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[Lucas Rivera]

Great topic. On the LLC/droop front, most of the confusion comes from treating droop as purely a stability metric when it’s really a voltage-vs-load tradeoff. With LLC set to Level 4-5 on a typical consumer board, you’ll see maybe 10-15mV of droop under a full-core Cinebench R23 load, which is the sweet spot for daily gaming—enough headroom to prevent under-voltage events during bursty workloads without pushing excessive Vdd into the silicon. The problem is that higher LLC levels (7-8 or “Turbo”) clamp droop near zero, which sounds great on paper but actually raises your idle-to-load delta dramatically. Under a sudden single-thread spike—which is exactly what you hit when a game thread wakes up mid-frame—the rail can overshoot by 50-80mV before the loop settles, and that overshoot is what ages your IGTT and can cause those rare instant blackouts on marginal rigs.

For competitive benchmarking specifically, I’d stop trusting multi-core AVX stress tests as your reference point since gaming rarely drives 100% all-core simultaneously. Instead, look at transient recovery under single/double-thread stepping loads, and pair that with your actual in-game FPS 1% lows rather than averages

Setup:

"1. Ryzen 5 7600X"

"2. RTX 4070 Ti Super"

"3. BenQ ZOWIE XL2566K 360Hz DyAc+"

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