2026 marks a turning point for Gaussian splattingTechnology has made the leap from research to commercial production. What was considered an exotic rendering experiment just three years ago is now an integral part of professional pipelines in the film and gaming industries. Large studios are relying on scanned environments instead of elaborate 3D modeling, indie developers are unlocking entirely new creative possibilities, and the broadcast industry is experimenting with volumetric replays. This article sheds light on where Gaussian Splatting truly stands in 2026, which specific use cases have become established in film and gaming, and what challenges still lie ahead.
One of the most impressive use cases in 2026 is the use of Gaussian Splats as virtual film sets. Production teams scan real-world locations with specialized camera systems like the XGRIDS PortalCam and generate photorealistic 3D environments within hours. These splat sets can be directly integrated into LED wall setups or classic compositing pipelines.
Compared to fully modeled CG environments, this not only saves weeks of production time but also delivers an authenticity that is difficult to achieve with traditional methods. This workflow has already become the standard, especially for series with tight schedules and changing locations. A key advantage over conventional PhotogrammetryGaussian Splatting also correctly renders difficult materials like glass and reflective surfaces – a topic we discussed in our paper on Reflections in Gaussian Splatting thoroughly discuss.
Gaussian Splatting has the potential to fundamentally change the way game worlds are created – but we're not there yet.
What technology promises is fascinating: Scan real places, and within minutes, a photorealistic 3D world emerges. Tools like World Labs or Marvel AI are already showing today how impressive virtual spaces can be generated through simple prompts. The direction is clear.
However, Gaussian Splatting is hardly found in actual video games yet – and for a simple reason: Major game engines like Unreal Engine and Unity do not yet natively support the format. Developers are currently reliant on community plugins, which are suitable for experiments but not for the requirements of a finished game.
Once this engine support arrives, that should change quickly. The foundations have been laid – now everyone is waiting for the moment when the big platforms follow suit.
Three factors enabled the breakthrough. First, the HardwareThe RTX 50 series GPUs and Apple's M4 Ultra are rendering splat scenes with billions of primitives in real-time. The computing power that required an entire data center in 2023 will fit into a desktop workstation by 2026.
Secondly, the ToolingFrom Nerfstudio to Luma AI to proprietary studio solutions like XGRIDS LCC Studio mature software now exists for every step of the pipeline – from capture to processing and export. Especially the Aerial-Ground Map Fusion-Feature enables seamless integration of drone data with ground-based scans.
Thirdly, the StandardizationWith the OpenSplat format, the Khronos Group established an open exchange standard in 2025 that has drastically improved interoperability between different tools and engines. The combination of these three developments has ensured that Gaussian Splatting is no longer just a research topic, but a production-ready tool – and a serious alternative to traditional 3D scanning solutions such as Matterport.
In a recent project, we collaborated with a German film studio to capture a complete historical old town set using Gaussian Splatting. The scanning team was comprised of three XGRIDS PortalCams equipped and captured around 15,000 individual images in just under three hours. The processing took place overnight on a cloud cluster with eight A100 GPUs. The next morning, a photorealistic virtual set was ready, which was directly integrated into the LED wall production.
The director was able to freely choose camera angles, adjust the time of day using Relight, and even replace individual parts of buildings with alternative scans—all in real time and without any additional rendering effort. The total cost of the virtual set was a fraction of what a comparable CG environment would have cost.
Particularly interesting was the possibility of continuing to use the scanned set even after the completion of filming – for marketing materials, behind-the-scenes content, or as the basis for an accompanying VR experience. This multiple use of a single scan dataset is an economic advantage that does not exist in classic CG production. Those interested in the specific 3D scanning workflow using Gaussian splatting and AI Interested, you can find a detailed guide in our separate post.
To understand the impact of Gaussian Splatting on film and gaming, it's worth looking at its differences from traditional methods. While classic Photogrammetry While polygonal meshes are calculated from photos, Gaussian Splatting works with millions of semi-transparent ellipsoids – so-called Gaussians. These are optimized directly from camera images and enable a representation that surpasses anything possible with polygon models in terms of photorealism.
The decisive advantage for film and gaming production: rendering speed. While photogrammetry models require extensive retopology, UV mapping, and texturing, Gaussian Splats are immediately render-ready – and in real-time. This offers a huge workflow advantage for virtual production setups with LED walls. Also in the area of virtual showrooms and museums This efficiency has already proven itself.
Another plus: The Point CloudData from 3D scans can be converted into Gaussian Splats significantly faster than into traditional meshes. The entire turnaround – from scan to finished asset – shrinks from weeks to hours.
The next evolution is already foreseeable: Generative AI and Gaussian Splatting grow together. Early studios are experimenting with expanding scanned environments using AI – for example, to add missing building parts or simulate times of day that weren't captured during the scan. Those interested in the interface between Gaussian Splatting and Generative AI interested, finds concrete examples from practice in our contribution.
Another trend is emerging for the gaming industry: Gaussian Splatting-based User-Generated Content. Players could soon scan their own environment—the living room, the backyard, a favorite location—with their smartphone and import it as a playable map into a game. The technical foundations for this will be laid by 2026, even though integration into existing multiplayer infrastructures still presents challenges.
One thing is certain: Gaussian Splatting will have found its place in professional content production by 2026. The combination of photorealistic quality, real-time rendering, and comparatively low production costs makes the technology a Game-Changer for Film and Gaming And we are only at the beginning of what is possible with it.
Are you interested in developing an AR, virtual reality or 360° application? You may still have questions about budget and implementation. Feel free to contact me.
I am looking forward to you
Clarence Dadson CEO Design4real
3D / WEBGL / BRAND PUBLISHING 3D Gaussian Splatting in the Browser How Brands Bring Photorealistic 3D Worlds Interactively to the Web – Without Plugins, Without Apps, On
XR Glasses in Eyeglass Format: Why XREAL Air 2 Ultra and Rokid Aren't Headset Replacements Yet The promises are big: XR glasses in eyeglass format like the XREAL Air
The best programs for rendering 360° animations The best programs for rendering 360° animations Rendering 360-degree animation: An overview of the most powerful tools
Gaussian Splatting made the leap into production in 2026: film studios are using 3D scans as virtual sets, game studios are building open-world levels from scanned environments, and the broadcast industry is relying on volumetric replays. An overview of the current state of the technology and specific practical examples.
Matterport vs Gaussian Splatting: Why Matterport is not true 3D Why Matterport doesn't deliver what it promises Many customers say: "We have our rooms in 3D.
Reflections in Gaussian Splatting: Why Windows, Mirrors, and Reflective Surfaces Pose a Special Challenge Anyone scanning real-world spaces, vehicles, or architecture with Gaussian Splatting will notice
