At a low rendered frame rate, Dynamic MFG can fill the display with additional images while the game still produces new rendered responses relatively slowly. The mouse can therefore feel delayed even when motion looks smoother.
For practical checks after identifying the cause, follow the Dynamic MFG input-lag reduction guide.
Increasing sensitivity or selecting a larger generation multiplier does not necessarily fix that delay. I would first distinguish a slow response from a sensitivity mismatch, then investigate the underlying workload.
The visible camera is not the mouse itself
The mouse reports movement, the game processes it, rendering produces an image and the display shows the result. A delay anywhere along that path can affect the feeling of direct control.
The game’s exact input-sampling design varies, so do not assume all engines sample input only once at a particular point. The practical limitation is that more inferred images are not equivalent to more complete newly rendered game responses.
As cadence arithmetic, 30 rendered frames per second means an average interval of about 33.3 milliseconds; 60 means about 16.7 milliseconds. Those are not total mouse-to-display latency measurements.
NVIDIA’s PC latency explanation separates pipeline timing from peripheral and display contributions. That distinction prevents a frame interval from being mislabeled as complete system latency.
Tell sensitivity and delay apart
Sensitivity changes how far the view moves for a given physical movement. Latency changes how soon the visible movement follows the action. A faster-turning camera can still begin responding late.
Try a deliberate short movement followed by a stop. Compare when the view starts and settles, not merely how far it rotates. Keep the same sensitivity between generation modes.
Check whether acceleration, smoothing or a game-specific filter is active. Those can change the movement feel independently of frame generation.
Do not raise DPI solely because the controls feel delayed. A sensitivity change can hide the symptom briefly while making aiming less consistent.
Build a base-performance comparison
Use the same route with generation off, retaining resolution, upscaling quality and other graphics settings. Treat it as a baseline; removing generation can also change overhead.
Where a suitable counter exists, inspect the rendered rate while Dynamic is active as well as final output. An undefined FPS counter can obscure the very distinction you need.
If the controls already feel poor in the baseline, investigate that workload first. If the problem appears only with Dynamic, focus on its active configuration and pacing.
Include the heavy scene where response deteriorates. A high average from a light scene does not refute a problem that appears during a crowded battle or a demanding area.
Improve the actual bottleneck
If the workload is GPU-limited, reduce a demanding graphics option or choose a suitable upscaling setting and check the effect. Keep image-quality changes visible in the comparison.
If reducing render resolution barely helps, the limiting work may be elsewhere. Simulation-heavy settings, background tasks or CPU performance can matter; lowering texture quality indiscriminately is not a universal response fix.
Investigate long-frame spikes separately from a consistently low base rate. Loading, shader work or another interruption can produce a hitch that a higher average does not solve.
I would keep one change at a time and return to the baseline. A clear improvement tied to a specific setting is more useful than an unexplained collection of tweaks.
Check queue management and limits
Use the supported Reflex setup for the game. It can reduce avoidable queueing, but it does not remove the time needed for a slow simulation or render.
Check for in-game, driver and RTSS caps, including global profiles. A cap applied to the wrong stage can reduce the base rate while leaving an impressive-looking final output.
Dynamic limiter and VSync support is integration-dependent and changed after launch. Prefer the documented native path rather than mixing generic instructions from different versions.
Our frame target guide helps distinguish an output goal from a harmful base restriction. The sister site’s RTSS cap guide is relevant if that external limiter changes the response.
Check the peripheral only when the evidence points there
If mouse movement is inconsistent across applications or generation modes, inspect the mouse connection, battery if applicable, supported polling settings and driver or software configuration.
A high polling setting can also have system-dependent costs, so use a supported stable setting rather than assuming the largest number is always best. Keep it fixed while comparing graphics modes.
Network lag usually does not explain the same delayed local camera motion in an offline comparison. Use an offline or local repeatable scene where possible to separate those effects.
Do not buy a new mouse solely because a low-base-FPS game feels heavy. First establish whether the symptom follows the peripheral or the rendering workload.
Choose response over the counter when necessary
Compare a lower supported generation level, fixed generation and generation off if Dynamic remains uncomfortable. A lower output number can still be the better control experience.
For a slower single-player game, you may accept some response trade-off for more continuous-looking motion. For precise competitive aiming, that trade-off may be unacceptable.
I would keep the mode that remains comfortable in the demanding scene, with a record of the settings and observations. The objective is responsive play, not proving that the highest displayed FPS must feel best.