Mekanism-tilera-Edition/src/minecraft/mekanism/common/TileEntityAdvancedElectricMachine.java
Aidan Brady eaae2b6b07 v5.2.0 Release
*Updated voltages & generation rates.
*Gave the Heat Generator a unique active texture.
*Made the Bio Generator piston go up and down.
*Gave the Bio and Heat Generator particle effects.
*Fixed Electric Bow and Portable Teleporter able to provide energy.
*Added Configurator.
*Added inventory configuration system.
*Other minor bugfixes.
2013-01-24 18:01:59 -05:00

357 lines
10 KiB
Java

package mekanism.common;
import ic2.api.ElectricItem;
import ic2.api.IElectricItem;
import mekanism.api.IMachineUpgrade;
import mekanism.api.SideData;
import net.minecraft.entity.player.EntityPlayer;
import net.minecraft.item.Item;
import net.minecraft.item.ItemStack;
import net.minecraft.nbt.NBTTagCompound;
import net.minecraft.network.INetworkManager;
import net.minecraft.network.packet.Packet250CustomPayload;
import net.minecraftforge.common.ForgeDirection;
import universalelectricity.core.implement.IItemElectric;
import com.google.common.io.ByteArrayDataInput;
import dan200.computer.api.IComputerAccess;
public abstract class TileEntityAdvancedElectricMachine extends TileEntityBasicMachine
{
/** How much secondary energy (fuel) this machine uses per tick. */
public int SECONDARY_ENERGY_PER_TICK;
/** Maximum amount of secondary energy (fuel) this machine can hold. */
public int MAX_SECONDARY_ENERGY;
/** How much secondary energy (fuel) is stored in this machine. */
public int secondaryEnergyStored = 0;
/**
* Advanced Electric Machine -- a machine like this has a total of 4 slots. Input slot (0), fuel slot (1), output slot (2),
* energy slot (3), and the upgrade slot (4). The machine will not run if it does not have enough electricity, or if it doesn't have enough
* fuel ticks.
*
* @param soundPath - location of the sound effect
* @param name - full name of this machine
* @param path - GUI texture path of this machine
* @param perTick - how much energy this machine uses per tick.
* @param secondaryPerTick - how much secondary energy (fuel) this machine uses per tick.
* @param ticksRequired - how many ticks it takes to smelt an item.
* @param maxEnergy - maximum amount of energy this machine can hold.
* @param maxSecondaryEnergy - maximum amount of secondary energy (fuel) this machine can hold.
*/
public TileEntityAdvancedElectricMachine(String soundPath, String name, String path, int perTick, int secondaryPerTick, int ticksRequired, int maxEnergy, int maxSecondaryEnergy)
{
super(soundPath, name, path, perTick, ticksRequired, maxEnergy);
sideOutputs.add(new SideData(EnumColor.GREY, 0, 0));
sideOutputs.add(new SideData(EnumColor.DARK_RED, 0, 1));
sideOutputs.add(new SideData(EnumColor.PURPLE, 1, 1));
sideOutputs.add(new SideData(EnumColor.DARK_BLUE, 2, 1));
sideOutputs.add(new SideData(EnumColor.DARK_GREEN, 3, 1));
sideOutputs.add(new SideData(EnumColor.ORANGE, 4, 1));
sideConfig = new byte[] {2, 1, 0, 4, 5, 3};
inventory = new ItemStack[5];
SECONDARY_ENERGY_PER_TICK = secondaryPerTick;
MAX_SECONDARY_ENERGY = maxSecondaryEnergy;
}
/**
* Gets the amount of ticks the declared itemstack can fuel this machine.
* @param itemstack - itemstack to check with
* @return fuel ticks
*/
public abstract int getFuelTicks(ItemStack itemstack);
@Override
public void onUpdate()
{
super.onUpdate();
boolean testActive = operatingTicks > 0;
if(inventory[3] != null)
{
if(electricityStored < currentMaxElectricity)
{
if(inventory[3].getItem() instanceof IItemElectric)
{
IItemElectric electricItem = (IItemElectric)inventory[3].getItem();
if (electricItem.canProduceElectricity())
{
double joulesNeeded = currentMaxElectricity-electricityStored;
double joulesReceived = 0;
if(electricItem.getVoltage(inventory[3]) <= joulesNeeded)
{
joulesReceived = electricItem.onUse(electricItem.getVoltage(inventory[3]), inventory[3]);
}
else if(electricItem.getVoltage(inventory[3]) > joulesNeeded)
{
joulesReceived = electricItem.onUse(joulesNeeded, inventory[3]);
}
setJoules(electricityStored + joulesReceived);
}
}
else if(inventory[3].getItem() instanceof IElectricItem)
{
IElectricItem item = (IElectricItem)inventory[3].getItem();
if(item.canProvideEnergy())
{
double gain = ElectricItem.discharge(inventory[3], (int)((MAX_ELECTRICITY - electricityStored)*Mekanism.TO_IC2), 3, false, false)*Mekanism.FROM_IC2;
setJoules(electricityStored + gain);
}
}
}
if(inventory[3].itemID == Item.redstone.itemID && electricityStored <= (MAX_ELECTRICITY-1000))
{
setJoules(electricityStored + 1000);
--inventory[3].stackSize;
if (inventory[3].stackSize <= 0)
{
inventory[3] = null;
}
}
}
if(inventory[1] != null)
{
int fuelTicks = getFuelTicks(inventory[1]);
int energyNeeded = MAX_SECONDARY_ENERGY - secondaryEnergyStored;
if(fuelTicks > 0 && fuelTicks <= energyNeeded)
{
if(fuelTicks <= energyNeeded)
{
setSecondaryEnergy(secondaryEnergyStored + fuelTicks);
}
else if(fuelTicks > energyNeeded)
{
setSecondaryEnergy(secondaryEnergyStored + energyNeeded);
}
--inventory[1].stackSize;
if(inventory[1].stackSize == 0)
{
inventory[1] = null;
}
}
}
if(inventory[4] != null && inventory[4].getItem() instanceof IMachineUpgrade)
{
int energyToAdd = 0;
int ticksToRemove = 0;
if(currentMaxElectricity == MAX_ELECTRICITY)
{
energyToAdd = ((IMachineUpgrade)inventory[4].getItem()).getEnergyBoost(inventory[4]);
}
if(currentTicksRequired == TICKS_REQUIRED)
{
ticksToRemove = ((IMachineUpgrade)inventory[4].getItem()).getTickReduction(inventory[4]);
}
currentMaxElectricity += energyToAdd;
currentTicksRequired -= ticksToRemove;
}
else if(inventory[4] == null)
{
currentTicksRequired = TICKS_REQUIRED;
currentMaxElectricity = MAX_ELECTRICITY;
}
if(electricityStored >= ENERGY_PER_TICK && secondaryEnergyStored >= SECONDARY_ENERGY_PER_TICK)
{
if(canOperate() && (operatingTicks+1) < currentTicksRequired && secondaryEnergyStored >= SECONDARY_ENERGY_PER_TICK)
{
++operatingTicks;
secondaryEnergyStored -= SECONDARY_ENERGY_PER_TICK;
electricityStored -= ENERGY_PER_TICK;
}
else if((operatingTicks+1) >= currentTicksRequired)
{
if(!worldObj.isRemote)
{
operate();
}
operatingTicks = 0;
secondaryEnergyStored -= SECONDARY_ENERGY_PER_TICK;
electricityStored -= ENERGY_PER_TICK;
}
}
if(!canOperate())
{
operatingTicks = 0;
}
if(!worldObj.isRemote)
{
if(canOperate() && electricityStored >= ENERGY_PER_TICK && secondaryEnergyStored >= SECONDARY_ENERGY_PER_TICK)
{
setActive(true);
}
else {
setActive(false);
}
}
}
@Override
public void operate()
{
ItemStack itemstack = RecipeHandler.getOutput(inventory[0], true, getRecipes());
if (inventory[0].stackSize <= 0)
{
inventory[0] = null;
}
if (inventory[2] == null)
{
inventory[2] = itemstack;
}
else
{
inventory[2].stackSize += itemstack.stackSize;
}
}
@Override
public boolean canOperate()
{
if (inventory[0] == null)
{
return false;
}
ItemStack itemstack = RecipeHandler.getOutput(inventory[0], false, getRecipes());
if (itemstack == null)
{
return false;
}
if (inventory[2] == null)
{
return true;
}
if (!inventory[2].isItemEqual(itemstack))
{
return false;
}
else
{
return inventory[2].stackSize + itemstack.stackSize <= inventory[2].getMaxStackSize();
}
}
@Override
public void handlePacketData(INetworkManager network, Packet250CustomPayload packet, EntityPlayer player, ByteArrayDataInput dataStream)
{
try {
facing = dataStream.readInt();
isActive = dataStream.readBoolean();
operatingTicks = dataStream.readInt();
electricityStored = dataStream.readDouble();
secondaryEnergyStored = dataStream.readInt();
currentMaxElectricity = dataStream.readDouble();
currentTicksRequired = dataStream.readInt();
worldObj.markBlockForRenderUpdate(xCoord, yCoord, zCoord);
worldObj.updateAllLightTypes(xCoord, yCoord, zCoord);
} catch (Exception e)
{
System.out.println("[Mekanism] Error while handling tile entity packet.");
e.printStackTrace();
}
}
@Override
public void sendPacket()
{
PacketHandler.sendTileEntityPacketToClients(this, 0, facing, isActive, operatingTicks, electricityStored, secondaryEnergyStored, currentMaxElectricity, currentTicksRequired);
}
@Override
public void sendPacketWithRange()
{
PacketHandler.sendTileEntityPacketToClients(this, 50, facing, isActive, operatingTicks, electricityStored, secondaryEnergyStored, currentMaxElectricity, currentTicksRequired);
}
@Override
public void readFromNBT(NBTTagCompound nbtTags)
{
super.readFromNBT(nbtTags);
secondaryEnergyStored = nbtTags.getInteger("secondaryEnergyStored");
}
@Override
public void writeToNBT(NBTTagCompound nbtTags)
{
super.writeToNBT(nbtTags);
nbtTags.setInteger("secondaryEnergyStored", secondaryEnergyStored);
}
/**
* Sets the secondary energy to a new amount
* @param energy - amount to store
*/
public void setSecondaryEnergy(int energy)
{
secondaryEnergyStored = Math.max(Math.min(energy, MAX_SECONDARY_ENERGY), 0);
}
/**
* Gets the scaled secondary energy level for the GUI.
* @param i - multiplier
* @return scaled secondary energy
*/
public int getScaledSecondaryEnergyLevel(int i)
{
return secondaryEnergyStored*i / MAX_SECONDARY_ENERGY;
}
@Override
public String[] getMethodNames()
{
return new String[] {"getStored", "getSecondaryStored", "getProgress", "isActive", "facing", "canOperate", "getMaxEnergy", "getEnergyNeeded"};
}
@Override
public Object[] callMethod(IComputerAccess computer, int method, Object[] arguments) throws Exception
{
switch(method)
{
case 0:
return new Object[] {electricityStored};
case 1:
return new Object[] {secondaryEnergyStored};
case 2:
return new Object[] {operatingTicks};
case 3:
return new Object[] {isActive};
case 4:
return new Object[] {facing};
case 5:
return new Object[] {canOperate()};
case 6:
return new Object[] {currentMaxElectricity};
case 7:
return new Object[] {(currentMaxElectricity-electricityStored)};
default:
System.err.println("[Mekanism] Attempted to call unknown method with computer ID " + computer.getID());
return new Object[] {"Unknown command."};
}
}
}