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MT29F16G08ADACAH4-IT:C

MT29F16G08ADACAH4-IT:C Description

The MT29F16G08ADACAH4-IT:C is a high-density 16Gbit (2G x 8) NAND flash memory device from Micron Technology, designed for applications requiring reliable, high-speed data storage. It features a parallel interface for efficient data transfer and operates within a 2.7V to 3.6V supply voltage range, making it suitable for low-power embedded systems. Packaged in a 63VFBGA form factor, this surface-mount device is RoHS3 compliant and adheres to ECCN 3A991B1A export controls. Although marked as obsolete, it remains a robust solution for legacy designs requiring proven flash memory technology.

MT29F16G08ADACAH4-IT:C Features

• Memory Organization: 2G x 8 structure for flexible addressing.
• Parallel Interface: Enables high-speed data access, ideal for bandwidth-intensive applications.
• Wide Voltage Range: Operates at 2.7V–3.6V, supporting diverse power environments.
• Industrial Robustness: MSL 3 (168 hours) moisture sensitivity ensures reliability in harsh conditions.
• Compliance: REACH unaffected and RoHS3 compliant, meeting environmental standards.
• Legacy Support: Despite obsolescence, offers stable performance for existing systems.

MT29F16G08ADACAH4-IT:C Applications

This NAND flash is optimized for:

• Embedded Systems: Firmware storage in industrial controllers, medical devices, and automotive electronics.
• Data Logging: High-capacity storage for telemetry and sensor data in IoT devices.
• Legacy Upgrades: Replacement or maintenance of older systems requiring parallel flash interfaces.
• Consumer Electronics: Cost-effective storage for set-top boxes, printers, and networking equipment.

Conclusion of MT29F16G08ADACAH4-IT:C

The MT29F16G08ADACAH4-IT:C delivers a balance of high density, parallel performance, and industrial durability, making it a pragmatic choice for legacy and embedded applications. While newer alternatives may offer advanced interfaces, this device remains a dependable option for designs prioritizing proven reliability and compatibility with existing parallel memory architectures. Engineers should evaluate lifecycle status but can leverage its tested performance for long-term deployments.