Upgrade Ryzen5600X and Trident Z with 64GB RAM at 3600MHz.
Upgrade Ryzen5600X and Trident Z with 64GB RAM at 3600MHz.
Hello, I'm working with a system for Blender that's having trouble in scenes with many lights. I plan to upgrade my GPU and CPU soon, but for now I'm maximizing performance from what I have. My setup includes a Gigabyte B550i Aorus Pro AX Mini-Itx Ryzen 5600X (4.5GHz, 1.28V, 64GB dual channel), a 3600 cas, and an 18 Galax GTX 1070Ti Sniper White. I've reached 4.5GHz at 1.28V, which boosted benchmarks and raised the processor's average speed—previously it mostly hit around 4.2GHz briefly. I've tweaked the RAM a bit, but the board struggles when RAM speeds don't match and it takes time to stabilize. I have two questions: 1. Can anyone suggest a tutorial for per-core overclocking, even if it's not ideal for my hardware? 2. How should I go about RAM overclocking with Ryzen, especially regarding the old calculator?
In reality, Mini ITX boards can be quite challenging for memory overclocking. I was genuinely surprised to see you boot up with 64 GB of 3600 cas 18 without too many problems. You might be able to experiment with per-core overclocking—Ryzen Master can help identify which cores are suitable—but keep in mind it’s a 5600x model, so it falls into a lower tier than 5900x/5950x. You probably won’t achieve the same performance levels as with higher-end variants. I’ve noticed Ryzen Calculator isn’t reliable for my RAM configurations; it’s just a general suggestion, and actual results vary widely depending on the specific kit, CPU, and board. I’ve also had limited success with Gskill kits.
It’s a decent approach to begin with, though most kits don’t match the specs provided by the DRAM calculator exactly. Either they won’t function properly or are significantly less strict than the hardware can actually support. The safest option is to study overclocking tutorials from memory enthusiasts like Buildzoid to grasp the fundamentals. Prepare a fresh Windows installation on an extra SSD and turn off unnecessary services at startup. Memory overclocking may damage your OS, so this acts as a simple safeguard for your Windows setup. Use Thaiphoon burner to identify the exact memory type you have, which will help you understand safe voltage limits. It usually lists the manufacturer (such as Samsung, Micron, SK Hynix) followed by the die type (B-Die, C-Die, etc.), though this can vary—some kits only show the brand name. Occasionally there are inaccuracies; for example, Thaiphoon might label a Samsung C die as a Samsung B die. When this happens, search online for the specific chip (e.g., Hynix 16Gb M die voltage) to confirm safe operating levels. Some memory types, like certain Micron revisions, can handle higher voltages and last longer, while others may fail quickly if overvolted. If you can’t find reliable info, stick to 1.4V as a conservative choice, or go lower if your kit scales voltage inversely (like Samsung C dies at 1.45V). Adjust timing aggressively—doubling the rated speed is common—and increase clock speeds gradually, watching for instability. Set FCLK to half the memory frequency (e.g., 1900MHz for 3800MHz RAM). Run benchmarks like Y-Cruncher to verify performance gains. The FCLK often caps at around 1900MHz, after which stability drops. Your 5600X can push to 4000MHz without issues, but some CPUs like the 5900X may need careful tuning. Begin at tCL and lower until the system fails at correct settings, saving a profile for reference. Proceed step by step with tRAS and tRC aligned, then test memory stability with HCI Memtest. For fine-tuning, perform subtimings in manageable batches rather than all at once. After each change, retest stability. Run stress tests such as HCI Memtest 700%, OCCT, or Linpack Xtreme. The DRAM calculator is reliable for this purpose thanks to its clear interface. After confirming stability, consider stress-testing your GPU with Linpack while background OCCT runs to prevent overheating. If you’re satisfied, you’ve successfully boosted your memory performance. For those who prefer alternatives, Ryzen Master or Clock Tuner can help, but they usually only add a few MHz and require aggressive undervolting. Overclocking Ryzen 3000/5000 isn’t worth the effort unless you’re aiming for marginal gains.
As long as designers avoid making unnecessary changes, the mITX boards offer significant benefits for memory upgrading. They feature higher layer counts on PCBs (this model has 8 layers, surpassing many premium B550/X570 boards), DIMMs positioned near the CPU, and a 1DPC memory layout. While it isn't always superior, the 1DPC design is unlikely to be a flaw unless extra slots were too costly and memory paths were misplaced. This board appears solid, so I expect it to perform well. Whether a 3600CL18 kit can match its performance is another matter, but I’d hold the kit accountable for falling short of the board’s potential.
Thanks for the timely responses. Your feedback was helpful, though I did encounter some unusual behavior during the initial setup. Overall, things have stabilized now. This was a 2x32GB system, confirming the points we discussed. I plan to try Ryzen Calculator but keep in mind it can be inconsistent—thank you for the advice. Appreciate your safety tips about avoiding OS corruption; I’ll use a dummy configuration. Your step-by-step guidance is valuable—I’ll follow it and evaluate the results. At the moment, I’ve already overclocked by adjusting multiplier and vcore. It seems I’m not using PBO, so I’ll revisit benchmarks later. Knowing this will help is great. I’m not expecting extreme outcomes, but a 5% improvement would be significant given the hundreds of frames taking several hours each.