## II. DISTRIBUTION OF MASS INSIDE THE PLANETARY BODY Let us consider what object we can take as a prototype of the planet. The famous example of a spherical aquarium suits this purpose quite well. It contains water and various materials with different specific weight, such as rocks, plastic toys, fishes, a feeder, etc. Their distribution is a known thing. If you give it a tilt, a displacement will take place, and if you rotate it, there will be permanent movement with the heavy mass directed towards the Earth. The aquarium always remains in the Earth's gravity field, just like the Earth remaining in the gravity field of the Sun. So we can say that the Earth is the same kind of "aquarium" for the Sun. The distribution will be similar: heavy masses will be closer to the Sun, while the most lightweight masses, on the opposite side. Now, if we imagine that the aquarium walls are made of soft rubber-like material, we will be able to simulate the Earth crust behavior under the Sun's gravity force. If we add water into an inflated balloon, then we can get a visual representation of the Earth crust behavior, the crest and its movement. It should be noted that the planet is located in the near-equipotential field of the Sun, which means that any part of the Earth gravitates towards the Sun equally. The distance to the Sun is incomparably greater than any distance on the planet. In fact, the heavy part of matter inside the planet, remaining always on the side of the Sun, moves from East to West and along the North-South spiral, and vice versa, during the displacement of the planet relative to the Sun (season change, variation of the rotation axis inclination angle). The hand of the spiral changes on solstices. There are two main external sources of gravity, the far and powerful Sun, and the Moon, which is far less massive, but it is close. It means that there are two areas of heavy mass concentration. During the displacement of the Sun, Moon and Earth against each other, these heavy parts of the planet will not only change their positions, but their masses too will be summed up or subtracted. This can be seen on the diagrams of gravity force variation in a certain point (Figure 1). As the heavy mass approaches the measurement point, the Earth's gravity force increases, while the gravity force of the Sun (or the Moon), which is located above the measurement point at that moment, decreases. That is why we get such complex dependencies of gravity force variation, where we must also consider the season as well as the similar influence of the Moon and its position.  Figure 1: Behavior of gravity forces in 2013, before June 22 and mirrored afterwards. The coastal area of the Sea of Japan We can clearly see the nearly perfect match of the values before June 22 and the mirroring afterwards. After the solstice, the mass inside the planet returns with the same daily and monthly dependency to the Southern hemisphere, from where it starts moving backwards after reaching the maximum distance on December 22. Over and over again. A perpetual motion. Movement of the heavy, positively charged internal mass may be well evidenced by the diagrams given in [3] representing displacement of the zone of natural impulses of the Earth magnetic field. It becomes positively charged because free electrons generated by such temperature conditions "float up", and the remaining cations and nuclei settle down and form groups in the moving heavy part (an electron is hundreds of times lighter than a nucleus and especially an ion). Movement of the positively charged mass is similar in its effect to electric current in a conductor. Electric current going from East to West creates the Earth magnetic field, exactly as the one we can observe in reality. Analysis of magnetic fields of other planets confirms the proposed physics.[5] Movement of masses inside the planet takes place in the area not far from the equator, thus causing the planetary bulge, which makes the Earth a geoid. Gravity forces of the moving masses cause the oceanic water in this area to move, thus creating the main equatorial ocean currents. This also affects the air masses. However, while the continental land prevents the water from cycling around the planet, the aerial masses reaching the stratosphere while being unbound form a loop. The equatorial currents spread out after bumping into the continental land and create all the known currents in the nearly-enclosed basins of the oceans (Figure 2). Water rise in the western parts of the oceans creates equatorial countercurrents that bring balance.  Figure 2: Conventional illustration (Garetsky, 2006 [6]) demonstrating the similarity between structures of large currents in the Pacific, Atlantic and Indian oceans The same forces induce geotectonic movements, which leads to generation of mountains on continents, just like subglacial water flow in a river generates ice pressure ridges. On the Sun influenced by Jupiter, the same mechanism makes the equatorial part of the Sun turn around at the time different from the poles (differential rotation). A similar effect is observed on Jupiter as well. When the planetary body cools down, this heavy part stays in the same place. Let us see the Moon as the example. It became a kind of a roly-poly toy. Just like such toy, it always faces the gravity source, the Earth, with the same side making a full rotation in parallel with its full revolution around the Earth. Many satellites in the Solar System behave similarly. Movement of heavy mass inside the planet takes place at the edge of the Earth crust, near the Moho boundary. Since the path that such mass passes per rotation is quite long, the velocity is high too, more than $1,000 \mathrm{~km/h}$ according to initial reports. Of course, such movement generates heat in the friction parts, and this is likely to maintain high temperature inside the planet. In fact, we do not observe any other sources of such heating. Therefore, all the above-mentioned external manifestations of the mass movement inside the planet and measurement data provide conclusive evidence of the proposed model of the planet's internal structure. We still have to deal with the conclusions from seismic measurements which laid the foundations for the currently accepted model. Here, we can only assume that the increase of pressure and temperature closer to the center causes transition of the matter to another state, which is high temperature plasma, so physical properties of the matter change [2]. This is exactly what influences the measurements. The rapidly changing processes described above cannot be measured by such methods. You can see the detailed analysis of the processes here [7]. Explaining many natural phenomena with a single, actual, observable, and measurable reason allows us to reduce the number of options (hypotheses) arising around the phenomena in question. A single reason is easier to study in depth based on the diversity of its manifestations.

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