Based on SFM (Super Factory Manager) compact T7 water/deaerated water automation

Main materials

Unit: piece

• Redstone P2P Channel:9

• ME Active Forming Panel:1, ME Destruction Panel:1

• ME Trigger Bus:1, ME Inverted Trigger Bus:1

• ME Super Interface:1, Crafting Card:1

• Pulse Gate:1, Multiplexer:1, NOT Gate:1

• Redstone Dust:4, Advanced Active Status Detector:1

• Factory Manager:1, Factory Manager Program Disk:1

• Container that can hold at least one item:1

• Redstone source (Lever, Redstone Block, etc.):1

• Some ME cables, some quartz fiber, some cable anchors

Building Approach

(1) Signal transmission

T7 water machine body attach detector, use 3 redstone dust leads out redstone signal; green line is a separate AE network, this network only contains 4 redstone P2P channel,blue box/yellow box the corresponding P2P channels are a pair, where blue box the signal transmitted is denoted as main signal,yellow box the signal transmitted is denoted as liquid helium signal.

Among them,liquid helium signal is transmitted later than main signal, i.e., main signal The corresponding P2P channel should be placed closer to the redstone line leading from the machine body.

(2) State reset per round

The trigger bus and the inverse trigger bus are in the same cell, form a network separately with the active shaping panel, destruction panel, and container, and only supply power to the cell where the trigger bus is located; transfermain signalThe P2P channel output to the cell where the trigger bus is located.

Put into the container 1 pieceRedstone dust, active forming panel marking redstone dust, working state selectionPlace block.

When the machine starts working, the breaking panel will retract the redstone dust in front of the degassing control chamber, while the active forming panel is turned off and not working, at this time the whole system has no action; until main signal redstone signal at the location is greater than 0, the breaking panel is turned off, the active forming panel activates and places redstone wire to receive the signal output from the degassing control chamber.

(3) Feeding operation

Liquid helium signal passes through pulse gate-multiplexer-NOT gate to Location B 's factory manager, where one side of the multiplexer is connected to the redstone signal from the degassing control chamber, and the other side is connected to a normally high signal (such as a lever or redstone block signal source);

the other route ( blue route shown) The signal input to the degassing control chamber is output to the multiplexer and point A of the factory manager.

The input bin capacity requires at least 10,000 mB, so use LVBoth the input bin and the super interface need to be connected to the factory manager.

The large interface is used to provide materials needed for degassing treatment. The diagram shows that it is connected to the main network that can provide or synthesize all materials, so a synthesis card is installed.

In this example, the materials marked on the first page of the interface and the corresponding subscripts are as follows:

• gaseous helium (0)，gaseous neon (1)，gaseous argon (2)，krypton (3)，gaseous xenon (4)，liquid helium (5)

• liquid samarium iron arsenic oxide (9)，liquid indium tin barium titanium copper oxide (10)，liquid uranium rhodium silicon rock alloy (11)，liquid enriched silicon rock kaijin europium keng uranium alloy (12)，liquid ruthenium kaijin americium amplo oxide (13)，liquid amplo (14)

Using SFM's Network Tool, right-click a container (requires an item or fluid in the slot), or press Ctrl+I (default shortcut) in the GUI to view the slot index.

In the factory manager script, uniformly use src refers to the super large interface that supplies materials,dst refers to the degassing treatment material LVInput hatch.

Among them,Location A the factory manager script:

every redstone pulse do
    if redstone = 1 then
        input 10000 fluid:gtceu:helium from src top side slots 0
    else if redstone = 3 then
        input 8000 fluid:gtceu:neon from src top side slots 1
    else if redstone = 5 then
        input 6000 fluid:gtceu:argon from src top side slots 2
    else if redstone = 7 then
        input 4000 fluid:gtceu:krypton from src top side slots 3
    else if redstone = 9 then
        input 2000 fluid:gtceu:xenon from src top side slots 4
    else if redstone = 2 then
        input 1000 fluid:gtceu:samarium_iron_arsenic_oxide from src top side slots 9
    else if redstone = 4 then
        input 1000 fluid:gtceu:indium_tin_barium_titanium_cuprate from src top side slots 10
    else if redstone = 6 then
        input 1000 fluid:gtceu:uranium_rhodium_dinaquadide from src top side slots 11
    else if redstone = 8 then
        input 1000 fluid:gtceu:enriched_naquadah_trinium_europium_duranide from src top side slots 12
    else if redstone = 10 then
        input 1000 fluid:gtceu:ruthenium_trinium_americium_neutronate from src top side slots 13
    else if redstone = 11
        or redstone = 13
        or redstone = 15 then
        input 2000 fluid:gtocore:amprosium from src top side slots 14
    end
    output fluid:: to dst top side slots 0
end

Location B 's factory manager script:

every redstone pulse do
    input 10000 fluid:gtceu:liquid_helium from src top side slots 5
    output 10000 fluid:gtceu:liquid_helium to dst top side slots 0
end

Location B The factory manager can also use other output methods instead, as long as it satisfies: receives a non-zero redstone signal to work once, and outputs a specified amount from the super large interface or other sources.Liquid Helium (10 000mB) to the degassing treated material LVin the input bin.