Based on Report #06 on Windows 11 24H2, HWiNFO64 showed controller temps at 50-55℃ with L3 cache hit rates between 94% - 98%. I disabled all non-essential monitoring services to reduce polling pressure on the PCIe 5.0 bus. This cut frame generation latency by 8% - 12% and stabilized peak bandwidth at 12-14GB/s. However, flying into high-density cities still triggers instant drops. This is likely due to the game engine's asynchronous asset loading rather than the SSD's speed, meaning hardware scans can't fix a software-level bottleneck. Last updated on2026-03-26 18:14:36。
Report #07 on Windows 11 24H2 using OCCT showed controller temps swinging between 56-61℃ with fans at 1150-1400 RPM. I entered the BIOS -> Fan Control and lowered the trigger threshold by 5℃ while enabling Smart Fan mode. This reduced FPS variance by 4% - 7% and kept heat pipe efficiency between 83% - 88%. While the temps improved, the controller still slowly climbed back up during long sessions. This shows that without a dedicated heatsink, tweaking system fans only delays the heat soak; it doesn't solve the thermal accumulation problem. Last updated on2026-03-03 17:06:42。
Report #03 on Windows 10 22H2 shows AIDA64 sensor readings with memory temps between 45-50℃ and write bandwidth peaking at 4.3GB/s. Initially, I set the sampling interval to 1 second, but the rapid refreshes actually bumped CPU usage by 5% - 8%, causing micro-stutters. I went into AIDA64 Settings and bumped the sampling frequency to 2 seconds, which dropped resource overhead by 9% - 13% and smoothed out the frame time curve. While this makes the data cleaner and reduces system strain, massive brawls still cause hitches when memory bandwidth tops out, meaning sampling tweaks only reduce monitoring overhead, not the hardware's ceiling. Last updated on2026-03-01 11:55:23。
Using Report #04 on Windows 11 24H2, a 3DMark memory benchmark revealed clocks at 6350-6450MHz but 4K random read latency spiking to 75-85 microseconds. I entered the BIOS -> Voltage settings and nudged the core voltage from 1.35V to 1.45V while killing all background bloatware. Post-tweak scores jumped 12% - 18%, with throughput stabilizing between 190-230MB/s. Even with these gains, complex architectural clusters still cause 1-2 second freezes during loading. It's clear that even with higher voltage, random access latency remains the primary bottleneck when handling massive object instances. Last updated on2026-03-06 13:27:51。
Report #05 on Windows 11 23H2 using GPU-Z showed controller temps between 52-57℃ with peak bandwidth at 3.9GB/s. I opened the NVIDIA Filter panel and dropped the sharpening strength to a 30% - 40% range, combining it with a contrast mask. The transitions became natural, and FPS fluctuations stayed within +/- 2.4 frames. While it looks great, fast scene changes still cause tiny freezes due to the physical throughput limits of the PCIe 4.0 lane. This proves that filters only fix the 'look'—they can't erase the instant latency of the storage device during extreme random reads. Last updated on2026-03-27 14:39:18。
