It is not a recommended practice. The secondary side of the transformer should go to a distribution panel where breakers can be used to protect the different wire sizes and load currents.
Transformers are designed to run at specific voltage levels, and they are designed to handle a maximum load (known as "full load"); this load is usually based on the amount of current that can be pushed through the transformer without overheating, so if 1/2 voltage is applied, full load would be 1/2 of normal. Some "complicated" transformers may have other limitations (dual voltage transformers may have two different full loads specified, and they may not be directly proportional relative to voltage).
advantages for automatic load sharing of transformer with protective analysis
Its a test conducted on two identical 1- phase Transformers to determine the efficiency at different loads (without actually connecting any load).
with wires
Its a test conducted on two identical 1- phase transformers to determine the efficiency at different loads (without actually connecting any load).
Paralleling transformers will increase the effective capacity available to the load. There are important requirements before transformers can be paralleled, so it's simply not the case of connecting any two transformers in parallel.
Load sharing in transformers happens when multiple transformers are connected in parallel. The transformers share the total load based on their respective impedances. The transformer with lower impedance will draw more current and share a larger portion of the load.
To wire a dual switch-plug GFCI with extra wires, you need to identify the line and load wires. The line wires bring power to the GFCI, while the load wires carry power to additional outlets or devices. Connect the line wires to the line terminals on the GFCI and the load wires to the load terminals. Make sure to follow the wiring diagram provided with the GFCI and use wire connectors to secure the connections.
All transformers have a power rating given in kVA which determine the maximum load that can be connected to that transformer.
i think it is high value resistance as it is used in Transformers to get the output voltage.
To carry the unbalanced load current.
The transmission of electrical energy requires very high voltages (for a given load, the higher the supply voltage, the lower the load current). To increase/reduce these voltages, you need transformers. Transformers are AC machines; they do not work with DC.