Eugene Shubert
Valued Senior Member
For those not so frightened of learning something, the title Sanford's Genomic Degeneration Theorem is a link.No link no go
For those not so frightened of learning something, the title Sanford's Genomic Degeneration Theorem is a link.No link no go
For those not so frightened of learning something, the words Sanford's Genomic Degeneration Theorem is a link.
Your priest told you to believe that, so you do. You have entrusted your salvation to him.Sanford's theorizing conflicts with observation and evidence, research and reasoning,
In science, a probability of measure zero means impossible.No. For mathematicians, probability theory has a precise set-theoretic formulation.
That theorem is in conflict with the findings of research and observation.For those not so frightened of learning something, the title Sanford's Genomic Degeneration Theorem is a link.
Find some mathematicians you trust and ask them.In science, a probability of measure zero means impossible.
And the assumption that an evolutionary change of X -> Y has the same probability as Y -> X is ridiculous.
That theorem is in conflict with the findings of research and observation.
And the assumption that an evolutionary change of X -> Y has the same probability as Y -> X is ridiculous.
Like I said - all you need is a high school intro text in "Probability and Statistics". It will have a picture of a Galton Machine, for you to ponder. I linked one for you, on Wiki.Find some mathematicians you trust and ask them.
That's not the case, in physical reality, for evolutionary processes.Consequently, what is the probability for each specific error and what is the probability for each error to be undone? All I know is that if a transposition takes place with probability p, then the reverse transposition to fix that error also has a probability of p of happening.
Likewise, if an inversion takes place with probability q, then the probability to invert that inversion is also of probability q.Axiom 3: "The DNA copying process is imperfect; there are random, frequently occurring single-character misspellings, deletions, insertions, duplications, translocations and inversions."
Consequently, what is the probability for each specific error and what is the probability for each error to be undone? All I know is that if a transposition takes place with probability p, then the reverse transposition to fix that error also has a probability of p of happening.
Consequently, what is the probability for each specific error and what is the probability for each error to be undone? All I know is that if a transposition takes place with probability p, then the reverse transposition to fix that error also has a probability of p of happening.
That's not true of evolutionary processes in physical reality. Your model is in conflict with research findings and observation. Change your model, or discard it.Likewise, if an inversion takes place with probability q, then the probability to invert that inversion is also of probability q.
That's not true either - the basics of probability are best illustrated with simple models like that, and models of mutation frequency etc incorporate probabilities.A Galton Machine has nothing to do with mutations.
Given a string of n distinct characters, then the number of possible transpositions is exactly n(n-1)/2.The probability of any particular transposition taking place is UNKNOWN and UNKNOWABLE
In general, DNA polymerases are highly accurate, with an intrinsic error rate of less than one mistake for every 107 nucleotides added.[7] In addition, some DNA polymerases also have proofreading ability; they can remove nucleotides from the end of a growing strand in order to correct mismatched bases. Finally, post-replication mismatch repair mechanisms monitor the DNA for errors, being capable of distinguishing mismatches in the newly synthesized DNA strand from the original strand sequence. Together, these three discrimination steps enable replication fidelity of less than one mistake for every 109 nucleotides added.[7] (wikipedia)Axiom 3: "The DNA copying process is imperfect; there are random, frequently occurring single-character misspellings, deletions, insertions, duplications, translocations and inversions."
Consequently, what is the probability for each specific error and what is the probability for each error to be undone? All I know is that if a transposition takes place with probability p, then the reverse transposition to fix that error also has a probability of p of happening.
Toy models are just the playthings of mathematicians. Again, start with a string of n distinct characters and derive the formula for the number of possible inversions. Assign the same probability for each inversion. Do the math.That's not true of evolutionary processes in physical reality. Your model is in conflict with research findings and observation.
Is that real math or creationist math?Toy models are just the playthings of mathematicians. Again, start with a string of n distinct characters and derive the formula for the number of possible inversions. Assign the same probability for each inversion. Do the math.
Thank you for getting this show back on the road with some proper science, rather than puerile arguments based on a 5th former's grasp of probability.In general, DNA polymerases are highly accurate, with an intrinsic error rate of less than one mistake for every 107 nucleotides added.[7] In addition, some DNA polymerases also have proofreading ability; they can remove nucleotides from the end of a growing strand in order to correct mismatched bases. Finally, post-replication mismatch repair mechanisms monitor the DNA for errors, being capable of distinguishing mismatches in the newly synthesized DNA strand from the original strand sequence. Together, these three discrimination steps enable replication fidelity of less than one mistake for every 109 nucleotides added.[7] (wikipedia)
Axiom 4 of Sanford's Genomic Degeneration Theorem affirms that "The number of DNA copying errors has been measured to be between 100 and 200 per person per generation." Isn't that right?Together, these three discrimination steps enable replication fidelity of less than one mistake for every 109 nucleotides added.[7] (wikipedia)
That is correct - and is one of the reasons we know we share an ancestor with bananas.Axiom 4 of Sanford's Genomic Degeneration Theorem affirms that "The number of DNA copying errors has been measured to be between 100 and 200 per person per generation." Isn't that right?