The Hynix H5TQ2G63EFR-PBC is a 2Gb DDR3 SDRAM (Synchronous Dynamic Random-Access Memory) component. This high-performance memory chip, manufactured by Hynix Semiconductor, is designed for applications that demand significant memory capacity and fast data transfer rates. Its architecture and features are optimized for performance and power efficiency.
Applications
- Desktop PCs
- Laptop computers
- High-performance graphics cards
- Gaming consoles
- Networking devices (routers, switches)
- Embedded systems requiring substantial memory
Features
- Capacity: 2Gb (256M x 8)
- Organization: Configured as 256M x 8 bits
- Interface: DDR3, supporting high-speed data transmission
- Data Rate: Up to 1600 Mbps (PC3-12800)
- Voltage: Operates at 1.5V, for reduced power consumption
- Operating Temperature: Standard commercial temperature range
- Package: FBGA (Fine-pitch Ball Grid Array) for optimized board space and thermal dissipation
Benefits
- Increased Memory Capacity: 2Gb capacity supports more demanding applications and larger datasets.
- High Bandwidth: DDR3 interface enables fast data transfer, enhancing system responsiveness.
- Lower Power Consumption: 1.5V operation extends battery life in portable devices and reduces overall system power.
- Improved System Performance: Faster memory access times contribute to quicker application loading and smoother multitasking.
- Reliable Operation: Manufactured by Hynix, ensuring high quality and dependable performance.
Additional Details
The H5TQ2G63EFR-PBC DDR3 SDRAM is compliant with JEDEC standards for DDR3 memory. It features power-saving modes to minimize energy usage during idle states. Key architectural features include write leveling, dynamic on-die termination (ODT), and auto-refresh, which improve signal integrity and system stability. The FBGA package facilitates efficient heat dissipation, allowing for reliable operation even under heavy workloads. This chip is suitable for use in a variety of consumer, industrial, and embedded applications where a balance of performance, capacity, and power efficiency is required.
Its widespread adoption in numerous electronic devices highlights its versatility and reliability in meeting the demands of modern computing.