Your question is unclear, but flux density is a function of the cross-sectional area of the magnetic circuit in which the magnetic flux is established.
Flux density (symbol: B) is defined as 'the flux per unit area'. If the flux is measured in webers (pronounced 'vay-bers') and the cross-sectional area is measured in square metres, then the flux density is measured in teslas(symbol: T) which is a special name given to a weber per square metre.
The operating flux density of an iron core transformer typically ranges from 1.2 to 1.8 Tesla, depending on the design and materials used. This flux density is crucial as it influences the transformer's efficiency, size, and heat generation. Higher flux densities can lead to core saturation, which affects performance and increases losses. Therefore, careful design is essential to optimize the flux density within these limits for effective operation.
The flux density is set at the most the core material can stand, which for standard laminated transformer iron is around 1 Weber per square metre. Based on that and the cross-section area of the core, the volts per turn figure is calculated for both the primary and the secondary winding. If the operating voltage stays constant, so will the flux density and the iron losses.
by using an iron core
It doesn't, really. The power loss in transformers is broken down into copper loss and iron loss. The copper loss comes from the resistance of the windings in the transformer and depends on the load current, while the iron loss in the magnetic core depends on the magnetic flux density and is constant if the supply voltage is constant.
Hysteresis losses depend on the type of metal used to manufacture the magnetic circuit of a machine. Most magnetic circuits are made from silicon steel. Generally speaking, there's not much you can do to reduce hysteresis losses as that has already been factored in by the machine's designer.
The operating flux density of an iron core transformer typically ranges from 1.2 to 1.8 Tesla, depending on the design and materials used. This flux density is crucial as it influences the transformer's efficiency, size, and heat generation. Higher flux densities can lead to core saturation, which affects performance and increases losses. Therefore, careful design is essential to optimize the flux density within these limits for effective operation.
The flux density is set at the most the core material can stand, which for standard laminated transformer iron is around 1 Weber per square metre. Based on that and the cross-section area of the core, the volts per turn figure is calculated for both the primary and the secondary winding. If the operating voltage stays constant, so will the flux density and the iron losses.
The iron core is there to provide a path for the magnetic flux to link both the primary and the secondary with as little flux as possible linking only one of the windings. The cross-section area of the core determines how much magnetic flux there is, because transformer iron has a fixed maximum flux density, usually 1 Weber per square metre. The amount of flux determines how many volts per turn there are on both windings.
The Ratio of the total flux ( flux in iron path) to the useful flux (flux in air gap)
Adding an iron nail to a solenoid increases the strength of the magnetic field dramatically because iron is a ferromagnetic material that easily magnetizes in the presence of a magnetic field. The iron nail enhances the magnetic flux density within the solenoid, resulting in a stronger overall magnetic field. This phenomenon is known as magnetic flux concentration.
1. to intensify the magnetic field by reducing the length of airgap across which the magnetic flux has to pass; 2. to give a radial magnetic flux of uniform density, thereby enabling the scale to be uniformly divided.
The density of Galvanized Iron is 7850 kg/m3. Density of steel is equal to the density of galvanized iron
Silver is more dense because silver is around 10.5g/cc, an iron around 7g/cc. silver atomic number 47, where as iron is 26. This means the nucleus will be much heavier, but also take up more space.
Iron is a dense metal, not low density. Its density is around 7.87 g/cm³ at room temperature.
Iron is more dense than silicon.
Iron has a greater density.
Copper has a density of 8.9 g/cm3 while iron has a density of 7.9 g/cm3. Therefore copper is denser than iron.