Increasing mmf of the circuit
Using material narrow hysteresis loop
Using ferromagnetic core
Laminating the magnetic circuit
B. Using material narrow hysteresis loop
Skin effect
Walt effect
Hall effect
Edison effect
T he area of the loop
The magnitude of the field
The shape of the loop
The angle between the plane of the loop and the direction
Hall's law
Joule's law
Child's law
Coulomb's law
electric instruments
motors
moving coils loudspeakers
magnetos
Joule's Law
Faraday's second law of electromagnetic induction
Faraday's first law of electromagnetic induction
Coulomb's Law
Dielectric strength
Electric intensity
Potential gradient
Dielectric constant
Coulomb's law
Joule's law
Faraday's law
Ohm's law
causes free electrons to flow
increases the circuit resistance
maintains circuit resistance
is needed to make the circuit complete
Dynamic force
Electromotive force
Potential difference
Magnetomotive force
Helium
Hydrogen
Boron
Oxygen
1 and 10
10 and 20
20 and 50
50 and 100
Volt
Tesla
Ampere- turn
Weber
10 Wb
50 T
1000 A t/m
1000,t
6000 turns
600 turns
167 turns
67turns
Magnetic potential
Magnetic field intensity
Magnetic permeability
F lux density
Newton's first law
Faraday's first law of electromagnetic induction
Coulomb's first law
Coulomb's second law
At
At/m
N/Wb
At/Wb
Emf
Voltage drop
Electric Field Intensity
Potential gradient
Range
Lattice
Domain
Crystal
Phasor quantity
Physical quantity
Scalar quantity
Vector quantity
diamagnetic
paramagnetic
ferromagnetic
non-magnetic
Radiation
Convection
Thermionic emission
Conduction
Paramagnetic
Diamagnetic
Ferromagnetic
N on- magnetic
Kamerlingh Onnes
Alex Muller
GeoryBednorz
Charles Coulomb
decreases
remains the same
increases
becomes zero
Becomes weaker
Becomes stronger
Reverses in direction
is unchanged
Conductor
Semiconductor
Insulator
Semi- insulator
Paramagnetic
Non- magnetic
Ferromagnetic
Diamagnetic