LTC2617
PRODUCTION14-Bit Dual Rail-to-Rail DAC with I2C Interface
- Part Models
- 8
- 1ku List Price
- Starting From $4.95
Part Details
- Smallest Pin-Compatible Dual DACs:
- LTC2607: 16 Bits
- LTC2617: 14 Bits
- LTC2627: 12 Bits
- Guaranteed Monotonic Over Temperature
- 27 Selectable Addresses
- 400kHz I2C Interface
- Wide 2.7V to 5.5V Supply Range
- Low Power Operation: 260μA per DAC at 3V
- Power Down to 1μA, Max
- High Rail-to-Rail Output Drive (±15mA, Min)
- Ultralow Crosstalk (30μV)
- Double-Buffered Data Latches
- Asynchronous DAC Update Pin
- LTC2607/LTC2617/LTC2627: Power-On Reset to Zero Scale
- LTC2607-1/LTC2617-1/LTC2627-1: Power-On Reset to Mid-Scale
- Tiny (3mm × 4mm) 12-Lead DFN Package
The LTC2607/LTC2617/LTC2627 are dual 16-, 14- and 12-bit, 2.7V to 5.5V rail-to-rail voltage output DACs in a 12-lead DFN package. They have built-in high performance output buffers and are guaranteed monotonic.
These parts establish new board-density benchmarks for 16- and 14-bit DACs and advance performance standards for output drive and load regulation in single-supply, voltage-output DACs.
The parts use a 2-wire, I2C compatible serial interface. The LTC2607/LTC2617/LTC2627 operate in both the standard mode (clock rate of 100kHz) and the fast mode (clock rate of 400kHz). An asynchronous DAC update pin (LDAC) is also included.
The LTC2607/LTC2617/LTC2627 incorporate a power-on reset circuit. During power-up, the voltage outputs rise less than 10mV above zero scale; and after power-up, they stay at zero scale until a valid write and update take place. The power-on reset circuit resets the LTC2607-1/LTC2617-1/ LTC2627-1 to mid-scale. The voltage outputs stay at midscale until a valid write and update takes place.
Applications
- Mobile Communications
- Process Control and Industrial Automation
- Instrumentation
- Automatic Test Equipment
Documentation
Data Sheet 1
Reliability Data 1
Product Selector Card 3
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 |
|---|---|---|---|
| LTC2617CDE#PBF | 12-Lead DFN (4mm x 3mm w/ EP) | ||
| LTC2617CDE#TRPBF | 12-Lead DFN (4mm x 3mm w/ EP) | ||
| LTC2617CDE-1#PBF | 12-Lead DFN (4mm x 3mm w/ EP) | ||
| LTC2617CDE-1#TRPBF | 12-Lead DFN (4mm x 3mm w/ EP) | ||
| LTC2617IDE#PBF | 12-Lead DFN (4mm x 3mm w/ EP) | ||
| LTC2617IDE#TRPBF | 12-Lead DFN (4mm x 3mm w/ EP) | ||
| LTC2617IDE-1#PBF | 12-Lead DFN (4mm x 3mm w/ EP) | ||
| LTC2617IDE-1#TRPBF | 12-Lead DFN (4mm x 3mm w/ EP) |
This is the most up-to-date revision of the Data Sheet.
Software Resources
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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 ToolLinduino 3
Linduino is Analog Devices’ Arduino compatible system for developing and distributing firmware libraries and example code for our integrated circuits. Each Linduino-supported product includes an example main program, defined in the LTSketchbook/Part Number folder and driver code, defined in the LTSketchbook/libraries folder.
Linduino code repository on GitHub and instructions on how to use the code.
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