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Y1365V0193BT9W

Y1365V0193BT9W Description

The Y1365V0193BT9W from VPG Foil Resistors is a high-precision 4-resistor network designed for demanding applications requiring ultra-tight tolerance and stability. Housed in an 8-SOIC package with dimensions of 5.00mm x 3.99mm (0.197" x 0.157"), this surface-mount device offers isolated resistors with resistances of 100Ω and 2kΩ. Its ±0.1% tolerance and ±0.01% matching ratio ensure exceptional accuracy, while the ±2ppm/°C temperature coefficient and ±0.5ppm/°C resistor-ratio drift guarantee minimal performance variation across temperature ranges.

Y1365V0193BT9W Features

• Precision Performance: Ultra-low tolerance (±0.1%) and matching ratio (±0.01%) for critical circuits.
• Stability: Industry-leading ±2ppm/°C TCR and ±0.5ppm/°C ratio drift ensure long-term reliability.
• Compact Design: 0.073" (1.86mm) profile and 8-SOIC package optimize space in dense PCB layouts.
• Robust Construction: ROHS3 compliant and MSL1 (unlimited) rated for easy handling and environmental compliance.
• Power Handling: 100mW per resistor balances performance with thermal management.

Y1365V0193BT9W Applications

• Precision Instrumentation: Ideal for medical devices, test equipment, and calibration systems where accuracy is paramount.
• Aerospace & Defense: Stable performance under extreme conditions suits avionics, radar, and guidance systems.
• Industrial Automation: Reliable for sensor conditioning, bridge networks, and feedback control circuits.
• High-End Audio: Low noise and drift make it perfect for DAC/ADC reference networks in audiophile-grade systems.

Conclusion of Y1365V0193BT9W

The Y1365V0193BT9W stands out as a premium resistor network for engineers who demand precision, stability, and miniaturization. Its low TCR, tight matching, and robust packaging make it superior to generic resistor arrays, particularly in mission-critical and high-reliability applications. Whether in medical, aerospace, or high-fidelity audio, this component delivers uncompromising performance where even minor deviations are unacceptable.