ADCMP563BCP-R2

Overview

The ADCMP563BCP-R2 is a dual high-speed comparator manufactured by Analog Devices Inc., utilizing the proprietary XFCB process technology. It features a propagation delay of 700 ps and an overdrive dispersion of less than 75 ps, ensuring consistent timing across various signal conditions. The device operates within an industrial temperature range of -40°C to +85°C and supports a supply voltage typically associated with ECL logic families. It provides complementary digital outputs compatible with ECL 10K and 10KH standards, capable of driving transmission lines directly.

Feature Summary

• Dual-channel architecture with differential input stage for consistent propagation delay
• Complementary digital outputs fully compatible with ECL 10K and 10KH logic series
• Integrated latch inputs supporting tracking, track-and-hold, or sample-and-hold modes
• High power supply rejection ratio exceeding 85 dB for noise immunity

Applications

• Automatic test equipment
• High-speed instrumentation
• Clock drivers
• Window comparators
• Threshold detection circuits

Procurement Notes

Verify the specific suffix against official Analog Devices documentation to confirm package type and tape/reel specifications. Ensure the part number matches the exact manufacturing revision required for your design. Cross-reference with the manufacturer's datasheet for pinout and electrical characteristics before finalizing procurement orders.

Selection Notes

Select this component when dual-channel high-speed comparison with ECL compatibility is required. The XFCB process offers low dispersion and high speed suitable for precision timing applications. Consider the operating temperature range and output drive capabilities relative to the load impedance in the target circuit design.

Part Context

This part belongs to the ADCMP56x series of high-speed comparers from Analog Devices. These devices are designed for demanding applications requiring fast response times and precise threshold detection. The series leverages advanced semiconductor processes to achieve performance metrics unattainable with standard bipolar technologies.