DIMM 64 GB DDR5-6000 (2x 32 GB) Dual-Kit, Arbeitsspeicher schwarz, F5-6000J3238G32GX2-RM5RK, Ripjaws M5 RGB, INTEL XMP

G.Skill Ripjaws M5 RGB is a high-performance DDR5 memory kit designed for PC enthusiasts and gamers. This 64 GB (2 x 32 GB) kit runs at 6000 MHz with CL32 timing, uses 288‑pin DIMM modules and operates at 1.4 V. The modules feature matte black or matte white aluminum heatspreaders and customizable RGB lighting, providing both performance and a coordinated aesthetic for modern PC builds.

Advantages

The Ripjaws M5 RGB series is engineered to deliver high-speed DDR5 performance with hand-screened ICs and aluminum heatspreaders for thermal stability. It supports Intel XMP 3.0 profiles for straightforward overclocking and has been validated through G.SKILL’s testing process to ensure compatibility and reliability across compatible platforms. Integrated RGB lighting can be synchronized with major motherboard software for unified system illumination.

Suitable for

• High-performance gaming PCs
• Content creation and multimedia editing workstations
• Overclocking and enthusiast builds
• Dual-channel DDR5 motherboard configurations

Key specifications

• Capacity: 64 GB (2 x 32 GB)
• Memory type: DDR5
• Speed: 6000 MHz
• CAS latency: CL32
• Form factor: 288-pin DIMM
• Operating voltage: 1.4 V
• MPN: F5-6000J3238G32GX2-RM5RK
• EAN: 4713294235275

How to use

Install the two 288‑pin DIMM modules into the memory slots of a compatible DDR5 motherboard in the recommended dual-channel slots according to the motherboard manual. Enable the desired Intel XMP 3.0 profile in BIOS/UEFI to apply the rated 6000 MHz settings. Ensure the system is powered off and disconnected from mains before handling components, and follow standard ESD precautions when installing the modules.

Recommendations

For optimal stability, update the motherboard BIOS to the latest version and use the manufacturer’s memory QVL to confirm compatibility. When overclocking beyond XMP settings, increase voltages and timings cautiously and monitor temperatures and system stability.