Cobol
Code Jockey
After the big bang there was a lot of energy in the form of light, which comes in discrete packets called photons. When photons have enough energy, they can spontaneously decay into a particle and an antiparticle. (An antiparticle is the exact opposite of the corresponding particle--for example, a proton has charge +e, so an antiproton has charge -e.) This is easily observed today, as gamma rays have enough energy to create measurable electron-antielectron pairs. A photon is just one of a class of particles, called the bosons, that decay in this manner. Many of the bosons around just after the big bang were so energetic that they could decay into much more massive particles such as protons (remember, E=mc2, so to make a particle with a large mass m, you need a boson with a high energy E). The mass in the universe came from such decays.
There was exactly as much antimatter as there is matter. When the universe had cooled somewhat each particle would have found an antiparticle and combined to form a boson. The survival of even such a small fraction was enough to form all of the matter in our universe.
Early earth's atmosphere was very different from the atmosphere of today. Early earth's atmosphere would have been composed of methane, ammonia, hydrogen and water vapor. Scientists have sealed theses gases in an airtight container, and then exposed the gases to sparks of electricity to simulate lightning. They continued the lightning for a week, and by the end, a reddish-brown substance had coated the walls of the container. This substance contained amino acids used by life on earth.
As far as your other responses, i don't think your comprehending what i said.
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