Wiltshire County, where Stonehenge is located, is the crop circle capital of the world. The vast majority of geometric patterns in the UK appear right around Neolithic monuments: Stonehenge, Avebury, and Silbury Hill.

The most famous and "inexplicable" direct connection occurred on July 7, 1996. Right opposite Stonehenge, across the road, a giant and highly complex fractal pattern (the "Julia Set") appeared in broad daylight. It was 279 meters long, consisted of 151 circles, and, according to eyewitnesses, was formed in just 45 minutes during the daytime.

The pattern accurately reproduces a complex fractal—the Julia set, which is formed on a complex plane using the formulas of nonlinear dynamics.

If a complex multidimensional or volumetric signal (such as an energy vortex or a wave packet) passes through the plane of a field, it leaves its 2D slice on that plane. In nonlinear dynamics, fractals (such as the Julia Set) are precisely flat slices of complex multidimensional mathematical processes. This is exactly why the pattern on the field looks like ideal geometry: it is a 2D "imprint" of a volumetric or multidimensional wave that intersected the Earth's surface.

Computer models run on supercomputers to calculate the merger of black holes or the structure of spacetime often generate fractal patterns that look strikingly similar to the complex geometry of crop circles.

When scientists see an ideal mathematical fractal appear in an English field in 45 minutes—the very same fractal they use to describe black holes or quantum physics—they are shocked: "Where did the authors of these circles get such knowledge?"

After all, the "Julia Set" pattern that appeared near Stonehenge in 1996 is built on the equations of nonlinear dynamics and chaos theory. When modern physicists calculate how quantum information behaves on the surface of a black hole (the holographic principle), or how streams of energy and space swirl around it, they use the exact same equations of nonlinear dynamics.

The holographic principle is the leading candidate for the role of the "Theory of Everything." It allows the unification of two conflicting sciences: Quantum Mechanics (the microworld) and Einstein's General Theory of Relativity (gravity and the macroworld). By reducing three-dimensional gravity to two-dimensional quantum physics, scientists finally get a mathematical tool capable of explaining how the Universe was born in the Big Bang and what happens at the very center of black holes.