private static double emit_do_do(
TileEntityElectricBlock from,
TileEntity tileEntity,
ForgeDirection side,
double currentSending,
boolean tryAgain) {
double sent = 0;
if (tileEntity instanceof IStrictEnergyAcceptor) {
IStrictEnergyAcceptor acceptor = (IStrictEnergyAcceptor) tileEntity;
if (acceptor.canReceiveEnergy(side.getOpposite())) {
sent += acceptor.transferEnergyToAcceptor(side.getOpposite(), currentSending);
}
} else if (MekanismUtils.useRF() && tileEntity instanceof IEnergyHandler) {
IEnergyHandler handler = (IEnergyHandler) tileEntity;
if (handler.canConnectEnergy(side.getOpposite())) {
int used =
handler.receiveEnergy(
side.getOpposite(), (int) Math.round(currentSending * Mekanism.TO_TE), false);
sent += used * Mekanism.FROM_TE;
}
} else if (MekanismUtils.useIC2() && tileEntity instanceof IEnergySink) {
if (((IEnergySink) tileEntity).acceptsEnergyFrom(from, side.getOpposite())) {
double toSend =
Math.min(
currentSending,
EnergyNet.instance.getPowerFromTier(((IEnergySink) tileEntity).getSinkTier())
* Mekanism.FROM_IC2);
toSend =
Math.min(toSend, ((IEnergySink) tileEntity).getDemandedEnergy() * Mekanism.FROM_IC2);
sent +=
(toSend
- (((IEnergySink) tileEntity)
.injectEnergy(side.getOpposite(), toSend * Mekanism.TO_IC2, 0)
* Mekanism.FROM_IC2));
}
} else if (MekanismUtils.useBuildCraft()
&& MjAPI.getMjBattery(tileEntity, MjAPI.DEFAULT_POWER_FRAMEWORK, side.getOpposite()) != null
&& !tryAgain) {
IBatteryObject battery =
MjAPI.getMjBattery(tileEntity, MjAPI.DEFAULT_POWER_FRAMEWORK, side.getOpposite());
double toSend =
battery.addEnergy(
Math.min(battery.getEnergyRequested(), currentSending * Mekanism.TO_BC));
sent += toSend * Mekanism.FROM_BC;
}
return sent;
}
public static boolean isConnectable(TileEntity orig, TileEntity tileEntity, ForgeDirection side) {
if (tileEntity instanceof IGridTransmitter) {
return false;
}
if (tileEntity instanceof IStrictEnergyAcceptor) {
if (((IStrictEnergyAcceptor) tileEntity).canReceiveEnergy(side.getOpposite())) {
return true;
}
} else if (MekanismUtils.useIC2() && tileEntity instanceof IEnergyAcceptor) {
if (((IEnergyAcceptor) tileEntity).acceptsEnergyFrom(orig, side.getOpposite())) {
return true;
}
} else if (tileEntity instanceof ICableOutputter) {
if (((ICableOutputter) tileEntity).canOutputTo(side.getOpposite())) {
return true;
}
} else if (MekanismUtils.useRF() && tileEntity instanceof IEnergyHandler) {
if (((IEnergyHandler) tileEntity).canConnectEnergy(side.getOpposite())) {
return true;
}
} else if (MekanismUtils.useBuildCraft()) {
if (MjAPI.getMjBattery(tileEntity, MjAPI.DEFAULT_POWER_FRAMEWORK, side.getOpposite())
!= null) {
return true;
}
}
return false;
}
public static boolean isEnergyAcceptor(TileEntity tileEntity) {
return (tileEntity instanceof IStrictEnergyAcceptor
|| (MekanismUtils.useIC2() && tileEntity instanceof IEnergySink)
|| (MekanismUtils.useBuildCraft()
&& MjAPI.getMjBattery(tileEntity) != null
&& !(tileEntity instanceof IGridTransmitter))
|| (MekanismUtils.useRF() && tileEntity instanceof IEnergyHandler));
}
/** Refresh all energy acceptors in the network */
private void refreshAcceptors() {
this.connectedAcceptors.clear();
this.connectedDirections.clear();
this.refreshWithChecks();
try {
LinkedList<IConductor> conductorsCopy = new LinkedList();
conductorsCopy.addAll(this.conductors);
// This prevents concurrent modifications if something in the loop causes chunk loading
// (Chunk loading can change the network if new conductors are found)
for (IConductor conductor : conductorsCopy) {
final TileEntity[] adjacentConnections =
EnergyUtil.getAdjacentPowerConnections((TileEntity) conductor);
for (int i = 0; i < 6; i++) {
TileEntity acceptor = adjacentConnections[i];
if (!(acceptor instanceof IConductor) && acceptor != null && !acceptor.isInvalid()) {
// The direction 'sideFrom' is from the perspective of the acceptor, that's more useful
// than the conductor's perspective
ForgeDirection sideFrom = ForgeDirection.getOrientation(i ^ 1);
if (acceptor instanceof IElectrical) {
if (((IElectrical) acceptor).canConnect(sideFrom, NetworkType.POWER)) {
this.connectedAcceptors.add(acceptor);
this.connectedDirections.add(sideFrom);
}
} else if ((isRF2Loaded && acceptor instanceof IEnergyReceiver)
|| (isRF1Loaded && acceptor instanceof IEnergyHandler)) {
if (((IEnergyConnection) acceptor).canConnectEnergy(sideFrom)) {
this.connectedAcceptors.add(acceptor);
this.connectedDirections.add(sideFrom);
}
} else if (isMekLoaded && acceptor instanceof IStrictEnergyAcceptor) {
if (((IStrictEnergyAcceptor) acceptor).canReceiveEnergy(sideFrom)) {
this.connectedAcceptors.add(acceptor);
this.connectedDirections.add(sideFrom);
}
} else if (isIC2Loaded && acceptor instanceof IEnergyAcceptor) {
if (((IEnergyAcceptor) acceptor)
.acceptsEnergyFrom((TileEntity) conductor, sideFrom)) {
this.connectedAcceptors.add(acceptor);
this.connectedDirections.add(sideFrom);
}
} else if (isBCLoaded
&& EnergyConfigHandler.getBuildcraftVersion() == 6
&& MjAPI.getMjBattery(acceptor, MjAPI.DEFAULT_POWER_FRAMEWORK, sideFrom) != null) {
this.connectedAcceptors.add(acceptor);
this.connectedDirections.add(sideFrom);
} else if (isBCLoaded && acceptor instanceof IPowerReceptor) {
if (((IPowerReceptor) acceptor).getPowerReceiver(sideFrom) != null
&& (!(acceptor instanceof IPowerEmitter)
|| !((IPowerEmitter) acceptor).canEmitPowerFrom(sideFrom))) {
this.connectedAcceptors.add(acceptor);
this.connectedDirections.add(sideFrom);
}
}
}
}
}
} catch (Exception e) {
FMLLog.severe("Energy Network: Error when trying to refresh list of power acceptors.");
e.printStackTrace();
}
}
/**
* Complete the energy transfer. Called internally on server tick end.
*
* @return Amount of energy SENT to all acceptors
*/
private float doProduce() {
float sent = 0.0F;
if (!this.availableAcceptors.isEmpty()) {
float energyNeeded = this.totalRequested;
float energyAvailable = this.totalEnergy;
float reducor = 1.0F;
float energyStorageReducor = 1.0F;
if (energyNeeded > energyAvailable) {
// If not enough energy, try reducing what goes into energy storage (if any)
energyNeeded -= this.totalStorageExcess;
// If there's still not enough, put the minimum into energy storage (if any) and, anyhow,
// reduce everything proportionately
if (energyNeeded > energyAvailable) {
energyStorageReducor = 0F;
reducor = energyAvailable / energyNeeded;
} else {
// Energyavailable exceeds the total needed but only if storage does not fill all in one
// go - this is a common situation
energyStorageReducor = (energyAvailable - energyNeeded) / this.totalStorageExcess;
}
}
float currentSending;
float sentToAcceptor;
int tierProduced = Math.min(this.producersTierGC, this.networkTierGC);
TileEntity debugTE = null;
try {
for (TileEntity tileEntity : this.availableAcceptors) {
debugTE = tileEntity;
// Exit the loop if there is no energy left at all (should normally not happen, should be
// some even for the last acceptor)
if (sent >= energyAvailable) {
break;
}
// The base case is to give each acceptor what it is requesting
currentSending = this.energyRequests.get(tileEntity);
// If it's an energy store, we may need to damp it down if energyStorageReducor is less
// than 1
if (currentSending > EnergyNetwork.ENERGY_STORAGE_LEVEL) {
currentSending =
EnergyNetwork.ENERGY_STORAGE_LEVEL
+ (currentSending - EnergyNetwork.ENERGY_STORAGE_LEVEL) * energyStorageReducor;
}
// Reduce everything proportionately if there is not enough energy for all needs
currentSending *= reducor;
if (currentSending > energyAvailable - sent) {
currentSending = energyAvailable - sent;
}
ForgeDirection sideFrom = this.availableconnectedDirections.get(tileEntity);
if (tileEntity instanceof IElectrical) {
sentToAcceptor =
((IElectrical) tileEntity)
.receiveElectricity(sideFrom, currentSending, tierProduced, true);
} else if (isRF2Loaded && tileEntity instanceof IEnergyReceiver) {
final int currentSendinginRF =
(currentSending >= Integer.MAX_VALUE / EnergyConfigHandler.TO_RF_RATIO)
? Integer.MAX_VALUE
: (int) (currentSending * EnergyConfigHandler.TO_RF_RATIO);
sentToAcceptor =
((IEnergyReceiver) tileEntity).receiveEnergy(sideFrom, currentSendinginRF, false)
/ EnergyConfigHandler.TO_RF_RATIO;
} else if (isMekLoaded && tileEntity instanceof IStrictEnergyAcceptor) {
sentToAcceptor =
(float)
((IStrictEnergyAcceptor) tileEntity)
.transferEnergyToAcceptor(
sideFrom, currentSending * EnergyConfigHandler.TO_MEKANISM_RATIO)
/ EnergyConfigHandler.TO_MEKANISM_RATIO;
} else if (isRF1Loaded && tileEntity instanceof IEnergyHandler) {
final int currentSendinginRF =
(currentSending >= Integer.MAX_VALUE / EnergyConfigHandler.TO_RF_RATIO)
? Integer.MAX_VALUE
: (int) (currentSending * EnergyConfigHandler.TO_RF_RATIO);
sentToAcceptor =
((IEnergyHandler) tileEntity).receiveEnergy(sideFrom, currentSendinginRF, false)
/ EnergyConfigHandler.TO_RF_RATIO;
} else if (isIC2Loaded && tileEntity instanceof IEnergySink) {
double energySendingIC2 = currentSending * EnergyConfigHandler.TO_IC2_RATIO;
if (energySendingIC2 >= 1D) {
double result = 0;
try {
if (EnergyUtil.voltageParameterIC2) {
result =
(Double)
EnergyUtil.injectEnergyIC2.invoke(
tileEntity, sideFrom, energySendingIC2, 120D);
} else {
result =
(Double)
EnergyUtil.injectEnergyIC2.invoke(tileEntity, sideFrom, energySendingIC2);
}
} catch (Exception ex) {
if (ConfigManagerCore.enableDebug) {
ex.printStackTrace();
}
}
sentToAcceptor = currentSending - (float) result / EnergyConfigHandler.TO_IC2_RATIO;
if (sentToAcceptor < 0F) {
sentToAcceptor = 0F;
}
} else {
sentToAcceptor = 0F;
}
} else if (isBCLoaded
&& EnergyConfigHandler.getBuildcraftVersion() == 6
&& MjAPI.getMjBattery(tileEntity, MjAPI.DEFAULT_POWER_FRAMEWORK, sideFrom) != null)
// New BC API
{
sentToAcceptor =
(float)
MjAPI.getMjBattery(tileEntity, MjAPI.DEFAULT_POWER_FRAMEWORK, sideFrom)
.addEnergy(currentSending * EnergyConfigHandler.TO_BC_RATIO)
/ EnergyConfigHandler.TO_BC_RATIO;
} else if (isBCLoaded && tileEntity instanceof IPowerReceptor)
// Legacy BC API
{
PowerReceiver receiver = ((IPowerReceptor) tileEntity).getPowerReceiver(sideFrom);
if (receiver != null) {
double toSendBC =
Math.min(
currentSending * EnergyConfigHandler.TO_BC_RATIO, receiver.powerRequest());
sentToAcceptor =
(float)
receiver.receiveEnergy(
buildcraft.api.power.PowerHandler.Type.PIPE, toSendBC, sideFrom)
/ EnergyConfigHandler.TO_BC_RATIO;
} else {
sentToAcceptor = 0F;
}
} else {
sentToAcceptor = 0F;
}
if (sentToAcceptor / currentSending > 1.002F && sentToAcceptor > 0.01F) {
if (!this.spamstop) {
FMLLog.info(
"Energy network: acceptor took too much energy, offered "
+ currentSending
+ ", took "
+ sentToAcceptor
+ ". "
+ tileEntity.toString());
this.spamstop = true;
}
sentToAcceptor = currentSending;
}
sent += sentToAcceptor;
}
} catch (Exception e) {
GCLog.severe("DEBUG Energy network loop issue, please report this");
if (debugTE != null)
GCLog.severe(
"Problem was likely caused by tile in dim "
+ debugTE.getWorldObj().provider.dimensionId
+ " at "
+ debugTE.xCoord
+ ","
+ debugTE.yCoord
+ ","
+ debugTE.zCoord
+ " Type:"
+ debugTE.getClass().getSimpleName());
}
}
if (EnergyNetwork.tickCount % 200 == 0) {
this.spamstop = false;
}
float returnvalue = sent;
if (returnvalue > this.totalEnergy) {
returnvalue = this.totalEnergy;
}
if (returnvalue < 0F) {
returnvalue = 0F;
}
return returnvalue;
}
/**
* Refreshes all tiles in network, and updates requested energy
*
* @param ignoreTiles TileEntities to ignore for energy calculations.
*/
private void doTickStartCalc() {
this.tickDone = EnergyNetwork.tickCount;
this.totalSent = 0F;
this.refreshAcceptors();
if (!EnergyUtil.initialisedIC2Methods) {
EnergyUtil.initialiseIC2Methods();
}
if (this.conductors.size() == 0) {
return;
}
this.loopPrevention = true;
this.availableAcceptors.clear();
this.availableconnectedDirections.clear();
this.energyRequests.clear();
this.totalRequested = 0.0F;
this.totalStorageExcess = 0F;
if (!this.connectedAcceptors.isEmpty()) {
float e;
final Iterator<ForgeDirection> acceptorDirection = this.connectedDirections.iterator();
for (TileEntity acceptor : this.connectedAcceptors) {
// This tries all sides of the acceptor which are connected (see refreshAcceptors())
ForgeDirection sideFrom = acceptorDirection.next();
// But the grid will only put energy into the acceptor from one side - once it's in
// availableAcceptors
if (!this.ignoreAcceptors.contains(acceptor)
&& !this.availableAcceptors.contains(acceptor)) {
e = 0.0F;
if (acceptor instanceof IElectrical) {
e = ((IElectrical) acceptor).getRequest(sideFrom);
} else if (isRF2Loaded && acceptor instanceof IEnergyReceiver) {
e =
((IEnergyReceiver) acceptor).receiveEnergy(sideFrom, Integer.MAX_VALUE, true)
/ EnergyConfigHandler.TO_RF_RATIO;
} else if (isMekLoaded && acceptor instanceof IStrictEnergyAcceptor) {
e =
(float)
((((IStrictEnergyAcceptor) acceptor).getMaxEnergy()
- ((IStrictEnergyAcceptor) acceptor).getEnergy())
/ EnergyConfigHandler.TO_MEKANISM_RATIO);
} else if (isRF1Loaded && acceptor instanceof IEnergyHandler) {
e =
((IEnergyHandler) acceptor).receiveEnergy(sideFrom, Integer.MAX_VALUE, true)
/ EnergyConfigHandler.TO_RF_RATIO;
} else if (isIC2Loaded && acceptor instanceof IEnergySink) {
double result = 0;
try {
result = (Double) EnergyUtil.demandedEnergyIC2.invoke(acceptor);
} catch (Exception ex) {
if (ConfigManagerCore.enableDebug) {
ex.printStackTrace();
}
}
// Cap IC2 power transfer at 128EU/t for standard Alu wire, 256EU/t for heavy Alu wire
result = Math.max(result, (this.networkTierGC == 2) ? 256D : 128D);
e = (float) result / EnergyConfigHandler.TO_IC2_RATIO;
} else if (isBCLoaded
&& EnergyConfigHandler.getBuildcraftVersion() == 6
&& MjAPI.getMjBattery(acceptor, MjAPI.DEFAULT_POWER_FRAMEWORK, sideFrom) != null)
// New BC API
{
e =
(float)
MjAPI.getMjBattery(acceptor, MjAPI.DEFAULT_POWER_FRAMEWORK, sideFrom)
.getEnergyRequested()
/ EnergyConfigHandler.TO_BC_RATIO;
} else if (isBCLoaded && acceptor instanceof IPowerReceptor)
// Legacy BC API
{
PowerReceiver BCreceiver = ((IPowerReceptor) acceptor).getPowerReceiver(sideFrom);
if (BCreceiver != null) {
e = (float) BCreceiver.powerRequest() / EnergyConfigHandler.TO_BC_RATIO;
}
}
if (e > 0.0F) {
this.availableAcceptors.add(acceptor);
this.availableconnectedDirections.put(acceptor, sideFrom);
this.energyRequests.put(acceptor, Float.valueOf(e));
this.totalRequested += e;
if (e > EnergyNetwork.ENERGY_STORAGE_LEVEL) {
this.totalStorageExcess += e - EnergyNetwork.ENERGY_STORAGE_LEVEL;
}
}
}
}
}
this.loopPrevention = false;
}