notice how I address all of your post, paragraph by paragraph
Additionally, I've read all the likelihood scenarios such as the moon crashed into the earth and than made its way into its orbit. However, these again are only assumptions and theories which hold very little persuasive strength. For one thing the earth does not reveal a huge impact such as that on any of its land or ocean masses. Secondly, out of all the moon rocks that were brought back from the moon, not one showed signs of originating from earth as moon rocks are different.
do you even know the impact thoery. The impact occurred while the Earth was still a molten mass so there was no mark left on the planet. This wasn't a direct hit. The object struck the Earth at an angle, sheared molten material off and both objects stabilized in orbit, regained their spherical shape, and continued to cool. Hense there is no mark on either object.
ok, nice rocks
Strangely they seem to say that moon rocks are older than earth rocks. Additionally they say that nearly all lunar rocks are depleted in volatiles (such as potassium or sodium) and are completely lacking in the minerals found in Earth's water. In some regards, lunar rocks are closely related to earth's rocks in their composition of the element oxygen.
why would they have minerals in Earth's water? There was no water on the Earth when the Moon formed and there has never been water on the Moon's surface for those minerals to develop in over time.
The moon's rock is so similar in oxygen concentration because the material on the moon was once on Earth. This also explains why the Moon lacks an iron core, as the Earth and related Jovian and Saturnian moons have.
See:
http://www.psi.edu/projects/moon/moon.html
Now this becomes a bit of a problem because the evolutionist claim that the beginning stages of earths atmosphere did not contain oxygen because we know from observable repeatable experiments that in the presents of oxygen amino acids (which I talked about earlier) necessary for life will NOT bond together - oxygen is like a corrosive and pulls these bonds apart. But the geologists know that there WAS oxygen in the early atmosphere (much higher levels) because they find this evidence in rocks. So this bring us to a very unsettling predicament that life cannot start “with or without” oxygen in the atmosphere. So how did it start than? The only logical answer would be “instantaneous” creation.
lets not divert to abiogenesis, lets stay on topic. Life appeared to form in an oxygen-poor atmosphere and only with the rise of autotrophs did the oxygen concentration rise. Where is your source for:
But the geologists know that there WAS oxygen in the early atmosphere (much higher levels) because they find this evidence in rocks.
This is what I found with a quick search:
Evidence from the Rock Record
Iron (Fe) i s extremely reactive with oxygen. If we look at the oxidation state of Fe in the rock record, we can infer a great deal about atmospheric evolution.
Archean - Find occurrence of minerals that only form in non-oxidizing environments in Archean sediments: Pyrite (Fools gold; FeS2), Uraninite (UO2). These minerals are easily dissolved out of rocks under present atmospheric conditions.
Banded Iron Formation (BIF) - Deep water deposits in which layers of iron-rich minerals alternate with iron-poor layers, primarily chert. Iron minerals include iron oxide, iron carbonate, iron silicate, iron sulfide. BIF's are a major source of iron ore, b/c they contain magnetite (Fe3O4) which has a higher iron-to-oxygen ratio than hematite. These are common in rocks 2.0 - 2.8 B.y. old, but do not form today.
Red beds (continental siliciclastic deposits) are never found in rocks older than 2.3 B. y., but are common during Phanerozoic time. Red beds are red because of the highly oxidized mineral hematite (Fe2O3), that probably forms secondarily by oxidation of other Fe minerals that have accumulated in the sediment.
Conclusion - amount of O2 in the atmosphere has increased with time.
Additionally, chemistry teaches us about something called HYDROLYSIS, (this is the action of water DECOMPOSING molecules) specifically amino acids. We all know that water is necessary for life, but it is also DETRIMENTAL to the ORIGINS of life. This information can be found in a basic chemistry book.
lol, you think I don't know what these things are? I graduated with a degree in marine science and I am getting my Masters in marine biology. I have taken many a course on the subject, thanks.
Also keep in mind that life can be found in the harshest of environments. Life arising in primitive conditions is not impossible. If I agree God created the first cell, then where do you go?
So according to the evolutionists life on the early earth did not have oxygen and at the same time it could not have had water either because hydrolysis pulls appart amino acids nessesary for life. So somehow life got started without these elements.
abiogensis is off topic. I can agree that we don't know how life arose from inorganic materials. Back to the topic please.
The next question that arises is that is how the moon could be part of the earth? It neither has water elements, but miraculously it has elements of oxygen?
oxygen is bound to metals, it is not found just in water/air
more references
http://www.lpl.arizona.edu/outreach/origin/
http://www.es.ucl.ac.uk/research/planet ... /moonf.htm
there are other theories to the moon's formation and none involve poofing
Fission hypothesis
Early speculation proposed that the Moon broke off from the Earth's crust because of centrifugal forces, leaving a basin — presumed to be the Pacific Ocean — behind as a scar.[39] This idea, however, would require too great an initial spin of the Earth; and, even had this been possible, the process should have resulted in the Moon's orbit following Earth's equatorial plane. This is not the case.
Capture hypothesis
Other speculation has centered on the Moon being formed elsewhere and subsequently being captured by Earth's gravity.[40] However, the conditions believed necessary for such a mechanism to work, such as an extended atmosphere of the Earth in order to dissipate the energy of the passing Moon, are improbable.
Co-formation hypothesis
The co-formation hypothesis proposes that the Earth and the Moon formed together at the same time and place from the primordial accretion disk. The Moon would have formed from material surrounding the proto-Earth, similar to the formation of the planets around the Sun. Some suggest that this hypothesis fails adequately to explain the depletion of metallic iron in the Moon.
A major deficiency in all these hypotheses is that they cannot readily account for the high angular momentum of the Earth—Moon system.[41]
Giant Impact hypothesis
The prevailing hypothesis today is that the Earth—Moon system formed as a result of a giant impact. A Mars-sized body (labelled "Theia") is believed to have hit the proto-Earth, blasting sufficient material into orbit around the proto-Earth to form the Moon through accretion.[6] As accretion is the process by which all planetary bodies are believed to have formed, giant impacts are thought to have affected most if not all planets. Computer simulations modelling a giant impact are consistent with measurements of the angular momentum of the Earth—Moon system, as well as the small size of the lunar core.[42] Unresolved questions regarding this theory concern the determination of the relative sizes of the proto-Earth and Theia and of how much material from these two bodies formed the Moon.
http://news.bbc.co.uk/1/hi/sci/tech/1593504.stm