Rocks Older Than
The Galaxy
By Paul
Nethercott
May
2012
How
reliable is radiometric dating? We are repeatedly told that it proves the Earth
to be billions of years old. If radiometric dating is reliable than it should
not contradict the evolutionary model. According to the Big Bang theory the age
of the Universe is 10 to 15 billion years.1 Standard evolutionist
publications give the age of
the universe as 13.75 Billion years. 2, 3
Standard
evolutionist geology views the Earth as being 4.5 billion years old. Here are
some quotes from popular text: “The age
of the Earth is 4.54
± 0.05 billion years.”
4 “The
Solar System, formed between 4.53 and 4.58 billion years ago.” 1 “The age of 4.54 billion years
found for the Solar System and Earth.” 1 “A
valid age for the Earth of 4.55 billion years.” 5, 6
Evolutionists
give the age of the galaxy as “11 to 13 billion years for the age of the Milky
Way Galaxy.” 1,
7 Let us remember this as we look at the following dating
as given in secular science journals.
Age Of Uranium
Mineralization
These rocks were
dated 8 in from the Gas
Hills in Wyoming were dated in 1979 using the Uranium-Lead method. The rock
sample GH-B1 was dated giving ages 9 between -1,240 and 12,000
million years old!
Table
1
Table
3 |
Table
4 |
Table
5 |
Million
Years |
Million
Years |
Million
Years |
11,780 |
7,232 |
5,060 |
-190 |
4,654 |
4,830 |
-200 |
4,355 |
-34 |
-220 |
3,540 |
-160 |
-310 |
-290 |
-240 |
-340 |
-340 |
-260 |
-420 |
-550 |
-500 |
-530 |
|
-610 |
-530 |
|
-650 |
-1,240 |
|
|
“These
systematics are similar to those observed by Ludwig for the Shirley Basin
uranium ores, for which preferential loss of radioactive daughters in the U
decay chain was shown to be the dominant cause of apparent-age
discordance.”
10
“The
trends of apparent age and discordance of the total ore, uraninite-coffinite,
and pyrite analyses for the Gas Hills and Crooks Gap ores are very similar to
those reported for the Shirley Basin uranium ores.”
11
Another group of
rock samples were dated 12 giving absurd values.
Many had negative ages! Some were older than the Solar System. How can Earth
rocks be older than the Solar System?
Table
2
Million
Years |
Million
Years |
7,323 |
-340 |
4,830 |
-500 |
5,060 |
-550 |
-240 |
-610 |
-290 |
-650 |
Table
3
Sample |
Maximum
Age |
Minimum
Age |
Difference |
Difference |
Name |
Million
Years |
Million
Years |
Million
Years |
Percentage |
CG-A4 |
7,323 |
-340 |
7,663 |
-2,253% |
CG-A5 |
4,654 |
-550 |
5,204 |
-946% |
CG-A1 |
4,355 |
-290 |
4,645 |
-1,601% |
A rock sample
number GH-A6 was dated 13 as being between 5,870 million and negative
650 million years old. Looking at positive dates above zero and ignoring
negative ages what do we find? The oldest is 5,870 million years old and the
youngest 13 is 8 million years old. One is 733 times older than the
other. Using a table 14 in the essay which has the
206Pb/204Pb and 207Pb/204Pb we can easily work out the
207Pb/206Pb ratios in the sample.
Table
4
Sample |
207Pb/206Pb |
207Pb/206Pb |
Number |
Ratio |
Million
Years |
GH-B3 |
0.462 |
4,123 |
GH-B3 |
0.480 |
4,181 |
GH-B6 |
0.316 |
3,549 |
GH-D2407 |
0.332 |
3,628 |
GH-D2407 |
0.413 |
3,958 |
GH-D2407 |
0.407 |
3,936 |
CG-A6 |
0.351 |
3,712 |
CG-A6 |
0.363 |
3,763 |
If we run the
207Pb/206Pb ratios through Isoplot 15 sample is
over 3,500 million years old. The dates are not put beside the ratios in the
original essay. The author states in the opening paragraph of his essay that the
rock formation is only “inclusion of
all samples increases the observed range to 12 to 41 million years.”
16 In the first paragraph he admits that the isotopic composition has
been contaminated over time producing anomalous dates. His choice of this narrow
range is purely guesswork. Looking at all the dates it is just random whichever
you pick.
African
Peridotite Xenoliths
These
kimberlites of southern Africa were dated in 1989 using Rhenium-Osmium dating
method. 17 Some of the ages 18 are older than the Solar
System and galaxy.
Table
5
5.6 |
Billion
Years |
12.6 |
Billion
Years |
If we insert the
Osmium ratios listed in article 19 into Microsoft Excel use
the dating formula listed in Gunter Faure’s book 20 we get the dates listed
in table 6.
Table
6
Average |
889 |
Maximum |
2,659 |
Minimum |
-3,309 |
Osmium/Osmium
dating
“TMA
varies from 0.11 to 5.7 Ga with three samples having Re/Os that is too high to
explain their measured 187Os/186Os.”
21
The Siberian
Craton
Xenoliths from
kimberlites intruding 22 the Siberian craton were dated in
1995 using the Re-Os, Sm-Nd, and Rb-Sr
dating methods. The results in Table 5 were acquired using Rubidium-Strontium
23 isotope dating as being between 5 and 13 billion
years old. The dates in Table 6 were obtained using Rhenium-Osmium 24 dating
method.
“If
Re/Os model ages are calculated using the conventional model age approach, i.e.,
using the measured Re/OS and osmium isotope composition in comparison to some
model for bulk-Earth osmium isotope evolution, several peridotites yield
negative ages, or ages that are considerably older than the Earth”
25
Table
7
5.45 |
Billion
Years |
6.24 |
Billion
Years |
12.71 |
Billion
Years |
Table
8
5.5 |
Billion
Years |
11.0 |
Billion
Years |
6.9 |
Billion
Years |
6.6 |
Billion
Years |
Table
9
Statistics |
Billion
Years |
Average |
-144,339 |
Maximum |
2,777 |
Minimum |
-1,584,857 |
Osmium/Osmium
Ratio Dating
History Of The
Acapulco Meteorite
This well known
meteorite was dated in 1997 by scientists 26 from France and Germany.
According to the dates in Table 7 given 27 below, the meteorite is
older than the galaxy. Even if we take into account the given uncertainty levels
listed is the essay, 26 the rocks could still be 8.6 billion years
old.
Table
10
Maximum
Age |
11,421 |
Million
Years |
Minimum
Age |
3,481 |
Million
Years |
Average
Age |
4,964 |
Million
Years |
Age
Difference |
7,940 |
Million
Years |
Difference |
328% |
Percent |
Standard
Deviation |
1,723 |
Million
Years |
Potassium/Argon
Dating of Iron Meteorites
The
Weekeroo Station iron meteorite was dated 28 in 1967 using the
Potassium-Argon dating method. The author of the article begins with the
following remarks:
“The
formation or solidification ages of iron meteorites have never been well
determined. The most direct method seems to be that of Stoenner and Zahringer,
who measured the potassium and argon contents by neutron-activation analysis.
Their data, however, indicated ages of from about 7 to 10 billion
years,
whereas the age of the solar system is generally well accepted at about 4.7
billion
years.
Fisher later confirmed these data, but concluded that they were evidence of an
unexplained potassium: argon anomaly rather than that they indicated true ages.
From Muller and Zahringer's more recent data they conclude that a
Potassium/Argon age of about 6.3 billion years can be assigned to many iron
meteorites.”
29
The
author of the article then concludes with the following
remarks:
“The ages found by us are typical of the great
ages found for most iron meteorites. From these, in conjunction with the
Strontium/Rubidium data of Wasserburg on silicate inclusions in this meteorite,
we conclude that the Potassium: Argon dating technique as applied to iron
meteorites gives unreliable results. One may derive ad hoc possible explanations
of the discord between the silicate and iron-phase ages, such as shock
emplacement of these inclusions within the metal matrix without disturbing the
potassium: argon ratios in the metal, but we feel that such mechanisms are
unlikely.” 30
The essay lists
a number of dates in the opening paragraph. The last four in table below are
taken from Table 1 in the original essay.
Table
11
Meteorite
Sample |
Billion
Years |
Stoenner
and Zahringer |
10.0 |
Stoenner
and Zahringer |
7.0 |
Muller
and Zahringer's |
6.3 |
Wasserburg,
Burnett |
4.7 |
K-1 |
8.5 |
K-2 |
9.3 |
B-1 |
6.5 |
G-1 |
10.4 |
Stabilisation
of Archaean Lithosphere
The
Rhenium-Osmium isotope method was used 31 to date these rocks in
1995. The data 32 in the
table below give absurd ages:
Table
12
Sample
Name |
Billion
Years |
PHN-2600 |
8.5 |
F-865 |
10.2 |
PHN-2825 |
15.6 |
PHN-5239 |
11.1 |
The author tries
to explain such dating errors: “For example, several of the peridotite Re/Os
model ages calculated using measured 187Re/188Os (TM, in Table 2) either give
geologically unreasonable ages or do not intersect the Bulk Earth evolution line
at all. Walker reasoned that the highly refractory compositions of Kaapvaal
peridotites could have led to complete removal of Re during formation.”
33
Pb Isotopic age
of the Allende Chondrules
Professor Yuri
Amelin from The Australian National University did the research in 2007. 34 More than ten dates are
older than the age of the Solar System. One is as old as the Galaxy. 35
Table
13
Million
Years |
Million
Years |
10,066 |
5,396 |
6,945 |
5,345 |
5,956 |
5,336 |
5,604 |
5,180 |
5,526 |
5,147 |
5,462 |
4,950 |
If we run some
of the isotopic ratios listed in the online supplement 36 through Isoplot we get
the following dates:
Table
14
238U/
206Pb |
207Pb/
235U |
208Pb/232Th |
10,066 |
5,731 |
5,947 |
6,945 |
5,202 |
5,920 |
5,956 |
4,956 |
5,860 |
5,604 |
4,864 |
5,735 |
5,526 |
4,832 |
5,636 |
5,462 |
4,826 |
5,335 |
5,396 |
4,807 |
5,265 |
Rhenium-187/Osmium-187
In Iron Meteorites
The
187Rhenium/187Osmium method and Potassium-Argon method
were used to date these meteorite 37 fragments in 1997. Four of the
dates were older than the Solar System and two were older than the Galaxy.
38
Table
15
Canyon
Diablo Meteorite |
Billion
Years |
Leach
Acetone |
5.73 |
Leach
H,O |
8.31 |
Troilite
dissolved |
10.43 |
Metal
1 |
13.7 |
Ar-39/Ar-40
Dating of Mesosiderites
Donald Bogard
from the Johnson Space Center in Houston, Texas performed this dating
36 in 1990 using the Argon dating method. The table below is a
summary from the appendix 37 in the original essay.
Three dates are as old or older than the Galaxy. Eleven are older than the Solar
System.
Table
16
Meteorite |
Maximum
Age |
Minimum
Age |
Age
Difference |
Name |
Billion
Years |
Billion
Years |
Billion
Years |
1.
Bondoc |
4.02 |
3.20 |
0.82 |
2.
Emery |
9.08 |
3.31 |
5.77 |
3.
Estherville |
13.96 |
3.18 |
10.78 |
4.
Hainholz |
5.48 |
1.55 |
3.93 |
5.
Lowicz |
9.93 |
2.92 |
7.01 |
6.
Morristown |
7.92 |
3.60 |
4.32 |
7.
Mount Padbury |
5.52 |
3.49 |
2.03 |
8.
Patwar Basalt |
6.14 |
1.80 |
4.34 |
9.
Patwar Gabbro |
8.43 |
2.67 |
5.76 |
10.
QUE-86900 |
10.92 |
3.24 |
7.68 |
11.
Simondium |
9.17 |
3.27 |
5.90 |
12.
Veramin |
13.13 |
2.71 |
10.42 |
40Ar-39Ar
Chronology
Ekaterina
V. Korochantseva from Heidelberg, Germany did this dating in 2009. 41 Below is a mathematical
summary of the appendix 42 given in the original magazine
article.
Table
17
Sample
Name |
Maximum
Age |
Minimum
Age |
Average
Age |
Age
Difference |
Table
A01. Dhofar 019 whole rock |
11,679 |
737 |
2,883 |
10,942 |
Table
A02. Dhofar 019 maskelynite |
10,521 |
818 |
2,674 |
9,703 |
Table
A03. Dhofar 019 pyroxene |
10,730 |
804 |
3,694 |
9,926 |
Table
A04. Dhofar 019 olivine |
10,487 |
1,778 |
4,549 |
8,709 |
Table
A05. Dhofar 019 opaque |
14,917 |
4,420 |
8,453 |
10,497 |
Table
A06. SaU 005 whole rock |
7,184 |
568 |
1,653 |
6,616 |
Table
A07. SaU 005 glass |
6,235 |
3,247 |
4,242 |
2,988 |
Table
A08. SaU 005 maskelynite |
7,432 |
1,344 |
3,899 |
6,088 |
Table
A10. SaU 005 olivine |
13,979 |
3,839 |
6,559 |
10,140 |
Table
A11. Shergotty whole rock |
8,542 |
1,112 |
2,995 |
7,430 |
Table
A15. Zagami whole rock |
6,064 |
94 |
2,276 |
5,970 |
Table
A16. Zagami maskelynite |
5,733 |
238 |
1,202 |
5,495 |
Table
A18. Zagami opaque |
7,707 |
290 |
1,525 |
7,417 |
Table
A9. SaU 005 pyroxene |
12,845 |
1,354 |
4,763 |
11,491 |
(Ages in million
so years)
In Table 18 we
can see below that 44 dates are older than the age of the Solar System and nine
are over ten billion years.
Table
18
Sample
Name |
Million
Years |
Sample
Name |
Million
Years |
Table
A05. Dhofar 019 |
14,917 |
Table
A02. Dhofar 019 |
7,233 |
Table
A09. SaU 005 |
13,979 |
Table
A06. SaU 005 |
7,184 |
Table
A18. Zagami |
12,845 |
Table
A02. Dhofar 019 |
7,168 |
Table
A01. Dhofar 019 |
11,679 |
Table
A03. Dhofar 019 |
6,857 |
Table
A03. Dhofar 019 |
10,730 |
Table
A09. SaU 005 |
6,680 |
Table
A02. Dhofar 019 |
10,521 |
Table
A05. Dhofar 019 |
6,482 |
Table
A04. Dhofar 019 |
10,487 |
Table
A04. Dhofar 019 |
6,451 |
Table
A02. Dhofar 019 |
10,322 |
Table
A07. SaU 005 |
6,235 |
Table
A03. Dhofar 019 |
10,142 |
Table
A07. SaU 005 |
6,192 |
Table
A05. Dhofar 019 |
9,669 |
Table
A14. Shergotty |
6,064 |
Table
A05. Dhofar 019 |
9,613 |
Table
A09. SaU 005 |
5,874 |
Table
A01. Dhofar 019 |
9,260 |
Table
A04. Dhofar 019 |
5,771 |
Table
A05. Dhofar 019 |
9,148 |
Table
A07. SaU 005 |
5,745 |
Table
A04. Dhofar 019 |
9,111 |
Table
A15. Zagami |
5,733 |
Table
A10. SaU 005 |
8,542 |
Table
A03. Dhofar 019 |
5,693 |
Table
A01. Dhofar 019 |
8,507 |
Table
A08. SaU 005 |
5,608 |
Table
A09. SaU 005 |
8,323 |
Table
A07. SaU 005 |
5,598 |
Table
A03. Dhofar 019 |
8,197 |
Table
A08. SaU 005 |
5,575 |
Table
A05. Dhofar 019 |
7,987 |
Table
A07. SaU 005 |
5,414 |
Table
A17. Zagami |
7,707 |
Table
A18. Zagami |
5,403 |
Table
A04. Dhofar 019 |
7,610 |
Table
A05. Dhofar 019 |
5,391 |
Table
A08. SaU 005 |
7,432 |
Table
A07. SaU 005 |
5,389 |
The
author explains the radically absurd ages as contamination: “The temperature extractions above 1380
°C
display apparent ages exceeding the age of the solar system that is indicative
of the presence of excess argon.” 43
Shocked
Meteorites: Argon-40/Argon-39
Joachim
Kunz
44 from the Max Plank Institute in Heidelberg, Germany did this
dating in 2009 using the
Argon-40/Argon-39 dating method. If we
look at the appendix 45 at the end of his article we find many
dates older than the Solar Stem and Galaxy.
Table
19
Sample
Name |
Million
Years |
F.
Yanzhuang. Host rock |
5,598 |
G.
Yanzhuang. Melt fragment |
10,217 |
5,423 | |
5,503 | |
H.
Yanzhuang. Melt vein |
7,016 |
J.
Bluff. Host rock |
13,348 |
10,938 | |
6,272 | |
N.
Ness County. Host rock #1 |
5,052 |
O.
Ness County. Host rock #2 |
6,668 |
5,576 | |
Q.
Paranaiba. Host rock #2 |
5,593 |
V.
Beeler. Host rock #1 |
6,466 |
W.
Beeler. Host rock #2 |
6,609 |
Potassium-Argon Age Of Iron
Meteorites
This dating
46 was done in 1958. Even dating done fifty years later is giving
dates just as absurd. The opening paragraph of the article
states:
“Under the usual
assumptions accepted for this method, ages have been calculated and found to be
close to 10 billion years, which is about twice
the reported age of stone meteorites, and also higher than the supposed age of
the universe.” 47 The data in Table 16 below was taken from the data
in 48 the original
essay.
Table
20
Meteorite |
Age |
K-Ar
Dating |
Billion
Years |
Mt.
Ayliff |
6.9 |
Arispe |
6.8 |
H.
H. Ninninger |
6.9 |
Carbo |
8.4 |
Canon
Diablo I |
8.5 |
Canon
Diablo I |
6.9 |
Canon
Diablo I |
6.6 |
Canon
Diablo I |
5.3 |
Canon
Diablo II |
13 |
Canon
Diablo II |
11 |
Canon
Diablo II |
10.5 |
Canon
Diablo II |
12 |
Toluca
I |
5.9 |
Toluca
I |
7.1 |
Toluca
II |
10 |
Toluca
II |
10.8 |
Toluca
II |
8.8 |
The Allende and
Orgueil Chondrites
This dating was
done in 1976 by scientists 49 from the United States Geological
Survey, Denver, Colorado. The data in Table 17 below was taken from Pb-206/U-238
and Pb-208/Th-232 dating 50 summary in the original essay. Thirty one
of the dates below are older than the age of the Solar System. Four are over ten
billion years. One date is older than the Big Bang explosion
date.
Table
21
Pb-206/U-238 |
Pb-208/Th-232 |
Billion
Years |
Billion
Years |
9.86 |
16.49 |
8.95 |
14.4 |
8.82 |
11.7
|
7.82 |
10.40 |
7.80 |
10.40
|
7.75 |
10.1 |
6.66 |
9.86 |
6.50 |
9.55
|
6.50 |
9.15 |
6.44 |
7.52 |
6.42 |
6.99 |
6.35 |
6.40 |
6.33 |
5.44 |
6.05 |
5.35 |
5.73 |
5.15 |
5.73 |
4.81 |
Ultra-high
Excess Argon in Kyanites
These rocks from
Japan were dated in 2005 using 51 the Argon 40 isotope
method. The opening paragraph of this article states:
“A laser fusion
Ar-Ar technique applied on single crystals of kyanite from river sands of the
Kitakami Mountain region of northeast Japan yielded ages of up to 16 Ga, more
than three times the age of the earth. Although the age values are geologically
meaningless, the ultra-high excess argon in kyanites is unique and hitherto
unreported. We interpret this to be an artifact of ultra-high argon pressure
derived from radiogenic argon in potassium-rich phases such as phengites during
the Barrovian type retrogression of the ultra-high pressure rocks in this
region.” 52
“In this study,
we report the results from fusion Ar-Ar technique on single crystals of kyanite
recovered from river sands in the Kitakami region. However, the kyanites yielded
ages that are two to three times older than the age of the earth.”
52
Table
22
Sample |
Billion
Years |
Ky6 |
7.7 |
Ky7 |
11.1 |
Ky8 |
15.1 |
Ky9 |
9.9 |
Ky11 |
16.3 |
Ky13 |
11.1 |
Conclusion
Prominent
evolutionist Brent Dalrymple states:
“Several events in the formation of the Solar System can be dated with
considerable precision.” 53
Looking at some
of the dating it is obvious that precision is much lacking. He then goes
on: “Biblical chronologies are
historically important, but their credibility began to erode in the eighteenth
and nineteenth centuries when it became apparent to some that it would be more
profitable to seek a realistic age for the Earth through observation of nature
than through a literal interpretation of parables.” 54
The Bible
believer who accepts the creation account literally has no problem with such
unreliable dating methods. Much of the data in Dalrymple’s book is selectively
taken to suit and ignores data to the contrary.
References
1
http://web.archive.org/web/20051223072700/http://pubs.usgs.gov/gip/geotime/age.html
The
age of 10 to 15 billion years for the age of the
Universe.
2
http://en.wikipedia.org/wiki/Age_of_the_universe
3
http://arxiv.org/pdf/1001.4744v1.pdf
Microwave
Anisotropy Probe Observations, Page 39, By N. Jarosik
4
http://en.wikipedia.org/wiki/Age_of_the_Earth
5
http://sp.lyellcollection.org/content/190/1/205
The age of the
Earth, G. Brent Dalrymple
Geological
Society, London, Special Publications, January 1, 2001, Volume 190, Pages
205-221
6
The age of the earth, Gérard Manhes
Earth and
Planetary Science Letters, Volume 47, Issue 3, May 1980, Pages
370–382
7
http://arxiv.org/pdf/astro-ph/0506458v1.pdf
The age of the
Galactic disk, By E. F. del Peloso
and L. da Silva
Astronomy &
Astrophysics, Manuscript no. 3307, February 2, 2008
8
Kenneth R. Ludwig, Age Of Uranium Mineralization, Economic Geology, 1979,
Volume 74,
Pages 1654 –
1668
9
Reference 8, Page 1661
10
Reference 8, Page 1658
11
Reference 8, Page 1664
12
Reference 8, Page 1662
13
Reference 8, Page 1663
14
Reference 8, Page 1658
15
http://www.bgc.org/isoplot_etc/isoplot.html
16
Reference 8, Page 1654
17
R. J. Walker, African Peridotite Xenoliths, Geochimica et Cosmochimica
Acta, 1989, Volume 53,
Page 1583-1595
18
Reference 17, Page 1591
19
Reference 17, Page 1588
20
Principles Of Isotopic Geology, Gunter Faure, John Wiley Publishers, New
York, 1986, Page 269
21
Reference 16, Page 1590
22
D. G. Pearson, The Siberian Craton, Geochimica et Cosmochimica Acta,
1995, Volume 59, Number 5, Page 959-977
23
Reference 22, Page 970
24
Reference 22, Page 971
25
Reference 22, Page 968
26
Paul Pellas, History Of The Acapulco Meteorite, Geochemica Et
Cosmochemica Acta, 1997,
Volume 61,
Number 16, pp. 3477 – 3501
27
Reference 26, Page 3500
28
L. Rancitelli, Potassium: Argon Dating of Iron Meteorites, Science, 1967,
Volume 155,
Pages 999 -
1000
29
Reference 28, Page 999
30
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