DIMM 48 GB DDR5-6000 (2x 24 GB) Dual-Kit, memória RAM preta, F5-6000J4048F24GX2-TZ5RK, Trident Z5 RGB, INTEL XMP

G.SKILL Trident Z5 RGB F5-6000J4048F24GX2-TZ5RK is a 48 GB DDR5 memory kit (2 x 24 GB) designed for high-performance DDR5 platforms. With a 6000 MHz frequency and 1.35 V operating voltage, this Trident Z5 RGB module combines hand-screened DDR5 DRAM ICs with a streamlined aluminum heatspreader and a translucent RGB light bar to deliver fast data transfer and a refined appearance for modern PC builds.

Advantages

The Trident Z5 RGB offers ultra-fast DDR5 performance validated through G.SKILL's quality testing and optimized for Intel Core platforms. It uses premium dual-texture aluminum heatspreaders for thermal stability and a sleek look, plus customizable RGB lighting compatible with G.SKILL software and supported motherboard utilities. The modules are hand-screened to ensure consistent performance at high frequencies.

Suitable for

• High-performance gaming PCs
• Content creation and video editing workstations
• Multitasking and professional applications
• Overclocking and enthusiast builds on Intel Core platforms

Key specifications

• Capacity: 48 GB (2 x 24 GB)
• Memory type: DDR5
• Speed: 6000 MHz
• CAS latency: CL40
• Voltage: 1.35 V
• Model/MPN: F5-6000J4048F24GX2-TZ5RK
• Brand: G.SKILL
• EAN: 4713294233561

How to use

Install the two DDR5 modules into compatible DDR5 DIMM slots on a motherboard that supports DDR5 memory. Refer to the motherboard manual for correct slot population and enabling XMP/DOCP or equivalent memory profiles in the BIOS to reach the advertised 6000 MHz performance. Ensure the system power is off and grounded during installation, and confirm BIOS settings and system stability after first boot.

Recommendations

Use the Trident Z5 RGB with a compatible Intel Core platform or other DDR5-capable systems supporting 6000 MHz profiles. For best results, enable XMP/DOCP memory profiles in BIOS and verify cooling and airflow around the memory modules. When overclocking, adjust voltages and timings incrementally and validate stability with stress-testing tools.