Utilizes a large set of centrifuges to concentrate uranium-235 isotope out of natural uranium (a process called isotope separation). The resulting product is fissile uranium, ready to undergo a chain reaction in a nuclear reactor.
Cooling is deployed in case the reactor starts to overheat, and that typically happens when water is not supplied fast enough to be converted into steam (or steam output gets stuck). Cooling is not mandatory if you are not using automatic power regulation. However, it is highly recommended to have it as it provides extra protection and helps to avoid any potential overheating.
A complex facility which reprocesses radioactive material by isolating fission products (material that is no longer fissile and would slow down reaction if left in a reactor). Isolated waste decays faster, allowing it to be disposed of in a reasonable time span. The isolated waste is vitrified using molten glass into a solid form for easier storage.
Advanced thermal reactor that provides increased throughput. This reactor is also able to utilize MOX fuel. It can also regulate its power level automatically (if computing is provided). This plant can be set up to effectively provide up to {0} MW of electricity when running on full power.
If input is provided, it will be enriched into fissile fuel. The enrichment process is optional and does not affect reactor's fuel economy. Keeping the enriched output buffer full does not affect operation of the reactor.
If enabled, the reactor will regulate the target power based on the heat demand. The automated regulation will never go above the target power level (selected on the slider above). It also can't go below the first level (shutting the reactor down). The automation relies on the cooling loop; without it a rapid change in reactor's heat could lead to a meltdown. This regulation requires computing in order to operate.
メクハイブ
原子核分裂反応炉内燃料