Plan B: Terraform strategy

Start each colony by reading the terrain before placing permanent infrastructure. Zoom out and use the elevation overlay to identify low areas that may become oceans. Pale, low-altitude regions are risky locations for factories and cities because future water flow can disrupt roads, buildings, and production chains.

Look for moderately elevated ground near iron, aluminum, and silver. Mountains can block construction, while low basins may flood later. The strongest early location is usually a practical compromise: close enough to a city for short transport routes, but high enough to remain useful as terraforming advances.

Video Highlights:

• Use elevation and water-flow overlays before choosing a factory zone.
• Start with iron, steel, extractors, depots, and assembly plants.
• Separate city inputs so future demand can be expanded without rebuilding everything.
• Transition from trucks to trains after unlocking the required progression milestone.

The basic production pattern in Plan B: Terraform is easy to repeat: extract a raw resource, deliver it to a depot, process it in a factory, store the output in another depot, and finish with an assembly plant when a building or component is required.

For early steel, six iron extractors can provide about 90 iron per minute when each produces 15. A steel factory producing 30 steel bars per minute needs three times that iron input, so the chain should be sized around the factory rather than the extractor count alone.

Concrete is similarly straightforward. A factory can produce about 30 concrete per minute, while a road assembly plant may use about 10 concrete per minute. This allows multiple road assemblers to share one concrete line when transport and storage can keep up.

A dedicated construction sector is especially useful. It lets you see whether you are producing too many factories, depots, or assembly plants. When stockpiles become excessive, pause or remove that production temporarily and redirect the space toward current needs.

The same principle applies to industrial outputs. Atmospheric Extractors can produce oxygen and carbon, while Recycling Centers can return steel bars and aluminum bars from waste. If an output depot becomes full, the related building may lose efficiency or stop operating, depending on the building type.

City growth is easier to manage when each resource has a dedicated supply path. Begin with a supply center near the city, connect it to a depot, and create a road between the production area and the city. Then assign trucks to travel from the production depot to the city-side depot.

One truck route may transport only a small portion of the available production. If a factory produces 30 concrete per minute but the route carries only five, add trucks until transport capacity matches the line. A resource is only useful to the city when it can arrive at the required rate.

Dedicated supply centers also make upgrades simpler. Concrete, oxygen, food, and high-tech parts can each receive their own input node. When city demand increases, expand the relevant node instead of rebuilding a shared transport hotspot.

Keep early city growth focused when possible. Supplying one city lets you stabilize concrete, oxygen, and waste systems before adding another demanding settlement. A second city becomes more valuable when different city specializations or resource centers are required.

Use route controls carefully. If a truck travels in the wrong direction, reverse the start and end points rather than rebuilding the entire road. If a road connection is interrupted, use the reconnection control and verify that the depot and city-side endpoint remain linked.

Waste management becomes a central part of the colony once cities reach larger populations. Metal waste can be recycled into steel bars and aluminum bars, but those outputs must have somewhere useful to go. If recycled materials fill their depots, the recycling chain can back up and eventually restrict city growth.

Steel bars are easy to consume through extractors, reinforced concrete, or other construction lines. Aluminum requires more planning because it is used in fewer basic recipes. High-tech parts are a practical outlet when aluminum and carbon are available, especially because advanced city systems continue to demand them later.

Organic waste creates a different balancing problem. Compost is simple to produce, so it is easy to overproduce it while neglecting the organic waste stream. Use organic waste first, then add ordinary compost production only to cover the remaining requirement.

A useful priority system is to mark recycled materials as backup or preferred inputs where the game allows it. This helps consume recovered materials before newly produced stock, reducing unnecessary accumulation.

Once trains become available, begin replacing long truck routes with rail loops. Trains carry more material and are better suited to high-volume connections, but they require a loop and enough space for stations. Build dedicated facilities for major products so production, storage, and rail traffic remain easy to inspect.

Leave gaps between production sectors. These spaces are useful for input and output stations, additional depots, and future upgrades. A clean factory grid also makes shortages easier to diagnose because each product has a defined source and destination.

At larger populations, production and logistics must be planned together. More people increase demand for food, oxygen, high-tech parts, and waste removal. Double up supply depots where throughput becomes a constraint, and add trains rather than endlessly extending truck routes.

Terraforming also changes the map. Water can rise into existing roads or factories, while fertile areas become important for farms and forests. Use the relevant overlays regularly instead of waiting for a building to fail. When available, the interface warning for flooded or affected infrastructure provides a quick way to locate problems.

As the population reaches major progression points, new systems change the production plan: