Intelligent Design

UCEs: See Something—Say Something

Spread the love

Although it may seem that genomes would be made up of genes, in many higher species genes constitute only a small fraction of the DNA. The remainder of the genome is full of various elements and segments, some of which seem to be of little functional importance.  Read more

One Reply to “UCEs: See Something—Say Something

  1. 1
    bornagain77 says:

    OT: Alternative Splicing patterns appear to be ‘species specific’:

    ,,,Alternative splicing,,, may contribute to species differences – December 21, 2012
    Excerpt: After analyzing vast amounts of genetic data, the researchers found that the same genes are expressed in the same tissue types, such as liver or heart, across mammalian species. However, alternative splicing patterns—which determine the segments of those genes included or excluded—vary from species to species.,,,
    The results from the alternative splicing pattern comparison were very different. Instead of clustering by tissue, the patterns clustered mostly by species. “Different tissues from the cow look more like the other cow tissues, in terms of splicing, than they do like the corresponding tissue in mouse or rat or rhesus,” Burge says. Because splicing patterns are more specific to each species, it appears that splicing may contribute preferentially to differences between those species, Burge says….
    Excerpt of Abstract: To assess tissue-specific transcriptome variation across mammals, we sequenced complementary DNA from nine tissues from four mammals and one bird in biological triplicate, at unprecedented depth. We find that while tissue-specific gene expression programs are largely conserved, alternative splicing is well conserved in only a subset of tissues and is frequently lineage-specific. Thousands of previously unknown, lineage-specific, and conserved alternative exons were identified;


    This following study, which discovered that there actually is a “splicing code” on top of the genetic code, should have, by all reasonable accounts, just because of the sheer complexity of finding coding on top of coding, stopped neo-Darwinian evolution dead in its tracks.

    Breakthrough: Second Genetic Code Revealed – May 2010
    Excerpt: The paper is a triumph of information science that sounds reminiscent of the days of the World War II codebreakers. Their methods included algebra, geometry, probability theory, vector calculus, information theory, code optimization, and other advanced methods. One thing they had no need of was evolutionary theory,,,

    Researchers Crack ‘Splicing Code,’ Solve a Mystery Underlying Biological Complexity
    Excerpt: “For example, three neurexin genes can generate over 3,000 genetic messages that help control the wiring of the brain,” says Frey. “Previously, researchers couldn’t predict how the genetic messages would be rearranged, or spliced, within a living cell,” Frey said. “The splicing code that we discovered has been successfully used to predict how thousands of genetic messages are rearranged differently in many different tissues.

    The trouble for neo-Darwinism with finding the alternative splicing patterns to be ‘species specific’ is because random changes in regulatory ‘coding patterns’ are going to be far more sensitive and detrimental to ‘random’ changes than random mutations to the genes of an organism are. Richard Dawkins elaborates on why the genetic code is intolerant to random change here:

    Venter vs. Dawkins on the Tree of Life – and Another Dawkins Whopper – March 2011
    Excerpt:,,, But first, let’s look at the reason Dawkins gives for why the code must be universal:
    “The reason is interesting. Any mutation in the genetic code itself (as opposed to mutations in the genes that it encodes) would have an instantly catastrophic effect, not just in one place but throughout the whole organism. If any word in the 64-word dictionary changed its meaning, so that it came to specify a different amino acid, just about every protein in the body would instantaneously change, probably in many places along its length. Unlike an ordinary mutation…this would spell disaster.” (2009, p. 409-10)
    OK. Keep Dawkins’ claim of universality in mind, along with his argument for why the code must be universal, and then go here (linked site listing 23 variants of the genetic code).
    Simple counting question: does “one or two” equal 23? That’s the number of known variant genetic codes compiled by the National Center for Biotechnology Information. By any measure, Dawkins is off by an order of magnitude, times a factor of two.

    “Because of Shannon channel capacity that previous (first) codon alphabet had to be at least as complex as the current codon alphabet (DNA code), otherwise transferring the information from the simpler alphabet into the current alphabet would have been mathematically impossible”
    Donald E. Johnson – Bioinformatics: The Information in Life

    Shannon Information – Channel Capacity – Perry Marshall – video

    “A code system is always the result of a mental process (it requires an intelligent origin or inventor). It should be emphasized that matter as such is unable to generate any code. All experiences indicate that a thinking being voluntarily exercising his own free will, cognition, and creativity, is required. ,,,there is no known law of nature and no known sequence of events which can cause information to originate by itself in matter. Werner Gitt 1997 In The Beginning Was Information pp. 64-67, 79, 107.”
    (The retired Dr Gitt was a director and professor at the German Federal Institute of Physics and Technology (Physikalisch-Technische Bundesanstalt, Braunschweig), the Head of the Department of Information Technology.)

    “Our experience-based knowledge of information-flow confirms that systems with large amounts of specified complexity (especially codes and languages) invariably originate from an intelligent source — from a mind or personal agent.” (Stephen C. Meyer, “The origin of biological information and the higher taxonomic categories,” Proceedings of the Biological Society of Washington, 117(2):213-239 (2004).)

Leave a Reply