Links/Demos W07D1
MIT Tech TV: MIT Physics Demo -- Galvanometer Principle
http://techtv.mit.edu/videos/812-mit-physics-demo-galvanometer-principle
SHOCK WAVE:
If you are using a Mac the latest Macs will not run shockwave, you must run shockwave
from the instructor console
Shock wave of magnetic field on the axis of a ring of charge:
http://web.mit.edu/viz/EM/visualizations/magnetostatics/calculatingMagneticFields/RingMagInt/RingMagIntegration.htm
Shock wave of magnetic field on and off the axis of a ring of charge:
http://web.mit.edu/viz/EM/visualizations/magnetostatics/calculatingMagneticFields/RingMagField/RingMagField.htm
EXPERIMENT LINKS:
Magnetic field lines of a bar magnet
http://tsgphysics.mit.edu/front/?page=demo.php&letnum=G%202&show=0
Deflection of a compass needle with a magnet
http://tsgphysics.mit.edu/front/?page=demo.php&letnum=G%201&show=0
Galvanometer Principle
http://tsgphysics.mit.edu/front/?page=demo.php&letnum=G%2010&show=0
Demonstrations
You can see video of many of the demonstrations at http://tsgphysics.mit.edu/front/
Demonstration Description: Magnetic Field Lines of a Bar Magnet
http://tsgphysics.mit.edu/front/?page=demo.php&letnum=G%202&show=0
A bar magnet is placed between two transparent sheets of plastic and placed on an overhead
projector. Iron filings are sprinkled on the top then tapped lightly to make the field lines visible.
A broken magnet can also be used to show that there are no monopoles.
Magnetic Field Lines of a Bar Magnet (G 2)
Demonstration Description: Deflection of a compass needle with a magnet
http://tsgphysics.mit.edu/front/?page=demo.php&letnum=G%201&show=0
Deflection of a Compass Needle with a Magnet (G 1)
A large bar magnet compass is deflected by hand magnet. This can be shown with the large
screen TV.
Demonstration Description: Galvanometer Principle
http://tsgphysics.mit.edu/front/?page=demo.php&letnum=G%2010&show=0
Galvanometer Principle (G 10)
A Helmholtz coil is connected to 125 VDC and produces a uniform "B" field between its coils. A
separate coil is suspended within this field. Its direction of rotation and magnitude can be varied
by the polarity and amount of DC current applied to it. A Hall probe Gauss meter can be used to
search the field.
MIT Tech TV: MIT Physics Demo -- Galvanometer Principle
http://techtv.mit.edu/videos/812-mit-physics-demo-galvanometer-principle