Kingston 1GB DDR2 800MT/s Non-ECC Unbuffered DIMM Memory Module

Overview

The Kingston KTH-XW4400C6/1G is a 1GB DDR2 memory module designed to enhance the performance of desktop computers that support DDR2 technology. Operating at 800MT/s (800MHz) with a CL6 latency, it fits into a standard 240-pin DIMM slot and runs at 1.8 volts. This module is non-ECC and unbuffered, making it a practical upgrade for everyday computing tasks in home or office environments.

It provides a reliable way to improve multitasking and overall system responsiveness without the need for a full system replacement. This memory module is well suited for users looking to extend the life of older desktops by reducing slowdowns during common activities such as web browsing, office work, and light media consumption.

Key features

• 1GB capacity that offers a noticeable boost in memory for older desktop systems
• 800MHz speed supports faster data transfer rates, helping applications run more smoothly
• Standard 240-pin DIMM form factor ensures compatibility with most DDR2 desktop motherboards
• CL6 latency delivers steady and consistent performance for everyday tasks
• Operates at 1.8 volts, providing energy-efficient operation without sacrificing speed
• Non-ECC and unbuffered design fits typical home and office desktops that do not require error correction

Key specs

• Memory type: DDR2 SDRAM
• Capacity: 1GB
• Speed: 800MT/s (800MHz)
• Latency: CL6
• Voltage: 1.8 volts
• Form factor: 240-pin DIMM
• Error correction: Non-ECC
• Buffering: Unbuffered

Compatibility and usage

This memory module is designed for desktop computers that support DDR2 memory with 240-pin DIMM slots. It is ideal for users who want to improve system performance without upgrading to newer memory standards. The module works well in environments where stability and compatibility with DDR2 specifications are essential, such as home offices or small business desktops running standard productivity applications.

By adding this module, users can expect smoother multitasking and reduced lag during routine computing activities, making it a cost-effective way to refresh aging systems and extend their useful life.