Maxim Integrated MAX5491NA01500+T Precision Resistor Divider

The Maxim Integrated MAX5491NA01500+T is a high-accuracy precision resistor-divider designed for a wide range of applications requiring a stable and precise voltage reference. This component is part of Maxim's family of precision-matched resistor dividers, which are engineered to provide excellent long-term stability and low temperature coefficient of resistance (TCR).

The MAX5491NA01500+T features a pair of thin-film resistors with a ratio tolerance of as tight as ±0.035% at 25°C. This tight ratio tolerance is maintained over the entire operating temperature range of -40°C to +125°C, ensuring reliable performance under varying environmental conditions. The device's thin-film resistors also exhibit an outstanding TCR tracking of just 2ppm/°C, which minimizes the changes in resistance ratio due to temperature variations.

This precision resistor-divider comes in a compact SOT-23 package, making it an excellent choice for space-constrained applications. With its small footprint, the MAX5491NA01500+T can be easily integrated into a variety of electronic systems, including portable devices, industrial controls, and precision instrumentation.

One of the key advantages of the MAX5491NA01500+T is its ease of use. The pre-trimmed resistor ratio eliminates the need for external adjustments, simplifying the design process and reducing time to market. This feature, combined with the device's high precision, makes it an ideal solution for setting precise voltage references in digital-to-analog converters (DACs), analog-to-digital converters (ADCs), and other precision voltage-divider applications.

The MAX5491NA01500+T is also characterized for its robustness, with a wide operating voltage range of 0 to 40V. This allows for flexible usage in a variety of circuit configurations without compromising the accuracy of the voltage division.

In summary, the Maxim Integrated MAX5491NA01500+T is a highly precise and stable resistor-divider that offers designers a simple and efficient way to achieve accurate voltage references. Its compact size, excellent temperature performance, and ease of integration make it an ideal choice for precision electronic designs.