This article details the comprehensive process of setting up uranium isotope separation and fission fuel production in the Minecraft Feed The Factory mod. It covers automating alloy production, uranium mining and processing, isotope separation, crafting LEU-235 fuel, and building a fission reactor. The guide also explores managing reactor components, coolers, and planning for advanced nuclear research and fuel cycles.
In this detailed guide, we explore the process of advancing your Minecraft Feed The Factory mod base to include uranium isotope separation and fission fuel production. This is a crucial step towards building a fission reactor and unlocking advanced nuclear research.
Before diving into nuclear craft, the base was improved with new multi-block structures to speed up alloy production, plates, rods, and gears. Three Mega Metal Presses were set up:
The crafting interface was taught recipes for alloys such as bronze, invar, constantan, electrum, tough alloy, magnesium diboride, and ferroboron alloy. However, modularium could not be made in the Mega Metal Press and requires the induction smelter.
Iron plates are being produced automatically, filling the logistics drawer. Plastic production was temporarily disconnected to prioritize plastic for the fission reactor.
Lithium, boron, and magnesium are being gathered efficiently from the creeper data model, with item interfaces and cables connecting the system.
Uranium and thorium processing lines were added by duplicating the existing oil processing setup. This includes crushers, induction smelters, pulverizers, and upgraded Redstone furnaces.
A janky but effective item conduit system was implemented to transport cinnabar for processing.
Using a seismic reader, nearby uranium and thorium ore patches were located. An electric miner was set up with a chest and interface to automate uranium and thorium collection.
Drawers were locked to only accept uranium and thorium to prevent inventory clutter.
Item exporters and conduits were configured to automatically process uranium and thorium into usable forms. The system ensures continuous processing and prevents backups.
Crafting recipes were optimized to produce magma blocks and creams in bulk (64 at a time) using sequential fabricators, as crafting tables do not support bulk crafting.
A spare drawer with an item exporter was set up to keep machine frames stocked, reducing wait times when building new machines.
The isotope separator machine from Nuclear Craft was crafted to separate uranium into uranium-238 and tiny clumps of uranium-235.
Sequential fabricators convert tiny clumps into full uranium-235, which is then combined with uranium-238 to craft LEU-235 fuel.
Drawers buffer uranium isotopes to manage excess materials and prevent system clogging.
Energy exporters and upgrades (speed and energy) were added to ensure machines run efficiently within power limits.
The fission reactor requires:
Tough alloy is produced from lithium and ferroboron, which itself is an alloy of boron and steel.
Magnesium diboride solenoids are needed for the fission controller.
A 5x5x5 reactor outline was constructed using fission casing blocks. The reactor does not require corner pieces.
Coolers are essential to manage heat generated by reactor cells. Different coolers have specific placement requirements and heat dissipation values.
Water coolers are the cheapest and absorb 75 heat units per tick but must be placed next to reactor cells or active moderator blocks.
Higher-tier coolers require more complex setups and more research.
Burning LEU-235 fuel in the reactor produces depleted fuel, which can be reprocessed to obtain uranium-238, neptunium-237, and plutonium isotopes.
These byproducts are used to create higher-tier fuels and eventually californium isotopes needed for quantum research.
The process involves multiple reactors and fuel reprocessing steps to progress through the nuclear fuel chain.
Quantum research unlocks advanced technologies and requires denitrating uranium-238, sulfur, and advanced plating.
Further research includes portal coolant, portal frame, location probes, and quantum probes.
The goal is to build multiple fission reactors to efficiently process fuels and produce californium for endgame research.
This guide covered the setup of uranium mining, processing, isotope separation, LEU-235 fuel production, and fission reactor construction in Minecraft Feed The Factory mod. It also outlined the nuclear fuel cycle and research progression necessary to unlock advanced nuclear technologies.
Future steps involve optimizing reactor cooling, expanding fuel processing chains, and ramping up research to reach the endgame content.
Stay tuned for the next episode where the fission reactor will be fully operational and multiple reactors will be set up to handle the complex fuel cycles required for advanced nuclear research.
Thank you for reading this comprehensive guide to nuclear power in Minecraft Feed The Factory mod!
