environments. Its isolated design, thin-film accuracy, and robust packaging distinguish it from generic arrays, particularly in industrial, medical, and communication applications where consistency and space efficiency are critical.