Yes. We've seen this. In fact, we've all seen literally hundreds of special-pleading, question-begging, appeals to ignorance just like this "digital code" you persist in peddling--only many of those others didn't add
equivocation to the list of their fallacious strategies.
Not that there's any chance at all that you're going to link rather than rationalize some excuse for not linking--Please link to this evidence you posted that is NOT a special-pleading, question-begging, appeals to ignorance.
Guess we can add this link to your repertoire in addition to Thesaurus.com:
Fallacies*[Internet Encyclopedia of Philosophy]
The other folks may not have an understanding of fallacies, but I can read. Please tell me what part of the Meyer argument is begging the question???
Begging the Question
A form of circular reasoning in which a conclusion is derived from premises that presuppose the conclusion. Normally, the point of good reasoning is to start out at one place and end up somewhere new, namely having reached the goal of increasing the degree of reasonable belief in the conclusion. The point is to make progress, but in cases of begging the question there is no progress.
Example:
“Women have rights,” said the Bullfighters Association president. “But women shouldn’t fight bulls because a bullfighter is and should be a man.”
The president is saying basically that women shouldnÂ’t fight bulls because women shouldnÂ’t fight bulls. This reasoning isnÂ’t making any progress.
I will go back and bold the actual use of the fallacy in the article I posted above.
So let me get this straight, you're saying dna is not a quaternary digital code???
It's quaternary, it's digital, it's not:
- "A system of words, letters, figures, or other symbols used to represent others, esp. for the purposes of secrecy";
- "a system for communication by telegraph, heliograph, etc., in which long and short sounds, light flashes, etc., are used to symbolize the content of a message";
- "a system used for brevity or secrecy of communication, in which arbitrarily chosen words, letters, or symbols are assigned definite meanings."
- "A system of signals used to represent letters or numbers in transmitting messages."
- "A system of symbols, letters, or words given certain arbitrary meanings, used for transmitting messages requiring secrecy or brevity."
- "A system of symbols and rules used to represent instructions to a computer;"
- "a system of letters or symbols, and rules for their association by means of which information can be represented or communicated for reasons of secrecy, brevity, etc.;"
- "a system of letters or digits used for identification or selection purposes;"
- "a system of words, letters, figures, or symbols used to represent others, especially for the purposes of secrecy;"
- "a phrase or concept used to represent another in an indirect way;"
- "a series of letters, numbers, or symbols assigned to something for the purposes of classification or identification;"
- "Computing program instructions;"
It is
NOT a code in the equivocating manner in which you intend to use it.
It is the sequence of nucleotides in DNA or RNA that determines the specific amino acid sequence in the synthesis of proteins.
DNA is a molecule. It can be used for computing in a DNA computer, but that's not the same function it has in organisms. It is question-begging to assert "code" in the manner of "a system of letters or digits used for identification or selection purposes"--which presumes a coder--in order to claim "the sequence of nucleotides in DNA or RNA that determines the specific amino acid sequence in the synthesis of proteins" is validly evidence for your "coder."
Genetic code - Wikipedia, the free encyclopedia
The genetic
code is the set of rules by which information encoded in genetic material (DNA or mRNA sequences) is translated into proteins (amino acid sequences) by living cells.
The
code defines how sequences of three nucleotides, called codons, specify which amino acid will be added next during protein synthesis. With some exceptions,[1] a three-nucleotide codon in a nucleic acid sequence specifies a single amino acid. Because the vast majority of genes are encoded with exactly the same
code (see the RNA codon table), this particular code is often referred to as the canonical or standard genetic code, or simply the genetic
code, though in fact some variant
codes have evolved. For example, protein synthesis in human mitochondria relies on a genetic
code that differs from the standard genetic code.
Not all genetic information is stored using the genetic
code. All organisms' DNA contains regulatory sequences, intergenic segments, chromosomal structural areas, and other
non-coding DNA that can contribute greatly to phenotype. Those elements operate under sets of rules that are distinct from the codon-to-amino acid paradigm underlying the genetic
code.
Transfer of information via the genetic code
The genome of an organism is inscribed in DNA, or, in the case of some viruses, RNA. The portion of the genome that codes for a protein or an RNA is called a gene. Those genes that code for proteins are composed of tri-nucleotide units called codons, each coding for a single amino acid. Each nucleotide sub-unit consists of a phosphate, a deoxyribose sugar, and one of the four nitrogenous nucleobases. The purine bases adenine (A) and guanine (G) are larger and consist of two aromatic rings. The pyrimidine bases cytosine (C) and thymine (T) are smaller and consist of only one aromatic ring. In the double-helix configuration, two strands of DNA are joined to each other by hydrogen bonds in an arrangement known as base pairing. These bonds almost always form between an adenine base on one strand and a thymine base on the other strand, or between a cytosine base on one strand and a guanine base on the other. This means that the number of A and T bases will be the same in a given double helix, as will the number of G and C bases.[25]:102–117 In RNA, thymine (T) is replaced by uracil (U), and the deoxyribose is substituted by ribose.[25]:127
Each protein-coding gene is transcribed into a molecule of the related RNA polymer. In prokaryotes, this RNA functions as messenger RNA or mRNA; in eukaryotes, the transcript needs to be processed to produce a mature mRNA. The mRNA is, in turn, translated on a ribosome into a chain of amino acids otherwise known as a polypeptide.[25]:Chp 12 The process of translation requires transfer RNAs which are covalently attached to a specific amino acid, guanosine triphosphate as an energy source, and a number of translation factors. tRNAs have anticodons complementary to the codons in an mRNA and can be covalently "charged" with specific amino acids at their 3' terminal CCA ends by enzymes known as aminoacyl tRNA synthetases, which have high specificity for both their cognate amino acid and tRNA. The high specificity of these enzymes is a major reason why the fidelity of protein translation is maintained.[25]:464–469
There are 4³ = 64 different codon combinations possible with a triplet codon of three nucleotides; all 64 codons are assigned to either an amino acid or a stop signal. If, for example, an RNA sequence UUUAAACCC is considered and the reading frame starts with the first U (by convention, 5' to 3'), there are three codons, namely, UUU, AAA, and CCC, each of which specifies one amino acid. Therefore, this 9 base RNA sequence will be translated into an amino acid sequence that is three amino acids long.[25]:521–539 A given amino acid may be encoded by between one and six different codon sequences. A comparison may be made using bioinformatics tools wherein the codon is similar to a word, which is the standard data "chunk" and a nucleotide is similar to a bit, in that it is the smallest unit. This allows for powerful comparisons across species as well as within organisms.
The standard genetic code is shown in the following tables. Table 1 shows which amino acid each of the 64 codons specifies. Table 2 shows which codons specify each of the 20 standard amino acids involved in translation. These are called forward and reverse codon tables, respectively. For example, the codon "AAU" represents the amino acid asparagine, and "UGU" and "UGC" represent cysteine (standard three-letter designations, Asn and Cys, respectively).[25]:522"
I think you are being quite silly in your assertion that human language is even anywhere near being on the same level as digital code contained in dna, that once
transmitted, and
decoded, can turn 2-cells into a living, breathing, conscious, human being.