Micron Technology

MT29F64G08CBABAL84A3WC1

MT29F64G08CBABAL84A3WC1 Description

The MT29F64G08CBABAL84A3WC1 is a high-density 64Gbit (8GB) NAND Flash memory device from Micron Technology Inc., designed for embedded storage applications requiring parallel interface performance. Organized as 8G x 8, this surface-mount die operates within a 2.7V to 3.6V supply range and supports a 0°C to 70°C operating temperature range. As part of Micron's MT29F64G08 series, it leverages parallel memory interface technology for high-speed data transfer, making it suitable for industrial and legacy systems where bulk storage with moderate speed is critical.

MT29F64G08CBABAL84A3WC1 Features

• High-Capacity Storage: 64Gbit (8GB) density in an 8-bit parallel configuration.
• Wide Voltage Range: Operates at 2.7V–3.6V, ensuring compatibility with various system designs.
• Industrial-Grade Reliability: Designed for 0°C to 70°C environments, suitable for controlled industrial applications.
• Die Form Factor: Compact surface-mount die packaging, ideal for space-constrained embedded designs.
• Legacy Interface Support: Parallel interface simplifies integration into older systems without requiring advanced controllers.

MT29F64G08CBABAL84A3WC1 Applications

• Embedded Systems: Ideal for industrial automation, medical devices, and legacy computing platforms requiring reliable, high-capacity storage.
• Data Logging: Suitable for applications like black boxes or sensor data storage due to its robust parallel interface.
• Consumer Electronics: Used in set-top boxes, printers, and networking equipment where moderate-speed NAND Flash is sufficient.
• Obsolete System Upgrades: A cost-effective solution for retrofitting older hardware with higher storage capacity.

Conclusion of MT29F64G08CBABAL84A3WC1

The MT29F64G08CBABAL84A3WC1 offers a balanced combination of high-density storage, parallel interface simplicity, and industrial-grade reliability. While marked as obsolete, it remains a viable choice for legacy systems, embedded designs, and applications where modern interfaces (e.g., eMMC, UFS) are impractical. Its die form factor and wide voltage range make it adaptable to diverse environments, though designers should consider newer alternatives for cutting-edge applications.