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CRA06S08315K0JTB

CRA06S08315K0JTB Description

The CRA06S08315K0JTB from Vishay Dale is a high-performance 4-resistor network designed for precision surface-mount applications. Housed in a compact 1206 (3216 Metric) convex package with long-side terminals, it offers a 15kΩ resistance per element with a ±5% tolerance and a ±200ppm/°C temperature coefficient. This ROHS3-compliant array operates at 62.5mW power per element and features an isolated circuit configuration, making it suitable for designs requiring reliable signal conditioning or voltage division. Its low-profile 0.024" (0.60mm) height and 3.20mm x 1.50mm footprint optimize space-constrained PCB layouts.

CRA06S08315K0JTB Features

• 4 isolated resistors in a single 1206 package, reducing component count and board space.
• Convex, long-side terminal design enhances solder joint reliability and mechanical stability.
• Wide operating range with ±200ppm/°C TCR, ensuring stable performance across temperature variations.
• 62.5mW power rating per resistor, suitable for low-power analog and digital circuits.
• Tape & Reel (TR) packaging for automated assembly efficiency.
• MSL 1 (Unlimited) moisture sensitivity, simplifying storage and handling.

CRA06S08315K0JTB Applications

Ideal for precision voltage dividers, pull-up/pull-down networks, and signal termination in:

• Industrial control systems requiring stable resistance in harsh environments.
• Consumer electronics (e.g., smart devices, wearables) where space savings are critical.
• Automotive electronics leveraging its robust construction for vibration resistance.
• Medical devices benefiting from its low-profile, high-density design.

Conclusion of CRA06S08315K0JTB

The CRA06S08315K0JTB resistor network combines compactness, reliability, and performance, making it a superior choice for applications demanding space efficiency and consistent electrical characteristics. While obsolete, its Vishay Dale pedigree ensures legacy compatibility and trusted quality. Engineers designing high-density PCBs or seeking cost-effective resistor arrays will find this model a pragmatic solution despite its discontinued status.