1 Think in objects from the start
The store gives a number that most factory games never provide: the minimum processor supports roughly 2000 physics objects at once, and a stronger one allows more.
2 Build small and finish it
The instinct in factory games is to sketch out an enormous layout and fill it in. In a physics game that is the wrong order, because you cannot know how a layout behaves until it is running.
| Approach | Outcome |
|---|---|
| Plan a huge base first | You discover a physics problem after building it everywhere |
| Build one complete small line | You learn how the parts actually behave, cheaply |
| Copy the line once it works | Expansion becomes repetition rather than experiment |
3 Conveyor habits that pay off
The store describes winding conveyors through twisting mineshafts. Underground routing is tighter than the open plains of most factory games, and that changes what a good layout looks like.
4 Why physics breaks tidy designs
In a game where items are data, a belt that is full simply stops accepting input. In a game where items are objects, a belt that is full pushes, spills and scatters, which is precisely what the store warns about.
The practical consequence is that balance matters more than throughput. A machine producing faster than the next one can consume does not queue politely, it creates a mess that then costs you objects and performance.
5 Exploring before expanding
The cave system is described as a hollowed shell of a forgotten operation, holding secrets, hidden resources and the ruins of earlier mining. Every cavern is presented as an opportunity.
That is a reason to look around before committing to a location. Building a large factory next to the first resource you find is a common mistake in this genre, and it is more expensive here because relocating physical machinery is not a spreadsheet operation.
6 Save often, and know why
Steam Cloud is supported, which protects you against losing a machine, but not against a base that has gradually become unworkable.
In an Early Access physics sandbox, keeping an older save before a major rebuild is genuinely useful. A redesign that seemed obviously better can turn out to behave worse once it is running, and going back is far cheaper than reconstructing from memory.
7 Setting your own goals
There are no achievements at all, so nothing external is telling you what to aim for. In a sandbox that is a feature, but it does mean you have to supply the structure yourself.
| Goal type | Example |
|---|---|
| Production | A line that runs unattended for ten minutes without a spill |
| Exploration | Reach and map a cavern before mining anything in it |
| Efficiency | Rebuild an existing line using fewer objects for the same output |
Treat the roughly 2000 physics objects supported by the minimum processor as a budget, and remember that items sitting on belts spend it. Build one complete small line before planning anything large, since physics behaviour cannot be predicted from a layout. Keep conveyor runs short, corners gentle, and leave room to reach in and repair. Balance production rates rather than maximising them, because a full belt spills instead of queueing. Explore caverns before committing a factory to a location, keep an old save before major rebuilds, and set your own goals, as there are no achievements.
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