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fusion breeder port fix

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Bob 2025-11-23 12:47:51 +01:00
parent 9aa3ac9978
commit 2b056a8ae2
5 changed files with 15 additions and 9 deletions
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1
changelog
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@ -71,6 +71,7 @@
* Rewrote the ore layer generator (hematite, bauxite) to be way more performant during worldgen
* The mining laser can now be stopped by applying a redstone signal to one of the ports
* Ionized particles can no longer be liquefacted into helium-4, helium is now a direct liquid byproduct of several fusion reactor recipes
* Adjusted schrabidic acid recipe to account for higher ionized particle yield
## Fixed
* Fixed arc furnace only allowing electrodes to be inserted when the lid is down instead of up

2
src/main/java/com/hbm/inventory/recipes/AssemblyMachineRecipes.java
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@ -539,7 +539,7 @@ public class AssemblyMachineRecipes extends GenericRecipes<GenericRecipe> {
this.register(new GenericRecipe("ass.fusionboiler").setup(300, 100).outputItems(new ItemStack(ModBlocks.fusion_boiler, 1))
.inputItems(new OreDictStack(ANY_RESISTANTALLOY.plateCast(), 16), new OreDictStack(CU.shell(), 16), new OreDictStack(STEEL.pipe(), 8), new OreDictStack(ANY_HARDPLASTIC.ingot(), 16)));
this.register(new GenericRecipe("ass.fusionmhdt").setup(1_200, 100).outputItems(new ItemStack(ModBlocks.fusion_mhdt, 1))
.inputItems(new OreDictStack(ANY_RESISTANTALLOY.plateWelded(), 16), new OreDictStack(CU.plateWelded(), 64), new OreDictStack(ANY_BISMOIDBRONZE.plateCast(), 16), new OreDictStack(BSCCO.wireDense(), 64), new ComparableStack(ModItems.circuit, 4, EnumCircuitType.QUANTUM)));
.inputItems(new OreDictStack(ANY_RESISTANTALLOY.plateWelded(), 16), new OreDictStack(CU.plateWelded(), 64), new OreDictStack(ANY_BISMOIDBRONZE.plateCast(), 16), new OreDictStack(SBD.wireDense(), 64), new ComparableStack(ModItems.circuit, 4, EnumCircuitType.QUANTUM)));
this.register(new GenericRecipe("ass.fusioncoupler").setup(300, 100).outputItems(new ItemStack(ModBlocks.fusion_coupler, 1))
.inputItems(new OreDictStack(ANY_RESISTANTALLOY.plateWelded(), 4), new OreDictStack(CU.plate(), 32), new OreDictStack(BSCCO.wireDense(), 16), new ComparableStack(ModItems.circuit, 4, EnumCircuitType.BISMOID)));

6
src/main/java/com/hbm/inventory/recipes/ChemicalPlantRecipes.java
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@ -247,10 +247,10 @@ public class ChemicalPlantRecipes extends GenericRecipes<GenericRecipe> {
.inputFluids(new FluidStack(Fluids.AIR, 8_000), new FluidStack(Fluids.WATER, 2_000))
.outputFluids(new FluidStack(Fluids.NITRIC_ACID, 1_000)).setPools(GenericRecipes.POOL_PREFIX_ALT + ".birkeland"));
this.register(new GenericRecipe("chem.schrabidic").setup(100, 5_000)
this.register(new GenericRecipe("chem.schrabidic").setup(60, 5_000)
.inputItems(new ComparableStack(ModItems.pellet_charged))
.inputFluids(new FluidStack(Fluids.SAS3, 8000), new FluidStack(Fluids.PEROXIDE, 6000))
.outputFluids(new FluidStack(Fluids.SCHRABIDIC, 16000)));
.inputFluids(new FluidStack(Fluids.SAS3, 2000), new FluidStack(Fluids.PEROXIDE, 2000))
.outputFluids(new FluidStack(Fluids.SCHRABIDIC, 2000)));
this.register(new GenericRecipe("chem.schrabidate").setup(150, 5_000)
.inputItems(new OreDictStack(IRON.dust()))

13
src/main/java/com/hbm/tileentity/machine/fusion/TileEntityFusionBreeder.java
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@ -58,6 +58,8 @@ public class TileEntityFusionBreeder extends TileEntityMachineBase implements IF
if(!worldObj.isRemote) {
tanks[0].setType(0, slots);
if(!canProcessSolid() && !canProcessLiquid()) {
this.progress = 0;
}
@ -183,16 +185,19 @@ public class TileEntityFusionBreeder extends TileEntityMachineBase implements IF
return false;
}
@Override public boolean canExtractItem(int slot, ItemStack itemStack, int side) { return slot == 2; }
@Override public int[] getAccessibleSlotsFromSide(int side) { return new int[] {1, 2}; }
public DirPos[] getConPos() {
ForgeDirection dir = ForgeDirection.getOrientation(this.getBlockMetadata() - 10);
ForgeDirection rot = dir.getRotation(ForgeDirection.UP);
return new DirPos[] {
new DirPos(xCoord + dir.offsetX * 3, yCoord + 2, zCoord + dir.offsetZ * 3, dir),
new DirPos(xCoord + rot.offsetX * 3, yCoord, zCoord + rot.offsetZ * 3, rot),
new DirPos(xCoord - rot.offsetX * 3, yCoord, zCoord - rot.offsetZ * 3, rot.getOpposite()),
new DirPos(xCoord + dir.offsetX + rot.offsetX * 3, yCoord, zCoord + dir.offsetX + rot.offsetZ * 3, rot),
new DirPos(xCoord + dir.offsetX - rot.offsetX * 3, yCoord, zCoord + dir.offsetX - rot.offsetZ * 3, rot.getOpposite())
new DirPos(xCoord + rot.offsetX * 2, yCoord, zCoord + rot.offsetZ * 2, rot),
new DirPos(xCoord - rot.offsetX * 2, yCoord, zCoord - rot.offsetZ * 2, rot.getOpposite()),
new DirPos(xCoord + dir.offsetX + rot.offsetX * 2, yCoord, zCoord + dir.offsetZ + rot.offsetZ * 2, rot),
new DirPos(xCoord + dir.offsetX - rot.offsetX * 2, yCoord, zCoord + dir.offsetZ - rot.offsetZ * 2, rot.getOpposite())
};
}

2
src/main/resources/assets/hbm/manual/fusion/torus.json
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@ -6,6 +6,6 @@
"en_US": "Fusion Reactor Vessel"
},
"content": {
"en_US": "\"Torus\", main component of the [[fusion reactor|Fusion Reactor]], uses fuel and energy from a [[klystron|Klystron]] to generate plasma. Also requires electricity and cooling via [[perfluoromethyl|Perfluoromethyl]] to operate.<br><br>Features four connection ports for external components. Devices that use plasma energy (and not just neutron flux) split the total output, a single component will receive 100% of the energy, two components will receive 62.5% each and three components get 50% each. Therefore, using multiple [[boilers|Fusion Reactor Boiler]] or [[MHDTs|MHD Turbine]] increases the total energy output, although with diminishing returns. Flux levels are not affected when shared, the output remains steady across all ports no matter how many attachments are used.<br><br>Both the buffered electric charge and fuel levels determine working speed, if either is below 50%, the reactor will start to throttle, burnng slower and decreasing output energy. The klystron energy does not affect processing speed, too little energy will simply fail to ignite the plasma, and more energy will not accelerate the reaction."
"en_US": "\"Torus\", main component of the [[fusion reactor|Fusion Reactor]], uses fuel and energy from a [[klystron|Klystron]] to generate plasma. Also requires electricity and cooling via [[perfluoromethyl|Perfluoromethyl]] to operate.<br><br>Features four connection ports for external components. Devices that use plasma energy (and not just neutron flux) split the total output, a single component will receive 100% of the energy, two components will receive 62.5% each and three components get 50% each. Therefore, using multiple [[boilers|Fusion Reactor Boiler]] or [[MHDTs|MHD Turbine]] increases the total energy output, although with diminishing returns. Flux levels are not affected when shared, the output remains steady across all ports no matter how many attachments are used.<br><br>Both the buffered electric charge and fuel levels determine working speed, if either is below 50%, the reactor will start to throttle, burning slower and decreasing output energy. The klystron energy does not affect processing speed, too little energy will simply fail to ignite the plasma, and more energy will not accelerate the reaction."
}
}