@Override
public void careForInventorySlot(ItemStack is) {
if (is != null) {
HeatRegistry manager = HeatRegistry.getInstance();
HeatIndex index = manager.findMatchingIndex(is);
if (index != null) {
float temp = TFC_ItemHeat.getTemp(is);
if (fuelTimeLeft > 0 && is.getItem() instanceof ICookableFood) {
float inc = Food.getCooked(is) + Math.min(fireTemp / 700, 2f);
Food.setCooked(is, inc);
temp = inc;
if (Food.isCooked(is)) {
int[] cookedTasteProfile = new int[] {0, 0, 0, 0, 0};
Random r =
new Random(
((ICookableFood) is.getItem()).getFoodID()
+ (((int) Food.getCooked(is) - 600) / 120));
cookedTasteProfile[0] = r.nextInt(31) - 15;
cookedTasteProfile[1] = r.nextInt(31) - 15;
cookedTasteProfile[2] = r.nextInt(31) - 15;
cookedTasteProfile[3] = r.nextInt(31) - 15;
cookedTasteProfile[4] = r.nextInt(31) - 15;
Food.setCookedProfile(is, cookedTasteProfile);
Food.setFuelProfile(is, EnumFuelMaterial.getFuelProfile(fuelTasteProfile));
}
} else if (fireTemp > temp && index.hasOutput()) {
temp += TFC_ItemHeat.getTempIncrease(is);
} else temp -= TFC_ItemHeat.getTempDecrease(is);
TFC_ItemHeat.setTemp(is, temp);
}
}
}
public void cookItem() {
HeatRegistry manager = HeatRegistry.getInstance();
Random r = new Random();
if (fireItemStacks[1] != null) {
HeatIndex index = manager.findMatchingIndex(fireItemStacks[1]);
if (index != null && TFC_ItemHeat.getTemp(fireItemStacks[1]) > index.meltTemp) {
ItemStack output = index.getOutput(fireItemStacks[1], r);
ItemCookEvent eventMelt = new ItemCookEvent(fireItemStacks[1], output, this);
MinecraftForge.EVENT_BUS.post(eventMelt);
output = eventMelt.result;
int damage = 0;
ItemStack mold = null;
if (output != null) {
damage = output.getItemDamage();
if (output.getItem() == fireItemStacks[1].getItem())
damage = fireItemStacks[1].getItemDamage();
// If the input is unshaped metal
if (fireItemStacks[1].getItem() instanceof ItemMeltedMetal) {
// if both output slots are empty then just lower the input item into the first output
// slot
if (fireItemStacks[7] == null && fireItemStacks[8] == null) {
fireItemStacks[7] = fireItemStacks[1].copy();
fireItemStacks[1] = null;
return;
}
// Otherwise if the first output has an item that doesnt match the input item then put
// the item in the second output slot
else if (fireItemStacks[7] != null
&& fireItemStacks[7].getItem() != TFCItems.ceramicMold
&& (fireItemStacks[7].getItem() != fireItemStacks[1].getItem()
|| fireItemStacks[7].getItemDamage() == 0)) {
if (fireItemStacks[8] == null) {
fireItemStacks[8] = fireItemStacks[1].copy();
fireItemStacks[1] = null;
return;
}
}
mold = new ItemStack(TFCItems.ceramicMold, 1);
mold.stackSize = 1;
mold.setItemDamage(1);
}
}
// Morph the input
float temp = TFC_ItemHeat.getTemp(fireItemStacks[1]);
fireItemStacks[1] = index.getMorph();
if (fireItemStacks[1] != null && manager.findMatchingIndex(fireItemStacks[1]) != null) {
// if the input is a new item, then apply the old temperature to it
TFC_ItemHeat.setTemp(fireItemStacks[1], temp);
}
// Check if we should combine the output with a pre-existing output
if (output != null && output.getItem() instanceof ItemMeltedMetal) {
int leftover = 0;
boolean addLeftover = false;
int fromSide = 0;
if (fireItemStacks[7] != null
&& output.getItem() == fireItemStacks[7].getItem()
&& fireItemStacks[7].getItemDamage() > 0) {
int amt1 = 100 - damage; // the percentage of the output
int amt2 =
100 - fireItemStacks[7].getItemDamage(); // the percentage currently in the out slot
int amt3 = amt1 + amt2; // combined amount
leftover =
amt3
- 100; // assign the leftover so that we can add to the other slot if applicable
if (leftover > 0) addLeftover = true;
int amt4 = 100 - amt3; // convert the percent back to mc damage
if (amt4 < 0) amt4 = 0; // stop the infinite glitch
fireItemStacks[7] = output.copy();
fireItemStacks[7].setItemDamage(amt4);
TFC_ItemHeat.setTemp(fireItemStacks[7], temp);
if (fireItemStacks[1] == null && mold != null) fireItemStacks[1] = mold;
} else if (fireItemStacks[8] != null
&& output.getItem() == fireItemStacks[8].getItem()
&& fireItemStacks[8].getItemDamage() > 0) {
int amt1 = 100 - damage; // the percentage of the output
int amt2 =
100 - fireItemStacks[8].getItemDamage(); // the percentage currently in the out slot
int amt3 = amt1 + amt2; // combined amount
leftover =
amt3
- 100; // assign the leftover so that we can add to the other slot if applicable
if (leftover > 0) addLeftover = true;
fromSide = 1;
int amt4 = 100 - amt3; // convert the percent back to mc damage
if (amt4 < 0) amt4 = 0; // stop the infinite glitch
fireItemStacks[8] = output.copy();
fireItemStacks[8].setItemDamage(amt4);
TFC_ItemHeat.setTemp(fireItemStacks[8], temp);
if (fireItemStacks[1] == null && mold != null) fireItemStacks[1] = mold;
} else if (fireItemStacks[7] != null
&& fireItemStacks[7].getItem() == TFCItems.ceramicMold) {
fireItemStacks[7] = output.copy();
fireItemStacks[7].setItemDamage(damage);
TFC_ItemHeat.setTemp(fireItemStacks[7], temp);
} else if (fireItemStacks[8] != null
&& fireItemStacks[8].getItem() == TFCItems.ceramicMold) {
fireItemStacks[8] = output.copy();
fireItemStacks[8].setItemDamage(damage);
TFC_ItemHeat.setTemp(fireItemStacks[8], temp);
}
if (addLeftover) {
int dest = fromSide == 1 ? 7 : 8;
if (fireItemStacks[dest] != null
&& output.getItem() == fireItemStacks[dest].getItem()
&& fireItemStacks[dest].getItemDamage() > 0) {
int amt1 = 100 - leftover; // the percentage of the output
int amt2 =
100
- fireItemStacks[dest]
.getItemDamage(); // the percentage currently in the out slot
int amt3 = amt1 + amt2; // combined amount
int amt4 = 100 - amt3; // convert the percent back to mc damage
if (amt4 < 0) amt4 = 0; // stop the infinite glitch
fireItemStacks[dest] = output.copy();
fireItemStacks[dest].setItemDamage(amt4);
TFC_ItemHeat.setTemp(fireItemStacks[dest], temp);
} else if (fireItemStacks[dest] != null
&& fireItemStacks[dest].getItem() == TFCItems.ceramicMold) {
fireItemStacks[dest] = output.copy();
fireItemStacks[dest].setItemDamage(100 - leftover);
TFC_ItemHeat.setTemp(fireItemStacks[dest], temp);
}
}
} else if (output != null) {
if (fireItemStacks[7] != null
&& fireItemStacks[7].getItem() == output.getItem()
&& fireItemStacks[7].stackSize + output.stackSize
<= fireItemStacks[7].getMaxStackSize()) {
fireItemStacks[7].stackSize += output.stackSize;
} else if (fireItemStacks[8] != null
&& fireItemStacks[8].getItem() == output.getItem()
&& fireItemStacks[8].stackSize + output.stackSize
<= fireItemStacks[8].getMaxStackSize()) {
fireItemStacks[8].stackSize += output.stackSize;
} else if (fireItemStacks[7] == null) {
fireItemStacks[7] = output.copy();
} else if (fireItemStacks[8] == null) {
fireItemStacks[8] = output.copy();
} else if (fireItemStacks[7].stackSize == fireItemStacks[7].getMaxStackSize()
&& fireItemStacks[8].stackSize == fireItemStacks[8].getMaxStackSize()
|| fireItemStacks[7].getItem() != output.getItem()
&& fireItemStacks[8].getItem() != output.getItem()
|| fireItemStacks[7].stackSize == fireItemStacks[7].getMaxStackSize()
&& fireItemStacks[8].getItem() != output.getItem()
|| fireItemStacks[7].getItem() != output.getItem()
&& fireItemStacks[8].stackSize == fireItemStacks[8].getMaxStackSize()) {
fireItemStacks[1] = output.copy();
}
}
}
}
}
@Override
public void updateEntity() {
if (!worldObj.isRemote) {
ItemStack itemstack = storage[INPUT_SLOT];
BarrelPreservativeRecipe preservative =
BarrelManager.getInstance()
.findMatchingPreservativeRepice(this, itemstack, fluid, sealed);
if (itemstack != null && fluid != null && fluid.getFluid() == TFCFluids.FRESHWATER) {
if (TFC_ItemHeat.hasTemp(itemstack)) {
float temp = TFC_ItemHeat.getTemp(itemstack);
if (fluid.amount >= 1 && temp > 1) {
temp -= 50;
fluid.amount -= 1;
TFC_ItemHeat.setTemp(itemstack, temp);
TFC_ItemHeat.handleItemHeat(itemstack);
}
}
}
if (fluid != null && itemstack != null && itemstack.getItem() instanceof IFood) {
float w = ((IFood) itemstack.getItem()).getFoodWeight(itemstack);
if (fluid.getFluid() == TFCFluids.VINEGAR) {
// If the food is brined then we attempt to pickle it
if (Food.isBrined(itemstack)
&& !Food.isPickled(itemstack)
&& w / fluid.amount <= Global.FOOD_MAX_WEIGHT / this.getMaxLiquid()
&& this.getSealed()
&& sealtime != 0
&& TFC_Time.getTotalHours() - sealtime >= 4) {
fluid.amount -= 1 * w;
Food.setPickled(itemstack, true);
}
}
}
if (preservative == null) {
// No preservative was matched - decay normally
TFC_Core.handleItemTicking(this, this.worldObj, xCoord, yCoord, zCoord);
} else {
float env = preservative.getEnvironmentalDecayFactor();
float base = preservative.getBaseDecayModifier();
if (Float.isNaN(env) || env < 0.0) {
TFC_Core.handleItemTicking(this, this.worldObj, xCoord, yCoord, zCoord);
} else if (Float.isNaN(base) || base < 0.0) {
TFC_Core.handleItemTicking(this, this.worldObj, xCoord, yCoord, zCoord, env);
} else {
TFC_Core.handleItemTicking(this, this.worldObj, xCoord, yCoord, zCoord, env, base);
}
}
// If lightning can strike here then it means that the barrel can see the sky, so rain can hit
// it. If true then we fill
// the barrel when its raining.
if (!this.getSealed() && worldObj.canLightningStrikeAt(xCoord, yCoord + 1, zCoord)) {
int count = getInvCount();
if (count == 0 || count == 1 && this.getInputStack() != null) {
if (this.fluid == null) fluid = new FluidStack(TFCFluids.FRESHWATER, 1);
else if (this.fluid != null && fluid.getFluid() == TFCFluids.FRESHWATER)
fluid.amount = Math.min(fluid.amount + 1, getMaxLiquid());
}
}
// We only want to bother ticking food once per 5 seconds to keep overhead low.
processTimer++;
if (processTimer > 100) {
processItems();
processTimer = 0;
}
// Here we handle item stacks that are too big for MC to handle such as when making mortar.
// If the stack is > its own max stack size then we split it and add it to the invisible solid
// storage area or
// spawn the item in the world if there is no room left.
if (this.getFluidLevel() > 0 && getInputStack() != null) {
int count = 1;
while (this.getInputStack().stackSize > getInputStack().getMaxStackSize()) {
ItemStack is = getInputStack().splitStack(getInputStack().getMaxStackSize());
if (count < this.storage.length && this.getStackInSlot(count) == null) {
this.setInventorySlotContents(count, is);
} else {
worldObj.spawnEntityInWorld(new EntityItem(worldObj, xCoord, yCoord, zCoord, is));
}
count++;
}
}
// Move any items in the solid storage slots to the main slot if they exist and the barrel has
// liquid.
else if (this.getFluidLevel() > 0 && getInputStack() == null && this.getInvCount() > 0) {
for (int i = 0; i < storage.length; i++) {
if (storage[i] != null) {
storage[INPUT_SLOT] = storage[i].copy();
storage[i] = null;
break;
}
}
}
// Reset our fluid if all of the liquid is gone.
if (fluid != null && fluid.amount == 0) fluid = null;
// Handle adding fluids to the barrel if the barrel is currently in input mode.
if (mode == MODE_IN) {
ItemStack container = getInputStack();
FluidStack inLiquid = FluidContainerRegistry.getFluidForFilledItem(container);
if (container != null && container.getItem() instanceof IFluidContainerItem) {
FluidStack isfs = ((IFluidContainerItem) container.getItem()).getFluid(container);
if (isfs != null && addLiquid(isfs)) {
((IFluidContainerItem) container.getItem())
.drain(
container,
((IFluidContainerItem) container.getItem()).getCapacity(container),
true);
}
} else if (inLiquid != null && container != null && container.stackSize == 1) {
if (addLiquid(inLiquid)) {
this.setInventorySlotContents(0, FluidContainerRegistry.drainFluidContainer(container));
}
}
}
// Drain liquid from the barrel to a container if the barrel is in output mode.
else if (mode == MODE_OUT) {
ItemStack container = getInputStack();
if (container != null
&& fluid != null
&& container.getItem() instanceof IFluidContainerItem) {
FluidStack isfs = ((IFluidContainerItem) container.getItem()).getFluid(container);
if (isfs == null || fluid.isFluidEqual(isfs)) {
fluid.amount -=
((IFluidContainerItem) container.getItem()).fill(container, fluid, true);
if (fluid.amount == 0) fluid = null;
}
} else if (FluidContainerRegistry.isEmptyContainer(container)) {
this.setInventorySlotContents(0, this.removeLiquid(getInputStack()));
}
}
}
}