Manufacturer Part Number
AD9788BSVZRL
Manufacturer
Analog Devices
Introduction
AD9788BSVZRL is a high-performance Digital to Analog Converter for data acquisition applications, housed in a 100-TQFP Exposed Pad package.
Product Features and Performance
16-bit resolution
Dual D/A converters
Typical settling time of 20ns
Current-type unbuffered output
Supports differential output
Parallel data interface
Oversampling Interpolating DAC architecture
Internal reference
Product Advantages
High resolution and fast settling time enhance signal fidelity
Dual DACs allow for simultaneous output, increasing system throughput
Current output and differential capabilities provide robust signal integrity
Key Technical Parameters
Number of Bits: 16
Settling Time: 20ns (Typical)
Output Type: Current - Unbuffered
Differential Output: Yes
Reference Type: Internal
Voltage Supply, Analog: 3.13V to 3.47V
Voltage Supply, Digital: 1.7V to 1.9V, 3.13V to 3.47V
INL/DNL (LSB): ±3.7, ±2.1
Quality and Safety Features
Built to operate reliably in a temperature range of -40°C to 85°C
Robust TQFP-100 packaging for enhanced thermal and mechanical performance
Compatibility
Compatible with various data acquiring systems due to standard parallel interface and flexible power requirements
Application Areas
Used in high-speed data acquisition
Signal reconstruction
Telecommunications
Medical instrumentation
Product Lifecycle
Status: Active
Packaged in Tape & Reel for reliable handling and ease of assembly in mass production
No indication of nearing discontinuation, ensuring long-term availability
Several Key Reasons to Choose This Product
Dual 16-bit DACs enabling high precision and multi-tasking capability in critical applications
Fast data handling with a typical settling time of 20ns ideal for rapid signal processing tasks
Robust build suitable for industrial temperature ranges and demanding environments
Internally integrated reference reducing external component requirements and system complexity
Flexible power supply options catering to variations in system power design