AT24C64AW-10SU-1.8 belongs to the category of electrically erasable programmable read-only memory (EEPROM) chips.
This product is commonly used for non-volatile data storage in various electronic devices such as microcontrollers, computers, and consumer electronics.
The AT24C64AW-10SU-1.8 is packaged in a small outline integrated circuit (SOIC) package. It is typically sold in reels or tubes containing multiple units.
The AT24C64AW-10SU-1.8 has a total of 8 pins, each serving a specific purpose:
The AT24C64AW-10SU-1.8 utilizes a floating gate transistor structure to store and retrieve data. When programming, an electric charge is trapped in the floating gate, representing a logical "1." Erasing the data involves removing the charge, resulting in a logical "0." The stored data can be accessed by sending appropriate commands through the serial interface.
The AT24C64AW-10SU-1.8 finds application in various fields, including:
These alternative models offer different storage capacities to suit specific application requirements while maintaining similar characteristics and functionality.
In conclusion, the AT24C64AW-10SU-1.8 is a versatile EEPROM chip that provides non-volatile data storage with high capacity and low power consumption. Its compact form factor and various functional features make it suitable for a wide range of applications in different industries. While it has certain limitations, such as limited endurance and slower write cycle time, it remains a reliable choice for many electronic devices requiring non-volatile memory.
Sure! Here are 10 common questions and answers related to the application of AT24C64AW-10SU-1.8 in technical solutions:
Q1: What is AT24C64AW-10SU-1.8? A1: AT24C64AW-10SU-1.8 is a specific model of EEPROM (Electrically Erasable Programmable Read-Only Memory) chip manufactured by Microchip Technology. It has a capacity of 64 kilobits (8 kilobytes) and operates at a voltage of 1.8V.
Q2: What are some common applications of AT24C64AW-10SU-1.8? A2: AT24C64AW-10SU-1.8 is commonly used in various electronic devices for storing small amounts of non-volatile data, such as configuration settings, calibration data, or user preferences. It can be found in products like smart meters, industrial control systems, medical devices, and consumer electronics.
Q3: How does AT24C64AW-10SU-1.8 communicate with a microcontroller? A3: AT24C64AW-10SU-1.8 uses the I2C (Inter-Integrated Circuit) protocol for communication with a microcontroller. It has a 2-wire serial interface consisting of a data line (SDA) and a clock line (SCL).
Q4: What is the maximum operating frequency of AT24C64AW-10SU-1.8? A4: The maximum operating frequency of AT24C64AW-10SU-1.8 is 400 kHz, which means it can transfer data at a rate of up to 400 kilobits per second.
Q5: Can AT24C64AW-10SU-1.8 be used in both 3.3V and 5V systems? A5: Yes, AT24C64AW-10SU-1.8 is designed to be compatible with both 3.3V and 5V systems. It can operate within a voltage range of 1.7V to 5.5V.
Q6: How many write cycles can AT24C64AW-10SU-1.8 endure? A6: AT24C64AW-10SU-1.8 can endure up to 1 million write cycles. After that, the memory cells may start to degrade, affecting data retention.
Q7: What is the typical data retention time of AT24C64AW-10SU-1.8? A7: The typical data retention time of AT24C64AW-10SU-1.8 is 100 years. This means that the stored data will remain intact for at least 100 years under normal operating conditions.
Q8: Can AT24C64AW-10SU-1.8 be used in harsh environments? A8: AT24C64AW-10SU-1.8 has an industrial temperature range of -40°C to +85°C, making it suitable for use in various environments, including harsh industrial settings.
Q9: Does AT24C64AW-10SU-1.8 support software write protection? A9: Yes, AT24C64AW-10SU-1.8 supports software write protection. It has a built-in write protection feature that allows specific memory blocks to be protected from accidental or unauthorized writes.
Q10: Can AT24C64AW-10SU-1.8 be easily soldered onto a PCB? A10: Yes, AT24C64AW-10SU-1.8 comes in a small surface-mount package (SOIC-8) that can be easily soldered onto a PCB using standard soldering techniques and equipment.
Please note that the answers provided here are general and may vary depending on specific application requirements or datasheet specifications.