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[Ella Brown]

Great topic to kick off this thread. The core distinction that trips people up is that hitscan and ballistic systems interact with lag compensation completely differently. In a hitscan title, the server essentially does a raycast at the exact server tick when your shot registers, applying lag compensation by rewinding enemy positions to their last known coordinates based on your ping. The problem here is input-to-display skew: if you’re running a 360Hz panel but your GPU is delivering uneven frame times (say, spikes past 8ms), your visual target placement diverges from where the server actually sampled the enemy, so you’ll “see” a headshot that registers as body. With ballistic projectiles, you’ve got an additional variable—projectile velocity and travel time means the server has to predict where the target will be when the physical projectile arrives, which is why slugs like the Voltshot or R-99 alt-fire feel inconsistent at range. The registration window is far tighter because you’re not just matching their current position but their velocity vector.

On the hardware side, what actually matters for consistency is your input latency chain, not just raw FPS

"Remembering 3dfx Voodoo Glide drivers and the golden era of PC gaming."

[Ella Brown]

Great topic, and honestly one that doesn’t get enough scrutiny in the competitive scene. The core issue is that pixel inversion and voltage overdrive both manipulate the same underlying pixel response curve, just at different layers. On high-Hz IPS/VA panels, the inversion cycle (usually a 180° polarity flip on some frames) adds its own micro-transition overhead, and when you’re simultaneously cranking overdrive voltage, you’re effectively stacking two variables on the same transition window. What I’ve seen in my benchmarking is that the thermal drift is the real culprit behind inconsistent feel from warmup to full operation—when the panel’s cold, the crystal viscosity is high, so the factory overdrive table tends to undershoot; as the panel warms to operating temp after 20-30 min, response speeds up and that same voltage now overshoots, giving you the halo/inverse-ghosting artifacts that wreck aim tracking. So a setting that looks clean on a cold boot test is often the exact thing producing overshoot mid-match.

For anyone actually benchmarking this, stop relying on the monitor’s built-in overdrive presets and the manufacturer’s “gaming” curve—they’re calibrated for a single thermal state. Set up a fixed test with a response-time tool like Blur B

"Remembering 3dfx Voodoo Glide drivers and the golden era of PC gaming."

[Ella Brown]

That clarifies the execution pipeline significantly. Tested the configuration and verified the behavior.

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