ADC11DL066CIVS

Analog To Digital Converters (ADC) Overview

The ADC11DL066CIVS is a dual-channel, low-power CMOS analog-to-digital converter manufactured by National Semiconductor. It converts analog input signals into 11-bit digital words at a minimum sampling rate of 66 MSPS per channel. The device utilizes a differential pipeline architecture with on-chip sample-and-hold circuits and digital error correction to minimize die size and power consumption while maintaining excellent dynamic performance. It features a 450 MHz full-power bandwidth and operates on a single 3.3V supply, consuming 686 mW at full speed including reference current.

Analog To Digital Converters (ADC) Feature Summary

• Dual-channel 11-bit resolution with 66 MSPS sampling rate
• 450 MHz full-power bandwidth for high-frequency signal processing
• Single 3.3V supply operation with 686 mW power consumption at 66 MSPS
• On-chip sample-and-hold circuit and internal reference buffer

Analog To Digital Converters (ADC) Applications

• High-speed data acquisition systems requiring dual-channel input
• Industrial process control applications needing precise analog conversion
• Test and measurement equipment utilizing differential pipeline architectures

Analog To Digital Converters (ADC) Part Context

The ADC11DL066CIVS belongs to the ADC11DL066 family from National Semiconductor (now Texas Instruments). The CIVS suffix typically denotes a specific package type and temperature range variant within this product line. This component is part of a series designed for low-power, high-speed conversion tasks, sharing architectural similarities with other devices in the DL06x series such as the ADC10DL065 and ADC12DL066.

Analog To Digital Converters (ADC) Replacement Considerations

Direct pin-compatible replacements within the same family include the ADC11DL066 standard version. For different resolutions or speeds, consider the ADC10DL065 (10-bit) or ADC12DL066 (12-bit), though interface and power characteristics may vary. Verify package compatibility and thermal requirements when substituting.