public void computeInventory() {
ItemStack primaryCable = inventory.getStackInSlot(TransformerContainer.primaryCableSlotId);
ItemStack secondaryCable = inventory.getStackInSlot(TransformerContainer.secondaryCableSlotId);
ItemStack core = inventory.getStackInSlot(TransformerContainer.ferromagneticSlotId);
ElectricalCableDescriptor primaryCableDescriptor = null, secondaryCableDescriptor = null;
// tranformerProcess.setEnable(primaryCable != null && core != null && secondaryCable != null);
if (primaryCable != null) {
primaryCableDescriptor =
(ElectricalCableDescriptor) Eln.sixNodeItem.getDescriptor(primaryCable);
}
if (secondaryCable != null) {
secondaryCableDescriptor =
(ElectricalCableDescriptor) Eln.sixNodeItem.getDescriptor(secondaryCable);
}
if (primaryCableDescriptor != null)
voltagePrimaryWatchdog.setUNominal(primaryCableDescriptor.electricalNominalVoltage);
else voltagePrimaryWatchdog.setUNominal(1000000);
if (secondaryCableDescriptor != null)
voltageSecondaryWatchdog.setUNominal(secondaryCableDescriptor.electricalNominalVoltage);
else voltageSecondaryWatchdog.setUNominal(1000000);
double coreFactor = 1;
if (core != null) {
FerromagneticCoreDescriptor coreDescriptor =
(FerromagneticCoreDescriptor) FerromagneticCoreDescriptor.getDescriptor(core);
coreFactor = coreDescriptor.cableMultiplicator;
}
if (primaryCable == null || core == null) {
primaryLoad.highImpedance();
primaryMaxCurrent = 0;
} else {
primaryCableDescriptor.applyTo(primaryLoad, coreFactor);
primaryMaxCurrent = (float) primaryCableDescriptor.electricalMaximalCurrent;
}
if (secondaryCable == null || core == null) {
secondaryLoad.highImpedance();
secondaryMaxCurrent = 0;
} else {
secondaryCableDescriptor.applyTo(secondaryLoad, coreFactor);
secondaryMaxCurrent = (float) secondaryCableDescriptor.electricalMaximalCurrent;
}
if (primaryCable != null && secondaryCable != null) {
interSystemProcess.setRatio(1.0 * secondaryCable.stackSize / primaryCable.stackSize);
/*
* tranformerProcess.setIMax( 2 * primaryCableDescriptor.electricalNominalPower / primaryCableDescriptor.electricalNominalVoltage, 2 * secondaryCableDescriptor.electricalNominalPower / secondaryCableDescriptor.electricalNominalVoltage);
*/
} else {
interSystemProcess.setRatio(1);
// tranformerProcess.setIMax(
}
}
public void setupPhysical() {
double rs = descriptor.getRsValue(inventory);
inductor.setL(descriptor.getlValue(inventory));
positiveLoad.setRs(rs);
negativeLoad.setRs(rs);
if (fromNbt) {
fromNbt = false;
} else {
inductor.resetStates();
}
}
public PowerInductorElement(
TransparentNode transparentNode, TransparentNodeDescriptor descriptor) {
super(transparentNode, descriptor);
this.descriptor = (PowerInductorDescriptor) descriptor;
electricalLoadList.add(positiveLoad);
electricalLoadList.add(negativeLoad);
electricalComponentList.add(inductor);
positiveLoad.setAsMustBeFarFromInterSystem();
}
@Override
public String multiMeterString(Direction side) {
if (side == front.left())
return Utils.plotVolt("UP+:", primaryLoad.getU())
+ Utils.plotAmpere("IP+:", primaryLoad.getCurrent());
if (side == front.right())
return Utils.plotVolt("US+:", secondaryLoad.getU())
+ Utils.plotAmpere("IS+:", secondaryLoad.getCurrent());
return Utils.plotVolt("UP+:", primaryLoad.getU())
+ Utils.plotAmpere("IP+:", primaryLoad.getCurrent())
+ Utils.plotVolt(" US+:", secondaryLoad.getU())
+ Utils.plotAmpere("IS+:", secondaryLoad.getCurrent());
}