Microchip Technology AT24C64B-10TU-1.8 EEPROM
The AT24C64B-10TU-1.8 is a high-performance, 64-Kbit Electrically Erasable Programmable Read-Only Memory (EEPROM) module from Microchip Technology, designed for optimal storage solutions in a wide range of electronic applications. This memory device operates on a power supply voltage range of 1.7V to 5.5V, making it suitable for various low-power and standard operations.
With its I²C compatible (2-wire) serial interface, the AT24C64B-10TU-1.8 offers a fast data transfer rate of up to 400kHz in the 1.8V version, which is essential for applications requiring quick and efficient read/write operations. The chip's 8-pin TSSOP (Thin Shrink Small Outline Package) ensures a compact footprint on the PCB, thereby minimizing space and allowing for high-density mounting.
One of the key features of this EEPROM is its byte and page write capability, ranging from 1 to 32 bytes, which allows for flexible programming options. Additionally, the AT24C64B-10TU-1.8 boasts a self-timed write cycle with auto-clear, ensuring data integrity and simplifying the programming process. The device also supports a write protect pin to prevent accidental data overwrites, providing an extra layer of data security.
With a high endurance of one million write cycles and a data retention of over 100 years, the AT24C64B-10TU-1.8 is built for long-term reliability. This makes it an excellent choice for applications such as real-time clocks, configuration settings, and other scenarios where dependable non-volatile memory is crucial.
For ease of integration, the device is fully compatible with the JEDEC standard, and its lead-free/halogen-free design adheres to environmental standards, making it a sustainable choice for environmentally conscious organizations.
In summary, the Microchip Technology AT24C64B-10TU-1.8 EEPROM offers a robust and reliable storage solution with its high endurance, wide voltage range, and compact form factor. It's an ideal component for designers looking to incorporate non-volatile memory into their next project with minimal power consumption and maximum efficiency.