Monitor overshoot is a visual artifact where pixels briefly jump past their intended color before settling back, creating faint bright or dark trails around moving objects on screen. It’s the side effect of a technology called overdrive, which is designed to make your monitor’s pixels change color faster. When overdrive pushes too hard, pixels overshoot their target value and produce a distinctive halo or “corona” effect that can look worse than the blur it was trying to fix.
Why Overshoot Happens
LCD pixels are physically slow. The liquid crystals inside them need time to twist and realign when switching from one color to another, and that transition delay is what causes motion blur and ghosting on LCD screens. To combat this, monitor manufacturers use a technique called overdrive: applying a higher voltage to the pixel than it actually needs, essentially giving it a push so it reaches the target color faster.
The problem is that this push can be too strong. Instead of landing precisely on the correct color value, the pixel flies past it, briefly displaying a brighter or darker shade than intended. It then has to settle back to the right value, creating a visible ripple. That brief moment of wrong color is overshoot, and on screen it appears as a trail or halo with the opposite characteristics of normal ghosting. Where standard ghosting produces faint, translucent smears behind moving objects, overshoot creates darker or brighter trails that can be even more distracting.
What Overshoot Looks Like
Standard monitor ghosting shows up as soft, slightly transparent copies of a moving object trailing behind it. Overshoot (often called inverse ghosting) looks different. The trails are typically brighter or darker than the surrounding image rather than a faded copy of the object itself. You’ll often notice it as a bright white or unnaturally dark fringe around high-contrast edges, like dark text scrolling over a light background or a character moving against a contrasting environment in a game.
The effect is most visible during fast motion and in scenes with strong contrast differences. If you’re scrolling a webpage with black text on white and you see faint dark halos leading or trailing the letters, that’s a classic sign of overshoot. In gaming, it tends to appear around character models, UI elements, or any sharp edge moving across the screen.
The 1ms Response Time Trade-Off
Monitor marketing loves to advertise response times of 1ms, but those numbers are frequently achieved only by cranking overdrive to its maximum level. At those extreme settings, pixels do technically transition in 1ms or less, but the overshoot artifacts can be severe enough to make the image quality worse than if you’d just accepted slightly slower pixel response. A monitor running at 4ms with clean transitions will look better in motion than one hitting 1ms with visible inverse ghosting on every moving edge.
This is why response time specs on their own don’t tell you much about real-world motion clarity. The useful question isn’t how fast the pixels can be forced to switch, but how fast they can switch without producing noticeable overshoot.
How to Reduce Overshoot
The fix is straightforward: lower your monitor’s overdrive setting. Every monitor handles this differently in its menus, so you’ll need to know what your brand calls it. ASUS labels the setting “TraceFree.” BenQ uses “AMA.” Samsung, MSI, LG, and Alienware call it “Response Time.” ViewSonic names it “Rampage Response.” Gigabyte and AOC simply use “Overdrive.” If you can’t find any of these, look for anything in a gaming or display submenu related to response time.
Most monitors offer three to five overdrive levels, often labeled something like Off, Low, Medium, Fast, and Fastest. The highest setting is almost always the one that causes visible overshoot. Dropping down one or two notches from the maximum typically eliminates the inverse ghosting while still keeping pixel response fast enough to reduce normal motion blur. Medium is a safe starting point for most monitors.
To test your adjustment, scroll a webpage with dark text or move the camera quickly in a game and look at high-contrast edges. If you see bright or dark halos, the overdrive is still too aggressive. If you see soft, smeared trails, you may have gone too low and normal ghosting is returning. The goal is the middle ground where neither artifact is noticeable.
Variable Overdrive on Newer Monitors
One complication with fixed overdrive settings is that the ideal amount of voltage push changes depending on your refresh rate. An overdrive level that works perfectly at 144Hz can cause overshoot at 60Hz, because at lower refresh rates each frame is held longer and the pixel has more time to overshoot and ripple. This is especially relevant if you use adaptive sync (FreeSync or G-Sync), where your refresh rate fluctuates constantly based on your framerate.
Some newer monitors address this with variable overdrive, which automatically adjusts the overdrive aggressiveness based on the current refresh rate. This helps maintain clean pixel transitions across a wider range of framerates without requiring you to manually find a compromise setting. If you’re shopping for a monitor and overshoot is a concern, variable overdrive support is worth looking for, particularly if you play games where your framerate moves around a lot.