- Permanent magnet
- Current carrying conductor
- Closer field lines, stronger magnetic field
- Equally spaced & parallel lined show a uniform field
- Arrows show the direction the north pole wolud move
A coil of wire
It experiences a force perpendicular to the magnetic field lines & current
The force per unit length per unit current on a current carrying wire in a magnetic field
F = BILSinθ
F = Force
B = Magnetic flux density
I = Current
L = Length of wire in the field
- Adding an iron core (or a more iron-rich core)
- Adding more coils to the solenoid
The force acting on the charged particle is always perpendicular to the motion & velocity of the particle
That the magnetic force is a centripetal force
The angle between the current carrying conductor and the magnetic field lines
F = BQvSinθ
F = Force
B = Magnetic Flux density
Q = Charge
v = Velocity
A device consisting of perpendicular electric and magnetic field lines used to separate out charged particles of a certain velocity from a stream of accelerated particles moving at a range of speeds
EQ = BQv
E = Electric Field Strength
Q = charge
B = Magnetic Flux Density
v = Velocity
The charged particle slows down & will travel in the direction of the Electric force acting on the particle
The charged particle will travel faster and travel in the direction the magnetic force acts on it
Into a collimator
That is a uniform field