Evidence for a Young Earth – Biology – Biologic Quick Decay
Table of Contents
Bio Matter Decays too Quick
According to Biologists, DNA cannot exist in any ‘natural environment’ for more than approx. 10,000 years.
‘Natural environment’ defined as ‘any area that is not an isolated, self-contained systems that would prevent bio-decay.’
Geneticists and Biologists are continually baffled by continual finds of intact DNA found in fossilized remains of creatures though to be existence for up to 250 million years or more.
Rate of Bio Matter Decay
There are many different methods in which all bio mater decays:
- Natural radioactivity,
- Mutations,
- Enzymes,
- Microbial & bacteria,
- Structural/ molecular breakdown, and
- Natural decay
All contribute to an increasingly rapid breakdown of all DNA and other biological material.
Measurements of the mutation rate of mitochondrial DNA recently forced researchers to revise the age of “mitochondrial Eve” from a theorized 200,000 years down to possibly as low as 6,000 years. DNA experts insist that DNA cannot exist in natural environments longer than 10,000 years, yet intact strands of DNA appear to have been recovered from fossils ‘allegedly’ much older:
- Neanderthal bones
- Insects in amber
- Dinosaur fossils
- Bacteria allegedly 250 million years old apparently have been revived with no DNA damage.
- Soft tissue and blood cells from a dinosaur (T-rex’s and others) have astonished experts.
Geneticists inform us that in order to keep DNA intact for only a few years, it has to be preserved in alcohol, in a tightly sealed container, and even that could breakdown if there are enzymes present or if the container is shaken around too harshly.
With current evidence, it seems highly improbable that anything could be over a few millennial old and still have intact DNA, yet the findings are everywhere.
References
Institute for Creation Research – Bio Matter Decays too Quickly
Gibbons A., Calibrating the mitochondrial clock, Science 279:28-29 (2 Jan-uary 1998).
Cherfas, J., Ancient DNA: still busy after death, Science 253:1354-1356 (20 September 1991). Cano, R. J., H. N. Poinar, N. J. Pieniazek, A. Acra, and G. O. Poinar, Jr. Amplification and sequencing of DNA from a 120-135-million-year-old weevil, Nature 363:536-8 (10 June 1993). Krings, M., A. Stone, R. W. Schmitz, H. Krainitzki, M. Stoneking, and S. Pääbo, Neandertal DNA sequences and the origin of modern humans, Cell 90:19-30 (Jul 11, 1997). Lindahl, T, Unlocking nature’s ancient secrets, Nature 413:358-359 (27 September 2001).
Vreeland, R. H.,W. D. Rosenzweig, and D. W. Powers, Isolation of a 250 million-year-old halotolerant bacterium from a primary salt crystal, Nature 407:897-900 (19 October 2000).
Schweitzer, M., J. L. Wittmeyer, J. R. Horner, and J. K. Toporski, Soft-Tissue vessels and cellular preservation in Tyrannosaurus rex, Science 207:1952-1955 (25 March 2005).