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The MAX6006BESA+T is a precision shunt voltage reference with a fixed output of 1.25V, housed in an 8-pin SO package. It belongs to the Grade B series, offering an initial accuracy of 0.5% and a temperature coefficient of 75ppm/°C. The device operates within a wide current range from 1µA to 2mA, ensuring stable performance across varying load conditions. Designed for extended industrial environments, it functions reliably between -40°C and +85°C.
Verify that the specific suffix '+T' corresponds to tape-and-reel packaging rather than tube packaging when sourcing components. Confirm RoHS compliance status through official manufacturer documentation or authorized distributors. Ensure the ordering part number matches the exact grade and package type required for your design specifications before finalizing procurement.
Select this component when low quiescent current and precise voltage regulation are critical requirements. Consider the 8-pin SO package if board space allows for larger footprints compared to SOT23 options. Evaluate thermal management needs based on the maximum operating current and ambient temperature constraints specified in the datasheet.
This device is part of the MAX6006–MAX6009 family of ultra-low-power shunt references manufactured by Analog Devices Inc./Maxim Integrated. These devices serve as direct replacements for older generation references like the ICL8069 and LM385, offering improved performance metrics in a smaller footprint while maintaining compatibility with existing circuit architectures.
Public confirmed substitute part numbers include MAX6006AEUR+T, MAX6006AESA+, MAX6006BEUR+T, and MAX6006BESA+. Verify pinout compatibility and electrical characteristics against original design requirements before implementing any alternative components.
The minimum operating current is guaranteed to be less than 1µA, allowing for efficient operation in low-power applications.
Yes, the OUT pin should be bypassed to GND with a 0.01µF or larger capacitor to ensure stability and reduce overshoot during transient responses.