Written by Samar Studio
Table of Contents:
1. Screenshots
2. Installing on Windows Pc
3. Installing on Linux
4. System Requirements
5. Game features
6. Reviews
This guide describes how to use Steam Proton to play and run Windows games on your Linux computer. Some games may not work or may break because Steam Proton is still at a very early stage.
1. Activating Steam Proton for Linux:
Proton is integrated into the Steam Client with "Steam Play." To activate proton, go into your steam client and click on Steam in the upper right corner. Then click on settings to open a new window. From here, click on the Steam Play button at the bottom of the panel. Click "Enable Steam Play for Supported Titles."
Alternatively: Go to Steam > Settings > Steam Play and turn on the "Enable Steam Play for Supported Titles" option.
Valve has tested and fixed some Steam titles and you will now be able to play most of them. However, if you want to go further and play titles that even Valve hasn't tested, toggle the "Enable Steam Play for all titles" option.
2. Choose a version
You should use the Steam Proton version recommended by Steam: 3.7-8. This is the most stable version of Steam Proton at the moment.
3. Restart your Steam
After you have successfully activated Steam Proton, click "OK" and Steam will ask you to restart it for the changes to take effect. Restart it. Your computer will now play all of steam's whitelisted games seamlessly.
4. Launch Stardew Valley on Linux:
Before you can use Steam Proton, you must first download the Stardew Valley Windows game from Steam. When you download Stardew Valley for the first time, you will notice that the download size is slightly larger than the size of the game.
This happens because Steam will download your chosen Steam Proton version with this game as well. After the download is complete, simply click the "Play" button.
Build a self-sustaining industrial empire in the deep sea of an ocean-covered alien world. Explore procedurally generated waters, automate resource production, and turn alien life into renewable industrial output through advanced bio-cultivation systems.
You are deployed to an ocean-covered alien world 15 light-years away. Against the backdrop of Earth's magnetic field crisis, this planet is not only a refuge, but also a testing ground for the continuation of industrial civilization. Starting from basic resource gathering and energy infrastructure, you will deploy underwater oil/mining drones, wind turbines, and functional floating platforms, gradually expanding a fragile starting point into a long-term, fully operational industrial base.
Seafloor regions are procedurally generated, with constantly changing terrain structures, resource distribution, and environmental conditions. Different depths and regions are influenced by day-night cycles, ocean currents, and ecosystem states, directly affecting the types and efficiency of collectible resources. Exploration is not just about finding resources — it is about discovering new production paths. Certain key discoveries may unlock entirely new processing methods, forcing you to readjust your existing industrial systems.
Deep Crafter’s industrial system emphasizes the balance between structure and efficiency. From basic processing to multi-stage manufacturing, the layout and logistics connections between assembly plants, conveyor belts, and vertical elevators directly determine overall production capacity. Design flaws may not be obvious early on, but will be magnified as your operation scales. You need foresight and long-term planning to build the most elegant steel networks under extreme ocean pressure.
Through fully automated collection, processing, and logistics systems, resources flow autonomously throughout the deep sea. Once basic operations are handled by automated systems, you are freed from tedious manual tasks and can focus on higher-level industrial decisions: Will you rebuild production chains, or prepare infrastructure for thousand-fold future expansion? Automation gives your industrial system the ability to continuously evolve, rather than simply replacing manual labor.
Some critical resources no longer rely on repeated extraction, but instead form sustainable cycles through bio-factories, cultivation platforms, and electromagnetic systems. Specific plants can continuously produce industrial materials throughout their lifecycle, forming closed production loops through automated logistics. Here, life is not just a resource node, but a scalable and programmable industrial module, providing unique production pathways for your deep-sea empire.