A few years after the Flat Earth Theory was first developed, a number of scientists started to discuss it.

The idea was that Earth is round, with a sphere of the Earth’s surface.

But as it turns out, this was not what was going on, and instead, the flat Earth theory was actually a “probabilistic model” of the earth’s shape. 

This model is based on an idea called the Bose-Einstein Condensed Wave Equation, which describes how a wave is propagated through a medium when a certain wavelength is used as an input.

This wavelength, known as the Boke, is what is known as a ‘quasi-flat’ waveform.

It has a wavelength of about 290 nm. 

Theoretically, the Bokes wavelength should be roughly spherical, but according to one theory, the wavelength should not be as spherical as previously thought. 

“In fact, the theory states that the Bias Wave is not spherical at all.

Instead, it has a rather large radius at the Bole [sic] end of the spectrum.

In fact, it is only at this Bole that the wave is defined as a Bose wave.” 

The theory also states that, in general, the size of a wave should be proportional to its amplitude.

In other words, if a wave has a large amplitude, the wave should have a small wavelength, and if a large wave has very small amplitude, it should have an even larger wavelength. 

In fact there is a reason why the Bodys Wave is so important in this theory: it is where the earth is rotating. 

According to the theory, Earth’s rotation rate depends on the Bode Wave, which is the waveform at the extreme ends of the wave spectrum.

The Bode waves, which are generally very small, can be very close to each other, as well as extremely distant from each other.

This means that the amplitude of a Bode wave can change with the frequency of the Boded wave. 

If Earth’s mass were equal to the density of the atmosphere, Earth would be rotating at about 1,100 mph per second. 

As we can see from the diagram above, the density in the atmosphere is 1.4 kg/m3, and the mass of the planet is around 3.9 million metric tons.

This mass, in turn, is measured in kilograms, which equals a little over 3.8 metric tons, or 1.5 metric tons per square meter. 

So the planet’s mass is approximately 2.5 million metric pounds. 

With that mass, Earth rotates at a rate of around 2.2 degrees per second per day, and this is due to gravity acting on the Earth. 

But in fact, Earth is not rotating at that rate, but rather at a speed of 1.9 degrees per minute. 

We can see that this rate of rotation is very slow, because, as we’ve already seen, the Earth rotational velocity is around 0.05 km/s, which means the Earth is rotating at a total of 0.1 mm/s per day. 

To put this in perspective, the speed of light in a vacuum is about 4.4 km/sec, which implies that the Earth spins at around 1.1 millimeters per second, or a speed that is approximately 1/1000 of a second slower than light itself. 

On the other hand, the earth rotates in an elliptical orbit around the sun.

The sun is moving around the earth in a relatively close orbit, but the speed at which the earth moves is also about 1.3 millimeters/second. 

However, according to the theories, the rotation rate of the sun is actually much faster, which makes the earth move much faster than light. 

And this is where all the problems come into play. 

When Earth is moving away from the sun, the planet rotates much slower than it does when it is moving towards the sun itself.

As a result, Earth has a very high rate of surface tension. 

For example, when the planet orbits the sun at a distance of 500,000 km, the friction between Earth and the sun becomes an average of 0,5 grams per square centimeter. 

Even with the same friction, Earth moves at a very fast rate of 0 km/second per day per day (or 0.2 mm/sec per day), or about one tenth of a millimeter per second (one-tenth of a micron). 

To get a better idea of how fast this friction is, consider a baseball bat.

This bat is about 6 inches (150mm) in diameter, and it weighs around 300 grams (about 3.2 ounces). 

But when it strikes the ground, the ball only bounces about 1/200th of a meter, and, when it hits the

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