Samsung 16GB DDR5-4800 PC5-38400 4800MHz UDIMM Memory Module

Overview

The Samsung M323R2GA3BB0-CQK is a 16GB DDR5-4800 UDIMM memory module designed to enhance desktop computer performance with faster data transfer speeds and improved multitasking. Operating at 4800 MHz and a low voltage of 1.1 V, it offers a balance of speed and power efficiency that benefits gaming, content creation, and demanding applications. Its 288-pin unbuffered design helps reduce latency, making it a practical upgrade for modern desktop systems.

Key features

• High-speed 4800 MHz DDR5 memory that accelerates data handling and system responsiveness
• Low 1.1 V operating voltage to reduce power consumption while maintaining strong performance
• Unbuffered, non-ECC design that minimizes latency for smoother and more efficient operation
• Supports both x8 and x16 memory organizations, allowing flexible configurations for various system builds
• Dual-DIMM-per-channel capability to maximize memory bandwidth in compatible motherboards

Key specs

• Capacity: 16 GB
• Memory type: DDR5
• Speed: 4800 MHz (PC5-38400)
• Voltage: 1.1 V
• Form factor: 288-pin UDIMM
• Design: Unbuffered, non-ECC
• Memory organization: Supports x8 and x16

Compatibility and installation

This memory module is compatible with desktop motherboards that support DDR5 UDIMM slots, making it suitable for users upgrading existing systems or building new desktops. Its standard 288-pin layout ensures easy installation without requiring special adapters or configurations. The module’s unbuffered design fits well in systems where low latency and fast memory access are priorities.

Ideal uses and environments

The Samsung M323R2GA3BB0-CQK is well suited to users who need reliable and fast memory for gaming, video editing, 3D rendering, and other intensive desktop tasks. It works effectively in setups where multitasking and quick data access improve overall productivity. This module is a strong choice for enthusiasts and professionals looking to boost their system’s memory bandwidth without sacrificing stability or power efficiency.