On the lateral side, the lateral collateral ligament, the lateral joint line, and the fibular head.

Ataturk was a lateral thinker.

We've lost the lateral controls!

Cozen's test assesses for lateral epicondylitis.

Maudsley's test assesses for lateral epicondylitis.

Maudsley's test assesses for lateral epicondylitis.

It's something called a lateral flow immunoassay.

The left atrium and the left ventricle.

So blood would flow from the left ventricle, into a place it shouldn't be going, the right ventricle.

So this is the right ventricle, down here.

And then it goes into the right ventricle.

The lateral acceleration does impose on the maximum speed.

So now the journey starts with the left ventricle.

Blood flows from the right atrium to the right ventricle, then it goes to the lungs and from the left atrium to the left ventricle.

Lateral elbow pain with resisted wrist extension is a positive test.

Flexion, extension, lateral flexion to the left and right, and rotation.

Lateral elbow pain with resisted wrist extension is a positive test.

Lateral pain around thirty degrees of flexion is a positive test.

So this is chamber number three. And then the left ventricle.

Lateral elbow pain with resisted third finger extension is a positive test.

Lateral elbow pain with resisted third finger extension is a positive test.

At the same moment blood is going from the right atrium to the right ventricle, blood is actually also going from the left atrium to the left ventricle.

No matter how we shockmount something, it will have a severe lateral vibration.

And the second one is relying on the left ventricle as the pump.

This maneuver is repeated palpating the lateral joint line while internally rotating the foot.

We're gonna actually follow the path of blood after it leaves the right ventricle.

And I think in that sense, this fits really nicely with this lateral thinking idea.

All these different organs and tissues are gonna be getting blood from the left ventricle.

Let's start with blood going from the right atrium, this way into the right ventricle.

You have simultaneously two chambers that are full of blood, the right and left ventricle.

Does that maximum lateral acceleration depend on things like road condition, which I imagine it would?

With the patient in the lateral position, the knee is supported and flexed to ninety degrees.

So we've gone from the right ventricle around to the lungs, back again into the left atrium.

And once the blood is in right atrium, it's going to head down into the right ventricle.

Let's start by labeling our heart, at the top, blood is coming into the right atrium, going to the right ventricle, it goes off to the lungs, comes back into the left atrium and then the left ventricle.

In the lateral position, again test active range of motion and resisted strength for hip abduction and adduction.

We had this broad patch of area called the lateral prefrontal cortex that went way down in activity,

On the other side you have the mitral valve, which separates the left atrium from the left ventricle.

And it goes down into, you can probably guess how this one is called, is our left ventricle.

With the knee flexed to ninety degrees, apply pressure over the lateral femoral chondral and passively extend the knee.

like the dorsal lateral prefrontal cortex or the superior temporal gyrus, there is a profound loss of gray matter.

From the body... to the right auricle... to the right ventricle... and out the pulmonary arteries to the lungs.

To rule out cervical causes of referred shoulder pain, evaluate neck range of motion flexion, extension, lateral flexion, and rotation.

We're gonna start our journey here at the right ventricle. So what's the first thing that kind of comes across?

In the new cycle you have a bit of blood that's going from the right atrium to the right ventricle.