If genetic entropy is true, why do bacteria still exist?

by Robert Carter


Genetic entropy (GE) is eroding the genomes of all living organisms because mutations are inherited from one generation to the next. Many people wonder why, if GE is real, are bacteria still alive today? There are multiple reasons for this, including the fact that their genomes are simpler, they have high population sizes and short generation times, and they have lower overall mutation rates. This combination makes them the most resistant to extinction. Of all the forms of life on Earth, bacteria are the best candidates for surviving the effects of GE over the long term. This does not mean they can do so forever, but it explains why they are still around today.

What is genetic entropy?

After the landmark publication of Genetic Entropy and the Mystery of the Genome by Cornell University Professor Dr John Sanford, we have often been asked to supply further details of this major challenge to evolutionary theory. The central part of Sanford’s argument is that mutations (spelling mistakes in DNA) are accumulating so quickly in some creatures (particularly people) that natural selection cannot stop the functional degradation of the genome—let alone drive an evolutionary process that can turn apes into people.

A simple analogy would be rust slowly spreading throughout a car over time. Each little bit of rust (akin to a single mutation in an organism) is almost inconsequential on its own, but if the rusting process cannot be stopped it will eventually destroy the car. A more accurate analogy would be to imagine a copy of Encyclopedia Britannica on a computer that has a virus that randomly swaps, switches, deletes, and inverts letters over time. For a while there would be almost no noticeable effect, but over time the text would contain more and more errors, until it became meaningless gibberish. In biological terms, ‘mutational meltdown’ would have occurred….

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