So if this side of my magnet is attracted to Earth's north pole then Earth's north pole or Earth's magnetic north actually must be the south pole of that magnet.

And actually, the magnetic fields we're using are basically about the same as the Earth's magnetic field.

We call this crustal magnetism.

So what it actually does, it locks these strands, which are called fluxons, and it locks these fluxons in place.

They can sense the magnetic fields of the earth.

There aren't electric fields here. It's a magnetic field.

Scientists think now our magnetic field may be diminished by about five percent.

It creates a magnetic field here.

Unlike at Venus or Earth, many disturbances were seen in the pure upstream region in front of, but close to the magnetic field line tangent to the bowshock.

One hundred billion strands of magnetic field inside this three inch disk.

And electric fields are not magnetism.

Because the magnetic spins, or the magnetism created by the electrons are all canceling each other out, because it's random.

(i) Electric and magnetic fields in plasma (wave diagnostics) (PWP)

Lines, of course, would be cut, the force will be generated.

It's sort of surfing on a magnetic field at the crest of a wave.

It causes one to be created out here.

There will be a spinning magnetic field.

The south pole of my magnet here is going to be attracted to Earth's magnetic south.

It will cause one to get created on the other side.

So, chemistry is dominated by the electromagnetic force.

Well, one, I'll explain how we think about a magnetic field.

This will offer research groups a unique opportunity to launch rockets both along and across magnetic field lines in the polar cleft.

In a strong magnetic field, maybe we would get an intuition, but it's hard to have as deep of an intuition as we do for, say, falling objects, or friction, or forces, or fluid dynamics even, because we've all played with water.

Magnetic north is the geographic location, where the north pole of a magnet will point to.

The numerical model of the magnetosheath was extended by incorporation of a draped field geometry within the tail, thus allowing to compute the plasma flow and magnetic field at any point around Mars.

We live in a magnetic field.

And then what the effect of a magnetic field is on an electron.

And actually it turns out, all magnets, the magnetic field is actually generated by the electrons within it.

We have an electromagnetic field around the Earth, and it's constantly bombarded by high energy particles, like protons.

The propagation of test particles in a combined magnetosheath induced tail field geometry was studied, taking magnetic field and particle data of the magnetic field near Mars (experiment MAGMA) and automatic space plasma experiment with a rotating analyzer (experiment ASPERA) on board Phobos 2 as a basis.

You know, the force responsible for electricity and magnetic attraction and so forth.

Spacecraft observations from the Earth apos s magnetotail show that the flaring angle depends on the downtail distance, the upstream solar wind dynamic pressure and the Bz component of the interplanetary magnetic field.

Magnetospheric and ionospheric physics, in particular measurements of charged particles and electric and magnetic fields using satellite experiments, sounding rockets and balloons.

But then what's going to happen is, it will create a field.

The only magnetism comes from electric charges and currents.

We hold it with a magnetic field.

The transcripts involved would be typed directly from the taped recordings of the meeting, taken either from the floor tape or from the interpretation.

So actually, before I go into magnetic field, I actually want to make one huge distinction between magnetism and electrostatics.

MRI is using magnetic fields and radio frequencies to scan the brain, or any part of the body.

But even these large magnets you deal with, the magnetic field is generated by the electron spins inside of it and by the actual magnetic fields generated by the electron motion around the protons.

So far, our atmosphere has done, and our magnetic field has done pretty well protecting us from this.

A lot of things in our everyday life experience, maybe if we were metal filings living in a magnetic field well, we do live in a magnetic field.

So, maybe we're in the throes of it.

But that's not all, because superconductors don't like magnetic fields.

You won't be surprised to hear that if I take this circular magnet, in which the magnetic field is the same all around, the superconductor will be able to freely rotate around the axis of the magnet.