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Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)

Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)

  • Material requirements (as shown in the picture)

    Redstone (15), Redstone Repeater (15), Redstone Comparator (1), Storage Bus (13), ME Super Interface (13), Covered Cable (N of each of two colors), ME Trigger Bus (13), ME Inverted Trigger Bus (16), Export Bus (1), Redstone Card, Input Hatch greater than 10B (1), Advanced Active State Detector (1), ME Stock Input Hatch (T6 Water Input)

How to build

  • Step 1:First, use bundled cable and reverse trigger bus to build a line of 16 blocks. (Corresponds to redstone signal 0~16)

Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)
  • Step 2:Place trigger buses on the 2-16 cladding cables, no need to place on 13 and 15. (Corresponding to redstone signals 12 and 14, machine mechanism 12 and 14 have no input.)

    Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)

  • Step 3:Place cladding cables on the trigger bus (preferably in different colors so that the two lines are not connected), then place the storage bus and ME oversized interface on top of the cladding cables (remember to connect the interfaces together).

    Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)
  • Step 4:Place redstone and redstone repeaters, place a redstone repeater on the second cladding from left to right.

Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)
  • Step 5: Mark the catalysts

    In the ME super large interface, mark the corresponding catalysts, from left to right: liquid helium (10B), gaseous helium (10B), liquid samarium iron arsenic oxide (1B), gaseous neon (8B),

    liquid indium tin barium titanium copper oxide (1B), gaseous argon (6B), liquid uranium rhodium silica rock alloy (1B), krypton (4B), liquid enriched silica rock kai gold europium lithium uranium alloy (1B), gaseous xenon (2B),

    liquid ruthenium kai gold americium amplo oxide (1B), the last three are all liquid amplo (2B).

  • Step 6: Redstone control connection and redstone control catalyst input

    T7 controller front face attach machine active state detector, output bus put redstone card (set redstone pulse activation).

    Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)

    The network of the output bus is a subnetwork (the yellow jacketed cable line).

  • Step 7:Overview (copying the homework)

    Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)
  • Other:

    Boss boss, why is there a terminal on the line below you?

    That is for checking the catalysts currently recognized by the network. If you find that what is displayed in its network does not match what your machine needs, then you have marked it incorrectly.

    Principle: The machine outputs the corresponding redstone signal, which reversely triggers the bus to intercept the channel transmission of the corresponding cable position, while activating the trigger bus and the storage bus, so that the network can just identify the corresponding catalyst.

    Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)Based on the ME channel's pathfinding mechanism, create a tutorial for T7 grade water (deaerated water)

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