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Editing Water wheel
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* The ideal amount of water in this design is apparently 63 units of water. In other words six tiles below in the V are full up to 7/7 and three more above are also full up to 7/7 which will generate reliable flow permanently without ever losing any of that water to evaporation. An easy way to do this is to simply leave your pond fill command on after the reactor activates. They will eventually fill it up to the optimal level and stop. | * The ideal amount of water in this design is apparently 63 units of water. In other words six tiles below in the V are full up to 7/7 and three more above are also full up to 7/7 which will generate reliable flow permanently without ever losing any of that water to evaporation. An easy way to do this is to simply leave your pond fill command on after the reactor activates. They will eventually fill it up to the optimal level and stop. | ||
* When you first start the pump, you are likely to have at least some excess water splash out while the fluid level achieves equilibrium - don't locate this in an area that you don't want any mud in. | * When you first start the pump, you are likely to have at least some excess water splash out while the fluid level achieves equilibrium - don't locate this in an area that you don't want any mud in. | ||
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| − | The reactor can be safely halted either by blocking the tile the pump draws water from or "overloading" the reactor (since drawing more power than the reactor supplies will stop the pump that keeps the cycle going until the load is reduced and the pump is manually restarted by dwarf-power) | + | The reactor can be safely halted either by blocking the tile the pump draws water from or "overloading" the reactor (since drawing more power than the reactor supplies will stop the pump that keeps the cycle going until the load is reduced and the pump is manually restarted by dwarf-power), More drastically, the reactor will obviously be halted by deconstructing the pump. Deconstructing one wheel will cause a flood (and almost immediately cancel any job order to deconstruct the other components), and deconstructing the pump will cause both wheels to collapse (unless they are attached to [[machinery]] outside them, not shown). |
[[Power]] can be routed up from the pump or off to the side from a wheel; the bottom of the pump is difficult to access without danger of water escaping. Routing power from a wheel is typically safe in practice, but it's not impossible for a small amount of water to escape the reactor if it is temporarily overfilled. Power can also be routed out of the reactor via a gear or horizontal axle over the pump's intake tile; while this does not interfere with the pump's operation or present a danger of flooding, it makes it more difficult to shut down the reactor. In either case, it's typically wise to place a [[gear assembly]] linked to a [[lever]] early in the power train in order to allow disconnecting the power at that point, as opposed to needing to halt the entire reactor to stop the power supply. | [[Power]] can be routed up from the pump or off to the side from a wheel; the bottom of the pump is difficult to access without danger of water escaping. Routing power from a wheel is typically safe in practice, but it's not impossible for a small amount of water to escape the reactor if it is temporarily overfilled. Power can also be routed out of the reactor via a gear or horizontal axle over the pump's intake tile; while this does not interfere with the pump's operation or present a danger of flooding, it makes it more difficult to shut down the reactor. In either case, it's typically wise to place a [[gear assembly]] linked to a [[lever]] early in the power train in order to allow disconnecting the power at that point, as opposed to needing to halt the entire reactor to stop the power supply. | ||