What AnyPS5 does: executable relinking, replacement libraries and the graphics path
ItsOOGWAY · PC guides & recorded tests
What AnyPS5 does: executable relinking, replacement libraries and the graphics path
What is AnyPS5, and how can it prepare an existing PS5 game executable to run as a native PC program? This explainer follows the relinker, replacement system libraries and Vulkan graphics path, with short examples from my earlier local Workbench tests.
The key checkpoint: Relinking the executable, supplying compatible system behavior and translating graphics are separate parts of the project. Trackers and older local gameplay answer different questions.
How to read the evidence
- Keep the date, source revision, scene and measurement unit with each claim.
- Contributor reports and earlier local gameplay are attributed evidence, not a new benchmark.
- Use the primary documents below to check later changes.
Resources from this video
Links, downloads & documentation
Primary documents, attributed reports and every source URL from the video description are collected here. Preserve the date and measurement context when comparing later updates.
Watch the complete video
Open this video on YouTube ↗. Screenshots below link to their exact recorded moments.
Walkthrough 01
Start with an existing game executable
Start with the game itself. A game is more than its artwork, music and levels. It also contains executable code: the instructions that tell the machine what to do. On the console, those instructions expect a particular operating environment. They ask for files, memory, controller input, audio, graphics and other services in the way that environment provides them. Any PS Five works on that existing executable. Its relinker prepares the program for the host platform, while replacement system libraries provide services the game expects to call.
The project targets Windows and Linux, and its documentation describes the converted game running as an ordinary native process. That's the first important idea. You don't need the original game's development source code to understand why this project is interesting. The starting point is the existing game executable and the resources from your own copy. Any PS Five supplies the tools and compatibility work around them.
Walkthrough 02
Understand why the CPU architecture helps
Why is that even possible? One useful starting point is that PlayStation Five and modern desktop PCs share thEXEighty-six, sixty-four instruction family. There is common ground in the code the processors understand. The challenge is connecting that code to a different operating system and graphics environment. Think of moving a working business into a new building. The people already know their jobs, but the doors, phone system, power connections and delivery routes have changed. You need those connections to line up before the business can operate normally.
Here, the relinker and system libraries are different parts of making those connections work.
Walkthrough 03
Connect relinking with replacement libraries
The relinker handles the executable side. The Windows route can produce a Windows executable; the Linux route uses its own native format. The system libraries sit alongside that output and answer the game's calls. The original resources still need to be in the layout that the converted program expects. That explains why finding the right executable is only one part of the process. The surrounding modules and libraries matter too. A successful workflow brings the program, its resources and the matching support libraries together.
Those pieces are what we are seeing when a prepared game reaches its menu and then responds to the player.
Walkthrough 04
Follow the Vulkan graphics path
Graphics have their own path through the project. The shader recompiler translates shader work into SPIR-V for Vulkan, alongside the work that handles graphics commands and state. That gives the PC graphics side something it can use to produce the image. This is where a simple diagram helps. Follow the game code toward the PC processor. Follow the system calls toward the replacement libraries. Then follow the graphics work toward Vulkan. These are connected parts of one experience, and each one helps turn an executable into an actual game you can interact with.
Walkthrough 05
Keep earlier Workbench footage in its own context
Now look at the footage from my earlier tests. These are local Workbench sessions with the builds and libraries I used at the time. The useful result is the complete route: prepare the game, load the supporting pieces, launch it, and get into controllable gameplay. Treat those scenes as examples from those sessions, rather than a benchmark of the latest main branch. What makes that exciting is the potential for shared work. If several games depend on the same correctly implemented service, improving that service can benefit more than a single title.
A file operation, controller path or memory behaviour can become part of a foundation that later tests build on. That is a very different kind of progress from simply adding another game name to a list. The community is building reusable support underneath those games. The more accurately those shared pieces work together, the more useful the project can become.
Walkthrough 06
Read progress measures and practical test reports
So what does the famous progress badge tell us? It tracks implementations among the system-library functions declared in the project. In the snapshot I checked, the badge was around twenty-six percent. It is a view of the known library workload, rather than a score for how many games you can play. The shader tracker measures something separate: the instruction list used by that tracker. Its one hundred percent is an important coverage milestone. Real game testing then shows how the graphics path behaves when those pieces are used together.
Understanding that distinction makes the milestones more meaningful, because you can see what each one contributes. And this is the future that makes me want to keep following Any PS Five. A mature, well-tested compatibility layer could make it possible to bring more PlayStation Five games people own into a PC environment. More shared services, more working graphics paths and more useful testing could make that route easier to repeat. Imagine what that would mean for preservation and community experimentation: keeping games usable as hardware changes, comparing results across PCs, and building better tools around a common open project.
That is a big ambition. It is also a clear reason to care about work happening underneath the gameplay footage. Reaching full implementation of the tracked library surface would be a major milestone toward that future. Turning that foundation into more PS5 games playing well also means testing the way real games use it. The goal is clear: more games booting, rendering, responding correctly and keeping their progress between sessions. You can follow that work without reading every line of code.
Start with the official repository and documentation. Use the per-game discussion threads to see what was actually tested, which build was used, and what changed. That gives a much better picture than collecting screenshots of percentages on their own. The project also provides a browser converter interface, with processing described as staying on your device. That can make the relinking step easier to approach. The complete game setup still includes the target platform's libraries and the required resources.
A converted executable and a prepared playable setup are connected steps in the same workflow. And if you want to help, a useful test report is valuable even when you don't write code. Record the source revision or release, the game's version, your hardware and the settings you used. Keep the launch log and describe a repeatable sequence. That gives someone investigating the same path a starting point they can work with. My takeaway is that Any PS Five is worth following because of the bridge it is trying to build.
The exciting question is how much more reusable that bridge can become as the shared pieces mature and more games are tested against them. That is where the long-term potential lives.
Checks for interpreting the report
| Situation | Next useful check |
|---|---|
| A current source differs from the recording | Keep the recorded snapshot date. Check current revision and measurement rules before comparing. |
| A screenshot appears to prove more than the report | Read the full source, the test environment and the untested limitations. |
| A headline number sounds decisive | Check its numerator, denominator, time unit and the specific outcome it measures. |
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