LTC1591
PRODUCTION14-Bit Parallel Low Glitch Multiplying DAC with 4-Quadrant Resistors
- Part Models
- 8
- 1ku List Price
- Starting From $13.46
Part Details
- True 14-Bit Performance Over Industrial Temperature Range
- DNL and INL: 1LSB Max
- On-Chip 4-Quadrant Resistors Allow Precise 0V to 10V, 0V to −10V or ±10V Outputs
- Pin Compatible 14- and 16-Bit Parts
- Asynchronous Clear Pin
- LTC1591/LTC1597: Reset to Zero Scale
- LTC1591-1/LTC1597-1: Reset to Midscale
- Glitch Impulse < 2nV-s
- 28-Lead SSOP Package
- Low Power Consumption: 10µW Typ
- Power-On Reset
The LTC1591/LTC1597 are pin compatible, parallel input 14-bit and 16-bit multiplying current output DACs that operate from a single 5V supply. INL and DNL are accurate to 1LSB over the industrial temperature range in both 2- and 4-quadrant multiplying modes. True 16-bit 4-quadrant multiplication is achieved with on-chip 4-quadrant multiplication resistors.
These DACs include an internal deglitcher circuit that reduces the glitch impulse to less than 2nV-s (typ). The asynchronous CLR pin resets the LTC1591/LTC1597 to zero scale and LTC1591-1/LTC1597-1 to mid-scale.
The LTC1591/LTC1597 are available in 28-pin SSOP and PDIP packages and are specified over the industrial temperature range.
For serial interface 16-bit current output DACs refer to the LTC1595/LTC1596 data sheet.
Applications
- Process Control and Industrial Automation
- Direct Digital Waveform Generation
- Software-Controlled Gain Adjustment
- Automatic Test Equipment
Documentation
Data Sheet 1
Reliability Data 1
Product Selector Card 2
ADI has always placed the highest emphasis on delivering products that meet the maximum levels of quality and reliability. We achieve this by incorporating quality and reliability checks in every scope of product and process design, and in the manufacturing process as well. "Zero defects" for shipped products is always our goal. View our quality and reliability program and certifications for more information.
Part Model | Pin/Package Drawing | Documentation | CAD Symbols, Footprints, and 3D Models |
---|---|---|---|
LTC1591-1CG#PBF | 28-Lead SSOP | ||
LTC1591-1CG#TRPBF | 28-Lead SSOP | ||
LTC1591-1IG#PBF | 28-Lead SSOP | ||
LTC1591-1IG#TRPBF | 28-Lead SSOP | ||
LTC1591CG#PBF | 28-Lead SSOP | ||
LTC1591CG#TRPBF | 28-Lead SSOP | ||
LTC1591IG#PBF | 28-Lead SSOP | ||
LTC1591IG#TRPBF | 28-Lead SSOP |
Part Models | Product Lifecycle | PCN |
---|---|---|
Aug 6, 2022 - 22_0171 Laser Top Mark Conversion for SSOP Packages Assembled in PNG |
||
LTC1591-1CG#PBF | PRODUCTION | |
LTC1591-1CG#TRPBF | PRODUCTION | |
LTC1591-1IG#PBF | PRODUCTION | |
LTC1591-1IG#TRPBF | PRODUCTION | |
LTC1591CG#PBF | PRODUCTION | |
LTC1591CG#TRPBF | PRODUCTION | |
LTC1591IG#PBF | PRODUCTION | |
LTC1591IG#TRPBF | PRODUCTION |
This is the most up-to-date revision of the Data Sheet.
Hardware Ecosystem
Tools & Simulations
Precision DAC Error Budget Tool
The Precision DAC Error Budget Tool is a web application that calculates the DC Accuracy of precision DAC signal chains. It shows how the static errors accumulate throughout your signal chain to quickly evaluate the design tradeoffs. Calculations include the DC errors introduced by Voltage References, Operation Amplifiers and Precision DACs.
Open ToolLatest Discussions
No discussions on ltc1591 yet. Have something to say?
Start a Discussion on EngineerZone®