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All energy needed for photosynthesis comes from the sun.
It is a chemical change. Fermentation causes bonds to break within a compound and new bonds form thus chemically changing the initial 'reactant'.
Sun energy is used to evaporate water. This is the initial step of water cycle.
No, the process listed is true for vitamin D, not vitamin C.
Most likely not. Too close to the sun, heating is too intense for hydrogen and easily vaporized substances to remain in place. These materials would then be swept outwaard by the intense solar wind of a young sun. As a result, there is fairly plentiful water and ice in the outer solar system to form gas giants, while terrestrial planets form from the leftover rock and metal in the inner solar system.
The 2 main substances needed to start a rainbow are water and sun.
All energy needed for photosynthesis comes from the sun.
Comets develop a tail as the sun's energy vaporizes substances such as ice and dry ice that form the comet. Asteroids lack these substances and so do not devlop tails.
From the sun. It's solar energy
From the sun - in the form of sunlight.
the gravitational forces from nearby solar systems allowed a nebula to form and in that nebula were all the compounds needed to form the sun and planets.
the sun
Comets that seldom visit the sun have water and other volatile substances evaporate from their core. Those substances form a long tail out from the core as the solar wind blows them away from the comet. If a comet makes a number of trips around the sun, all of its volatile substances are blown away and it can no longer have a tail.
the sun
All that's really needed to form a star is a lot of hydrogen. Everything else will take care of itself.Our Sun is "metal-rich", meaning that it has some elements heavier than hydrogen and helium in it. However, it's mostly hydrogen, and most of the rest is helium.
They belived that the sun needed human blood so that is why they sacrificed it
It is a chemical change. Fermentation causes bonds to break within a compound and new bonds form thus chemically changing the initial 'reactant'.