diff --git a/src/main/java/gregtech/api/recipes/logic/ParallelLogic.java b/src/main/java/gregtech/api/recipes/logic/ParallelLogic.java
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+++ b/src/main/java/gregtech/api/recipes/logic/ParallelLogic.java
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+package gregtech.api.recipes.logic;
+
+import gregtech.api.capability.IMultipleTankHandler;
+import gregtech.api.recipes.*;
+import net.minecraft.item.ItemStack;
+import net.minecraftforge.fluids.FluidStack;
+import net.minecraftforge.fluids.IFluidTank;
+import net.minecraftforge.items.IItemHandlerModifiable;
+
+import java.util.*;
+import java.util.stream.IntStream;
+
+public class ParallelLogic {
+
+    /**
+     * Attempts to multiply the passed {@link Recipe} from the items and fluids in the input inventories, up to a maximum limit.
+     * This is a rather strict implementation, and can create Recipes that will be too large for the available output inventory slots
+     * or to be combined into the available space in the output inventory
+     *
+     * @param inputs The Item Input inventory handler
+     * @param recipeMap The Recipe Map that the provided recipe is from
+     * @param fluidInputs The Fluid Input inventory handler
+     * @param recipe The Recipe to be multiplied
+     * @param parallelAmount The hard limit on the amount of parallel Recipes that can be performed
+     * @return A Recipe that has had all factors scaled by the number of parallel operations
+     */
+    protected Recipe multiplyRecipe(Recipe recipe, RecipeMap<?> recipeMap, IItemHandlerModifiable inputs, IMultipleTankHandler fluidInputs, int parallelAmount) {
+
+        if(parallelAmount == 1) {
+            return recipe;
+        }
+
+        // Find all the items in the combined Item Input inventories and create oversized ItemStacks
+        Set<ItemStack> ingredientStacks = findAllItemsInInputs(inputs);
+
+        // Find all the fluids in the combined Fluid Input inventories and create oversized FluidStacks
+        Set<FluidStack> fluidStacks = findAllFluidsInInputs(fluidInputs);
+
+        // Find the maximum number of recipes that can be performed from the items in the item input inventories
+        int itemMultiplier = getMinRatioItem(ingredientStacks, recipe, parallelAmount);
+        // Find the maximum number of recipes that be be performed from the items in the fluid input inventories
+        int fluidMultiplier = getMinRatioFluid(fluidStacks, recipe, parallelAmount);
+
+        // Find the maximum number of recipes that can be performed from all available inputs
+        int minMultiplier = Math.min(itemMultiplier, fluidMultiplier);
+
+        // No fluids or items were found in the input inventories that match the recipe's inputs
+        if(minMultiplier == Integer.MAX_VALUE) {
+            return null;
+        }
+
+        // Create holders for the various parts of the new multiplied Recipe
+        List<CountableIngredient> newRecipeInputs = new ArrayList<>();
+        List<FluidStack> newFluidInputs = new ArrayList<>();
+        List<ItemStack> outputItems = new ArrayList<>();
+        List<FluidStack> outputFluids = new ArrayList<>();
+
+        // Populate the various holders of the multiplied Recipe
+        this.multiplyInputsAndOutputs(newRecipeInputs, newFluidInputs, outputItems, outputFluids, recipe, minMultiplier);
+
+        // Build the new Recipe with multiplied components
+        RecipeBuilder<?> newRecipe = recipeMap.recipeBuilder()
+                .inputsIngredients(newRecipeInputs)
+                .fluidInputs(newFluidInputs)
+                .outputs(outputItems)
+                .fluidOutputs(outputFluids)
+                .EUt(recipe.getEUt())
+                .duration(recipe.getDuration());
+
+        // Add the chanced outputs to the multiplied recipe
+        copyChancedItemOutputs(newRecipe, recipe, minMultiplier);
+
+        // Return the multiplied Recipe
+        return newRecipe.build().getResult();
+    }
+
+    /**
+     * Copies the chanced outputs of a Recipe and expands them for the number of parallel recipes performed
+     *
+     * @param newRecipe An instance of the recipe after the inputs and outputs have been multiplied from the number of parallels
+     * @param oldRecipe The original recipe before any parallel multiplication
+     * @param numberOfOperations The number of parallel operations that have been performed
+     */
+    protected static void copyChancedItemOutputs(RecipeBuilder<?> newRecipe, Recipe oldRecipe, int numberOfOperations) {
+
+        // Iterate through the chanced outputs
+        for(Recipe.ChanceEntry entry : oldRecipe.getChancedOutputs()) {
+
+            int chance = entry.getChance();
+            int boost = entry.getBoostPerTier();
+
+            // Add individual chanced outputs per number of parallel operations performed, to mimic regular recipes.
+            // This is done instead of simply batching the chanced outputs by the number of parallel operations performed
+            IntStream.range(0, numberOfOperations).forEach(value -> {
+                ItemStack itemStack = entry.getItemStack().copy();
+                newRecipe.chancedOutput(itemStack, chance, boost);
+            });
+        }
+    }
+
+    /**
+     * Copies all items in the input inventory into single oversized stacks per unique item.
+     * Skips Empty slots
+     *
+     * @param inputs The inventory handler for the input inventory
+     * @return a {@link Set} of {@link ItemStack}s comprising of oversized stacks for each unique item in the input inventory
+     */
+    protected static Set<ItemStack> findAllItemsInInputs(IItemHandlerModifiable inputs) {
+        Set<ItemStack> countIngredients = new HashSet<>();
+
+        // Iterate through the entire input inventory
+        for(int slot = 0; slot < inputs.getSlots(); slot++) {
+            ItemStack wholeItemStack = inputs.getStackInSlot(slot);
+
+            // Skip empty slots
+            if(wholeItemStack.isEmpty()) {
+                continue;
+            }
+
+            // Populate the initially empty Set with an initial value
+            if(countIngredients.isEmpty()) {
+                countIngredients.add(wholeItemStack.copy());
+            }
+            else {
+                // Iterate through the existing Set, attempting to match the item from the input inventory to an entry in the Set
+                boolean found = false;
+                for(ItemStack stack : countIngredients) {
+                    if(ItemStack.areItemsEqual(stack, wholeItemStack)) {
+                        // If a matching item was found, increment the count of the item in the Set
+                        stack.setCount(stack.getCount() + wholeItemStack.getCount());
+                        found = true;
+                        break;
+                    }
+                }
+                // If no matching ItemStack was found in the Set, add a new entry to the Set
+                if(!found) {
+                    countIngredients.add(wholeItemStack.copy());
+                }
+            }
+        }
+        return countIngredients;
+    }
+
+    /**
+     * Finds the maximum number of Recipes that can be performed at the same time based on the items in the item input inventory
+     * @param countIngredients a {@link Set} of {@link ItemStack}s that is the result of calling {@link ParallelLogic#findAllItemsInInputs(IItemHandlerModifiable)}
+     * @param recipe The {@link Recipe} for which to find the maximum that can be ran simultaneously
+     * @param parallelAmount The limit on the amount of recipes that can be performed at one time
+     * @return The Maximum number of Recipes that can be performed at a single time based on the available Items
+     */
+    protected int getMinRatioItem(Set<ItemStack> countIngredients, Recipe recipe, int parallelAmount) {
+
+        int minMultiplier = Integer.MAX_VALUE;
+
+        // Iterate through the recipe inputs
+        for(CountableIngredient recipeInputs : recipe.getInputs()) {
+
+            // Skip not consumed inputs
+            if(recipeInputs.getCount() == 0) {
+                continue;
+            }
+
+            // For every stack in the ingredients gathered from the input bus. This is most likely going to be oversized stacks
+            for(ItemStack wholeItemStack : countIngredients) {
+
+                if(recipeInputs.getIngredient().apply(wholeItemStack)) {
+                    //The ratio will either be set by the parallel limit, or the oversized stack divided by the amount of inputs the recipe takes
+                    int ratio = Math.min(parallelAmount, wholeItemStack.getCount() / recipeInputs.getCount());
+                    //Find the maximum number of recipes that can be performed by decrementing the ratio, which is limited
+                    //by the number of machines (as absolute max), or the amount of ingredients in the input bus
+                    if(ratio < minMultiplier) {
+                        minMultiplier = ratio;
+                    }
+                    break;
+                }
+
+            }
+        }
+        return minMultiplier;
+    }
+
+    /**
+     * Finds all unique Fluids in the combined Fluid Input inventory, and combines them into a {@link Set} of oversized {@link FluidStack}s
+     * Skips Empty Fluid Tanks
+     *
+     * @param fluidInputs The combined fluid input inventory handler, in the form of an {@link IMultipleTankHandler}
+     * @return a {@link Set} of unique {@link FluidStack}s for each fluid in the handler. Will be oversized stacks if required
+     */
+    protected static Set<FluidStack> findAllFluidsInInputs(IMultipleTankHandler fluidInputs) {
+
+        Set<FluidStack> combinedFluids = new HashSet<>();
+
+        // Iterate through the different tanks that make up the structure
+        for(IFluidTank tank : fluidInputs) {
+
+            // Check if the tank contains a Fluid
+            if(tank.getFluid() != null) {
+
+                // Populate the set with an initial value on the first passthrough
+                if(combinedFluids.isEmpty()) {
+                    combinedFluids.add(new FluidStack(tank.getFluid(), tank.getFluidAmount()));
+                }
+                else {
+
+                    // Create a FluidStack from the information provided from the tank
+                    FluidStack tankFluid = new FluidStack(tank.getFluid(), tank.getFluidAmount());
+
+                    boolean found = false;
+
+                    // Iterate through the Set of FluidStacks, checking if the created FluidStack already exists
+                    for(FluidStack fs : combinedFluids) {
+                        if(fs.isFluidEqual(tankFluid)) {
+                            // Increment the count of the existing FluidStack to create oversized stacks
+                            fs.amount = fs.amount + tank.getFluidAmount();
+                            found = true;
+                            break;
+                        }
+                    }
+                    // If a matching FluidStack was not found in the Set, add a new entry
+                    if(!found) {
+                        combinedFluids.add(tankFluid.copy());
+                    }
+                }
+            }
+        }
+
+        return combinedFluids;
+    }
+
+    /**
+     * Finds the maximum number of a specific recipe that can be performed based upon the fluids in the fluid inputs
+     *
+     * @param countFluid a {@link Set} of {@link FluidStack}s that is the result of calling {@link ParallelLogic#findAllFluidsInInputs(IMultipleTankHandler)}
+     * @param recipe The {@link Recipe} for which to find the maximum that can be ran simultaneously
+     * @param parallelAmount The limit on the amount of recipes that can be performed at one time
+     * @return The Maximum number of Recipes that can be performed at a single time based on the available Fluids
+     */
+    protected int getMinRatioFluid(Set<FluidStack> countFluid, Recipe recipe, int parallelAmount) {
+
+        int minMultiplier = Integer.MAX_VALUE;
+
+        // Iterate through the fluid inputs in the recipe
+        for(FluidStack fs : recipe.getFluidInputs()) {
+
+            // Skip Not consumed Fluid inputs
+            if(fs.amount == 0) {
+                continue;
+            }
+
+            // Iterate through the fluids in the input hatches. This will likely be oversized stacks
+            for(FluidStack inputStack : countFluid) {
+
+                if(fs.isFluidEqual(inputStack)) {
+                    //The ratio will either be set by the parallel limit, or the oversized stack divided by the amount of inputs the recipe takes
+                    int ratio = Math.min(parallelAmount, inputStack.amount / fs.amount);
+
+                    //Find the maximum number of recipes that can be performed by decrementing the ratio, which is limited
+                    //by the number of machines (as absolute max), or the amount of ingredients in the input bus
+                    if(ratio < minMultiplier) {
+                        minMultiplier = ratio;
+                    }
+                    break;
+                }
+            }
+        }
+
+        return minMultiplier;
+    }
+
+    protected static ItemStack copyItemStackWithCount(ItemStack itemStack, int count) {
+        ItemStack itemCopy = itemStack.copy();
+        itemCopy.setCount(count);
+        return itemCopy;
+    }
+
+    protected static FluidStack copyFluidStackWithAmount(FluidStack fluidStack, int count) {
+        FluidStack fluidCopy = fluidStack.copy();
+        fluidCopy.amount = count;
+        return fluidCopy;
+    }
+
+    protected void multiplyInputsAndOutputs(List<CountableIngredient> newRecipeInputs,
+                                            List<FluidStack> newFluidInputs,
+                                            List<ItemStack> outputItems,
+                                            List<FluidStack> outputFluids,
+                                            Recipe recipe,
+                                            int numberOfOperations) {
+
+        recipe.getInputs().forEach(ci ->
+                newRecipeInputs.add(new CountableIngredient(ci.getIngredient(),
+                        ci.getCount() * numberOfOperations)));
+
+        recipe.getFluidInputs().forEach(fluidStack ->
+                newFluidInputs.add(new FluidStack(fluidStack.getFluid(),
+                        fluidStack.amount * numberOfOperations)));
+
+        recipe.getOutputs().forEach(itemStack ->
+                outputItems.add(copyItemStackWithCount(itemStack,
+                        itemStack.getCount() * numberOfOperations)));
+
+        recipe.getFluidOutputs().forEach(fluidStack ->
+                outputFluids.add(copyFluidStackWithAmount(fluidStack,
+                        fluidStack.amount * numberOfOperations)));
+    }
+}