An erratic agitation is when the fine particles in the suspension are not in constant motion. This may happen when the fine particles are at the ends of the particle size range or in a continuous motion; both can be seen in the erratic agitation of fine particles in suspension.
The particles in suspension are all very fine and extremely small, ranging in size from the atoms to the subatomic particles. As the particles get smaller they become more and more agitated, and when agitated, the suspension becomes unstable. When this happens, the particles that are most stable, namely those that are not in a constant motion become slightly unstable, and the particles that are most unstable, namely those that are in a constant motion, become slightly stable.
When we were talking about the particle that has to be the most stable we talked about its ‘in suspension’ state. The particles that are most stable are the ones that are in a continuous motion. The particles that are most unstable are the ones that are in some kind of motion, but not all that much.
The thing that is most stable in most cases is the ones that are in a continuous motion, but not all that much. The thing that is most unstable is the ones that are in some kind of motion, but not all that much.
The thing that is most stable in most cases is the ones that are in a continuous motion, but not all that much. The thing that is most unstable is the ones that are in some kind of motion, but not all that much.
This kind of motion is called turbulence. It’s like the ocean, but not really. It’s like a wave, but not really. And it’s a very unstable ocean, too, in the same way that a lot of things are unstable. If you get too close to some unstable object, you can actually get blown off your feet and end up in a very similar position to the one you were in when you were first hit by a turbulent wave.
Turbulent motions are a common occurrence in the world around us, and for a good reason. When you get too close to something unstable, it can cause things to move in an unpredictable way. This can be because the unstable object is still moving, or because something else is moving in the same direction.
The video above shows us a turbulent wave of water crashing on a shoreline. As we get closer, the waves are beginning to form into a massive wave. Suddenly, a huge wave crashes on the shore at an astonishing speed. But it doesn’t just crash. It explodes like a bomb. As we get closer, we can still hear the sound of the explosion, as the water around us is sucked into the wave.
As the waves continue to collide, they form into a massive wave. Suddenly, another giant wave crashes, and another. As the waves continue to collide, they form into a massive wave. Suddenly, another giant wave crashes, and another. As the waves continue to collide, they form into a massive wave. Suddenly, another giant wave crashes, and another. As the waves continue to collide, they form into a massive wave. Suddenly, another giant wave crashes, and another.
The wave theory is interesting because it suggests that there’s something very strange going on with the water around us. The theory is that the water is a fine granular suspension, and the waves are tiny vortices (particles in suspension). The water’s motion is chaotic and erratic, just like the waves themselves. The water is very fine, and the waves are very tiny. This is not a good thing for us, but it does make for a very interesting theory.
