How Live-Build Production Fits Together
StarRupture chains are easier to reason about when you separate them by role instead of trying to memorize every recipe at once.
Layer 1: Extraction
On the live build, extraction starts with the Ore Excavator and later expands into Helium-3 Extractor and Sulfur Extractor milestones as Selenian progression opens up.
Layer 2: Shaping and Basic Components
Smelter and Fabricator handle the first stable conversion step: bars, sheets, rods, wire, rotors, stators, tubes, and other reusable parts that many later recipes depend on.
Layer 3: High-Heat and Chemistry
Furnace and Refinery are where the chain becomes expensive and easy to stall. This is where you see Synthetic Silicon, Electronics, Sulfuric Acid, and other higher-pressure lines.
Read Every Chain Backward
The most reliable planning habit is to start with the output you want, then walk backward until you hit extraction and unlock requirements. That means asking four questions in order:
- Which machine actually crafts the target item on the live build?
- What intermediate parts does that recipe consume per minute?
- Which corporation unlocks are still blocking those upstream machines?
- Do I have power, gas, and transport stability for the whole line, not just the final machine?
The calculator automates that chain walk. Learning the logic still matters because it tells you where a stalled line is really failing.
Example Workflow: Electronics on the Current Live Build
A good example workflow is Electronics, because it exposes the real shift from early bars-and-wire production into Furnace-heavy planning. In the current live baseline, Electronics is a Furnace recipe, not a simple starter crafting line.
Live build example workflow
- 1 Furnace on the Electronics recipe produces 12 Electronics per minute on the current live baseline.
- That example workflow consumes 24 Synthetic Silicon, 12 Inductors, and 12 Stators per minute.
- A practical supporting shell is 1 Furnace for Electronics, 1 Furnace for Synthetic Silicon, 1 Furnace for Inductors, and 1 Fabricator for Stators.
- Exact numbers vary if you share intermediates, reuse surplus, or split the line across multiple outposts, so treat this as a live build planning example rather than a universal fixed table.
What this example workflow really teaches is not “copy these machines forever.” It teaches that Electronics is a chain-of-chains problem: Synthetic Silicon pulls in Helium-3 and Calcium processing, Inductors pull in Ceramics and tubes, and Stators pull in wire plus Titanium Housing. If one upstream branch idles, the whole finish line looks broken.
The Bottlenecks That Usually Matter More Than the Final Recipe
- Unlock order: Smelter, Fabricator, Furnace, and later Refinery do not arrive at the same time, so the real bottleneck is often corporation progression rather than raw materials.
- Gas and sulfur geography: once Helium-3 and Sulfur matter, line planning becomes an outpost problem as much as a machine-count problem.
- Shared intermediates: a line that looks healthy on paper can still starve if multiple products are pulling from the same stator, ceramic, or powder bank.
- Power margin: if the grid is near its ceiling, every new machine makes debugging slower because the symptoms spread across the whole base.
When to Use Dedicated Lines
Dedicated lines are still the easiest way to learn a new chain. If you are only now stepping into Furnace and Refinery recipes, isolate the new product, watch its true demand, then decide later whether shared intermediates are worth the complexity.
The Production Calculator is the fastest way to price that decision using the live build dataset, while the Database helps you confirm recipe sources before you commit to a rebuild.