MT29F128G08AMCDBJ5-6:D TR

Memory IC Overview

The Micron MT29F128G08AMCDBJ5-6:D TR is a 128Gb SLC NAND Flash memory device organized as 16G x 8. It utilizes a parallel interface and is housed in a 152-pin VBGA package with QDP configuration. The component operates within a voltage range of 2.7V to 3.6V and supports an industrial temperature range of -40°C to +85°C. The suffix 'TR' indicates the unit is supplied in tape and reel packaging for automated surface-mount assembly.

Memory IC Feature Summary

• SLC NAND architecture providing high endurance and data retention suitable for demanding applications
• Parallel interface supporting asynchronous timing for standard controller integration
• Industrial-grade temperature rating ensuring reliable operation in harsh environments

Memory IC Applications

• Industrial control systems requiring robust non-volatile storage
• Automotive electronics components meeting extended temperature standards
• Network infrastructure equipment needing high reliability

Memory IC Procurement Notes

Verify the specific ordering suffix against official Micron documentation to confirm package type, temperature grade, and packaging format. Ensure compatibility with existing board designs regarding pinout and electrical specifications before procurement.

Memory IC Selection Notes

Select this component when high cycle endurance and wide temperature stability are required. The 16G x 8 organization fits systems utilizing parallel NAND controllers. Confirm that the 152-pin VBGA footprint matches the target PCB layout constraints.

Memory IC Part Context

This part belongs to the Micron MT29F series of SLC NAND flash memories. The series is designed for applications prioritizing performance and longevity over density. The specific model denotes a 128Gb capacity with industrial thermal characteristics.

Memory IC Replacement Considerations

Consult Micron's official cross-reference guides for verified substitutes. Ensure any replacement maintains identical pinout, voltage levels, and timing parameters to avoid hardware redesign.