Life In The Millennium

The Main Events and The Dates

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The Main Events and The Dates

The original plan, having been sidetracked by Lucifer (Satan) and his rebellion against God’s plan. 10,000 – 20,000 BC

The new plan including Satan’s nature and now the choice of the two trees or paths. ?

The Creation of man

The repair of the universe by Jesus, and the creation of man in God’s image. -4,029

Adam and Eve choosing the tree of the knowledge of good and evil. -3,959

The Flood

The flood where there were only eight people saved to continue the plan. -2,344

The Changes After The Flood

Once again, when the flood came along about 4,200 years ago, the properties of the universe was totally changed again, to the current levels that we see now. (see True Science book) This marks the change in physical properties of the earth and can be seen by man’s now only living about 70 years, not 600 to 900 years.

The tower of Babel where the languages were created to stop the spread of evil and the nations were separated. -2,200
The nation of Israel and the promised land, the giving of the law and the plan of God (to save mankind). -1,487
The nation of Israel going into the promised land. -1,447

Time Zero (Jesus Shows Up)

The reality of Jesus coming to introduce the New Covenant and His way of life to the Israelites and the world. 32 AD

The End Times where the reign of Satan ends and Jesus takes control as King of Kings and start the Millennium. Today

This is a simple outline, for the details look at Appendix A to see the source of this information.

If you notice, the numbers are approximate because we really don’t know the exact dates, however this will give you a concept of where the different things fit into the plan and what happened, and about when. As you can see (Appendix A) the possible projected dates for the 6,000 years are now on both sides of the current years (today), it is truly the end times.
You may also have noticed that there are many details to consider, so we can not say the exact year that will be 6,000 years from the creation of man and Adam’s eating from the Tree (or choosing Satin’s way of life, to start the 6,00 years of Satin’s rule of the earth). In addition, the bible makes it clear that the times will be cut short. We need to watch always, and be ready for the Messiah to return.

BOOK 2 Creation Science
A Defense of Creationism 28 12

Look at the evidence for yourself. I think you’ll be amazed at just how many holes there are in the evolutionary theory as commonly believed today. And then there are the politics involved in the discovery and classification of artifacts. If an archaeologist successfully bolsters a claim that a few one-of-a-kind bone fragments somehow fit right into ancient human lineage, rather than just another unsuccessful "spur" out there, then long term research grants are a lot more forthcoming. Debate, counter-claims, political wrangling; "Survival of the fittest" at its finest.

Taphonomy A Tool For Studying Earth’s Biblical History” 40 Pages 40

Now as an avid creationist who is fascinated by the relationship between Biblical revelation and natural revelation and the correlation of the latter informational source about earth's History with the authoritative statement of God's Word, this subject very quickly captures my attention. It is a subject which can only be valuable to one who is keenly interested in the relationship between the fossils found in the record of the rocks and the events which brought about their passage from being a living creature in the biosphere at some time in Biblical history to their present state in the historical geological record.

The Radiometric Dating Game 30 80

Radiometric dating methods estimate the age of rocks using calculations based on the decay rates of radioactive elements such as uranium, strontium, and potassium. On the surface, radiometric dating methods appear to give powerful support to the statement that life has existed on the earth for hundreds of millions, even billions, of years. We are told that these methods are accurate to a few percent, and that there are many different methods. We are told that of all the radiometric dates that are measured, only a few percent are anomalous. This gives us the impression that all but a small percentage of the dates computed by radiometric methods agree with the assumed ages of the rocks in which they are found, and that all of these various methods almost always give ages that agree with each other to within a few percentage points. Since there doesn't seem to be any systematic error that could cause so many methods to agree with each other so often, it seems that there is no other rational conclusion than to accept these dates as accurate.

RATE group reveals exciting breakthroughs! 4 110

A new paper shows that the current Radiometric dating methods to be flawed. The Earth is only a few thousand years old.

Radioactive Halos 18 114

A radioactive halo is generally defined as any type of discolored, radiation-damaged region within a mineral and usually results from either alpha or, more rarely, beta emission from a central radioactive inclusion. Evidence that something is drastically wrong comes from the fact that this basic evolutionary premise has failed to provide a verifiable explanation for the widespread occurrence of Po halos in Precambrian granites, a phenomena which I suggest are in situ evidences that those rocks were created almost instantaneously in accord with Psalm 33:6,9. Po218 has a half life of 3 minutes.

The Geologic Column Does It Exist? 8 132

It has been claimed that the geological column as a faunel succession is not just a hypothetical concept, but a reality, because all Phanerozoic systems exist superposed at a number of locations on the earth. Close examination reveals, however, that even at locations where all ten systems are superposed, the column, as represented by sedimentary-thickness, is mostly missing. In fact, the thickest local accumulation of rock is only a tiny fraction of the inferred 600-million year’s worth of depositions. The global ‘stack’ of index fossils exists nowhere on earth, and most index fossils do not usually overlie each other at the same locality. So, even in those places where all Phanerozoic systems have been assigned, the column is still hypothetical. Locally, many of the systems have not been assigned by the index fossils contained in the strata but by indirect methods that take the column for granted — clearly circular reasoning. Thus the geologic column does not exist and so does not need to be explained by Flood geology. Only each local succession requires an explanation and Flood geology is wholly adequate for this task.

The Solar System 12 140

The results of recent space exploration have served to compound the mysteries of the solar system, rather than providing data predicted on the basis of evolutionary theories. Other sections include the young earth and how well it was planed. Also a short piece on the flood. Last, a piece on the petrifying of wood, a very fast process, otherwise the wood should have disappeared long ago.

The Age of The Earth Geology and The Flood” 18 Pages 225

The idea that the earth is billions of years old and that its geological development was extremely slow and gradual is entrenched in popular culture, reinforced by textbooks, newspapers, television and museum exhibits. However, this is misleading. There is overwhelming evidence that the history of our planet was dominated by rapid and catastrophic events.

Hiding Humanity’s True History 8 170

Any time you allege a conspiracy is afoot, especially in the field of science, you are treading on thin ice. We tend to be very skeptical about conspiracies—unless the Mafia or some Muslim radicals are behind the alleged plot. But the evidence is overwhelming and the irony is that much of it is in plain view.

Biological Research” 8 Pages 178

Biological creationist research in the past 14 years is reviewed as it was in the first decade of the Creation Research Society

Creationist Research16 Pages 186

This paper goes through many different subjects and shows the true picture of a created universe. There are many subjects covered in much detail and there is no real proof of or even a hint that there was any kind of evolution in progress anywhere in the universe today or at any time in the past. The “proof” is usually done by using “curricular reasoning”. This requires using one piece of false information to prove a second piece of false information that is proven by the first piece of false information! Check the sources, physics, chemistry and motives that are presently at work on what you are reading or hearing.

The Complexity of the Genetic Code” 2 Pages 202

There are on average 30,000 genes per chromosome. The longest chromosomes contain 300 million bases. The genetic alphabet out of which genes are composed consists of four "letters," or bases. Each of these nucleic acid bases must be joined to its neighbors in precisely the correct order! Prof. A. E. Wilder Smith notes that the arrangement of bases is three-dimensional---an equivalent amount of information packed into two dimensions would make the length of the genome many thousands of miles long! Individual genes govern skin color, eye color, a multitude of other physical characteristics, and a good many less tangible factors such as intelligence level and temperament as well.

Top 10 Out Of Place Artifacts 4 204

Walk into any modern museum, or open any history textbook, and the picture of the past presented is one in which humanity started from primitive beginnings, and steadily progressed upward in the development of culture and science. Most of the artifacts preserved in archaeological and geological records have been neatly arranged to fit this accepted linear view of our past.

Yet many other tantalizing bits and pieces unearthed offer a very different story of what really happened. Called out-of-place artifacts, they don't fit the established pattern of prehistory, pointing back instead to the existence of advanced civilizations before any of the known ancient cultures came into being.
The Creation Model Is Scientifically Testable 16 208

Genesis states that the earth and all the life forms were created "perfect" and designed to live forever (1000 years). it also states that after the fall of man, all the elements, which everything was made of, were cursed. it goes on to record a gradual degeneration of the whole creation until the recorded "Flood of Noah", and a very rapid degeneration thereafter. Dr. Carl Baugh, director of the Creation Evidence Museum, inventor & patent holder of the worlds first "Hyperbaric Biosphere" to test the biblical pre-flood atmosphere hypothesis which is based on the historical record of genesis.

This indicates the insertion and increase of elemental thermodynamics (everything created gets old, wears out, degenerates and dies) into this perfect creation. one amazing record is the longevity decline of man. from the curse to Noah's Flood the patriarchs "overlapping" life spans are recorded as slowly declining with an average age of men at 917 years until the flood. the patriarchs "overlapping" life spans born after the flood to Joseph are recorded as rapidly declining with an average age of men at 250 years. by the time of Christ, the average life span is about 70 years. why!!!
The test hypothesis is, by using scientific data showing the decline in the earths magnetic field, ozone shield, atmospheric pressure & gases and creating conditions for extrapolating backwards some 5-6000 years, you should see a latent biological increase in longevity, cellular growth and change in molecular structures.

Appendix T
The Radiometric Dating Game
Radiometric dating methods estimate the age of rocks using calculations based on the decay rates of radioactive elements such as uranium, strontium, and potassium. On the surface, radiometric dating methods appear to give powerful support to the statement that life has existed on the earth for hundreds of millions, even billions, of years. We are told that these methods are accurate to a few percent, and that there are many different methods. We are told that of all the radiometric dates that are measured, only a few percent are anomalous. This gives us the impression that all but a small percentage of the dates computed by radiometric methods agree with the assumed ages of the rocks in which they are found, and that all of these various methods almost always give ages that agree with each other to within a few percentage points. Since there doesn't seem to be any systematic error that could cause so many methods to agree with each other so often, it seems that there is no other rational conclusion than to accept these dates as accurate.
However, this causes a problem for those who believe based on the Bible that life has only existed on the earth for a few thousand years, since fossils are found in rocks that are dated to be over 500 million years old by radiometric methods, and some fossils are found in rocks that are dated to be billions of years old. If these dates are correct, this calls the Biblical account of a recent creation of life into question.
After study and discussion of this question, I now believe that the claimed accuracy of radiometric dating methods is a result of a great misunderstanding of the data, and that the various methods hardly ever agree with each other, and often do not agree with the assumed ages of the rocks in which they are found. I believe that there is a great need for this information to be made known, so I am making this article available in the hopes that it will enlighten others who are considering these questions. Even the creationist accounts that I have read do not adequately treat these issues.
At the start, let me clarify that my main concern is not the age of the earth, the moon, or the solar system, but rather the age of life, that is, how long has life existed on earth. Many dating methods seem to give about the same ages on meteorites. Thus radiometric dating methods appear to give evidence that the earth and meteorites are old, if one accepts the fact that decay rates have been constant. However, there may be other explanations for this apparent age. Perhaps the earth was made from older pre-existing matter, or perhaps decay rates were briefly faster for some reason. When one considers the power of God, one sees that any such conclusions are to some extent tentative. For some evidence for a young universe, see and For some evidence for a young sun, see I believe that life was recently created. I also believe that the evidence indicates that the earth has recently undergone a violent catastrophe.
Geologic time is divided up into periods, beginning with the Precambrian, followed by the Cambrian and a number of others, leading up to the present. Some fossils are found in Precambrian rocks, but most of them are found in Cambrian and later periods. We can assume that the Precambrian rocks already existed when life began, and so the ages of the Precambrian rocks are not necessarily related to the question of how long life has existed on earth. The Cambrian period is conventionally assumed to have begun about 550 million years ago. Since Cambrian and later rocks are largely sedimentary and igneous (volcanic) rocks are found in Cambrian and later strata, if these rocks are really 550 million years old, then life must also be at least 550 million years old. Therefore, my main concern is with rocks of the Cambrian periods and later.

How radiometric dating works in general

Radioactive elements decay gradually into other elements. The original element is called the parent, and the result of the decay process is called the daughter element. Assuming we start out with pure parent, as time passes, more and more daughter will be produced. By measuring the ratio of daughter to parent, we can measure how old the sample is. A ratio of zero means an age of zero. A higher ratio means an older age. A ratio of infinity (that is, all daughter and no parent) means an age of essentially infinity.

Each radioactive element has a half-life, which tells how long it takes for half of the element to decay. For potassium 40, the half-life is about 1.3 billion years. In general, in one half-life, half of the parent will have decayed. In two half-lives, half of the remainder will decay, meaning 3/4 in all will have decayed. In general, in n half-lives, only 1/(2^n) of the original parent material will be left.
Potassium 40 (K40) decays to argon 40, which is an inert gas, and to calcium. Potassium is present in most geological materials, making potassium-argon dating highly useful if it really works. Potassium is about 1/40 of the earth's crust, and about 1/10,000 of the potassium is potassium 40. Uranium decays to lead by a complex series of steps. Rubidium decays to strontium. Thus we obtain K-Ar dating, U-Pb dating, and Rb-Sr dating, three of the most common methods.

When it is stated that these methods are accurate to one or two percent, it does not mean that the computed age is within one or two percent of the correct age. It just means that there is enough accuracy in the measurements to compute t to one or two percentage points of accuracy, where t is the time required to obtain the observed ratio of daughter to parent, assuming no initial daughter product was present at the beginning, and no daughter or parent entered or left the system. For isochrons, which we will discuss later, the conditions are different. If these conditions are not satisfied, the error can be arbitrarily large.

In order to use these methods, we have to start out with a system in which no daughter element is present, or else know how much daugher element was present initially so that it can be subtracted out. We also need to know that no parent or daughter has entered or left the system in the meantime. Radiometric dating is commonly used on igneous rocks (lava), and on some sedimentary minerals. But fossils can generally not be dated directly. When lava is hot, argon escapes, so it is generally assumed that no argon is present when lava cools. Thus we can date lava by K-Ar dating to determine its age. As for the other methods, some minerals when they form exclude daughter products. Zircons exclude lead, for example, so U-Pb dating can be applied to zircon to determine the time since lava cooled. Micas exclude strontium, so Rb-Sr dating can be used on micas to determine the length of time since the mica formed.
I found the following statement in an on-line (non creationist) reference, as follows:
"This is possible in potassium-argon (K-Ar) dating, for example, because most minerals do not take argon into their structures initially. In rubidium-strontium dating, micas exclude strontium when they form, but accept much rubidium. In uranium-lead (U-Pb) dating of zircon, the zircon is found to exclude initial lead almost completely."
[from the Britannica Online, article "Geochronology: The Interpretation and Dating of the Geologic Record."] So because of this, one can do Rb-Sr dating on micas because they exclude strontium when the micas form. Thus one would know that any strontium that is present had to come from the parent rubidium, so by computing the ratio and knowing the half life, one can compute the age.
In general, when lava cools, various minerals crystallize out at different temperatures, and these minerals preferentially include and exclude various elements in their crystal structures. So one obtains a series of minerals crystallizing out of the lava. Thus the composition of the lava continues to change, and later minerals can form having significantly different compositions than earlier ones. Lava that cools on the surface of the earth is called extrusive. This type of lava cools quickly, leaving little time for crystals to form, and forms basalt. Lava that cools underground cools much more slowly, and can form large crystals. This type of lava typically forms granite or quartz.
A good general introduction to radiometric dating from an evolutionary perspective can be found at

Why methods in general are inaccurate

I admit this is a very beautiful theory. This would seem to imply that the problem of radiometric dating has been solved, and that there are no anomalies. So if we take a lava flow and date several minerals for which one knows the daughter element is excluded, we should always get the exact same date, and it should agree with the accepted age of the geological period. Is this true? I doubt it very much. If the radiometric dating problem has been solved in this manner, then why do we need isochrons, which are claimed to be more accurate?

The same question could be asked in general of minerals that are thought to yield good dates. Mica is thought to exclude Sr, so it should yield good Rb-Sr dates. But are dates from mica always accepted, and do they always agree with the age of their geologic period? I suspect not.
Indeed, there are a number of conditions on the reliability of radiometric dating. For example, for K-Ar dating, we have the following requirements:
For this system to work as a clock, the following 4 criteria must be fulfilled:
1. The decay constant and the abundance of K40 must be known accurately.
2. There must have been no incorporation of Ar40 into the mineral at the time of crystallization or a leak of Ar40 from the mineral following crystallization.
3. The system must have remained closed for both K40 and Ar40 since the time of crystallization.
4. The relationship between the data obtained and a specific event must be known.

The requirements for radiometric dating are stated in another way, at the web site
"But what about the radiometric dating methods? The earth is supposed to be nearly 5 billion years old, and some of these methods seem to verify ancient dates for many of earth's igneous rocks. The answer is that these methods, are far from infallible and are based on three arbitrary assumptions (a constant rate of decay, an isolated system in which no parent or daughter element can be added or lost, and a known amount of the daughter element present initially)."
Here are more quotes about radiometric dating from
"All of the parent and daughter atoms can move through the rocks. Heating and deformation of rocks can cause these atoms to migrate, and water percolating through the rocks can transport these substances and redeposit them. These processes correspond to changing the setting of the clock hands. Not infrequently such resetting of the radiometric clocks is assumed in order to explain disagreements between different measurements of rock ages. The assumed resettings are referred to as `metamorphic events' or `second' or `third events.' "
And again,
"It is also possible that exposure to neutrino, neutron, or cosmic radiation could have greatly changed isotopic ratios or the rates at some time in the past."
It is known that neutrinos interact with atomic nucleii, so a larger density of neutrinos could have sped up radioactive decay and made matter look old in a hurry. Some more quotes from the same source:
a. In the lead-uranium systems both uranium and lead can migrate easily in some rocks, and lead volatilizes and escapes as a vapor at relatively low temperatures. It has been suggested that free neutrons could transform Pb-206 first to Pb-207 and then to Pb-208, thus tending to reset the clocks and throw thorium-lead and uranium-lead clocks completely off, even to the point of wiping out geological time. Furthermore, there is still disagreement of 15 percent between the two preferred values for the U-238 decay constant.
b. In the potassium/argon system argon is a gas which can escape from or migrate through the rocks. Potassium volatilizes easily, is easily leached by water, and can migrate through the rocks under certain conditions. Furthermore, the value of the decay constant is still disputed, although the scientific community seems to be approaching agreement. Historically, the decay constants used for the various radiometric dating systems have been adjusted to obtain agreement between the results obtained. In the potassium/argon system another adjustable "constant" called the branching ratio is also not accurately known and is adjusted to give acceptable results.
Argon-40, the daughter substance, makes up about one percent of the atmosphere, which is therefore a possible source of contamination. This is corrected for by comparing the ratio argon-40/argon-36 in the rock with that in the atmosphere. However, since it is possible for argon-36 to be formed in the rocks by cosmic radiation, the correction may also be in error. Argon from the environment may be trapped in magma by pressure and rapid cooling to give very high erroneous age results. In view of these and other problems it is hardly surprising that the potassium/argon method can yield highly variable results, even among different minerals in the same rock.
c. In the strontium/rubidium system the strontium-87 daughter atoms are very plentiful in the earth's crust. Rubidium-87 parent atoms can be leached out of the rock by water or volatilized by heat.
All of these special problems as well as others can produce contradictory and erroneous results for the various radiometric dating systems.
So we have a number of mechanisms that can introduce errors in radiometric dates. Heating can cause argon to leave a rock and make it look younger. In general, if lava was heated after the initial flow, it can yield an age that is too young. If the minerals in the lava did not melt with the lava, one can obtain an age that is too old. Leaching can also occur; this involves water circulating in rock that can cause parent and daughter elements to enter or leave the rock and change the radiometric age.
Thus it is easy to rationalize any date that is obtained. If a date is too old, one can say that the mineral did not melt with the lava. (Maybe it got included from surrounding rock as the lava flowed upward.) If the date is too young, one can say that there was a later heating event. One can also hypothesize that leaching occurred.
But then it is claimed that we can detect leaching and heating. But how can we know that this claim is true, without knowing the history of rocks and knowing whether they have in fact experienced later heating or leaching?

The problems are compounded because many of the parent and daughter substances are mobile, to some extent. I believe that all parent substances are water soluble, and many of the daughter products as well. A few sources have said that Sr is mobile in rock to some extent. This could cause trouble for Rb-Sr dating. In fact, some sources say that Sr and Ar have similar mobilities in rock, and Ar is very mobile.

Especially the gaseous radioactive decay byproducts such as argon, radon, and helium are mobile in rock. So if a rock has tiny cracks permitting gas to enter or escape or permitting the flow of water, the radiometric ages could be changed substantially even without the rock ever melting or mixing.
For example, suppose that 1/300,000 of the argon in a rock escapes in one day. Then in 1000 years the rock will have less than 1/(2.7) of its original argon. In 5000 years the rock will have less than 1/(2.7^5) of its original argon. Now, there is probably not much argon in a rock to start with. So the loss of a tiny amount of argon can have significant effects over long time periods. A loss of argon would make the rock look younger.
In a similar way, argon could enter the rock from the air or from surrounding rocks and make it look older. And this can also happen by water flowing through the rock through tiny cracks, dissolving parent and daughter elements. It would be difficult to measure the tiny changes in concentration that would suffice to make large changes in the radiometric ages over long time periods.
I also question the assertion that argon, for example, is excluded from certain minerals when they crystallize and never enters later on. Geologists often say that ages that are too old are due to excess argon. So it must be possible for that excess argon to get in, even though the crystal is supposed to exclude it. Here is one such reference, although this is to a mineral that does not exclude argon:
"As in all dating systems, the ages calculated can be affected by the presence of inherited daughter products. In a few cases, argon ages older than that of the Earth which violate local relative age patterns have even been determined for the mineral biotite. Such situations occur mainly where old rocks have been locally heated, which released argon-40 into pore spaces at the same time that new minerals grew. Under favourable circumstances the isochron method may be helpful, but tests by other techniques may be required. For example, the rubidium-strontium method would give a valid isotopic age of the biotite sample with inherited argon."
[from the Online Encyclopedia Britannica article, "Geochronology: The Interpretation and Dating of the Geologic Record, Potassium-argon methods."]
Another problem is that the crystal structure typically has imperfections and impurities. For example, different kinds of quartz have different colors due to various impurities that are included but not part of the repetitive unit of the quartz crystal. So even if the crystal excludes the daughter element, it could be present in impurities. Thus crystals, as they form, may have tiny imperfections that accept parent and daughter products in the same ratios as they occur in the lava, so one can inherit ages from the lava into minerals in this way. It is also possible that parent and daughter elements could be present in boundaries between regular crystal domains. I don't know how we can be sure that a crystal will exclude argon or other daughter substances except by growing it in the laboratory under many conditions.
There can also be argon or other daughter products added from the air or from other rocks. One could say that we can detect whether the daughter is embedded in the crystal structure or not. But this would require an atom by atom analysis, which I do not believe is practical.

Why K-Ar dating is inaccurate

Since K-Ar (potassium-argon) dating is one of the most prevalent techniques, some special commentary about it is in order. Potassium is about 2.5 percent of the earth's crust. About 1/10,000 of potassium is K40, which decays into Ar40 with a half-life of 1.3 billion years. Actually, only about 1/8 of the potassium 40 decays to argon, and the rest decays to calcium. Thus after n half-lives, (1/2)^n of the original potassium 40 will remain. Of the 1 - (1/2)^n which has decayed, about 7/8 will have decayed into calcium, and the remaining 1/8 will have decayed into argon 40. Argon is about 3.6 x 10 ^ -6 of the earth's crust. We can assume, then, that the magma is probably about 1/40 potassium and about 1/400,000 K40. After 570 million years, about 26 percent of this potassium will have decayed, so that there will be about 1/3 as much decay product as K40. About 1/8 of the decay product will be Argon 40, so there will be about 1/24 as much argon 40 as K40. Thus we should expect about 1/9,600,000 of a rock having an average concentration of potassium, to be argon, if the rock is really 570 million years old. This is about one ten millionth of the mass of the rock, a very tiny percentage. And yet, with a large amount of argon in the air and also filtering up from rocks below, and with excess argon in lava, with argon and potassium water soluble, and argon mobile in rock, we are still expecting this wisp of argon to tell us how old the rock is! The percentage of Ar40 is even less for younger rocks. For example, it would be about one in 100 million for rocks in the vicinity of 57 million years old.

To get one part in 10 million of argon in a rock in a thousand years, we would only need to get one part in 10 billion entering the rock each year. This would be less than one part in a trillion entering the rock each day, on the average. This would suffice to give a rock having an average concentration of potassium, a computed potassium-argon age of over 500 million years!
We can also consider the average abundance of argon in the crust. If we assume that a rock has 1/400,000 K40, that is, 2.5 x 10 ^ -6 K40, and 3.6 x 10 ^ -6 Ar40, then eight times this much K40 must have decayed, thus about 28.8 x 10 ^ -6 parts of K40 have decayed, so there is less than 1/10 of the original K40 left. This implies a radiometric age of over 4 billion years. So a rock can get a very old radiometric age just by having average amounts of potassium and argon. It seems reasonable to me that the large radiometric ages are simply a consequence of mixing, and not related to ages at all, at least not necessarily the ages of the rocks themselves. The fact that not all of the argon is retained would account for smaller amounts of argon near the surface, as I will explain below. This could happen because of properties of the magma chambers, or because of argon being given off by some rocks and absorbed by others.
I don't see how one can possibly know that there are no tiny cracks in rocks that would permit water and gas to circulate. The rates of exchange that would mess up the dates are very tiny. It seems to me to be a certainty that water and gas will enter rocks through tiny cracks and invalidate almost all radiometric ages.
Let me illustrate the circulation patterns of argon in the earth's crust. About 2.5 percent of the earth's crust is believed to be potassium, and about 1/10,000 of this is K40 which decays to Ar40 with a half life of 1.3 billion years. So argon is being produced throughout the earth's crust, and in the magma, all the time. In fact, it probably rises to the top of the magma, artificially increasing its concentration there. Now, some rocks in the crust are believed not to hold their argon, so this argon will enter the spaces between the rocks. Leaching also occurs, releasing argon from rocks. Heating of rocks can also release argon. Argon is released from lava as it cools, and probably filters up into the crust from the magma below, along with helium and other radioactive decay products.
All of this argon is being produced and entering the air and water in between the rocks, and gradually filtering up to the atmosphere. But we know that rocks absorb argon, because correction factors are applied for this when using K-Ar dating. So this argon that is being produced will leave some rocks and enter others. The partial pressure of argon should be largest deepest in the earth, and decrease towards the surface. This would result in larger K-Ar ages lower down, but lower ages nearer the surface.
As for K-Ar dating, here is a quote given above:
"As in all dating systems, the ages calculated can be affected by the presence of inherited daughter products. In a few cases, argon ages older than that of the Earth which violate local relative age patterns have even been determined for the mineral biotite. Such situations occur mainly where old rocks have been locally heated, which released argon-40 into pore spaces at the same time that new minerals grew. Under favourable circumstances the isochron method may be helpful, but tests by other techniques may be required. For example, the rubidium-strontium method would give a valid isotopic age of the biotite sample with inherited argon."
So this confirms that argon can travel from rock to rock when one rock is heated. Now, argon is very soluble in magma, which can hold a lot of it:
"Laboratory experiments have been conducted on the solubility of argon in synthetic basaltic melts and their associated minerals.31, 32 Minerals and melts were held near 13000C at one atmosphere pressure in a gas stream containing argon. After the material was quenched, the researchers measured up to 0.34 ppm 40Ar within synthetic olivine. They noted, 'The solubility of Ar in the minerals is surprisingly high'.33 Their conclusion is that argon is held primarily in lattice vacancy defects within the minerals."
I note that this concentration of argon, if it were retained in the rock, would suffice to give it a geological age well over 500 nillion years, assuming an average concentration of potassium. This is from a paper by Austin available at

This paper also discusses Mount St. Helens K-Ar dating, and historic lava flows and their excess argon.

So magma holds tremendous amounts of argon. Now, consider an intrusive flow, which cools within the earth. All its argon will either remain inside and give an old age to the flow, or will travel through surrounding rock, where it can be absorbed by other rocks. If one assumes that the amount of argon in the magma is consistent with an age of 4 billion years, then there should be about 7/8 as much argon 40 as potassium 40. For a rock 570 million years old, there should be about 1/24 as much argon as potassium 40. So magma should have at least 20 times as much argon as a rock 570 million years old by K-Ar dating. In fact, the argon in the magma may well be even higher, as it may concentrate near the top. This amount of argon is enough to raise 20 times the volume of magma to a K-Ar age of 570 million years, and probably 200 times the volume of the magam to an age of 57 million years. So one sees that there is a tremendous potential for age increases in this way. It is not necessary for this increase in age to happen all at once; many events of this nature can gradually increase the K-Ar ages of rocks. In general, older rocks should have more argon because they have been subject to more exposure to such argon, but their true age is not necessarily related to their K-Ar radiometric age.

We can also consider that most volcanoes and earthquakes occur at boundaries between plates, so if the lava has flowed before, it is likely to flow again nearby, gradually increasing the age. I suppose earthquakes could also allow the release of argon from the magma.
Other mechanisms include dissolving of rock, releasing its argon, fracturing of rock, with release of argon, argon from cooling lava under water entering the water and entering other rocks, and argon from cooling lave entering subterranean water and being transported to other rock. There are so many mechanisms that it is hard to know what pattern to expect, and one does not need to rely on any one of them (such as more argon in the magma in the past) to account for problems in K-Ar dating.
Since even rocks with old K-Ar dates still absorb more argon from the atmosphere in short time periods, it follows that rocks should absorb quite a bit of argon over long time periods, especially at higher pressures. In fact, if a rock can absorb only a ten millionth part of argon, that should be enough to raise its K-Ar age to over 570 million years, assuming an average amounts of potassium. It wouldn't require many internal cracks to allow a ten millionth part of argon to enter. Also, as the rock deforms under pressure, more cracks are likely to form and old ones are likely to close up, providing more opportunity for argon (and other gases) to enter.
I mentioned a number of possibilities that could cause K-Ar dates to be much older than the true ages of the rocks. Here is another way that K-Ar dates can be too old: If we assume the earth went through a catastrophe recently, then the crustal plates might have been agitated, permitting lava and argon to escape from the magma. Thus a lot of argon would be filtering up through the crust. As intrusive flows of lava cooled inside the crust, they would have been in an environment highly enriched in argon, and thus would not have gotten rid of much of their argon. Thus they would have hardened with a lot of argon inside. This would make them appear old. The same goes for extrusive flows on the surface, since argon would be filtering up through the earth and through the lava as it cooled.
The following was sent to me by a friend:
In areas where tremendous tectonic activity has taken place, highly discordant values for the ages are obtained. The difficulties associated are numerous and listed as follows:
1. There seems to be a great deal of question regarding the branching ratio for K40 into Ar40 and Ca40. The value that has been used for Ar40/Ca40 has varied from 0.12 to 0.08. But the value is not really known. The observed value is between 0.11 and 0.126, but in order to match K-Ar ages, which average somewhat higher [lower?] than the U-Th-Pb ages, to the latter ages, the value 0.08 is arbitrarily taken. However, this doesn't remedy the situation and the ages are still too high [low?]. The geochronologists credit this to "argon leakage".
2. There is far too much Ar40 in the earth for more than a small fraction of it to have been formed by radioactive decay of K40. This is true even if the earth really is 4.5 billion years old. In the atmosphere of the earth, Ar40 constitutes 99.6% of the total argon. This is around 100 times the amount that would be generated by radioactive decay over the age of 4.5 billion years. Certainly this is not produced by an influx from outer space. Thus, a large amount of Ar40 was present in the beginning. Since geochronologists assume that errors due to presence of initial Ar40 are small, their results are highly questionable.
3. Argon diffuses from mineral to mineral with great ease. It leaks out of rocks very readily and can move from down deep in the earth, where the pressure is large, and accumulate in an abnormally large amount in the surface where rock samples for dating are found. They would all have excess argon due to this movement. This makes them appear older. Rocks from deeper in the crust would show this to a lesser degree. Also, since some rocks hold the Ar40 stronger than others, some rocks will have a large apparent age, others smaller ages, though they may actually be the same age. If you were to measure Ar40 concentration as function of depth, you would no doubt find more of it near the surface than at deeper points because it migrates more easily from deep in the earth than it does from the earth into the atmosphere. It is easy to see how the huge ages are being obtained by the K40-Ar40 radiometric clock, since surface and near-surface samples will contain argon due to this diffusion effect.

Some geochronologists believe that a possible cause of excess argon is that argon diffuses into mineral progressively with time. Significant quantities of argon may be introduced into a mineral even at pressures as low as one bar.

If such [excessive] ages as mentioned above are obtained for pillow lavas, how are those from deep-sea drilling out in the Atlantic where sea-floor spreading is supposed to be occurring?
5. Potassium is found to be very mobile under leaching conditions. As much as 80% of the potassium in a small sample of an iron meteorite was removed by running distilled water over it for 4 and 1/2 hours. This could move the "ages" to tremendously high values. Ground-water and erosional water movements could produce this effect naturally.
6. Rocks in areas having a complex geological history have many large discordances. In a single rock there may be mutually contaminating, potassium- bearing minerals.
7. There is some difficulty in determining the decay constants for the K40-Ar40 system. Geochronologists use the branching ratio as a semi-emperical, adjustable constant which they manipulate instead of using an accurate half-life for K40.

A number of recent lava flows (within the past few hundred years) yield potassium-argon ages in the hundreds of thousands of years range. This indicates that some excess argon is present. Where is it coming from? And how do we know that it could not be a much larger quantity in other cases? If more excess argon were present, then we could get much older ages.

It is true that an age difference in the hundreds of thousands of years is much too small to account for the observed K-Ar ages. But excess argon is commonly invoked by geologists to explain dates that are too old, so I'm not inventing anything new. Second, there may have been a lot more more argon in the magma in the past, and with each eruption, the amount decreased. So there would have been a lot more excess argon in the past, leading to older ages.
For rocks that are being dated, contamination with atmospheric argon is a persistent problem that is mentioned a number of times. Thus it is clear that argon enters rock easily. It is claimed that we can know if a rock has added argon by its spectrum when heated; different temperatures yield different fractions of argon. It is claimed that the argon that enters from the atmosphere or other rocks, is less tightly bound to the crystal lattice, and will leave the rock at a lower temperature. But how do we know what happens over thousands of years? It could be that this argon which is initially loosely bound (if it is so initially) gradually becomes more tightly bound by random thermal vibrations, until it becomes undetectable by the spectrum technique. The fact that rock is often under high pressure might influence this process, as well.

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