Start at your monitor’s native resolution. If your graphics card cannot sustain the target frame rate, keep that output resolution and enable the game’s highest-quality temporal upscaler first. Preserve texture resolution and anisotropic filtering when VRAM allows, then reduce ray tracing, volumetrics, reflections, shadows, and costly post-processing one at a time. Finish by setting a sustainable frame cap inside your display’s adaptive-sync range.
This approach protects the details that make stylized action games readable—character outlines, painted surfaces, foliage, thin effects and UI text—while cutting the settings that usually consume the most GPU time.
As an Amazon Associate I earn from qualifying purchases.
The best starting preset
Use this order before changing individual sliders:
- Output resolution: select the monitor’s native resolution.
- Anti-aliasing or upscaling: choose a quality temporal option such as TSR, DLSS, FSR or XeSS when the game and hardware support it.
- Textures and filtering: keep texture resolution and anisotropic filtering high unless VRAM usage causes hitching or texture pop-in.
- Heavy effects: lower ray tracing or path tracing, volumetric lighting and fog, screen-space reflections, shadows, ambient occlusion and excessive post-processing.
- Frame pacing: cap the frame rate at a value your system can hold in the busiest scene and keep it within the monitor’s adaptive-sync range.
Do not judge a setting from a static screenshot alone. Stylized games often expose shimmer in foliage, hair, wires, cel-shaded outlines and particles only while the camera moves. A setting is an improvement only if it remains clear and stable during pans, combat and rapid changes in lighting.
Quick wins for a faster PC:
Fix the driver behind crashes, sound loss and screen glitchesFind Drivers →Repair Windows errors before they cause bigger problemsFix Now →Scan for outdated or missing drivers - takes under a minuteDriver Scan →Resolution, internal resolution and upscaling
Output resolution versus internal resolution
Output resolution is the signal sent to the monitor. Native output resolution keeps the display’s pixel mapping clean and preserves UI geometry. Internal resolution is the number of pixels the game actually renders before anti-aliasing and reconstruction. A temporal upscaler renders fewer internal pixels, then uses information from the current and previous frames to reconstruct the selected output resolution.
#1 Best Overall
- Samsung’s 32” Odyssey G5 QHD Gaming Monitor delivers brilliant visuals for exhilarating gameplay that’s more immersive than ever before.
- QHD resolution (2560 x 1440) boasts incredibly detailed, pin-sharp images.
- With a wide 178° viewing angle, the IPS panel consistently delivers crisp, clear hues from various viewpoints.
- 180Hz Refresh Rate and 1ms response time (GtG) allow fast reactions for ultra-smooth gaming, plus G-Sync compatibility syncs the GPU and panel to reduce choppiness, screen lag, and image tearing.
- HDR10 provides brighter highlights and nuanced shadows for added depth.
Epic Games’ Unreal Engine documentation demonstrates the trade-off with an illustrative engine test: native 4K takes 57.50 ms of GPU frame time, while 1080p reconstructed to 4K takes 33.37 ms. Those figures show why reconstruction can be faster, not what any particular game or PC will achieve. Scene complexity, GPU architecture, image-quality settings and the game’s implementation all change the result.
When to lower output resolution
Lower the monitor output only after testing the game’s quality temporal upscaler. Dropping from a native 1440p or 4K output can make HUD text, menus and fine lines visibly softer because the display must scale the entire image. A lower output can still be the right choice when the game has no usable temporal scaler, when the scaler produces persistent ghosting, or when the GPU remains below the required frame rate even at the scaler’s lowest practical internal resolution.
Dynamic resolution
If the game offers dynamic resolution, set a target frame rate and an upper and lower resolution range. Dynamic resolution is useful when occasional effects-heavy moments are the problem, but it can make detail fluctuate during play. Compare a locked internal resolution with dynamic mode in the same demanding encounter. Keep the option that produces fewer distracting changes while maintaining the desired frame time.
Do these 3 things before closing this tab:
1Repair Windows errors before they cause bigger problems2Fix the driver behind crashes, sound loss and screen glitches3Clear out junk files and repair common Windows errorsChoosing between native rendering and the major upscalers
There is no universal winner. Compare each option at the same output resolution, quality target and frame cap, then inspect motion rather than a paused scene.
Rank #2
- 27-inch Full HD Fast IPS Display: Features a 1920 x 1080 resolution Fast IPS panel with 240Hz refresh rate for fast paced gameplay
- Ultra-Fast Response Time: ASUS Fast IPS technology enables a 0.3ms (min) response time for sharp gaming visuals with high frame rates
- Adaptive Sync Technology: FreeSync Premium and G-Sync compatible delivers a seamless, tear-free gaming experience
- Advanced Motion Blur Reduction: ASUS Extreme Low Motion Blur Sync (ELMB SYNC) technology enables ELMB together with variable refresh rate, eliminating ghosting and tearing for sharp gaming visuals with high frame rates
- Convenient Monitor Control: DisplayWidget Center enables easy OSD access and monitor settings adjustments with a mouse
| Option | How it works | What to inspect | Best starting use |
|---|---|---|---|
| Native resolution | Renders the selected output pixel-for-pixel without reconstruction. | Highest static detail, but the highest GPU cost. | Use when the GPU sustains the target frame rate in demanding scenes. |
| TSR | Temporal reconstruction using current and previous frame samples. | Stability on foliage, thin geometry, particles and fast camera movement. | Use the game’s quality TSR mode when available; Unreal Engine documents it as a way to approach high-resolution image quality at lower frame time. |
| DLSS | Hardware- and game-dependent temporal super resolution. | Ghosting, fine-line breakup, sharpening halos and UI treatment. | Use when the game exposes it and your graphics hardware supports that implementation. |
| FSR | Temporal upscaling in supported game implementations. | Motion stability, edge shimmer and the quality of the game’s anti-aliasing pass. | Use the highest quality mode that holds the target frame rate. |
| XeSS | Temporal super resolution with support varying by hardware and renderer. | Thin geometry, foliage and text clarity during movement. | Test it against the game’s other temporal choices rather than assuming a preset is superior. |
| FXAA | Fast spatial post-process anti-aliasing; it does not reconstruct missing pixels from prior frames. | Lower final fidelity, softened details and remaining shimmer. | Use as a speed-oriented fallback on lower-end hardware or when temporal options ghost badly. |
| MSAA | Multi-sample anti-aliasing that improves supported geometry edges. | GPU cost and whether the renderer exposes the option. | Use only when supported and affordable; it can cost more GPU time than a temporal method. |
Epic describes temporal anti-aliasing upscaling as blending samples from the current and previous frames to smooth jagged edges. The same documentation lists DLSS, FSR and XeSS among temporal upscalers. Fortnite’s support guidance likewise lists TSR, DLSS, XeSS, FXAA, SMAA and TAA as possible choices depending on hardware and available settings. A game may expose only a subset of these names.
Quality modes and sharpening
Choose the highest quality mode that meets your frame-rate goal. Performance modes render fewer internal pixels and can introduce shimmer or loss of small stylized details. Adjust sharpening only after choosing the scaler. Too little sharpening looks soft; too much creates bright halos around characters, stair-stepping on outlines and animated shimmer. Make small changes and check a moving camera, not a menu background.
Which settings to lower first
Lower expensive effects in this order, testing one change at a time. The exact cost varies by engine and scene, so measure the busiest location you regularly play.
| Setting | Why it is expensive | Typical visual trade-off | Practical action |
|---|---|---|---|
| Ray tracing or path tracing | Adds extra rays, denoising and lighting work. | Reflections, shadows and indirect light become less physically detailed. | Disable or lower first if the game’s stylized lighting still reads correctly without it. |
| Volumetric lighting and fog | Evaluates light through participating air, smoke and mist across many pixels. | Less depth and softness in fog, shafts and atmospheric effects. | Reduce quality or volume resolution before touching textures. |
| Screen-space reflections | Traces reflections through the rendered screen image and can require additional passes. | Reflections become less detailed, shorter or absent. | Lower when water, wet floors or glossy surfaces cause frame-time spikes. |
| Shadows | Requires shadow-map resolution, filtering and extra scene rendering. | Edges become softer, lower resolution or less distant. | Lower distance or resolution before disabling all shadows. |
| Ambient occlusion | Adds a screen-space or world-space shading pass. | Contact darkening around feet, corners and props is reduced. | Use a medium setting if high AO causes a measurable GPU cost. |
| Post-processing | Can include bloom, depth of field, motion blur, film effects and color operations. | Less cinematic blur, glow or grain. | Disable effects that obscure silhouettes or make motion less readable. |
| Texture resolution | Primarily consumes VRAM and can increase streaming pressure. | Surfaces lose painted detail and material definition. | Keep high when VRAM is sufficient; lower only when memory pressure causes hitching or missing textures. |
| Anisotropic filtering | Improves texture sampling on surfaces viewed at steep angles. | Ground and road textures look blurrier at distance when reduced. | Keep high when possible. AMD describes its performance cost as small on supported systems. |
AMD’s graphics-settings guidance emphasizes balancing visual quality and performance. Texture-filtering quality also generally has a small performance and image-quality impact, so it is a poor first target when ray-traced effects or volumetrics are consuming the frame budget.
Rank #3
- High-Resolution QHD Gaming Display: 27-inch QHD (2560 x 1440) gaming monitor with 180Hz refresh rate designed for professional gamers and immersive gameplay
- ASUS Extreme Low Motion Blur Sync Technology: ELMB Sync technology enables ELMB and variable-refresh-rate technologies to work simultaneously to eliminate ghosting and tearing for sharp gaming visuals with high frame rates
- Advanced Synchronization Technologies: FreeSync Premium, G-Sync compatible and AdaptiveSync technology delivers a seamless, tear-free gaming experience by enabling VRR (variable refresh rate) by default
- High Dynamic Range Support: HDR technology supports HDR-10 format to enhance bright and dark areas for improved visual depth and contrast
- Package Contents: DisplayPort cable, L-shaped Screwdriver, Power cord, Power adapter, Quick start guide, Warranty Card
A repeatable tuning workflow
- Record the baseline. Note the monitor’s native resolution and refresh rate, GPU and CPU models, available VRAM, current graphics API if selectable, and the frame rate in a demanding gameplay location. Use the same save point or route for every comparison.
- Set the output. Select native resolution and the monitor’s highest intended refresh mode. If the game has a separate render scale, leave it at 100% while establishing the baseline.
- Select anti-aliasing. Test native rendering and the game’s quality temporal option. Compare TSR, DLSS, FSR or XeSS when available. Keep the choice with the most stable moving image at the target frame rate.
- Protect surface detail. Set textures and anisotropic filtering high enough to retain stylized material detail. Watch VRAM use and look for texture streaming problems before reducing them.
- Reduce heavy effects. Lower ray tracing or path tracing, volumetrics, reflections, shadows, ambient occlusion and post-processing in that order. Change one control, replay the same demanding section and record frame time.
- Set sharpening. Add only enough sharpening to restore clarity. Inspect bright outlines, hair, wires and foliage for halos or shimmer.
- Cap the frame rate. Choose a cap the system can sustain rather than the highest number reached in an empty area. Keep the cap inside the monitor’s adaptive-sync operating range.
- Validate motion and latency. Pan the camera, sprint through a busy fight, inspect thin geometry and read UI text. Check that input still feels responsive and that the cap remains stable.
Frame pacing, adaptive sync and input latency
Why a frame cap helps
A cap prevents the GPU from rendering beyond a display’s useful refresh range and can reduce swings between very high and suddenly low frame rates. AMD documents Frame Rate Target Control as a way to avoid exceeding a FreeSync range. NVIDIA documents Max Frame Rate and G-SYNC as tools related to tearing, stutter and latency.
Set the cap where the game can remain stable in its most demanding scene. A cap that is a few frames below the practical ceiling often leaves headroom for effects spikes, but the correct value depends on the game, monitor and hardware. Verify the result with an in-game counter or frame-time graph rather than relying on the menu’s estimate.
G-SYNC and FreeSync
Adaptive-sync monitors vary refresh timing to follow the GPU’s frame output. NVIDIA states that a G-SYNC-capable display can eliminate tearing while minimizing input lag and stutter. AMD describes keeping output within the FreeSync range as a smoothness use case. Enable the monitor’s adaptive-sync option, confirm that the driver recognizes the display, then cap the game below the top of the active range if required by your display’s behavior.
Outdated Drivers Are Slowing You Down
One free scan finds every outdated or missing driver and matches the right update for your exact hardware.Free scan · exact hardware matchPC Slower Than It Used to Be?
A free scan shows the junk files, broken settings and background clutter dragging Windows down - then fixes them in one click.Free scan · Windows 10 & 11Low Latency Mode
NVIDIA’s Low Latency Mode controls how many frames the CPU prepares before GPU processing. On limits the queue to one frame; Ultra minimizes it further. Prefer the game’s own latency setting when one is available, because the game can coordinate its render queue more directly. After changing the option, recheck the frame cap, refresh mode and stability; an aggressive queue setting cannot compensate for a GPU that is already overloaded.
Rank #4
- 27” FULL HD IPS DISPLAY: Experience crisp 1920x1080 resolution and vibrant colors on a 27-inch widescreen IPS panel with wide 178° viewing angles and a 16:9 aspect ratio.
- 240Hz Native / 260Hz Overclocked Refresh Rate & 0.5ms MPRT Response Time: Dominate fast-paced games with ultra-smooth motion and razor-sharp visuals, thanks to a 240Hz native refresh rate with up to 260Hz overclocking over both HDMI and DisplayPort, plus an ultra-fast 0.5ms (MPRT) response time.
- ADAPTIVE-SYNC TECHNOLOGY: Enjoy tear-free, stutter-free gameplay with Adaptive-Sync support that keeps visuals fluid and synchronized with your GPU.
- ILT-ADJUSTABLE & VESA COMPATIBLE: Customize your setup with tilt functionality (-3° ~ 21°) and 100x100mm VESA mount support for ergonomic flexibility.
- FLICKER-FREE + LOW POWER USAGE: Flicker-Free technology helps reduce eye strain during long sessions, and Eco Mode keeps power usage efficient (22W typical).
Fixing common visual problems
Shimmering or flickering foliage
- Switch from FXAA or another spatial method to the game’s temporal anti-aliasing or temporal upscaler.
- Move from a performance scaler mode to a higher quality mode or raise the internal resolution.
- Reduce sharpening until thin leaves, wires and outlines stop sparkling.
- Compare TSR, DLSS, FSR and XeSS in motion; their treatment of transparency and motion vectors can differ by implementation.
Jagged edges
- Confirm that anti-aliasing is enabled and that a render-scale slider has not reduced internal resolution unexpectedly.
- Use a quality temporal method first. MSAA can improve supported geometry edges, but it costs more GPU time and is available only with supported renderers.
- Use FXAA only as a fallback when temporal methods are unavailable or produce unacceptable artifacts.
Blurred image or soft UI
- Raise the upscaler quality mode or return to native rendering if the GPU has headroom.
- Check whether a separate render-scale setting is below 100%.
- Apply moderate sharpening after choosing the scaler; excessive sharpening trades blur for halos and shimmer.
- Check whether the monitor itself is running a non-native output mode or an additional scaling mode.
Ghost trails behind characters or effects
- Test another temporal method at the same output resolution and quality target.
- Compare a higher internal-resolution mode, since very low internal resolution can make reconstruction errors more visible.
- Inspect fast movement, transparency and particles separately; a method that is clean on solid geometry may still struggle with effects.
Screen tearing
- Enable the monitor’s adaptive-sync feature and its corresponding driver support.
- Set a frame cap that remains inside the display’s adaptive-sync range.
- Confirm that the game is using the intended refresh rate rather than a lower desktop mode.
Stutter or uneven motion
- Use a sustainable frame cap rather than an uncapped rate that repeatedly hits a limit.
- Lower the most expensive effects one at a time and watch frame time, not only average FPS.
- Check whether VRAM pressure disappears when textures are reduced one step; if it does, keep the highest texture setting that remains stable.
- Re-test the same route after every major change. A higher average FPS is not an improvement if frame-time spikes remain.
Hardware, API and operating-system compatibility
Upscaler names do not guarantee identical results across games. Support depends on the GPU, graphics API, game engine, driver and the developer’s integration. A game may expose DLSS only on certain hardware, offer FSR through a different renderer, or provide TSR as its primary temporal solution. Read the game’s own setting description and test the options that are actually available.
Microsoft describes Auto SR as a Windows-integrated option for supported Copilot+ PCs and the ROG Xbox Ally X. Compatibility, HDR behavior and fine text or UI quality can vary. Compare Auto SR with the game’s built-in scaler, and disable Auto SR if the image becomes unstable, soft or inconsistent with the game’s interface.
HDR deserves its own check. A scaler can preserve the game world while making menus or small text look different, and operating-system-level reconstruction may interact with HDR differently from an in-game option. Validate dark scenes, bright effects and UI text with the exact display mode you intend to use.
Recommended Free Tools
How to compare two settings fairly
Use the following checklist whenever you compare native resolution with an upscaler, or one upscaler with another:
Best Value
- Vivid Color, Fast Response, Total Control - The 24" UltraGear FHD gaming monitor delivers vivid HDR10 color, ultra-smooth 120Hz speed, and 1ms MBR clarity. G-SYNC compatibility & FreeSync keep gameplay tear-free. The sleek, slim design keep you focused and in control.
- Vivid Color That Puts You in the Action - Step onto the battlefield with HDR10 visuals and up to 99% sRGB color gamut coverage. The IPS display delivers rich, vivid tones, so every explosion, shadow, and landscape appears exactly as the developers intended.
- 120Hz Native Speed (144Hz Overclock) - Enjoy fluid, crystal-clear gameplay with a 120Hz native refresh rate, boosted to 144Hz when overclocked. Minimized motion blur keeps every frame sharp, so you can stay locked in on the action.
- 1ms MBR: Fast-Paced Speed to Victory - 1ms Motion Blur Reduction (MBR) keeps gameplay smooth and sharp, cutting blur and ghosting so fast-moving action stays clear—helping you stay competitive when every millisecond counts.
- NVIDIA G-SYNC Compatible & AMD FreeSync - NVIDIA G-SYNC Compatible and AMD FreeSync deliver smooth, tear-free, low-latency gaming with high refresh rates—so every frame stays sharp.
- Static detail: inspect distant signs, painted surfaces, character materials and small props.
- Motion stability: pan across foliage, thin lines, hair, fences and particles; look for ghosting, shimmer and flicker.
- GPU frame time: measure the busiest scene, not an empty corridor or menu.
- Sustained frame rate: check whether the result holds after several minutes of play.
- Latency: compare camera response and input feel with the same frame cap.
- Compatibility: confirm hardware, API and driver support.
- UI and text: read menus, subtitles and HUD elements at normal viewing distance.
- HDR: check highlights and dark gradients if HDR is enabled.
- Resolution behavior: note whether the game offers native output, a fixed render scale or dynamic resolution.
Practical profiles for common situations
The GPU already holds the monitor’s refresh target
Use native output and native rendering if frame time remains stable in demanding combat. Keep textures and anisotropic filtering high, then choose the anti-aliasing method that produces the cleanest moving edges. A temporal upscaler can still be useful for additional headroom, but it is not required when native performance is already consistent.
The GPU is close to the target but dips during effects-heavy scenes
Keep native output, enable a quality temporal upscaler or dynamic-resolution mode, and lower volumetrics, reflections and shadows slightly. This protects UI sharpness while absorbing short-lived GPU spikes.
The GPU is far below the target
Use the quality temporal mode that provides the clearest motion, then lower ray tracing, volumetrics, reflections, shadows and post-processing. If the frame rate is still insufficient, move to a lower scaler quality or output resolution. Keep textures high only while VRAM remains comfortable.
The Tool Desk
Outbyte Driver Updater FREEFix the driver behind crashes, sound loss and screen glitchesFind Drivers →Outbyte PC Repair FREERepair Windows errors before they cause bigger problemsFix Now →The image is clear in screenshots but unstable during play
Prioritize temporal stability over a sharper paused image. Test another temporal upscaler, raise internal resolution, reduce sharpening and inspect the same moving objects after each change. FXAA may look acceptable in a still frame but can leave more shimmer in motion.
What the Unreal Engine example does—and does not—prove
Epic’s documented comparison of 57.50 ms for native 4K and 33.37 ms for 1080p reconstructed to 4K illustrates the potential of temporal reconstruction to reduce GPU frame time. It is an engine demonstration, not a benchmark for all stylized action games. Your result depends on the game’s temporal implementation, scene, effects, hardware and chosen quality mode. Use the example to understand the direction of the trade-off, then measure your own demanding scene.
Quick Recap
Final decision checklist
- Native output resolution selected.
- Quality temporal upscaler tested before lowering output resolution.
- Textures and anisotropic filtering preserved unless VRAM pressure appears.
- Ray tracing, volumetrics, reflections, shadows, ambient occlusion and post-processing reduced in measured steps.
- Sharpening adjusted only after the scaler is chosen.
- Frame cap set to a sustainable value inside the monitor’s adaptive-sync range.
- G-SYNC or FreeSync enabled and verified when supported.
- Motion, thin geometry, foliage, effects, UI text and HDR checked in actual gameplay.
Product prices and availability are accurate as of the date/time indicated and are subject to change. Any price and availability information displayed on Amazon at the time of purchase will apply.
