IDT7164L35YGI

Memory Intersil (Renesas Electronics Corporation) IDT7164L35YGI Overview

The Memory Intersil (Renesas Electronics Corporation) IDT7164L35YGI is a high-performance integrated circuit specifically designed for applications requiring a robust and reliable SRAM solution. This IC features 64KBIT of static random-access memory (SRAM) in a parallel interface format, encapsulated in a compact 28-pin SOJ package. Its design focuses on delivering high-speed data access and stability, making it an excellent choice for demanding industrial applications that require quick data retrieval and storage without the need for frequent refreshing. The IDT7164L35YGI is optimized for applications where space and power efficiency are critical, making it an ideal component for sophisticated electronics requiring compact yet powerful memory solutions.

IDT7164L35YGI Features

This SRAM chip offers a combination of features that are beneficial for a wide range of applications. It operates with a low power consumption, which is crucial for energy-sensitive projects. Additionally, its fast access time ensures efficient performance in systems requiring rapid data handling. The 28SOJ package is advantageous for systems with limited PCB space, while providing adequate pin accessibility for standard integration requirements.

IDT7164L35YGI Applications

• Embedded Systems: Utilized in embedded systems for real-time processing tasks where quick memory access is necessary to maintain system performance.
• Industrial Automation: Supports reliable operations in industrial automation equipment, handling data-intensive tasks effectively without lag.
• Telecommunications: Essential for data buffering in telecommunications infrastructure, where speed and data integrity are paramount.
• Automotive Electronics: Serves in automotive electronics for control units and diagnostics, requiring robust memory under varying environmental conditions.
• Medical Devices: Ideal for use in medical devices, where precision and reliability in data handling can be critical to device functionality and patient safety.