LTC1661CMS8#TRPBF

The LTC1661CMS8#TRPBF is a precision current-output, 8-bit digital-to-analog converter (DAC). It is a low-power, monolithic CMOS device that is ideal for a variety of data conversion applications. Working in a low-power, single-supply environment, the DAC is available in a miniature 8-lead MSOP package, which is ideal for portable applications.

The LTC1661CMS8#TRPBF is designed to provide the utmost accuracy in both static and dynamic output performance, with a full-scale error of +/- 0.25% at +25°C. The DAC features a unipolar current ramp response with a full-scale step of 10 mA and an active output drive capability of 20 mA. The overflow pin of the device is capable of driving up to 30 mA of current.

The LTC1661CMS8#TRPBF offers a variety of features that enable it to be an ideal choice for data acquisition applications. It is capable of converting 0 to 5V of a digital input to a 0 to 10 mA of current. The device also features an internal reference voltage of 5V and a low total harmonic distortion of 0.01%. Additionally, it includes a low-power shutdown mode, which is activated by setting the shutdown pin low and ambient temperature range of -40°C to +85°C.

The LTC1661CMS8#TRPBF also offers a wide range of programming options. It is programmed via a parallel interface with an 8-bit current input from a 4-wire bus. The device is capable of programming from 8-bit single-pass to 32-bit multiplied programming, allowing it to achieve precise and highly accurate output currents. Additionally, the device features a power-on reset input, which ensures the DAC can always maintain an active output current.

The LTC1661CMS8#TRPBF is an ideal choice for a variety of applications, including medical instrumentation, telecommunications, and industrial automation. Its small size and low power consumption make it a valuable asset for creating compact and power efficient data acquisition systems. By utilizing its highly accurate output performance, it is a perfect choice for systems where tight tolerance and precision are required.