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 Earth25

 

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           Reference 28, Page 1000

 

31           D. G. Pearson, Stabilisation of Archaean lithosphere, Earth and Planetary Science Letters, 1995,

Volume 134, Pages 341-357

 

32           Reference 31, Page 344

 

33           Reference 31, Page 348

 

34           Yuri Amelin, Pb isotopic age of the Allende chondrules, Meteoritics And Planetary Science, 2007,

Volume 42, Numbers 7/8, Pages 1321 – 1335

 

35           Reference 34, Page 1324

 

36           http://onlinelibrary.wiley.com/doi/10.1111/j.1945-5100.2007.tb00577.x/suppinfo

 

37           J. L. Birck, Rhenium-187/Osmium-187 in iron meteorites, Meteoritics And Planetary Science, 1998, Volume 33, Pages 641-453

 

38           Reference 37, Page 649

 

39           D. D. Bogard, Ar-39/Ar-40 Dating of Mesosiderites, Geochemica Et Cosmochemica Acta, 1990, Volume 54, Pages 2549 – 2564

 

40           Reference 39, Page 2563, 2564

 

41           Ekaterina V. Korochantseva, 40Ar-39Ar Chronology, Meteoritics And Planetary Science, 2009, Volume 44, Number 2, Pages 293-321

 

42           Reference 41, Pages 316-321

 

43           Reference 41, Page 298

 

44           Joachim Kunz, Shocked meteorites: Argon-40/Argon-39, Meteoritics And Planetary Science, 1997, Volume 32, Pages 647 – 670

 

45           Reference 44, Pages 664-670

 

46           R. W. Stoenner, Potassium/Argon age of iron meteorites, Geochemica Et Cosmochemica Acta, 1958, Volume 15, Pages 40-50

 

47           Reference 46, Page 40

 

48           Reference 46, Pages 45, 46

 

49           Mitsunobu Tatsumoto, The Allende and Orgueil Chondrites , Geochemica Et Cosmochemica Acta, 1976, Volume 40, pages 617 – 634

 

50           Reference 49, Page 627

 

51           T. Itaya, Ultra-high Excess Argon in Kyanites, Gondwana Research, 2005, Volume 8, Number 4,

Pages 617-621

 

52           Reference 51, Page 617

 

53           The Age Of The Earth, By G. Brent Dalrymple, 1991, Stanford University Press,

Stanford, California, Page 10.

 

54           Reference 53, Page 23

 

 

 

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