This is an MRI MRA MRV, a volumetric MRI.

This is magnetic resonance imaging MRI.

So this is cardiac magnetic resonance imaging.

MRI generates over a thousand.

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

And we heard a little bit about functional MRI.

A year after this treatment in fact, this is his baseline MRI.

That sent me to an X ray, then to an MRI.

This is the main method that I use. This is called functional MRI.

The second reason we really liked MRI is that there's no radiation.

One is the focused ultrasound, and the other one is the vision enabled magnetic resonance imaging.

It wasn't until the invention of the MR and really the integration of MR with focused ultrasound that we could get the feedback both the anatomical and the physiological in order to have a completely noninvasive, closed loop surgical procedure.

This is really a unique capability of the MR.

But this is why MBI is so potentially disruptive it's as accurate as MRI, it's far less complex to interpret, and it's a fraction of the cost.

Now I'm going to review a study that I did, which was jazz in an fMRI scanner.

Well you can see this on an MRI.

So we're very excited about M.R.

These are Robert's MRIs, again, under only TTField treatment.

I've gone and had an fMRI myself, to see how my visual cortex is taking over.

Here's the MR. It provides the framework.

He studies the brain using MRI, and he claims that this is the most beautiful brain that he has ever scanned.

The best known examples are the magnets that drive the magnetic resonance imaging (MRI) machines found in most hospitals. Perhaps the most exotic are the huge magnets used to accelerate particles in the Large Hadron Collider, which seeks to discover the fundamental principles of matter.

And the physician will then take a regular MR scan.

One of the opportunities I had was one person was working on a really interesting micromagnetic resonance imaging machine with the NIH.

Fascinatingly, in the last few years, it's been possible to do functional brain imagery, to do fMRI on people as they are hallucinating.

So we put the patient on the MR table.

And finally, we did MRI and MR spectroscopy scans on some of these patients, and the tumor activity is shown in red in this patient, and you can see clearly it s better a year later, along with the PSA going down.

They get people into a fMRI scanner, and while they're lying there, through a tube, they get to sip wine.

And you just saw Motts the research engineer, there, going into the MRI system, and he was wearing goggles.

We started by organizing image acquisition from magnetic resonance imaging machines and CT imaging machines from which to make a model of the patient's aorta.

Screening the average young woman with an MRI is kind of like driving to the grocery store in a Hummer.

That's where we put our people in the MRI machine.

He had received physiotherapy treatment and an MRI examination of his back.

Before I put these people in the MRI machine,

That's where we put our people in the MRI machine.

And one of the unique capabilities that we leverage with the MR is the ability to measure temperature noninvasively.

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

And you do that by measuring the relative activation of the left prefrontal cortex in the fMRI, versus the right prefrontal cortex.

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We know for example that we now have specialized eye trackers and infrared brain scans, MRI's that can decode the signals that our bodies send out when we're trying to be deceptive.

But they found that this is after three and a half hours in an fMRI, it's like coming out of a space ship.

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

Or another way to put it, if we have a magnet, the direction of the magnet or the side of the magnet that orients itself if it's allowed to orient freely without friction towards our geographic north, we call that the north pole.

Now So we now know that we are able to transfer enormous amount of currents inside superconductors, so we can use them to produce strong magnetic fields, such as needed in MRI machines, particle accelerators and so on.

One MRI scan costs 10 times what a digital mammogram costs.