Maxim Integrated DS2502AR1-C5H+T&R

The DS2502AR1-C5H+T&R from Maxim Integrated is a high-quality, nonvolatile (NV) memory chip that offers a unique combination of durability, data security, and ease of integration. It is part of the renowned family of 1-Wire® devices that provide a simple and cost-effective way to add a small amount of data storage to a system.

With its 1-Wire interface, the DS2502AR1-C5H+T&R allows for serial communication on a single data line plus ground, minimizing the number of pins required for operation and simplifying the device's integration into your design. This feature makes it an ideal choice for applications where space is at a premium and where a minimalistic approach to wiring is beneficial.

The device offers a storage capacity of 1-kbit EPROM, which is partitioned into four pages of 32 bytes each. This organization allows for flexibility in data management and provides a reliable way to store calibration constants, board identification, product revision status, or user preference data. The EPROM nature of the memory ensures that the data is retained even when the power is removed, making it perfect for critical data backup purposes.

One of the key features of the DS2502AR1-C5H+T&R is its unique 64-bit registration number. This factory-lasered and tested ROM registration number ensures absolute traceability because no two parts are alike. This unique ID can be used for inventory control, product authentication, or as a key element in a device's security protocol.

The DS2502AR1-C5H+T&R is provided in a compact TSOC-6 package and is specified for operation over a wide temperature range, making it suitable for various industrial, automotive, and consumer applications. Its tape and reel (T&R) packaging format facilitates automated pick-and-place manufacturing processes, thus enhancing production efficiency.

Maxim Integrated's commitment to quality and innovation is reflected in this product, making the DS2502AR1-C5H+T&R a reliable and secure choice for designers looking to implement nonvolatile memory solutions in their next project.