None, more like a hypotheticalmarcusl said:Is this a school project or homework?
Interesting, do you have any specific examples?Vanadium 50 said:100 kW-hours is 360 MJ. There are magnets that can store this much energy, but they are quite large: several meters tall and long.
A Superconducting Magnetic Energy Storage (SMES) device is a type of energy storage system that uses superconducting materials to store and release large amounts of electrical energy. It works by storing energy in the form of a magnetic field within a superconducting coil, which can be released as electricity when needed.
The size of a SMES device directly affects its performance, as a larger device can store more energy and release it at a faster rate. However, a larger device also requires more materials and can be more expensive to produce and maintain.
The size of a SMES device is primarily determined by the amount of energy it needs to store, the desired discharge rate, and the type of superconducting material used. Other factors such as cooling systems and supporting structures may also play a role in determining the overall size of the device.
Yes, the size of a SMES device can be customized to meet specific energy storage needs. This can be achieved by adjusting the number and size of superconducting coils, as well as other components such as the cooling system and supporting structures.
SMES devices of different sizes have a wide range of potential applications, including providing backup power for critical systems, stabilizing power grids, and storing renewable energy. Larger SMES devices can also potentially be used for industrial or commercial energy storage, while smaller devices can be used for personal or residential energy storage.