earth.
Isaac Newton stated that the universal law of gravitation keeps moons orbiting planets and planets orbiting the sun. This law describes how every mass attracts every other mass in the universe with a force proportional to the product of their masses and inversely proportional to the square of the distance between their centers.
The gas giants, the four planets farthest from the Sun, do spin faster than the inner planets. However, rotational speed has almost nothing to do with the distance a planet is from the sun. Having said that, both the Sun and the Moon are responsible for the tides of the oceans which are still slowing the Earth down ever so slightly. The extremely slow rotation of Venus would have had other causes. The rotational speeds of planets are the product of 4½ billion years of events. The angular momentum of the protostellar disc would have been transferred to growing planets. In the case of the gas giants, the tidal effects at their great distance from the Sun are extremely small compared to their masses. So they are still spinning vigorously. Even Mercury, the closest planet to the Sun, is not rapidly losing its spin.
The scientist who explained the force that keeps planets from moving in a straight line out into space was Sir Isaac Newton. He formulated the law of universal gravitation, which states that every object in the universe attracts every other object with a force that is directly proportional to the product of their masses and inversely proportional to the square of the distance between their centers.
True. The gravitational force between two planets is directly proportional to the product of their masses. So, the greater the mass of a planet, the stronger its gravitational pull towards another planet.
If the sun were to lose mass, the gravitational pull that keeps the planets in orbit around it would weaken. This could cause the planets to drift away from the sun or even be flung out of the solar system. The stability of the entire solar system would be disrupted, leading to significant changes in the orbits and positions of the planets.
Regolith is mostly a product of weathering. Bedrock may be exposed to water or other compounds that percolate through the soil, or it may occur as an outcrop.
One important product of weathering is soil. Weathering breaks down rocks into smaller particles, which when combined with organic matter form soil. Soil is essential for supporting plant growth and agriculture.
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Sand and grit.
All are a product of rock weathering.
It's a weathering product of granite.
The part of a soil profile made up of partly weathered rock is called the parent material. This layer is the starting point for soil formation and can vary in composition and characteristics depending on the underlying rock type. Over time, the parent material undergoes further weathering and processes to become soil.
Emile Durkheim
The process of potassium feldspar weathering into kaolinite by water is called hydrolysis. This chemical reaction involves the breakdown of feldspar minerals through the addition of water molecules, leading to the formation of kaolinite as a weathering product.
Kaolinite is a silicate mineral that commonly forms as a product of chemical weathering. It is a clay mineral that forms from the alteration of feldspar-rich rocks like granite through the process of hydrolysis. Kaolinite is a key ingredient in the formation of soils and can be found in a variety of environments worldwide.
One product of chemical weathering is the formation of clay minerals from the alteration of feldspar minerals in rocks. Clay minerals are fine-grained particles that result from the breakdown of silicate minerals through chemical reactions with water and gases in the environment.
The gravity that keeps the planets in orbit is the sun's gravity, which is a product of the sun's mass.