Is there a wiki with information about the gregtech modular armor or could anybody explain how they work?
no wiki post yet, they are too newly introduced.Is there a wiki with information about the gregtech modular armor or could anybody explain how they work?
Is there functionality yet?no wiki post yet, they are too newly introduced.
a simple rule of thumb for how to orient GT transformers properly
then eventually some machines run out while other machines have too many cells in them.
I solved this by using Logistics Supplier Pipes. They can be set to keep a fixed number of items in the machine. To have the hydrogen cells ready, I use a chassis pipe on an electrolyzer with a Crafting Module that crafts 5 Methane Cells into 4 Hydrogen Cells and an Advanced Extraction Module that extracts the carbon dust and empty cells. To deal with the H2S cells, I extract them all with item conduits and send them to an EIO Fluid Tank, which empties the cells and collects the sulfide. On the fluid tank is a Logistics Provider Pipe, which provides the empty cells to the network, and a Logistics Fluid Extractor Pipe, which extracts the sulfide and sends it to a giant railcraft tank using a Logistics Basic Pipe on the tank. Alternately, you can extract the H2S cells into a Chemical Reactor that makes Sulfuric Acid and use it to fill batteries or make TNT.
If you don't want to use Logistics Pipes, you will need to have one closed circuit for each chemical reactor that's processing a gas or oil fraction. So each chemical reactor will have two EIO fluid tanks next to it, one that you're keeping filled with Hydrogen, and one that you're draining Hydric Sulfide from. The conduit on the reactor pulls the two H2S cells to the second tank. The conduit on the H2S tank, set to Round-Robin, and equipped with a Conduit Speed Downgrade, extracts the two empty cells, sending one of them to the reactor and the other to the hydrogen tank. The conduit on the hydrogen tank pulls the hydrogen cell back to the reactor.
But really, Logistics Pipes makes the whole setup a lot simpler, since it can move several items and fluids along the same pipe.
The big dot always faces the high voltage side. Always. In stepdown mode, the big dot is the input side, and it faces the high voltage wire. In step-up mode (after whacking it with a mallet), the big dot is now the output side, but it still faces the high voltage wire.
You didn't mention what kind of transformer you used. The transformers are named after their low voltage side. So to convert MV to LV, you need an LV Transformer.
It's possible to blow up everything by using the wrong tier of transformer, because of the way transformers work. The input side of the transformer can accept any voltage up to the maximum. It's only the output side of the transformer that has a fixed voltage. So if you have an MV transformer, you can put MV into the HV side, and then get MV out of the MV sides.
If the wiki says "high amperage", that's a typo. You can't overamp a machine. You can try to send a billion amps into a machine, but if it only accepts one amp, then one amp is all that will go down the cable.
If the wiki says "high amperage", that's a typo. You can't overamp a machine. You can try to send a billion amps into a machine, but if it only accepts one amp, then one amp is all that will go down the cable.
Oh it's totally wrong. Look at the third sentence: "They are the only machines that can accept a higher voltage than their tier without exploding."
My setup was: MV Gas Turbine->MV Batter Buffer->LV Transformer->LV Chemical Reactors (I'm still unsure which Transformer tier I was using but it was definitely NOT inverted mode, it was normal down-converting mode since I never did any soft hammer hit)
Somehow this setup worked for a full day. Then I woke up this morning and realized "I don't need that Battery Buffer, I can use it somewhere else". So I took it out, and moved the Transformer adjacent to the Gas Turbine Output. The Big Dot was facing me, and I clicked my wrench to turn the Big Dot towards the MV Turbine and BOOOM.
If this were your setup, wrenching the transformer to make it face the turbine should not have exploded the transformer. However, if you used a soft hammer instead of a wrench by mistake, that would do it.
In fact, I just tried it. I placed the turbine and the transformer. I wrenched the transformer so it faced the turbine. No explosion; the turbine consumed a tiny bit of fuel to fill the transformer's buffer. I then soft hammered the transformer and rotated it back. No explosion; the turbine did not try to send voltage into the transformer since its buffer was already full. I dismantled the transformer with a wrench and placed it back down. I then soft hammered it without rotating it first. BIG EXPLOSION. The turbine tried to send an amp of MV into the low-voltage input side of the transformer, which only accepts LV.
Line losses aren't as big a deal as you might think. Most of the time, you lose a bit of fuel efficiency - it's very rare that the line losses actually cause a machine to stop working. One place that can happen is with the recipes that remove sulfur from sulfuric fuels, because those recipes require a whole 30 EU/t. That means, if there are three cables between the chemical reactor and the LV generator, then only 29 EU/t is reaching the reactor. And even then, because that machine isn't running constantly, you can just get around it by putting a small Lithium battery in the reactor.