• The blunted reach of natural selection?

    From MarkE@21:1/5 to All on Thu Oct 12 03:03:41 2023
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.

    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS. Look at it this way: before the evolution of topoisomerase, cells with DNA sequences approaching the threshold of requiring topoisomerase Untangle Assist [TM] would usually
    successfully translate DNA, but would sometimes tangle and die.

    Problem 1. That doesn’t leave NS anything to work with.

    Problem 2. Irreducible complexity, it would appear? A partly evolved topoisomerase cannot untangle DNA and confer the selectable advantage described. Exaptation? If so, of what, and regardless, you still need an extended sequence of selectable steps to
    co-opt/adapt/build/tune that new and precise machine of 765 amino acids [1].

    Problem 3. Multiple phenotypic traits would tend to overwhelm the blunt and binary selection action on any tentative steps in topoisomerase evolution.

    A prediction of this analysis would be that evolution of core cellular machinery must have been largely complete very early on, and certainly before complex multicellular life, which would amplify Problem 3.

    -----

    [1] TOPOISOMERASE II OPERATION

    Replication or transcription of DNA stresses the macromolecule, resulting in supercoiling. Topoisomerase II relieves the stress by reducing the number of supercoils. The enzyme is composed of two identical halves that combine to form three gates that
    open and close in a precise order. It performs a series of steps that can best be described, based on the latest research, as follows:

    1. One DNA segment enters the upper gate and then binds to the middle gate. A second strand enters the top gate. The middle and lower gates are initially closed.

    2. The middle gate cuts the first strand in two. Two ATP molecules attach to the upper gate, and the gate closes.

    3. One of the ATP molecules breaks apart releasing energy that might help keep the upper gate together for the next steps.

    4. The middle gate separates the two ends of the first DNA segment, creating a gap. Both DNA ends remain attached to the middle gate.

    5. The second DNA segment moves through the gap.

    6. The upper gate rotates. The middle gate closes, and the two DNA ends are reconnected.

    7. The enzyme breaks apart the remaining ATP molecule, and the lower gate opens, allowing the second DNA segment to leave.

    8. The lower gate closes, and the upper gate opens, releasing the first DNA segment.

    After the last step, the topoisomerase is reset and ready to perform the same process again.

    https://evolutionnews.org/2022/03/new-animation-on-topoisomerase-demonstrates-irrationality-of-denying-design-evidence-in-biology/

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  • From JTEM is my hero@21:1/5 to MarkE on Thu Oct 12 04:32:24 2023
    MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment.

    This is a misnomer.

    Sexual Selection, which is a driver of evolution, selects FOR. But external forces
    more than likely select AGAINST.

    "You have this trait, so you die."

    That's selecting AGAINST.

    "You have this trait, so I choose to mate with you."

    That's selecting FOR.

    Evolution itself is a misnomer though.

    "A change in alles over time" is sexual reproduction. I mean, if you can figure out a way to sexually reproduce without it happening, you're doing something wrong.

    If you think about it, and almost no one has, what people call evolution is a result. It's not a process, it's certainly not a thing, it's a result. It's looking at
    how things ended up and dubbing it "Evolution."

    It's the exception rather than the rule, with the rule being death...

    That jackass, Darwin, got it all wrong from Day-1 and nothing ever got fixed.

    They attribute "Natural Selection" to Darwin, but it's stupid. It's attributing a
    consciousness... natural "Filtering?"

    The natural "Colander?" That works too.

    The natural "Sieve?"

    But "Selection" implies a decision, a consciousness. So people look for
    logic, a linear progression... stupid stuff.




    -- --

    https://jtem.tumblr.com/post/730831540483932160

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  • From Lawyer Daggett@21:1/5 to MarkE on Thu Oct 12 04:11:26 2023
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.

    The above presses a gross misconception: that phenotype means "observable anatomical feature" . You compound this gross misunderstanding below.

    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.

    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from which to debate the validity of the theory of evolution? Son, people can see you.

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Thu Oct 12 04:43:33 2023
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.

    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS. Look at it this way: before the evolution of topoisomerase, cells with DNA sequences approaching the threshold of requiring topoisomerase Untangle Assist [TM] would usually
    successfully translate DNA, but would sometimes tangle and die.

    Problem 1. That doesn’t leave NS anything to work with.

    Does topisomerase do anything useful for the organism? Sure seems like it. If that's the case, changes in topisomerase function would make the organism more fit or less fit, depending on the change - that's what natural selection acts on. And the "
    problem" evolutionnews suggested to you applies to all genotypes and phenotypes. There are many steps between a gene sequence and the effect of that gene on an organism's fitness. All the genes are inside cells, as are, at least at first, all the gene
    products. Selection on the phenotype always happens pretty far downstream from the gene itself.

    Problem 2. Irreducible complexity, it would appear? A partly evolved topoisomerase cannot untangle DNA and confer the selectable advantage described. Exaptation? If so, of what, and regardless, you still need an extended sequence of selectable steps to
    co-opt/adapt/build/tune that new and precise machine of 765 amino acids [1].

    Farther down in the post you list all the enzymatic activities that the topoisomerase complex carries out. Imagine a world in which nobody has a modern topoisomerase. In that world, could any of the many enzymatic activities listed below be useful? Could
    making a cut in a DNA strand be useful? Sure, lots of steps in replication, proof reading, etc require cutting (or joining) DNA strands. Could coupling the energy release from hydrolysis of ATP to mechanical twisting of DNA be useful for anything? Sure,
    DNA is not loose in long strands in the cell, but wound up pretty tightly. In a world where nobody had topoisomerase, would an inefficient topoisomerase be better than none at all? Why not?

    Problem 3. Multiple phenotypic traits would tend to overwhelm the blunt and binary selection action on any tentative steps in topoisomerase evolution.

    Pretty hard to know what the guys at evolutionnews have in mind here. Almost all mutations have complex effects on phenotype, but I don't see why that prevents selection of different phenotypes. They seem to think (perhaps) that modern topoisomerase was
    a target of evolution and that selection on multiple phenotypic traits would push evolution away from that target. But that's pretty much backwards. Topoisomerase is where those genes just happened to end up as a result of all those complex phenotypic
    effects of mutations along the pathway that wandered to where it is today.

    A prediction of this analysis would be that evolution of core cellular machinery must have been largely complete very early on, and certainly before complex multicellular life, which would amplify Problem 3.

    I think most would agree with evolutionnews that the evolution of core cellular machinery was largely complete before the evolution of complex multicellular life. I'm not sure why this would amplify the alleged Problem 3.

    The fact that you could not think immediately of the reasons why problems 1 and 2 are not really problems (problem 3 seems so vague that I can't blame you for that) suggests that maybe you should read some basic textbook on evolution, even if only to
    better equip you to critique it. The folks at evolutionnews are not doing you any favors. They saw an animation of topoisomerase, a bright shiny object, and so they are all excited about it, but just about any enzyme or enzyme complex, membrane transport
    protein, cell motility protein, what have you, could get a similarly nifty animation.

    Biologists have noticed that cells are complex. For some reason, the overwhelming majority of them do not think that such complexity represents a devastating problem for the theory of evolution. It might be collective delusion and group think. It might
    be a desperate desire to hold on to the huge salaries and easy life style they have as adjunct assistant professors. It might a prior metaphysical commitment to a view of the world in which they won't be punished in eternity for doing drugs and cheating
    on their taxes and spouses. Or it might be that evolutionnews is not giving you a good picture of the theory of evolution and the evidence supporting it.

    -----

    [1] TOPOISOMERASE II OPERATION

    Replication or transcription of DNA stresses the macromolecule, resulting in supercoiling. Topoisomerase II relieves the stress by reducing the number of supercoils. The enzyme is composed of two identical halves that combine to form three gates that
    open and close in a precise order. It performs a series of steps that can best be described, based on the latest research, as follows:

    1. One DNA segment enters the upper gate and then binds to the middle gate. A second strand enters the top gate. The middle and lower gates are initially closed.

    2. The middle gate cuts the first strand in two. Two ATP molecules attach to the upper gate, and the gate closes.

    3. One of the ATP molecules breaks apart releasing energy that might help keep the upper gate together for the next steps.

    4. The middle gate separates the two ends of the first DNA segment, creating a gap. Both DNA ends remain attached to the middle gate.

    5. The second DNA segment moves through the gap.

    6. The upper gate rotates. The middle gate closes, and the two DNA ends are reconnected.

    7. The enzyme breaks apart the remaining ATP molecule, and the lower gate opens, allowing the second DNA segment to leave.

    8. The lower gate closes, and the upper gate opens, releasing the first DNA segment.

    After the last step, the topoisomerase is reset and ready to perform the same process again.

    https://evolutionnews.org/2022/03/new-animation-on-topoisomerase-demonstrates-irrationality-of-denying-design-evidence-in-biology/

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  • From jillery@21:1/5 to JTEM on Thu Oct 12 20:24:10 2023
    On Thu, 12 Oct 2023 04:32:24 -0700 (PDT), JTEM wrote:

    But "Selection" implies a decision, a consciousness. So people look for >logic, a linear progression... stupid stuff.


    "selection" implies a conscious decision similar to how "design"
    implies a designer, among those who believe in magic.


    --
    To know less than we don't know is the nature of most knowledge

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  • From MarkE@21:1/5 to Lawyer Daggett on Fri Oct 13 03:55:13 2023
    On Thursday, October 12, 2023 at 10:16:06 PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    The above presses a gross misconception: that phenotype means "observable anatomical feature" . You compound this gross misunderstanding below.
    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the phenotype less accessible to natural selection". As regards the genotype/phenotype distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical structure. It follows from this that the genotype is non-physical information, which is embodied in DNA.

    My question to you is, why the rage and vitriol?

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Fri Oct 13 04:52:24 2023
    On Friday, October 13, 2023 at 6:56:06 AM UTC-4, MarkE wrote:
    On Thursday, October 12, 2023 at 10:16:06 PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    The above presses a gross misconception: that phenotype means "observable anatomical feature" . You compound this gross misunderstanding below.
    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.
    Valid point - my premise should instead be stated something like this: "parts of the phenotype less accessible to natural selection". As regards the genotype/phenotype distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical structure. It follows from this that the genotype is non-physical information, which is embodied in DNA.

    You still seem attached to a startlingly incorrect idea about selection, genotype and phenotype. What makes a genetic change more or less accessible to natural selection? It's simple - to the extent that a genotype produces changes in the organism's
    fitness it is more subject to natural selection. If a genetic change has no effect on fitness - say a synonymous mutation in a protein coding region, or a substitution in an intron with no significant effect on pre-mRNA secondary structure - then it is
    not accessible to natural selection. If a genetic change does have an effect on fitness, regardless of whether that effect occurs at the level of beaks or claws, or at the level of internal metabolism or cellular function, then it is accessible to
    natural selection.

    My question to you is, why the rage and vitriol?

    I'm not sure about rage, but there is a certain level of frustration that you attempt to critique the ToE without seeming to understand or anticipate even the most obvious counters to your critiques. And the "problem" with "accessibility to natural
    selection" is so manifestly a misunderstanding that I can somewhat understand someone losing patience over it.

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  • From MarkE@21:1/5 to broger...@gmail.com on Fri Oct 13 04:36:02 2023
    On Thursday, October 12, 2023 at 10:46:06 PM UTC+11, broger...@gmail.com wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.

    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS. Look at it this way: before the evolution of topoisomerase, cells with DNA sequences approaching the threshold of requiring topoisomerase Untangle Assist [TM] would usually
    successfully translate DNA, but would sometimes tangle and die.

    Problem 1. That doesn’t leave NS anything to work with.
    Does topisomerase do anything useful for the organism? Sure seems like it. If that's the case, changes in topisomerase function would make the organism more fit or less fit, depending on the change - that's what natural selection acts on. And the "
    problem" evolutionnews suggested to you applies to all genotypes and phenotypes. There are many steps between a gene sequence and the effect of that gene on an organism's fitness. All the genes are inside cells, as are, at least at first, all the gene
    products. Selection on the phenotype always happens pretty far downstream from the gene itself.

    On reflection, the DNA itself (including protein coding regions) is part of the phenotype, insofar as it is a dynamic, chemically active, physical structure (as are gene products, as you suggest). It follows from this that the genotype is non-physical
    information, which is embodied in DNA.

    "Does topoisomerase do anything useful for the organism?" Or more precisely, "Topoisomerase II precursors" (which may be other forms of topoisomerase). This is a key point of contention with IC, which I know has been done to death. My argument does not
    depend on there being no potential precursors, but rather is questioning what is needed for "molecular macroevolution" (if I can use that term) or exaptation to form Topoisomerase II.

    That is, even just largely co-opting pre-evolved components still requires precision integration, expansion, function tuning, etc. This would be a multistep process requiring positive selection pressure for each intermediate. Now, arguably this is not
    impossible in principle: each intermediate might permit a slightly higher survival rate, but this seems very unlikely to be sustainable over the stepwise addition of whatever portion of the total 765 amino acids need to be discovered.

    A related question here is, what minimum degree of gradualism is required for evolution to work? To what extent must the pathway fitness be monotonically increasing?
     

    Problem 2. Irreducible complexity, it would appear? A partly evolved topoisomerase cannot untangle DNA and confer the selectable advantage described. Exaptation? If so, of what, and regardless, you still need an extended sequence of selectable steps
    to co-opt/adapt/build/tune that new and precise machine of 765 amino acids [1].
    Farther down in the post you list all the enzymatic activities that the topoisomerase complex carries out. Imagine a world in which nobody has a modern topoisomerase. In that world, could any of the many enzymatic activities listed below be useful?
    Could making a cut in a DNA strand be useful? Sure, lots of steps in replication, proof reading, etc require cutting (or joining) DNA strands. Could coupling the energy release from hydrolysis of ATP to mechanical twisting of DNA be useful for anything?
    Sure, DNA is not loose in long strands in the cell, but wound up pretty tightly. In a world where nobody had topoisomerase, would an inefficient topoisomerase be better than none at all? Why not?

    Functional precursors would be better than none at all, granted. But see my comment above.


    Problem 3. Multiple phenotypic traits would tend to overwhelm the blunt and binary selection action on any tentative steps in topoisomerase evolution.
    Pretty hard to know what the guys at evolutionnews have in mind here. Almost all mutations have complex effects on phenotype, but I don't see why that prevents selection of different phenotypes. They seem to think (perhaps) that modern topoisomerase
    was a target of evolution and that selection on multiple phenotypic traits would push evolution away from that target. But that's pretty much backwards. Topoisomerase is where those genes just happened to end up as a result of all those complex
    phenotypic effects of mutations along the pathway that wandered to where it is today.

    A prediction of this analysis would be that evolution of core cellular machinery must have been largely complete very early on, and certainly before complex multicellular life, which would amplify Problem 3.
    I think most would agree with evolutionnews that the evolution of core cellular machinery was largely complete before the evolution of complex multicellular life. I'm not sure why this would amplify the alleged Problem 3.

    The fact that you could not think immediately of the reasons why problems 1 and 2 are not really problems (problem 3 seems so vague that I can't blame you for that) suggests that maybe you should read some basic textbook on evolution, even if only to
    better equip you to critique it. The folks at evolutionnews are not doing you any favors. They saw an animation of topoisomerase, a bright shiny object, and so they are all excited about it, but just about any enzyme or enzyme complex, membrane transport
    protein, cell motility protein, what have you, could get a similarly nifty animation.

    Biologists have noticed that cells are complex. For some reason, the overwhelming majority of them do not think that such complexity represents a devastating problem for the theory of evolution. It might be collective delusion and group think. It might
    be a desperate desire to hold on to the huge salaries and easy life style they have as adjunct assistant professors. It might a prior metaphysical commitment to a view of the world in which they won't be punished in eternity for doing drugs and cheating
    on their taxes and spouses. Or it might be that evolutionnews is not giving you a good picture of the theory of evolution and the evidence supporting it.

    Well, that made me smile (at last a whistleblower on adjunct assistant professors), and I take your point. In the words of Mark Knopfler, "Two men say they're Jesus, one of them must be wrong.”

    As I've said before, as we discover more and more about the complexity of cells and multicellular life, my prediction is the "overwhelming majority of them [who] do not think that such complexity represents a devastating problem for the theory of
    evolution" will decrease and give way to wide recognition of major problems for the theory of evolution.


    -----

    [1] TOPOISOMERASE II OPERATION

    Replication or transcription of DNA stresses the macromolecule, resulting in supercoiling. Topoisomerase II relieves the stress by reducing the number of supercoils. The enzyme is composed of two identical halves that combine to form three gates that
    open and close in a precise order. It performs a series of steps that can best be described, based on the latest research, as follows:

    1. One DNA segment enters the upper gate and then binds to the middle gate. A second strand enters the top gate. The middle and lower gates are initially closed.

    2. The middle gate cuts the first strand in two. Two ATP molecules attach to the upper gate, and the gate closes.

    3. One of the ATP molecules breaks apart releasing energy that might help keep the upper gate together for the next steps.

    4. The middle gate separates the two ends of the first DNA segment, creating a gap. Both DNA ends remain attached to the middle gate.

    5. The second DNA segment moves through the gap.

    6. The upper gate rotates. The middle gate closes, and the two DNA ends are reconnected.

    7. The enzyme breaks apart the remaining ATP molecule, and the lower gate opens, allowing the second DNA segment to leave.

    8. The lower gate closes, and the upper gate opens, releasing the first DNA segment.

    After the last step, the topoisomerase is reset and ready to perform the same process again.

    https://evolutionnews.org/2022/03/new-animation-on-topoisomerase-demonstrates-irrationality-of-denying-design-evidence-in-biology/

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From =?UTF-8?B?w5bDtiBUaWli?=@21:1/5 to MarkE on Fri Oct 13 05:09:58 2023
    On Thursday, 12 October 2023 at 13:06:06 UTC+3, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.

    You mean that for NS to work there has to be some externally
    visible property to "select"? That is incorrect. The whole "selection"
    is better/worse chance to give offspring. When pressure is clear
    and high then it takes only couple generations to evolve. You have
    sure seen Kishony experiment:
    <https://www.youtube.com/watch?v=plVk4NVIUh8>

    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS. Look at it this way: before the evolution of topoisomerase, cells with DNA sequences approaching the threshold of requiring topoisomerase Untangle Assist [TM] would usually
    successfully translate DNA, but would sometimes tangle and die.

    Antibiotic tolerance evolved by Kishony experiment was also inside
    cell and "out of reach" of NS? It somehow worked like expected.

    Problem 1. That doesn’t leave NS anything to work with.

    What that "topoisomerase" is in your mind? Are you talking about
    that: <https://www.ncbi.nlm.nih.gov/pmc/articles/PMC2647321/> ?
    There "topoisomerase" is large forest of wildly different families and subfamilies of enzymes. Does not sound like evolution had nothing
    to work with.

    Problem 2. Irreducible complexity, it would appear? A partly evolved topoisomerase cannot untangle DNA and confer the selectable advantage described. Exaptation? If so, of what, and regardless, you still need an extended sequence of selectable steps to
    co-opt/adapt/build/tune that new and precise machine of 765 amino acids [1].

    Far from appearance of some fixed, inflexible irreplaceable machinery
    made of precisely 765 concrete amino acids. On the contrary, claim
    of "irreducible complexity" is in difficulties. Can you point at some roots
    in the actual forest there is and tell that these were probably the
    "ancestral, designed, irreducibly complex topoisomerases"? Likelihood
    is too close to zero that you can.

    Problem 3. Multiple phenotypic traits would tend to overwhelm the blunt and binary selection action on any tentative steps in topoisomerase evolution.

    I can't see what you mean. Those are important enzymes in processes of
    DNA replication, transcription, recombination, chromosome compaction
    and chromosome segregation. Differences in topoisomerase can cause
    differences in speeds and efficiencies of those particular processes. Not participating in a finch consuming seeds.

    A prediction of this analysis would be that evolution of core cellular machinery must have been largely complete very early on, and certainly before complex multicellular life, which would amplify Problem 3.

    Topoisomerases are present in all of domains (Archaea, Bacteria, and
    Eukarya) and also in several viruses. So it is quite certain that those were present long before multicellular life. But that does not say that evolution
    of those (or anything else) was (or is) ever complete. Biological evolution
    is probably "complete" only at the moment when all life is dead.

    Why you copy-pasted misleading description of work of "human topoisomerase" below?
    -----

    [1] TOPOISOMERASE II OPERATION

    Replication or transcription of DNA stresses the macromolecule, resulting in supercoiling. Topoisomerase II relieves the stress by reducing the number of supercoils. The enzyme is composed of two identical halves that combine to form three gates that
    open and close in a precise order. It performs a series of steps that can best be described, based on the latest research, as follows:

    1. One DNA segment enters the upper gate and then binds to the middle gate. A second strand enters the top gate. The middle and lower gates are initially closed.

    2. The middle gate cuts the first strand in two. Two ATP molecules attach to the upper gate, and the gate closes.

    3. One of the ATP molecules breaks apart releasing energy that might help keep the upper gate together for the next steps.

    4. The middle gate separates the two ends of the first DNA segment, creating a gap. Both DNA ends remain attached to the middle gate.

    5. The second DNA segment moves through the gap.

    6. The upper gate rotates. The middle gate closes, and the two DNA ends are reconnected.

    7. The enzyme breaks apart the remaining ATP molecule, and the lower gate opens, allowing the second DNA segment to leave.

    8. The lower gate closes, and the upper gate opens, releasing the first DNA segment.

    After the last step, the topoisomerase is reset and ready to perform the same process again.

    https://evolutionnews.org/2022/03/new-animation-on-topoisomerase-demonstrates-irrationality-of-denying-design-evidence-in-biology/

    Maybe because it is written by Ph.D of physics? In reality human
    topoisomerases comprise a family of six enzymes: two type IB (TOP1
    and mitochondrial TOP1 (TOP1MT), two type IIA (TOP2A and TOP2B)
    and two type IA (TOP3A and TOP3B) topoisomerases.
    Typical work sequences of those differ.

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Fri Oct 13 05:00:47 2023
    On Friday, October 13, 2023 at 7:41:06 AM UTC-4, MarkE wrote:
    On Thursday, October 12, 2023 at 10:46:06 PM UTC+11, broger...@gmail.com wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.

    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS. Look at it this way: before the evolution of topoisomerase, cells with DNA sequences approaching the threshold of requiring topoisomerase Untangle Assist [TM] would usually
    successfully translate DNA, but would sometimes tangle and die.

    Problem 1. That doesn’t leave NS anything to work with.
    Does topisomerase do anything useful for the organism? Sure seems like it. If that's the case, changes in topisomerase function would make the organism more fit or less fit, depending on the change - that's what natural selection acts on. And the "
    problem" evolutionnews suggested to you applies to all genotypes and phenotypes. There are many steps between a gene sequence and the effect of that gene on an organism's fitness. All the genes are inside cells, as are, at least at first, all the gene
    products. Selection on the phenotype always happens pretty far downstream from the gene itself.
    On reflection, the DNA itself (including protein coding regions) is part of the phenotype, insofar as it is a dynamic, chemically active, physical structure (as are gene products, as you suggest). It follows from this that the genotype is non-physical
    information, which is embodied in DNA.

    "Does topoisomerase do anything useful for the organism?" Or more precisely, "Topoisomerase II precursors" (which may be other forms of topoisomerase). This is a key point of contention with IC, which I know has been done to death. My argument does not
    depend on there being no potential precursors, but rather is questioning what is needed for "molecular macroevolution" (if I can use that term) or exaptation to form Topoisomerase II.

    The point is that is topoisomerase does anything useful for the cell, then it is just as accessible to natural selection as a finch's beak.

    That is, even just largely co-opting pre-evolved components still requires precision integration, expansion, function tuning, etc. This would be a multistep process requiring positive selection pressure for each intermediate. Now, arguably this is not
    impossible in principle: each intermediate might permit a slightly higher survival rate, but this seems very unlikely to be sustainable over the stepwise addition of whatever portion of the total 765 amino acids need to be discovered.

    Why do you think that? Topoisomerase was not a pre-specified target.

    A related question here is, what minimum degree of gradualism is required for evolution to work? To what extent must the pathway fitness be monotonically increasing?

    Fine question - lots of people have thought about it, and about how important drift and selection are relative to one another. You could look into it if you were interested.

    Problem 2. Irreducible complexity, it would appear? A partly evolved topoisomerase cannot untangle DNA and confer the selectable advantage described. Exaptation? If so, of what, and regardless, you still need an extended sequence of selectable
    steps to co-opt/adapt/build/tune that new and precise machine of 765 amino acids [1].
    Farther down in the post you list all the enzymatic activities that the topoisomerase complex carries out. Imagine a world in which nobody has a modern topoisomerase. In that world, could any of the many enzymatic activities listed below be useful?
    Could making a cut in a DNA strand be useful? Sure, lots of steps in replication, proof reading, etc require cutting (or joining) DNA strands. Could coupling the energy release from hydrolysis of ATP to mechanical twisting of DNA be useful for anything?
    Sure, DNA is not loose in long strands in the cell, but wound up pretty tightly. In a world where nobody had topoisomerase, would an inefficient topoisomerase be better than none at all? Why not?
    Functional precursors would be better than none at all, granted. But see my comment above.

    Problem 3. Multiple phenotypic traits would tend to overwhelm the blunt and binary selection action on any tentative steps in topoisomerase evolution.
    Pretty hard to know what the guys at evolutionnews have in mind here. Almost all mutations have complex effects on phenotype, but I don't see why that prevents selection of different phenotypes. They seem to think (perhaps) that modern topoisomerase
    was a target of evolution and that selection on multiple phenotypic traits would push evolution away from that target. But that's pretty much backwards. Topoisomerase is where those genes just happened to end up as a result of all those complex
    phenotypic effects of mutations along the pathway that wandered to where it is today.

    A prediction of this analysis would be that evolution of core cellular machinery must have been largely complete very early on, and certainly before complex multicellular life, which would amplify Problem 3.
    I think most would agree with evolutionnews that the evolution of core cellular machinery was largely complete before the evolution of complex multicellular life. I'm not sure why this would amplify the alleged Problem 3.

    The fact that you could not think immediately of the reasons why problems 1 and 2 are not really problems (problem 3 seems so vague that I can't blame you for that) suggests that maybe you should read some basic textbook on evolution, even if only to
    better equip you to critique it. The folks at evolutionnews are not doing you any favors. They saw an animation of topoisomerase, a bright shiny object, and so they are all excited about it, but just about any enzyme or enzyme complex, membrane transport
    protein, cell motility protein, what have you, could get a similarly nifty animation.

    Biologists have noticed that cells are complex. For some reason, the overwhelming majority of them do not think that such complexity represents a devastating problem for the theory of evolution. It might be collective delusion and group think. It
    might be a desperate desire to hold on to the huge salaries and easy life style they have as adjunct assistant professors. It might a prior metaphysical commitment to a view of the world in which they won't be punished in eternity for doing drugs and
    cheating on their taxes and spouses. Or it might be that evolutionnews is not giving you a good picture of the theory of evolution and the evidence supporting it.
    Well, that made me smile (at last a whistleblower on adjunct assistant professors), and I take your point. In the words of Mark Knopfler, "Two men say they're Jesus, one of them must be wrong.”

    As I've said before, as we discover more and more about the complexity of cells and multicellular life, my prediction is the "overwhelming majority of them [who] do not think that such complexity represents a devastating problem for the theory of
    evolution" will decrease and give way to wide recognition of major problems for the theory of evolution.

    Once again, you seem to think that biologists are somehow unaware of how complicated cells are. You may just be learning about things like DNA supercoiling and topoisomerases now, but biologists have been working on such things for many decades. And, not
    to indulge in vitriol, when you muck up an understanding of selection as badly as you did in "Problem 1" you make it hard for some of us to take your concerns about "major problems in the theory of evolution" seriously.

    You really need to read some actual evolutionary biology textbook. At a minimum it would give you the ability to anticipate what sort of counter arguments you would get here. And you really cannot be successful at critiquing a position if you do not
    understand it well yourself.

    -----

    [1] TOPOISOMERASE II OPERATION

    Replication or transcription of DNA stresses the macromolecule, resulting in supercoiling. Topoisomerase II relieves the stress by reducing the number of supercoils. The enzyme is composed of two identical halves that combine to form three gates
    that open and close in a precise order. It performs a series of steps that can best be described, based on the latest research, as follows:

    1. One DNA segment enters the upper gate and then binds to the middle gate. A second strand enters the top gate. The middle and lower gates are initially closed.

    2. The middle gate cuts the first strand in two. Two ATP molecules attach to the upper gate, and the gate closes.

    3. One of the ATP molecules breaks apart releasing energy that might help keep the upper gate together for the next steps.

    4. The middle gate separates the two ends of the first DNA segment, creating a gap. Both DNA ends remain attached to the middle gate.

    5. The second DNA segment moves through the gap.

    6. The upper gate rotates. The middle gate closes, and the two DNA ends are reconnected.

    7. The enzyme breaks apart the remaining ATP molecule, and the lower gate opens, allowing the second DNA segment to leave.

    8. The lower gate closes, and the upper gate opens, releasing the first DNA segment.

    After the last step, the topoisomerase is reset and ready to perform the same process again.

    https://evolutionnews.org/2022/03/new-animation-on-topoisomerase-demonstrates-irrationality-of-denying-design-evidence-in-biology/

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From jillery@21:1/5 to All on Fri Oct 13 08:33:02 2023
    On Fri, 13 Oct 2023 03:55:13 -0700 (PDT), MarkE <me22over7@gmail.com>
    wrote:

    On Thursday, October 12, 2023 at 10:16:06?PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06?AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    The above presses a gross misconception: that phenotype means "observable >> anatomical feature" . You compound this gross misunderstanding below.


    From Oxford Languages:

    "phenotype: the set of observable characteristics of an individual
    resulting from the interaction of its genotype with the environment."

    Not sure what Daggett's objection is here.


    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS. >> I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from >> which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the phenotype less accessible to natural selection". As regards the genotype/phenotype distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical structure. It follows from this that the genotype is non-physical information, which is embodied in DNA.


    Stipulating for argument's sake that all you say above is technically
    correct, what's your point in saying it? It doesn't challenge natural selection. It doesn't support ID or Creationism. It's not an
    especially significant biological fact.


    My question to you is, why the rage and vitriol?


    Since you asked, here's my guess:

    <https://www.youtube.com/watch?v=aME0qvhZ37o>

    --
    To know less than we don't know is the nature of most knowledge

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From Lawyer Daggett@21:1/5 to MarkE on Fri Oct 13 05:22:00 2023
    On Friday, October 13, 2023 at 6:56:06 AM UTC-4, MarkE wrote:
    On Thursday, October 12, 2023 at 10:16:06 PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    .
    The above presses a gross misconception: that phenotype means "observable anatomical feature" . You compound this gross misunderstanding below.
    .
    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the
    phenotype less accessible to natural selection". As regards the genotype/phenotype
    distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical
    structure. It follows from this that the genotype is non-physical information,
    which is embodied in DNA.

    My question to you is, why the rage and vitriol?

    You're "correction" is still loaded is falsehoods. We're not talking about incorrect
    deductions. We're talking about asserting false premises. It's bullshit.

    It makes it evident that you have almost no understanding of even the terms "phenotype", "selections", and as such no understanding of evolution.

    Imagine you are an auto mechanic, somebody drops off their car for repair and you fix it. The car's computer had thrown some codes about about misfiring and problems with certain voltage on some fuel injectors. You know your stuff so you strip off the plenum and get to the injectors, you take out your handy volt-ohm
    meter and check the resistance across the indicated injector and it is a dead short.

    You call up the customer and ask if they want you to go ahead and replace all of

    the injectors while you are there as the car has over 90K miles and it will save
    them a lot of money if you do them all now rather than have to do the tear down again for one that will quite likely fail in the next 10-15K miles.

    He gets upset and tells you you don't know what you're doing, you just need to clear the computer code so you could pass your state inspection. It was a computer
    problem, the engine was running fine. Sure, running fine with a fuel injector that
    was shorted out.

    The guy doesn't understand cars but he's telling you what the problem is.

    The point is, you aren't seeing rage and vitriol. You are seeing exasperation. You don't even understand a simple thing like selection and you are here evangelizing
    about how evolution could not have produced X, Y, or Z.

    Find an on-line course on population genetics. Take it. There will be math, and
    lots of it. Not that you're ready for it, but you'll understand some of it. More significantly,
    if you do it, you might begin to discover just how much you really don't know, and
    something about the things you think you know that just ain't so.

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From Lawyer Daggett@21:1/5 to jillery on Fri Oct 13 06:20:41 2023
    On Friday, October 13, 2023 at 8:36:06 AM UTC-4, jillery wrote:
    On Fri, 13 Oct 2023 03:55:13 -0700 (PDT), MarkE <me22...@gmail.com>
    wrote:

    On Thursday, October 12, 2023 at 10:16:06?PM UTC+11, Lawyer Daggett wrote: >> On Thursday, October 12, 2023 at 6:06:06?AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    The above presses a gross misconception: that phenotype means "observable >> anatomical feature" . You compound this gross misunderstanding below.
    From Oxford Languages:

    "phenotype: the set of observable characteristics of an individual
    resulting from the interaction of its genotype with the environment."

    Not sure what Daggett's objection is here.


    That's a rotten definition, especially when you want to apply it scientifically.
    It's rotten because so many will misunderstand "observable" to mean something that you visually detect. If one has a more scientific notion of "observable" to
    mean has a measurable effect, it's closer. A phenotype is a tangible consequence
    of a genotype. It can be cryptic. A phenotype can produce improved resistance to cold/heat, which won't be revealed outside of cold/hot conditions.

    Regardless, it's clear MarkE was inclined to dismiss 'invisible' intracellular changes
    as not being phenotype changes, which he thought couldn't be acted upon by natural selection.

    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the phenotype less accessible to natural selection". As regards the genotype/phenotype distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical structure. It follows from this that the genotype is non-physical information, which is embodied in DNA.

    Stipulating for argument's sake that all you say above is technically correct, what's your point in saying it? It doesn't challenge natural selection. It doesn't support ID or Creationism. It's not an
    especially significant biological fact.

    It's technically false, except where it isn't even false because it's gibberish.

    My question to you is, why the rage and vitriol?
    Since you asked, here's my guess:

    <https://www.youtube.com/watch?v=aME0qvhZ37o>

    As I used to have to say to my grandkids when they were little. Use your words.

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From MarkE@21:1/5 to Lawyer Daggett on Sat Oct 14 04:49:48 2023
    On Friday, October 13, 2023 at 11:26:07 PM UTC+11, Lawyer Daggett wrote:
    On Friday, October 13, 2023 at 6:56:06 AM UTC-4, MarkE wrote:
    On Thursday, October 12, 2023 at 10:16:06 PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    .
    The above presses a gross misconception: that phenotype means "observable
    anatomical feature" . You compound this gross misunderstanding below.
    .
    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the
    phenotype less accessible to natural selection". As regards the genotype/phenotype
    distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical
    structure. It follows from this that the genotype is non-physical information,
    which is embodied in DNA.

    My question to you is, why the rage and vitriol?
    You're "correction" is still loaded is falsehoods. We're not talking about incorrect
    deductions. We're talking about asserting false premises. It's bullshit.

    It makes it evident that you have almost no understanding of even the terms "phenotype", "selections", and as such no understanding of evolution.

    Imagine you are an auto mechanic, somebody drops off their car for repair and
    you fix it. The car's computer had thrown some codes about about misfiring and
    problems with certain voltage on some fuel injectors. You know your stuff so you strip off the plenum and get to the injectors, you take out your handy volt-ohm
    meter and check the resistance across the indicated injector and it is a dead short.

    You call up the customer and ask if they want you to go ahead and replace all of

    the injectors while you are there as the car has over 90K miles and it will save
    them a lot of money if you do them all now rather than have to do the tear down
    again for one that will quite likely fail in the next 10-15K miles.

    He gets upset and tells you you don't know what you're doing, you just need to
    clear the computer code so you could pass your state inspection. It was a computer
    problem, the engine was running fine. Sure, running fine with a fuel injector that
    was shorted out.

    The guy doesn't understand cars but he's telling you what the problem is.

    The point is, you aren't seeing rage and vitriol. You are seeing exasperation.
    You don't even understand a simple thing like selection and you are here evangelizing
    about how evolution could not have produced X, Y, or Z.

    Find an on-line course on population genetics. Take it. There will be math, and
    lots of it. Not that you're ready for it, but you'll understand some of it. More significantly,
    if you do it, you might begin to discover just how much you really don't know, and
    something about the things you think you know that just ain't so.

    Population genetics is mathematically difficult, and can be assisted by computer simulation. Out of curiosity I've previously written a program to explore population behaviour and allele fixation, using recombination and various profiles of mutation
    selection coefficients (i.e. assigning different probabilities to a range from lethal to neutral to slightly positive).

    Do you have different definitions of genotype and phenotype?

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From MarkE@21:1/5 to Lawyer Daggett on Sat Oct 14 05:15:38 2023
    On Saturday, October 14, 2023 at 12:21:07 AM UTC+11, Lawyer Daggett wrote:
    On Friday, October 13, 2023 at 8:36:06 AM UTC-4, jillery wrote:
    On Fri, 13 Oct 2023 03:55:13 -0700 (PDT), MarkE <me22...@gmail.com>
    wrote:

    On Thursday, October 12, 2023 at 10:16:06?PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06?AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the
    gradual, incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    The above presses a gross misconception: that phenotype means "observable
    anatomical feature" . You compound this gross misunderstanding below. From Oxford Languages:

    "phenotype: the set of observable characteristics of an individual resulting from the interaction of its genotype with the environment."

    Not sure what Daggett's objection is here.
    That's a rotten definition, especially when you want to apply it scientifically.
    It's rotten because so many will misunderstand "observable" to mean something
    that you visually detect. If one has a more scientific notion of "observable" to
    mean has a measurable effect, it's closer. A phenotype is a tangible consequence
    of a genotype. It can be cryptic. A phenotype can produce improved resistance
    to cold/heat, which won't be revealed outside of cold/hot conditions.

    Regardless, it's clear MarkE was inclined to dismiss 'invisible' intracellular changes
    as not being phenotype changes, which he thought couldn't be acted upon by natural selection.

    Not so. I accepted the correction that these are indeed phenotype changes (e.g. lactose metabolism in bacteria). But my argument is that substantial intracellular changes (what might be called "molecular macroevolution") may be less accessible to NS. For
    example, the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.

    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its informational and functional specificity and complexity will similarly necessitate gradual refinement over many steps
    with positive selection pressure applied.

    The development pathway of an eye can be conceived as long series of small variations each producing *functional* intermediates. This is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional* in terms of
    progression towards Topoisomerase II function. That's the problem.

    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the phenotype less accessible to natural selection". As regards the genotype/phenotype distinction, I would say that even the DNA itself (including protein coding
    regions) is part of the phenotype, insofar as it is a dynamic, chemically active, physical structure. It follows from this that the genotype is non-physical information, which is embodied in DNA.

    Stipulating for argument's sake that all you say above is technically correct, what's your point in saying it? It doesn't challenge natural selection. It doesn't support ID or Creationism. It's not an
    especially significant biological fact.
    It's technically false, except where it isn't even false because it's gibberish.
    My question to you is, why the rage and vitriol?
    Since you asked, here's my guess:

    <https://www.youtube.com/watch?v=aME0qvhZ37o>
    As I used to have to say to my grandkids when they were little. Use your words.

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Sat Oct 14 05:14:31 2023
    On Saturday, October 14, 2023 at 7:51:08 AM UTC-4, MarkE wrote:
    On Friday, October 13, 2023 at 11:26:07 PM UTC+11, Lawyer Daggett wrote:
    On Friday, October 13, 2023 at 6:56:06 AM UTC-4, MarkE wrote:
    On Thursday, October 12, 2023 at 10:16:06 PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the
    gradual, incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    .
    The above presses a gross misconception: that phenotype means "observable
    anatomical feature" . You compound this gross misunderstanding below.
    .
    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the
    phenotype less accessible to natural selection". As regards the genotype/phenotype
    distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical
    structure. It follows from this that the genotype is non-physical information,
    which is embodied in DNA.

    My question to you is, why the rage and vitriol?
    You're "correction" is still loaded is falsehoods. We're not talking about incorrect
    deductions. We're talking about asserting false premises. It's bullshit.

    It makes it evident that you have almost no understanding of even the terms
    "phenotype", "selections", and as such no understanding of evolution.

    Imagine you are an auto mechanic, somebody drops off their car for repair and
    you fix it. The car's computer had thrown some codes about about misfiring and
    problems with certain voltage on some fuel injectors. You know your stuff so
    you strip off the plenum and get to the injectors, you take out your handy volt-ohm
    meter and check the resistance across the indicated injector and it is a dead short.

    You call up the customer and ask if they want you to go ahead and replace all of

    the injectors while you are there as the car has over 90K miles and it will save
    them a lot of money if you do them all now rather than have to do the tear down
    again for one that will quite likely fail in the next 10-15K miles.

    He gets upset and tells you you don't know what you're doing, you just need to
    clear the computer code so you could pass your state inspection. It was a computer
    problem, the engine was running fine. Sure, running fine with a fuel injector that
    was shorted out.

    The guy doesn't understand cars but he's telling you what the problem is.

    The point is, you aren't seeing rage and vitriol. You are seeing exasperation.
    You don't even understand a simple thing like selection and you are here evangelizing
    about how evolution could not have produced X, Y, or Z.

    Find an on-line course on population genetics. Take it. There will be math, and
    lots of it. Not that you're ready for it, but you'll understand some of it. More significantly,
    if you do it, you might begin to discover just how much you really don't know, and
    something about the things you think you know that just ain't so.
    Population genetics is mathematically difficult, and can be assisted by computer simulation. Out of curiosity I've previously written a program to explore population behaviour and allele fixation, using recombination and various profiles of mutation
    selection coefficients (i.e. assigning different probabilities to a range from lethal to neutral to slightly positive).

    Do you have different definitions of genotype and phenotype?

    The problem with your claim that topoisomerase mutations are beyond the reach of natural selection has little to do with having an incorrect definition of phenotype or genotype. The problem is your idea that mutations that effect basic, internal cellular
    functions, like DNA replication, or transcription, or formation of chromatin, are somehow less accessible to natural selection than genes that effect things like body mass, or coloration, or beak shape. Any mutation that effects fitness in any way, no
    matter where that effect occurs in the organism, is accessible to natural selection. And no matter where in the organism the effect occurs, there is always a long chain of effects between the mutation itself and whatever effect it has on fitness. There
    is nothing special in that regard about mutations in topoisomerase genes.

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From MarkE@21:1/5 to broger...@gmail.com on Sat Oct 14 05:22:47 2023
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11, broger...@gmail.com wrote:
    On Saturday, October 14, 2023 at 7:51:08 AM UTC-4, MarkE wrote:
    On Friday, October 13, 2023 at 11:26:07 PM UTC+11, Lawyer Daggett wrote:
    On Friday, October 13, 2023 at 6:56:06 AM UTC-4, MarkE wrote:
    On Thursday, October 12, 2023 at 10:16:06 PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the
    gradual, incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    .
    The above presses a gross misconception: that phenotype means "observable
    anatomical feature" . You compound this gross misunderstanding below.
    .
    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the
    phenotype less accessible to natural selection". As regards the genotype/phenotype
    distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical
    structure. It follows from this that the genotype is non-physical information,
    which is embodied in DNA.

    My question to you is, why the rage and vitriol?
    You're "correction" is still loaded is falsehoods. We're not talking about incorrect
    deductions. We're talking about asserting false premises. It's bullshit.

    It makes it evident that you have almost no understanding of even the terms
    "phenotype", "selections", and as such no understanding of evolution.

    Imagine you are an auto mechanic, somebody drops off their car for repair and
    you fix it. The car's computer had thrown some codes about about misfiring and
    problems with certain voltage on some fuel injectors. You know your stuff so
    you strip off the plenum and get to the injectors, you take out your handy volt-ohm
    meter and check the resistance across the indicated injector and it is a dead short.

    You call up the customer and ask if they want you to go ahead and replace all of

    the injectors while you are there as the car has over 90K miles and it will save
    them a lot of money if you do them all now rather than have to do the tear down
    again for one that will quite likely fail in the next 10-15K miles.

    He gets upset and tells you you don't know what you're doing, you just need to
    clear the computer code so you could pass your state inspection. It was a computer
    problem, the engine was running fine. Sure, running fine with a fuel injector that
    was shorted out.

    The guy doesn't understand cars but he's telling you what the problem is.

    The point is, you aren't seeing rage and vitriol. You are seeing exasperation.
    You don't even understand a simple thing like selection and you are here evangelizing
    about how evolution could not have produced X, Y, or Z.

    Find an on-line course on population genetics. Take it. There will be math, and
    lots of it. Not that you're ready for it, but you'll understand some of it. More significantly,
    if you do it, you might begin to discover just how much you really don't know, and
    something about the things you think you know that just ain't so.
    Population genetics is mathematically difficult, and can be assisted by computer simulation. Out of curiosity I've previously written a program to explore population behaviour and allele fixation, using recombination and various profiles of mutation
    selection coefficients (i.e. assigning different probabilities to a range from lethal to neutral to slightly positive).

    Do you have different definitions of genotype and phenotype?
    The problem with your claim that topoisomerase mutations are beyond the reach of natural selection has little to do with having an incorrect definition of phenotype or genotype. The problem is your idea that mutations that effect basic, internal
    cellular functions, like DNA replication, or transcription, or formation of chromatin, are somehow less accessible to natural selection than genes that effect things like body mass, or coloration, or beak shape. Any mutation that effects fitness in any
    way, no matter where that effect occurs in the organism, is accessible to natural selection. And no matter where in the organism the effect occurs, there is always a long chain of effects between the mutation itself and whatever effect it has on fitness.
    There is nothing special in that regard about mutations in topoisomerase genes.

    To repeat an example: the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.

    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its high informational and functional specificity and complexity will similarly necessitate gradual refinement over many
    steps with positive selection pressure applied.

    The evolutionary pathway of an eye can be conceived of as a long series of small variations each producing *functional* intermediates. But this is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional* in
    terms of *progression towards Topoisomerase II function*. That's the problem.

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Sat Oct 14 06:04:27 2023
    On Saturday, October 14, 2023 at 8:26:07 AM UTC-4, MarkE wrote:
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11, broger...@gmail.com wrote:
    On Saturday, October 14, 2023 at 7:51:08 AM UTC-4, MarkE wrote:
    On Friday, October 13, 2023 at 11:26:07 PM UTC+11, Lawyer Daggett wrote:
    On Friday, October 13, 2023 at 6:56:06 AM UTC-4, MarkE wrote:
    On Thursday, October 12, 2023 at 10:16:06 PM UTC+11, Lawyer Daggett wrote:
    On Thursday, October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the
    gradual, incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    .
    The above presses a gross misconception: that phenotype means "observable
    anatomical feature" . You compound this gross misunderstanding below.
    .
    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the
    phenotype less accessible to natural selection". As regards the genotype/phenotype
    distinction, I would say that even the DNA itself (including protein coding regions)
    is part of the phenotype, insofar as it is a dynamic, chemically active, physical
    structure. It follows from this that the genotype is non-physical information,
    which is embodied in DNA.

    My question to you is, why the rage and vitriol?
    You're "correction" is still loaded is falsehoods. We're not talking about incorrect
    deductions. We're talking about asserting false premises. It's bullshit.

    It makes it evident that you have almost no understanding of even the terms
    "phenotype", "selections", and as such no understanding of evolution.

    Imagine you are an auto mechanic, somebody drops off their car for repair and
    you fix it. The car's computer had thrown some codes about about misfiring and
    problems with certain voltage on some fuel injectors. You know your stuff so
    you strip off the plenum and get to the injectors, you take out your handy volt-ohm
    meter and check the resistance across the indicated injector and it is a dead short.

    You call up the customer and ask if they want you to go ahead and replace all of

    the injectors while you are there as the car has over 90K miles and it will save
    them a lot of money if you do them all now rather than have to do the tear down
    again for one that will quite likely fail in the next 10-15K miles.

    He gets upset and tells you you don't know what you're doing, you just need to
    clear the computer code so you could pass your state inspection. It was a computer
    problem, the engine was running fine. Sure, running fine with a fuel injector that
    was shorted out.

    The guy doesn't understand cars but he's telling you what the problem is.

    The point is, you aren't seeing rage and vitriol. You are seeing exasperation.
    You don't even understand a simple thing like selection and you are here evangelizing
    about how evolution could not have produced X, Y, or Z.

    Find an on-line course on population genetics. Take it. There will be math, and
    lots of it. Not that you're ready for it, but you'll understand some of it. More significantly,
    if you do it, you might begin to discover just how much you really don't know, and
    something about the things you think you know that just ain't so.
    Population genetics is mathematically difficult, and can be assisted by computer simulation. Out of curiosity I've previously written a program to explore population behaviour and allele fixation, using recombination and various profiles of
    mutation selection coefficients (i.e. assigning different probabilities to a range from lethal to neutral to slightly positive).

    Do you have different definitions of genotype and phenotype?
    The problem with your claim that topoisomerase mutations are beyond the reach of natural selection has little to do with having an incorrect definition of phenotype or genotype. The problem is your idea that mutations that effect basic, internal
    cellular functions, like DNA replication, or transcription, or formation of chromatin, are somehow less accessible to natural selection than genes that effect things like body mass, or coloration, or beak shape. Any mutation that effects fitness in any
    way, no matter where that effect occurs in the organism, is accessible to natural selection. And no matter where in the organism the effect occurs, there is always a long chain of effects between the mutation itself and whatever effect it has on fitness.
    There is nothing special in that regard about mutations in topoisomerase genes.
    To repeat an example: the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.

    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its high informational and functional specificity and complexity will similarly necessitate gradual refinement over many
    steps with positive selection pressure applied.

    The evolutionary pathway of an eye can be conceived of as a long series of small variations each producing *functional* intermediates. But this is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional*
    in terms of *progression towards Topoisomerase II function*. That's the problem.
    Why do you think intermediates will be non-functional, even in terms of progression to topoisomerase II function? That function requires various enzymatic activities, various specific bindings. Why can't changes in the amino acid sequence (and hence the
    3-d structure) lead to slightly better substrate binding, slightly increased enzymatic activity, etc? How is this different than gradual refinement of any biological activity?

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From Athel Cornish-Bowden@21:1/5 to broger...@gmail.com on Sat Oct 14 15:16:10 2023
    On 2023-10-14 13:04:27 +0000, broger...@gmail.com said:

    On Saturday, October 14, 2023 at 8:26:07 AM UTC-4, MarkE wrote:
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11,
    broger...@gmail.com wrote:> > On Saturday, October 14, 2023 at 7:51:08
    AM UTC-4, MarkE wrote:> > > On Friday, October 13, 2023 at 11:26:07 PM
    UTC+11, Lawyer Daggett wrote:> > > > On Friday, October 13, 2023 at
    6:56:06 AM UTC-4, MarkE wrote:> > > > > On Thursday, October 12, 2023
    at 10:16:06 PM UTC+11, Lawyer Daggett wrote:> > > > > > On Thursday,
    October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:> > > > > > > NS acts
    on the phenotype, selecting on the basis of its traits or behaviours in
    a given environment. For example, Galapagos finches beak size selected
    as a result of the varying availability of large hard seeds or small
    soft seeds. Or the gradual, incremental development of the camera-style
    eyes of vertebrates. In both examples, NS has direct “visibility” of
    the competing variants.> > > > .> > > > > > The above presses a gross
    misconception: that phenotype means "observable> > > > > > anatomical
    feature" . You compound this gross misunderstanding below.> > > > .> >
    Here’s the problem.> > > > > > >> > > > > > > Human
    topoisomerase, for example, contains 765 amino acids. Topoisomerase II
    gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it
    has very high information content (765 units) and functional complexity
    and specificity.> > > > > > >> > > > > > > But this is all happening
    inside the cell, out of the direct reach of NS.> > > > > > I'm cutting
    you off. Nobody, who has completed even a high school biology course,>
    has any excuse for that misconception. It's grotesquely
    wrong.> > > > > >> > > > > > My question for you is, is that level of
    ignorance a proper foundation from> > > > > > which to debate the
    validity of the theory of evolution? Son, people can see you.> > > >> >
    Valid point - my premise should instead be stated something like
    this: "parts of the> > > > > phenotype less accessible to natural
    selection". As regards the genotype/phenotype> > > > > distinction, I
    would say that even the DNA itself (including protein coding regions)>
    is part of the phenotype, insofar as it is a dynamic,
    chemically active, physical> > > > > structure. It follows from this
    that the genotype is non-physical information,> > > > > which is
    embodied in DNA.> > > > >> > > > > My question to you is, why the rage
    and vitriol?> > > > You're "correction" is still loaded is falsehoods.
    We're not talking about incorrect> > > > deductions. We're talking
    about asserting false premises. It's bullshit.> > > >> > > > It makes
    it evident that you have almost no understanding of even the terms> > >
    "phenotype", "selections", and as such no understanding of
    evolution.> > > >> > > > Imagine you are an auto mechanic, somebody
    drops off their car for repair and> > > > you fix it. The car's
    computer had thrown some codes about about misfiring and> > > >
    problems with certain voltage on some fuel injectors. You know your
    stuff so> > > > you strip off the plenum and get to the injectors, you
    take out your handy volt-ohm> > > > meter and check the resistance
    across the indicated injector and it is a dead short.> > > >> > > > You
    call up the customer and ask if they want you to go ahead and replace
    all of> > > >> > > > the injectors while you are there as the car has
    over 90K miles and it will save> > > > them a lot of money if you do
    them all now rather than have to do the tear down> > > > again for one
    that will quite likely fail in the next 10-15K miles.> > > >> > > > He
    gets upset and tells you you don't know what you're doing, you just
    need to> > > > clear the computer code so you could pass your state
    inspection. It was a computer> > > > problem, the engine was running
    fine. Sure, running fine with a fuel injector that> > > > was shorted
    out.> > > >> > > > The guy doesn't understand cars but he's telling you
    what the problem is.> > > >> > > > The point is, you aren't seeing rage
    and vitriol. You are seeing exasperation.> > > > You don't even
    understand a simple thing like selection and you are here evangelizing>
    about how evolution could not have produced X, Y, or Z.> > > >> >
    Find an on-line course on population genetics. Take it. There will
    be math, and> > > > lots of it. Not that you're ready for it, but
    you'll understand some of it. More significantly,> > > > if you do it,
    you might begin to discover just how much you really don't know, and> >
    something about the things you think you know that just ain't so.>
    Population genetics is mathematically difficult, and can be
    assisted by computer simulation. Out of curiosity I've previously
    written a program to explore population behaviour and allele fixation,
    using recombination and various profiles of mutation selection
    coefficients (i.e. assigning different probabilities to a range from
    lethal to neutral to slightly positive).> > >> > > Do you have
    different definitions of genotype and phenotype?> > The problem with
    your claim that topoisomerase mutations are beyond the reach of natural
    selection has little to do with having an incorrect definition of
    phenotype or genotype. The problem is your idea that mutations that
    effect basic, internal cellular functions, like DNA replication, or
    transcription, or formation of chromatin, are somehow less accessible
    to natural selection than genes that effect things like body mass, or
    coloration, or beak shape. Any mutation that effects fitness in any
    way, no matter where that effect occurs in the organism, is accessible
    to natural selection. And no matter where in the organism the effect
    occurs, there is always a long chain of effects between the mutation
    itself and whatever effect it has on fitness. There is nothing special
    in that regard about mutations in topoisomerase genes.
    To repeat an example: the development of the camera-style eyes of
    vertebrates requires gradual refinement over many steps with positive
    selection pressure applied.>> The evolution of Topoisomerase II may
    include some functional intermediates or it may co-opt extant
    subcomponents, but either way, its high informational and functional
    specificity and complexity will similarly necessitate gradual
    refinement over many steps with positive selection pressure applied.>>
    The evolutionary pathway of an eye can be conceived of as a long series
    of small variations each producing *functional* intermediates. But this
    is much more difficult with the evolution of Topoisomerase II. Most
    intermediates will be *non-functional* in terms of *progression towards
    Topoisomerase II function*. That's the problem.
    Why do you think intermediates will be non-functional, even in terms of progression to topoisomerase II function? That function requires
    various enzymatic activities, various specific bindings. Why can't
    changes in the amino acid sequence (and hence the 3-d structure) lead
    to slightly better substrate binding, slightly increased enzymatic
    activity, etc? How is this different than gradual refinement of any biological activity?

    The problem is that MarkE knows no biochemistry, and just repeats stuff
    he's found in creationist publications. It's probably a waste of time
    arfuing with him. So far the specific point is concerned we *know* from
    Steve Benner's work (on ribonuclease, for example) that the catalytic
    activity of ancestral forms can be measured.


    --
    athel cb : Biochemical Evolution, Garland Science, 2016

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From MarkE@21:1/5 to Athel Cornish-Bowden on Sat Oct 14 06:51:28 2023
    On Sunday, October 15, 2023 at 12:21:08 AM UTC+11, Athel Cornish-Bowden wrote:
    On 2023-10-14 13:04:27 +0000, broger...@gmail.com said:

    On Saturday, October 14, 2023 at 8:26:07 AM UTC-4, MarkE wrote:
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11,
    broger...@gmail.com wrote:> > On Saturday, October 14, 2023 at 7:51:08
    AM UTC-4, MarkE wrote:> > > On Friday, October 13, 2023 at 11:26:07 PM >> UTC+11, Lawyer Daggett wrote:> > > > On Friday, October 13, 2023 at
    6:56:06 AM UTC-4, MarkE wrote:> > > > > On Thursday, October 12, 2023 >> at 10:16:06 PM UTC+11, Lawyer Daggett wrote:> > > > > > On Thursday,
    October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:> > > > > > > NS acts >> on the phenotype, selecting on the basis of its traits or behaviours in >> a given environment. For example, Galapagos finches beak size selected
    as a result of the varying availability of large hard seeds or small
    soft seeds. Or the gradual, incremental development of the camera-style >> eyes of vertebrates. In both examples, NS has direct “visibility” of >> the competing variants.> > > > .> > > > > > The above presses a gross
    misconception: that phenotype means "observable> > > > > > anatomical
    feature" . You compound this gross misunderstanding below.> > > > .> >
    Here’s the problem.> > > > > > >> > > > > > > Human
    topoisomerase, for example, contains 765 amino acids. Topoisomerase II
    gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it >> has very high information content (765 units) and functional complexity >> and specificity.> > > > > > >> > > > > > > But this is all happening
    inside the cell, out of the direct reach of NS.> > > > > > I'm cutting
    you off. Nobody, who has completed even a high school biology course,>
    has any excuse for that misconception. It's grotesquely
    wrong.> > > > > >> > > > > > My question for you is, is that level of
    ignorance a proper foundation from> > > > > > which to debate the
    validity of the theory of evolution? Son, people can see you.> > > >> > >> > > > Valid point - my premise should instead be stated something like
    this: "parts of the> > > > > phenotype less accessible to natural
    selection". As regards the genotype/phenotype> > > > > distinction, I
    would say that even the DNA itself (including protein coding regions)>
    is part of the phenotype, insofar as it is a dynamic,
    chemically active, physical> > > > > structure. It follows from this
    that the genotype is non-physical information,> > > > > which is
    embodied in DNA.> > > > >> > > > > My question to you is, why the rage
    and vitriol?> > > > You're "correction" is still loaded is falsehoods.
    We're not talking about incorrect> > > > deductions. We're talking
    about asserting false premises. It's bullshit.> > > >> > > > It makes
    it evident that you have almost no understanding of even the terms> > > >> > "phenotype", "selections", and as such no understanding of
    evolution.> > > >> > > > Imagine you are an auto mechanic, somebody
    drops off their car for repair and> > > > you fix it. The car's
    computer had thrown some codes about about misfiring and> > > >
    problems with certain voltage on some fuel injectors. You know your
    stuff so> > > > you strip off the plenum and get to the injectors, you
    take out your handy volt-ohm> > > > meter and check the resistance
    across the indicated injector and it is a dead short.> > > >> > > > You >> call up the customer and ask if they want you to go ahead and replace
    all of> > > >> > > > the injectors while you are there as the car has
    over 90K miles and it will save> > > > them a lot of money if you do
    them all now rather than have to do the tear down> > > > again for one
    that will quite likely fail in the next 10-15K miles.> > > >> > > > He
    gets upset and tells you you don't know what you're doing, you just
    need to> > > > clear the computer code so you could pass your state
    inspection. It was a computer> > > > problem, the engine was running
    fine. Sure, running fine with a fuel injector that> > > > was shorted
    out.> > > >> > > > The guy doesn't understand cars but he's telling you >> what the problem is.> > > >> > > > The point is, you aren't seeing rage >> and vitriol. You are seeing exasperation.> > > > You don't even
    understand a simple thing like selection and you are here evangelizing> >> > > > about how evolution could not have produced X, Y, or Z.> > > >> > >> > > Find an on-line course on population genetics. Take it. There will
    be math, and> > > > lots of it. Not that you're ready for it, but
    you'll understand some of it. More significantly,> > > > if you do it,
    you might begin to discover just how much you really don't know, and> > >> > > something about the things you think you know that just ain't so.>
    Population genetics is mathematically difficult, and can be
    assisted by computer simulation. Out of curiosity I've previously
    written a program to explore population behaviour and allele fixation,
    using recombination and various profiles of mutation selection
    coefficients (i.e. assigning different probabilities to a range from
    lethal to neutral to slightly positive).> > >> > > Do you have
    different definitions of genotype and phenotype?> > The problem with
    your claim that topoisomerase mutations are beyond the reach of natural >> selection has little to do with having an incorrect definition of
    phenotype or genotype. The problem is your idea that mutations that
    effect basic, internal cellular functions, like DNA replication, or
    transcription, or formation of chromatin, are somehow less accessible
    to natural selection than genes that effect things like body mass, or
    coloration, or beak shape. Any mutation that effects fitness in any
    way, no matter where that effect occurs in the organism, is accessible
    to natural selection. And no matter where in the organism the effect
    occurs, there is always a long chain of effects between the mutation
    itself and whatever effect it has on fitness. There is nothing special
    in that regard about mutations in topoisomerase genes.
    To repeat an example: the development of the camera-style eyes of
    vertebrates requires gradual refinement over many steps with positive
    selection pressure applied.>> The evolution of Topoisomerase II may
    include some functional intermediates or it may co-opt extant
    subcomponents, but either way, its high informational and functional
    specificity and complexity will similarly necessitate gradual
    refinement over many steps with positive selection pressure applied.>>
    The evolutionary pathway of an eye can be conceived of as a long series >> of small variations each producing *functional* intermediates. But this >> is much more difficult with the evolution of Topoisomerase II. Most
    intermediates will be *non-functional* in terms of *progression towards >> Topoisomerase II function*. That's the problem.
    Why do you think intermediates will be non-functional, even in terms of progression to topoisomerase II function? That function requires
    various enzymatic activities, various specific bindings. Why can't
    changes in the amino acid sequence (and hence the 3-d structure) lead
    to slightly better substrate binding, slightly increased enzymatic activity, etc? How is this different than gradual refinement of any biological activity?
    The problem is that MarkE knows no biochemistry, and just repeats stuff
    he's found in creationist publications. It's probably a waste of time arfuing with him. So far the specific point is concerned we *know* from Steve Benner's work (on ribonuclease, for example) that the catalytic activity of ancestral forms can be measured.

    Actually, I think your problem is you really don't like anyone challenging the naturalist position. I've noticed your own tactic is either to not respond, or make unsubstantiated dismissive remarks like this one. What is conspicuously missing is a
    coherent and substantive critique of my proposition. Rather, you offer a lazy "Steve Benner said..."

    Once more: the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.

    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its high informational and functional specificity and complexity will similarly necessitate gradual refinement over many
    steps with positive selection pressure applied.

    The evolutionary pathway of an eye can be conceived of as a long series of small variations each producing *functional* intermediates. But this is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional* in
    terms of *progression towards Topoisomerase II function*. Regardless of Steve Benner's work (on ribonuclease, for example).

    That's the problem.
     

    --
    athel cb : Biochemical Evolution, Garland Science, 2016

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From Ernest Major@21:1/5 to MarkE on Sat Oct 14 16:21:26 2023
    On 14/10/2023 13:15, MarkE wrote:
    Not so. I accepted the correction that these are indeed phenotype
    changes (e.g. lactose metabolism in bacteria). But my argument is that substantial intracellular changes (what might be called "molecular macroevolution") may be less accessible to NS. For example, the
    development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.

    The
    evolution of Topoisomerase II may include some functional intermediates
    or it may co-opt extant subcomponents, but either way, its informational
    and functional specificity and complexity will similarly necessitate
    gradual refinement over many steps with positive selection pressure
    applied.

    The development pathway of an eye can be conceived as long
    series of small variations each producing *functional* intermediates.
    This is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional* in terms of progression towards Topoisomerase II function. That's the problem.

    That's not what you seemed to be claiming before. You were claiming that
    it wasn't accessible to natural selection. You're now claiming an
    absence of functional intermediates, which is not the same thing.
    "Accessible to natural selection" and "accessible by natural selection"
    may be only a small change in sequence, but it's a large change in
    semantics.

    Anyway, creationists have long claimed that eyes are unevolvable due to
    a putative lack of intermediates. Why should we take your claim about topoisomerases more seriously that their claims about eyes? Picking a
    darker crevice (topoisomerases evolved longer ago, so more of the
    evidence has been erased by time) for your gap doesn't make the argument better.

    --
    alias Ernest Major

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to Ernest Major on Sat Oct 14 08:33:03 2023
    On Saturday, October 14, 2023 at 11:26:07 AM UTC-4, Ernest Major wrote:
    On 14/10/2023 13:15, MarkE wrote:
    Not so. I accepted the correction that these are indeed phenotype
    changes (e.g. lactose metabolism in bacteria). But my argument is that substantial intracellular changes (what might be called "molecular macroevolution") may be less accessible to NS. For example, the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.

    The
    evolution of Topoisomerase II may include some functional intermediates
    or it may co-opt extant subcomponents, but either way, its informational and functional specificity and complexity will similarly necessitate gradual refinement over many steps with positive selection pressure applied.

    The development pathway of an eye can be conceived as long
    series of small variations each producing *functional* intermediates.
    This is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional* in terms of progression towards Topoisomerase II function. That's the problem.
    That's not what you seemed to be claiming before. You were claiming that
    it wasn't accessible to natural selection. You're now claiming an
    absence of functional intermediates, which is not the same thing. "Accessible to natural selection" and "accessible by natural selection"
    may be only a small change in sequence, but it's a large change in semantics.

    Anyway, creationists have long claimed that eyes are unevolvable due to
    a putative lack of intermediates. Why should we take your claim about topoisomerases more seriously that their claims about eyes? Picking a
    darker crevice (topoisomerases evolved longer ago, so more of the
    evidence has been erased by time) for your gap doesn't make the argument better.

    --
    alias Ernest Major

    One of the sorts of evidence that made the evolution of eyes plausible is the existence of organisms with all sorts of "intermediate eyes," everything from photosensitive skin patches, to lenless eyes, to octupus or mammalian eyes and all sorts of
    variations in between. The same sort of evidence exists for the evolution of topoisomerases, lots of different sorts of topoisomerases, gyrases, DNA-binding proteins, single- and double-stranded nucleases, all of which bear the same relation to human
    topoisomerase II as all the various more or less "intermediate" light detection and focusing systems do to mammalian eyes.

    A straightforward search on Google Scholar will turn up all sorts of stuff on evolution of topoisomerases which evolutionnews has not shown to Mark E.

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Sat Oct 14 08:15:49 2023
    On Saturday, October 14, 2023 at 9:56:08 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 12:21:08 AM UTC+11, Athel Cornish-Bowden wrote:
    On 2023-10-14 13:04:27 +0000, broger...@gmail.com said:

    On Saturday, October 14, 2023 at 8:26:07 AM UTC-4, MarkE wrote:
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11,
    broger...@gmail.com wrote:> > On Saturday, October 14, 2023 at 7:51:08 >> AM UTC-4, MarkE wrote:> > > On Friday, October 13, 2023 at 11:26:07 PM
    UTC+11, Lawyer Daggett wrote:> > > > On Friday, October 13, 2023 at
    6:56:06 AM UTC-4, MarkE wrote:> > > > > On Thursday, October 12, 2023 >> at 10:16:06 PM UTC+11, Lawyer Daggett wrote:> > > > > > On Thursday, >> October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:> > > > > > > NS acts
    on the phenotype, selecting on the basis of its traits or behaviours in >> a given environment. For example, Galapagos finches beak size selected >> as a result of the varying availability of large hard seeds or small
    soft seeds. Or the gradual, incremental development of the camera-style >> eyes of vertebrates. In both examples, NS has direct “visibility” of
    the competing variants.> > > > .> > > > > > The above presses a gross >> misconception: that phenotype means "observable> > > > > > anatomical >> feature" . You compound this gross misunderstanding below.> > > > .> > >> > > > > > Here’s the problem.> > > > > > >> > > > > > > Human
    topoisomerase, for example, contains 765 amino acids. Topoisomerase II >> gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it >> has very high information content (765 units) and functional complexity >> and specificity.> > > > > > >> > > > > > > But this is all happening
    inside the cell, out of the direct reach of NS.> > > > > > I'm cutting >> you off. Nobody, who has completed even a high school biology course,> >> > > > > > has any excuse for that misconception. It's grotesquely
    wrong.> > > > > >> > > > > > My question for you is, is that level of >> ignorance a proper foundation from> > > > > > which to debate the
    validity of the theory of evolution? Son, people can see you.> > > >> > >> > > > Valid point - my premise should instead be stated something like >> this: "parts of the> > > > > phenotype less accessible to natural
    selection". As regards the genotype/phenotype> > > > > distinction, I >> would say that even the DNA itself (including protein coding regions)> >> > > > > is part of the phenotype, insofar as it is a dynamic,
    chemically active, physical> > > > > structure. It follows from this
    that the genotype is non-physical information,> > > > > which is
    embodied in DNA.> > > > >> > > > > My question to you is, why the rage >> and vitriol?> > > > You're "correction" is still loaded is falsehoods. >> We're not talking about incorrect> > > > deductions. We're talking
    about asserting false premises. It's bullshit.> > > >> > > > It makes >> it evident that you have almost no understanding of even the terms> > > >> > "phenotype", "selections", and as such no understanding of
    evolution.> > > >> > > > Imagine you are an auto mechanic, somebody
    drops off their car for repair and> > > > you fix it. The car's
    computer had thrown some codes about about misfiring and> > > >
    problems with certain voltage on some fuel injectors. You know your
    stuff so> > > > you strip off the plenum and get to the injectors, you >> take out your handy volt-ohm> > > > meter and check the resistance
    across the indicated injector and it is a dead short.> > > >> > > > You >> call up the customer and ask if they want you to go ahead and replace >> all of> > > >> > > > the injectors while you are there as the car has >> over 90K miles and it will save> > > > them a lot of money if you do
    them all now rather than have to do the tear down> > > > again for one >> that will quite likely fail in the next 10-15K miles.> > > >> > > > He >> gets upset and tells you you don't know what you're doing, you just
    need to> > > > clear the computer code so you could pass your state
    inspection. It was a computer> > > > problem, the engine was running
    fine. Sure, running fine with a fuel injector that> > > > was shorted >> out.> > > >> > > > The guy doesn't understand cars but he's telling you >> what the problem is.> > > >> > > > The point is, you aren't seeing rage >> and vitriol. You are seeing exasperation.> > > > You don't even
    understand a simple thing like selection and you are here evangelizing> >> > > > about how evolution could not have produced X, Y, or Z.> > > >> > >> > > Find an on-line course on population genetics. Take it. There will >> be math, and> > > > lots of it. Not that you're ready for it, but
    you'll understand some of it. More significantly,> > > > if you do it, >> you might begin to discover just how much you really don't know, and> > >> > > something about the things you think you know that just ain't so.> >> > > Population genetics is mathematically difficult, and can be
    assisted by computer simulation. Out of curiosity I've previously
    written a program to explore population behaviour and allele fixation, >> using recombination and various profiles of mutation selection
    coefficients (i.e. assigning different probabilities to a range from
    lethal to neutral to slightly positive).> > >> > > Do you have
    different definitions of genotype and phenotype?> > The problem with
    your claim that topoisomerase mutations are beyond the reach of natural >> selection has little to do with having an incorrect definition of
    phenotype or genotype. The problem is your idea that mutations that
    effect basic, internal cellular functions, like DNA replication, or
    transcription, or formation of chromatin, are somehow less accessible >> to natural selection than genes that effect things like body mass, or >> coloration, or beak shape. Any mutation that effects fitness in any
    way, no matter where that effect occurs in the organism, is accessible >> to natural selection. And no matter where in the organism the effect
    occurs, there is always a long chain of effects between the mutation
    itself and whatever effect it has on fitness. There is nothing special >> in that regard about mutations in topoisomerase genes.
    To repeat an example: the development of the camera-style eyes of
    vertebrates requires gradual refinement over many steps with positive >> selection pressure applied.>> The evolution of Topoisomerase II may
    include some functional intermediates or it may co-opt extant
    subcomponents, but either way, its high informational and functional
    specificity and complexity will similarly necessitate gradual
    refinement over many steps with positive selection pressure applied.>> >> The evolutionary pathway of an eye can be conceived of as a long series >> of small variations each producing *functional* intermediates. But this >> is much more difficult with the evolution of Topoisomerase II. Most
    intermediates will be *non-functional* in terms of *progression towards >> Topoisomerase II function*. That's the problem.
    Why do you think intermediates will be non-functional, even in terms of progression to topoisomerase II function? That function requires
    various enzymatic activities, various specific bindings. Why can't changes in the amino acid sequence (and hence the 3-d structure) lead
    to slightly better substrate binding, slightly increased enzymatic activity, etc? How is this different than gradual refinement of any biological activity?
    The problem is that MarkE knows no biochemistry, and just repeats stuff he's found in creationist publications. It's probably a waste of time arfuing with him. So far the specific point is concerned we *know* from Steve Benner's work (on ribonuclease, for example) that the catalytic activity of ancestral forms can be measured.
    Actually, I think your problem is you really don't like anyone challenging the naturalist position. I've noticed your own tactic is either to not respond, or make unsubstantiated dismissive remarks like this one. What is conspicuously missing is a
    coherent and substantive critique of my proposition. Rather, you offer a lazy "Steve Benner said..."

    Once more: the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.
    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its high informational and functional specificity and complexity will similarly necessitate gradual refinement over many
    steps with positive selection pressure applied.
    The evolutionary pathway of an eye can be conceived of as a long series of small variations each producing *functional* intermediates. But this is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional*
    in terms of *progression towards Topoisomerase II function*. Regardless of Steve Benner's work (on ribonuclease, for example).

    That's the problem.

    Except that you have not shown that it's a problem. Topoisomerase is an enzyme. Mutations in enzymes change their activity. What's problematic about mutations gradually improving the activity of topoisomerase? Given a choice between a barely active proto-
    topoisomerase and one that is slightly more active, why couldn't natural selection select for the slightly more active one? You (or, more likely, your sources) are inventing a problem that is not there.

    --
    athel cb : Biochemical Evolution, Garland Science, 2016

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From Athel Cornish-Bowden@21:1/5 to broger...@gmail.com on Sat Oct 14 17:37:05 2023
    On 2023-10-14 15:15:49 +0000, broger...@gmail.com said:

    On Saturday, October 14, 2023 at 9:56:08 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 12:21:08 AM UTC+11, Athel
    Cornish-Bowden wrote:> > On 2023-10-14 13:04:27 +0000,
    broger...@gmail.com said:> >> > > On Saturday, October 14, 2023 at
    8:26:07 AM UTC-4, MarkE wrote:> > >> On Saturday, October 14, 2023 at
    11:16:08 PM UTC+11,> > >> broger...@gmail.com wrote:> > On Saturday,
    October 14, 2023 at 7:51:08> > >> AM UTC-4, MarkE wrote:> > > On
    Friday, October 13, 2023 at 11:26:07 PM> > >> UTC+11, Lawyer Daggett
    wrote:> > > > On Friday, October 13, 2023 at> > >> 6:56:06 AM UTC-4,
    MarkE wrote:> > > > > On Thursday, October 12, 2023> > >> at
    10:16:06 PM UTC+11, Lawyer Daggett wrote:> > > > > > On Thursday,> >
    October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:> > > > > > > NS
    acts> > >> on the phenotype, selecting on the basis of its traits or
    behaviours in> > >> a given environment. For example, Galapagos finches
    beak size selected> > >> as a result of the varying availability of
    large hard seeds or small> > >> soft seeds. Or the gradual, incremental
    development of the camera-style> > >> eyes of vertebrates. In both
    examples, NS has direct “visibility” of> > >> the competing
    variants.> > > > .> > > > > > The above presses a gross> > >>
    misconception: that phenotype means "observable> > > > > > anatomical>
    feature" . You compound this gross misunderstanding below.> > > >
    Here’s the problem.> > > > > > >> > > > > > >
    Human> > >> topoisomerase, for example, contains 765 amino acids.
    Topoisomerase II> > >> gathers, clamps, snips, swaps, and rejoins DNA
    strands [1]. That is, it> > >> has very high information content (765
    units) and functional complexity> > >> and specificity.> > > > > > >> >
    But this is all happening> > >> inside the cell, out of the
    direct reach of NS.> > > > > > I'm cutting> > >> you off. Nobody, who
    has completed even a high school biology course,>> > >> > > > > > has
    any excuse for that misconception. It's grotesquely> > >> wrong.> > > >
    My question for you is, is that level of> > >> ignorance
    a proper foundation from> > > > > > which to debate the> > >> validity
    of the theory of evolution? Son, people can see you.> > > >> >> > >> >
    Valid point - my premise should instead be stated something like> >
    this: "parts of the> > > > > phenotype less accessible to natural> >
    selection". As regards the genotype/phenotype> > > > > distinction,
    would say that even the DNA itself (including protein coding
    regions)>> > >> > > > > is part of the phenotype, insofar as it is a
    dynamic,> > >> chemically active, physical> > > > > structure. It
    follows from this> > >> that the genotype is non-physical information,>
    which is> > >> embodied in DNA.> > > > >> > > > > My question
    to you is, why the rage> > >> and vitriol?> > > > You're "correction"
    is still loaded is falsehoods.> > >> We're not talking about incorrect>
    deductions. We're talking> > >> about asserting false premises.
    It's bullshit.> > > >> > > > It makes> > >> it evident that you have
    almost no understanding of even the terms> > >> > >> > "phenotype",
    "selections", and as such no understanding of> > >> evolution.> > > >>
    Imagine you are an auto mechanic, somebody> > >> drops off their
    car for repair and> > > > you fix it. The car's> > >> computer had
    thrown some codes about about misfiring and> > > >> > >> problems with
    certain voltage on some fuel injectors. You know your> > >> stuff so> >
    you strip off the plenum and get to the injectors, you> > >> take
    out your handy volt-ohm> > > > meter and check the resistance> > >>
    across the indicated injector and it is a dead short.> > > >> > > >
    call up the customer and ask if they want you to go ahead and
    replace> > >> all of> > > >> > > > the injectors while you are there as
    the car has> > >> over 90K miles and it will save> > > > them a lot of
    money if you do> > >> them all now rather than have to do the tear
    down> > > > again for one> > >> that will quite likely fail in the next
    10-15K miles.> > > >> > > > He> > >> gets upset and tells you you don't
    know what you're doing, you just> > >> need to> > > > clear the
    computer code so you could pass your state> > >> inspection. It was a
    computer> > > > problem, the engine was running> > >> fine. Sure,
    running fine with a fuel injector that> > > > was shorted> > >> out.> >
    The guy doesn't understand cars but he's telling you> > >>
    what the problem is.> > > >> > > > The point is, you aren't seeing
    rage> > >> and vitriol. You are seeing exasperation.> > > > You don't
    even> > >> understand a simple thing like selection and you are here
    evangelizing>> > >> > > > about how evolution could not have produced
    X, Y, or Z.> > > >> >> > >> > > Find an on-line course on population
    genetics. Take it. There will> > >> be math, and> > > > lots of it. Not
    that you're ready for it, but> > >> you'll understand some of it. More
    significantly,> > > > if you do it,> > >> you might begin to discover
    just how much you really don't know, and> >> > >> > > something about
    the things you think you know that just ain't so.>> > >> > > Population
    genetics is mathematically difficult, and can be> > >> assisted by
    computer simulation. Out of curiosity I've previously> > >> written a
    program to explore population behaviour and allele fixation,> > >>
    using recombination and various profiles of mutation selection> > >>
    coefficients (i.e. assigning different probabilities to a range from> >
    lethal to neutral to slightly positive).> > >> > > Do you have> > >>
    different definitions of genotype and phenotype?> > The problem with> >
    your claim that topoisomerase mutations are beyond the reach of
    natural> > >> selection has little to do with having an incorrect
    definition of> > >> phenotype or genotype. The problem is your idea
    that mutations that> > >> effect basic, internal cellular functions,
    like DNA replication, or> > >> transcription, or formation of
    chromatin, are somehow less accessible> > >> to natural selection than
    genes that effect things like body mass, or> > >> coloration, or beak
    shape. Any mutation that effects fitness in any> > >> way, no matter
    where that effect occurs in the organism, is accessible> > >> to
    natural selection. And no matter where in the organism the effect> > >>
    occurs, there is always a long chain of effects between the mutation> >
    itself and whatever effect it has on fitness. There is nothing
    special> > >> in that regard about mutations in topoisomerase genes.> >
    To repeat an example: the development of the camera-style eyes of> >
    vertebrates requires gradual refinement over many steps with
    positive> > >> selection pressure applied.>> The evolution of
    Topoisomerase II may> > >> include some functional intermediates or it
    may co-opt extant> > >> subcomponents, but either way, its high
    informational and functional> > >> specificity and complexity will
    similarly necessitate gradual> > >> refinement over many steps with
    positive selection pressure applied.>>> > >> The evolutionary pathway
    of an eye can be conceived of as a long series> > >> of small
    variations each producing *functional* intermediates. But this> > >> is
    much more difficult with the evolution of Topoisomerase II. Most> > >>
    intermediates will be *non-functional* in terms of *progression
    towards> > >> Topoisomerase II function*. That's the problem.> > > Why
    do you think intermediates will be non-functional, even in terms of> >
    progression to topoisomerase II function? That function requires> > >
    various enzymatic activities, various specific bindings. Why can't> > >
    changes in the amino acid sequence (and hence the 3-d structure) lead>
    to slightly better substrate binding, slightly increased enzymatic>
    activity, etc? How is this different than gradual refinement of
    biological activity?> > The problem is that MarkE knows no
    biochemistry, and just repeats stuff> > he's found in creationist
    publications. It's probably a waste of time> > arfuing with him. So far
    the specific point is concerned we *know* from> > Steve Benner's work
    (on ribonuclease, for example) that the catalytic> > activity of
    ancestral forms can be measured.
    Actually, I think your problem is you really don't like anyone
    challenging the naturalist position.

    I have no interest in what you think is my problem. I would be quite interested, however, in a challange to the scientific position if it
    came from someone who knew something about it and supported the design
    notion with cogent arguments. But neither you nor Ron Dean ever provide
    these.

    I've noticed your own tactic is either to not respond, or make
    unsubstantiated dismissive remarks like this one. What is conspicuously
    missing is a coherent and substantive critique of my proposition.
    Rather, you offer a lazy "Steve Benner said...">>

    Who's lazy? "Steve Benner" and "ribonuclease" were quite sufficient as
    keywords to send anyone minimally competent in protein chemistry
    immediately to the right place. Did you want an exact reference? Did
    you want a sentence by sentence told-to-the-kiddies explanation of what
    it meant?

    Once more: the development of the camera-style eyes of vertebrates
    requires gradual refinement over many steps with positive selection
    pressure applied.
    The evolution of Topoisomerase II may include some functional
    intermediates or it may co-opt extant subcomponents, but either way,
    its high informational and functional specificity and complexity will
    similarly necessitate gradual refinement over many steps with positive
    selection pressure applied.
    The evolutionary pathway of an eye can be conceived of as a long series
    of small variations each producing *functional* intermediates. But this
    is much more difficult with the evolution of Topoisomerase II. Most
    intermediates will be *non-functional* in terms of *progression towards
    Topoisomerase II function*. Regardless of Steve Benner's work (on
    ribonuclease, for example).>> That's the problem.

    Except that you have not shown that it's a problem. Topoisomerase is an enzyme. Mutations in enzymes change their activity. What's problematic
    about mutations gradually improving the activity of topoisomerase?
    Given a choice between a barely active proto-topoisomerase and one that
    is slightly more active, why couldn't natural selection select for the slightly more active one? You (or, more likely, your sources) are
    inventing a problem that is not there.

    --
    athel cb : Biochemical Evolution, Garland Science, 2016

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From jillery@21:1/5 to j.nobel.daggett@gmail.com on Sat Oct 14 12:35:27 2023
    The post to which I reply below is one of over a dozen since October 5
    which E-S did not propagate:

    On Fri, 13 Oct 2023 06:20:41 -0700 (PDT), Lawyer Daggett <j.nobel.daggett@gmail.com> wrote:

    On Friday, October 13, 2023 at 8:36:06?AM UTC-4, jillery wrote:
    On Fri, 13 Oct 2023 03:55:13 -0700 (PDT), MarkE <me22...@gmail.com>
    wrote:

    On Thursday, October 12, 2023 at 10:16:06?PM UTC+11, Lawyer Daggett wrote: >> >> On Thursday, October 12, 2023 at 6:06:06?AM UTC-4, MarkE wrote:
    NS acts on the phenotype, selecting on the basis of its traits or behaviours in a given environment. For example, Galapagos finches beak size selected as a result of the varying availability of large hard seeds or small soft seeds. Or the gradual,
    incremental development of the camera-style eyes of vertebrates. In both examples, NS has direct “visibility” of the competing variants.
    The above presses a gross misconception: that phenotype means "observable
    anatomical feature" . You compound this gross misunderstanding below.
    From Oxford Languages:

    "phenotype: the set of observable characteristics of an individual
    resulting from the interaction of its genotype with the environment."

    Not sure what Daggett's objection is here.


    That's a rotten definition, especially when you want to apply it scientifically.
    It's rotten because so many will misunderstand "observable" to mean something >that you visually detect. If one has a more scientific notion of "observable" to
    mean has a measurable effect, it's closer. A phenotype is a tangible consequence
    of a genotype. It can be cryptic. A phenotype can produce improved resistance >to cold/heat, which won't be revealed outside of cold/hot conditions.


    WRT to my cited definition, I agree "observable" has multiple nuanced
    meanings, especially in scientific contexts. For example, the
    observable universe has an entirely different meaning than observable
    in molecular biology. Nevertheless, it shows MarkE's use is commonly
    accepted, and your "gross misrepresentation" is grossly incorrect.

    WRT your claim that a phenotype is a tangible consequence of genotype,
    I disagree. A classic example is of grass seeds germinated in
    complete darkness. All will appear to lack chlorophyll. However some
    may be homozygous for albinism, and so incapable of producing it,
    while all others will turn green once they are exposed to sunlight.
    The larger point is genotypes are often masked by the environment, and
    so in those cases necessarily beyond the reach of natural selection.


    Regardless, it's clear MarkE was inclined to dismiss 'invisible' intracellular changes
    as not being phenotype changes, which he thought couldn't be acted upon by >natural selection.


    Continuing my point above, an example discussed in T.O. is lactase
    persistence. Without a dairy diet, it provides zero benefit, and may
    even have some if slight cost to it, and so will typically drift to
    extinction in a dairy-free population.


    Here’s the problem.

    Human topoisomerase, for example, contains 765 amino acids. Topoisomerase II gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it has very high information content (765 units) and functional complexity and specificity.

    But this is all happening inside the cell, out of the direct reach of NS.
    I'm cutting you off. Nobody, who has completed even a high school biology course,
    has any excuse for that misconception. It's grotesquely wrong.

    My question for you is, is that level of ignorance a proper foundation from
    which to debate the validity of the theory of evolution? Son, people can see you.

    Valid point - my premise should instead be stated something like this: "parts of the phenotype less accessible to natural selection". As regards the genotype/phenotype distinction, I would say that even the DNA itself (including protein coding
    regions) is part of the phenotype, insofar as it is a dynamic, chemically active, physical structure. It follows from this that the genotype is non-physical information, which is embodied in DNA.

    Stipulating for argument's sake that all you say above is technically
    correct, what's your point in saying it? It doesn't challenge natural
    selection. It doesn't support ID or Creationism. It's not an
    especially significant biological fact.

    It's technically false, except where it isn't even false because it's gibberish.


    So you too have no idea what MarkE's point was. It's not clear to me
    MarkE's expressed comments used a meaning of "observable" you assumed.
    ISTM they are consistent with a meaning where a genotype's effects
    aren't expressed in the phenotype.


    My question to you is, why the rage and vitriol?
    Since you asked, here's my guess:

    <https://www.youtube.com/watch?v=aME0qvhZ37o>

    As I used to have to say to my grandkids when they were little. Use your words.


    So not a fan of musical puns. Do you tell children to get off your
    lawn?

    --
    To know less than we don't know is the nature of most knowledge

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From MarkE@21:1/5 to broger...@gmail.com on Sun Oct 15 04:05:50 2023
    On Sunday, October 15, 2023 at 2:16:08 AM UTC+11, broger...@gmail.com wrote:
    On Saturday, October 14, 2023 at 9:56:08 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 12:21:08 AM UTC+11, Athel Cornish-Bowden wrote:
    On 2023-10-14 13:04:27 +0000, broger...@gmail.com said:

    On Saturday, October 14, 2023 at 8:26:07 AM UTC-4, MarkE wrote:
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11,
    broger...@gmail.com wrote:> > On Saturday, October 14, 2023 at 7:51:08
    AM UTC-4, MarkE wrote:> > > On Friday, October 13, 2023 at 11:26:07 PM
    UTC+11, Lawyer Daggett wrote:> > > > On Friday, October 13, 2023 at >> 6:56:06 AM UTC-4, MarkE wrote:> > > > > On Thursday, October 12, 2023
    at 10:16:06 PM UTC+11, Lawyer Daggett wrote:> > > > > > On Thursday,
    October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:> > > > > > > NS acts
    on the phenotype, selecting on the basis of its traits or behaviours in
    a given environment. For example, Galapagos finches beak size selected
    as a result of the varying availability of large hard seeds or small >> soft seeds. Or the gradual, incremental development of the camera-style
    eyes of vertebrates. In both examples, NS has direct “visibility” of
    the competing variants.> > > > .> > > > > > The above presses a gross >> misconception: that phenotype means "observable> > > > > > anatomical >> feature" . You compound this gross misunderstanding below.> > > > .> >
    Here’s the problem.> > > > > > >> > > > > > > Human
    topoisomerase, for example, contains 765 amino acids. Topoisomerase II
    gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it
    has very high information content (765 units) and functional complexity
    and specificity.> > > > > > >> > > > > > > But this is all happening >> inside the cell, out of the direct reach of NS.> > > > > > I'm cutting
    you off. Nobody, who has completed even a high school biology course,>
    has any excuse for that misconception. It's grotesquely
    wrong.> > > > > >> > > > > > My question for you is, is that level of >> ignorance a proper foundation from> > > > > > which to debate the
    validity of the theory of evolution? Son, people can see you.> > > >> >
    Valid point - my premise should instead be stated something like
    this: "parts of the> > > > > phenotype less accessible to natural
    selection". As regards the genotype/phenotype> > > > > distinction, I >> would say that even the DNA itself (including protein coding regions)>
    is part of the phenotype, insofar as it is a dynamic,
    chemically active, physical> > > > > structure. It follows from this >> that the genotype is non-physical information,> > > > > which is
    embodied in DNA.> > > > >> > > > > My question to you is, why the rage
    and vitriol?> > > > You're "correction" is still loaded is falsehoods.
    We're not talking about incorrect> > > > deductions. We're talking
    about asserting false premises. It's bullshit.> > > >> > > > It makes >> it evident that you have almost no understanding of even the terms> > >
    "phenotype", "selections", and as such no understanding of
    evolution.> > > >> > > > Imagine you are an auto mechanic, somebody >> drops off their car for repair and> > > > you fix it. The car's
    computer had thrown some codes about about misfiring and> > > >
    problems with certain voltage on some fuel injectors. You know your >> stuff so> > > > you strip off the plenum and get to the injectors, you
    take out your handy volt-ohm> > > > meter and check the resistance
    across the indicated injector and it is a dead short.> > > >> > > > You
    call up the customer and ask if they want you to go ahead and replace >> all of> > > >> > > > the injectors while you are there as the car has >> over 90K miles and it will save> > > > them a lot of money if you do >> them all now rather than have to do the tear down> > > > again for one
    that will quite likely fail in the next 10-15K miles.> > > >> > > > He
    gets upset and tells you you don't know what you're doing, you just >> need to> > > > clear the computer code so you could pass your state >> inspection. It was a computer> > > > problem, the engine was running >> fine. Sure, running fine with a fuel injector that> > > > was shorted >> out.> > > >> > > > The guy doesn't understand cars but he's telling you
    what the problem is.> > > >> > > > The point is, you aren't seeing rage
    and vitriol. You are seeing exasperation.> > > > You don't even
    understand a simple thing like selection and you are here evangelizing>
    about how evolution could not have produced X, Y, or Z.> > > >> >
    Find an on-line course on population genetics. Take it. There will
    be math, and> > > > lots of it. Not that you're ready for it, but
    you'll understand some of it. More significantly,> > > > if you do it,
    you might begin to discover just how much you really don't know, and> >
    something about the things you think you know that just ain't so.>
    Population genetics is mathematically difficult, and can be
    assisted by computer simulation. Out of curiosity I've previously
    written a program to explore population behaviour and allele fixation,
    using recombination and various profiles of mutation selection
    coefficients (i.e. assigning different probabilities to a range from >> lethal to neutral to slightly positive).> > >> > > Do you have
    different definitions of genotype and phenotype?> > The problem with >> your claim that topoisomerase mutations are beyond the reach of natural
    selection has little to do with having an incorrect definition of
    phenotype or genotype. The problem is your idea that mutations that >> effect basic, internal cellular functions, like DNA replication, or >> transcription, or formation of chromatin, are somehow less accessible >> to natural selection than genes that effect things like body mass, or >> coloration, or beak shape. Any mutation that effects fitness in any >> way, no matter where that effect occurs in the organism, is accessible
    to natural selection. And no matter where in the organism the effect >> occurs, there is always a long chain of effects between the mutation >> itself and whatever effect it has on fitness. There is nothing special
    in that regard about mutations in topoisomerase genes.
    To repeat an example: the development of the camera-style eyes of
    vertebrates requires gradual refinement over many steps with positive >> selection pressure applied.>> The evolution of Topoisomerase II may >> include some functional intermediates or it may co-opt extant
    subcomponents, but either way, its high informational and functional >> specificity and complexity will similarly necessitate gradual
    refinement over many steps with positive selection pressure applied.>>
    The evolutionary pathway of an eye can be conceived of as a long series
    of small variations each producing *functional* intermediates. But this
    is much more difficult with the evolution of Topoisomerase II. Most >> intermediates will be *non-functional* in terms of *progression towards
    Topoisomerase II function*. That's the problem.
    Why do you think intermediates will be non-functional, even in terms of
    progression to topoisomerase II function? That function requires various enzymatic activities, various specific bindings. Why can't changes in the amino acid sequence (and hence the 3-d structure) lead to slightly better substrate binding, slightly increased enzymatic activity, etc? How is this different than gradual refinement of any biological activity?
    The problem is that MarkE knows no biochemistry, and just repeats stuff he's found in creationist publications. It's probably a waste of time arfuing with him. So far the specific point is concerned we *know* from Steve Benner's work (on ribonuclease, for example) that the catalytic activity of ancestral forms can be measured.
    Actually, I think your problem is you really don't like anyone challenging the naturalist position. I've noticed your own tactic is either to not respond, or make unsubstantiated dismissive remarks like this one. What is conspicuously missing is a
    coherent and substantive critique of my proposition. Rather, you offer a lazy "Steve Benner said..."

    Once more: the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.
    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its high informational and functional specificity and complexity will similarly necessitate gradual refinement over
    many steps with positive selection pressure applied.
    The evolutionary pathway of an eye can be conceived of as a long series of small variations each producing *functional* intermediates. But this is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional*
    in terms of *progression towards Topoisomerase II function*. Regardless of Steve Benner's work (on ribonuclease, for example).

    That's the problem.
    Except that you have not shown that it's a problem. Topoisomerase is an enzyme. Mutations in enzymes change their activity. What's problematic about mutations gradually improving the activity of topoisomerase? Given a choice between a barely active
    proto-topoisomerase and one that is slightly more active, why couldn't natural selection select for the slightly more active one? You (or, more likely, your sources) are inventing a problem that is not there.

    The enzymatic activity here is not simple catalysis that lends itself to gradual improvements and reaction efficiency.

    In this case, it's the action of a molecular machine that is complex (765 amino acids) and specialised (it catalyses changes in DNA topology by passing one double-stranded DNA segment through another, which includes strand capture, cleavage, swapping,
    ligation, and release).

    Even if some subunits are preexisting, an evolutionary process would be required to integrate each subunit and control the new function (e.g. alterations to existing polymers to adapt them to the new ensemble, and additional amino acids to provide
    coordination).

    I guess this comes down to familiar questions of a plausible gradual pathway and avoidance of irreducible complexity (the latter being a subset of the former?).


    --
    athel cb : Biochemical Evolution, Garland Science, 2016

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From MarkE@21:1/5 to Ernest Major on Sun Oct 15 04:11:41 2023
    On Sunday, October 15, 2023 at 2:26:07 AM UTC+11, Ernest Major wrote:
    On 14/10/2023 13:15, MarkE wrote:
    Not so. I accepted the correction that these are indeed phenotype
    changes (e.g. lactose metabolism in bacteria). But my argument is that substantial intracellular changes (what might be called "molecular macroevolution") may be less accessible to NS. For example, the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.

    The
    evolution of Topoisomerase II may include some functional intermediates
    or it may co-opt extant subcomponents, but either way, its informational and functional specificity and complexity will similarly necessitate gradual refinement over many steps with positive selection pressure applied.

    The development pathway of an eye can be conceived as long
    series of small variations each producing *functional* intermediates.
    This is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional* in terms of progression towards Topoisomerase II function. That's the problem.
    That's not what you seemed to be claiming before. You were claiming that
    it wasn't accessible to natural selection. You're now claiming an
    absence of functional intermediates, which is not the same thing. "Accessible to natural selection" and "accessible by natural selection"
    may be only a small change in sequence, but it's a large change in semantics.

    Further reflection makes me wonder if much/all of this debate is variations on / specific instances of (i) a plausible gradual pathway and (ii) avoidance of irreducible complexity (the latter being a subset of the former?), with evaluation of
    probabilities associated with proposed solutions.


    Anyway, creationists have long claimed that eyes are unevolvable due to
    a putative lack of intermediates. Why should we take your claim about topoisomerases more seriously that their claims about eyes? Picking a
    darker crevice (topoisomerases evolved longer ago, so more of the
    evidence has been erased by time) for your gap doesn't make the argument better.

    --
    alias Ernest Major

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Sun Oct 15 04:45:27 2023
    On Sunday, October 15, 2023 at 7:06:09 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 2:16:08 AM UTC+11, broger...@gmail.com wrote:
    On Saturday, October 14, 2023 at 9:56:08 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 12:21:08 AM UTC+11, Athel Cornish-Bowden wrote:
    On 2023-10-14 13:04:27 +0000, broger...@gmail.com said:

    On Saturday, October 14, 2023 at 8:26:07 AM UTC-4, MarkE wrote:
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11,
    broger...@gmail.com wrote:> > On Saturday, October 14, 2023 at 7:51:08
    AM UTC-4, MarkE wrote:> > > On Friday, October 13, 2023 at 11:26:07 PM
    UTC+11, Lawyer Daggett wrote:> > > > On Friday, October 13, 2023 at >> 6:56:06 AM UTC-4, MarkE wrote:> > > > > On Thursday, October 12, 2023
    at 10:16:06 PM UTC+11, Lawyer Daggett wrote:> > > > > > On Thursday,
    October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:> > > > > > > NS acts
    on the phenotype, selecting on the basis of its traits or behaviours in
    a given environment. For example, Galapagos finches beak size selected
    as a result of the varying availability of large hard seeds or small
    soft seeds. Or the gradual, incremental development of the camera-style
    eyes of vertebrates. In both examples, NS has direct “visibility” of
    the competing variants.> > > > .> > > > > > The above presses a gross
    misconception: that phenotype means "observable> > > > > > anatomical
    feature" . You compound this gross misunderstanding below.> > > > .> >
    Here’s the problem.> > > > > > >> > > > > > > Human
    topoisomerase, for example, contains 765 amino acids. Topoisomerase II
    gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it
    has very high information content (765 units) and functional complexity
    and specificity.> > > > > > >> > > > > > > But this is all happening
    inside the cell, out of the direct reach of NS.> > > > > > I'm cutting
    you off. Nobody, who has completed even a high school biology course,>
    has any excuse for that misconception. It's grotesquely >> wrong.> > > > > >> > > > > > My question for you is, is that level of
    ignorance a proper foundation from> > > > > > which to debate the >> validity of the theory of evolution? Son, people can see you.> > > >> >
    Valid point - my premise should instead be stated something like
    this: "parts of the> > > > > phenotype less accessible to natural >> selection". As regards the genotype/phenotype> > > > > distinction, I
    would say that even the DNA itself (including protein coding regions)>
    is part of the phenotype, insofar as it is a dynamic,
    chemically active, physical> > > > > structure. It follows from this
    that the genotype is non-physical information,> > > > > which is
    embodied in DNA.> > > > >> > > > > My question to you is, why the rage
    and vitriol?> > > > You're "correction" is still loaded is falsehoods.
    We're not talking about incorrect> > > > deductions. We're talking >> about asserting false premises. It's bullshit.> > > >> > > > It makes
    it evident that you have almost no understanding of even the terms> > >
    "phenotype", "selections", and as such no understanding of
    evolution.> > > >> > > > Imagine you are an auto mechanic, somebody >> drops off their car for repair and> > > > you fix it. The car's
    computer had thrown some codes about about misfiring and> > > >
    problems with certain voltage on some fuel injectors. You know your >> stuff so> > > > you strip off the plenum and get to the injectors, you
    take out your handy volt-ohm> > > > meter and check the resistance >> across the indicated injector and it is a dead short.> > > >> > > > You
    call up the customer and ask if they want you to go ahead and replace
    all of> > > >> > > > the injectors while you are there as the car has
    over 90K miles and it will save> > > > them a lot of money if you do
    them all now rather than have to do the tear down> > > > again for one
    that will quite likely fail in the next 10-15K miles.> > > >> > > > He
    gets upset and tells you you don't know what you're doing, you just >> need to> > > > clear the computer code so you could pass your state >> inspection. It was a computer> > > > problem, the engine was running
    fine. Sure, running fine with a fuel injector that> > > > was shorted
    out.> > > >> > > > The guy doesn't understand cars but he's telling you
    what the problem is.> > > >> > > > The point is, you aren't seeing rage
    and vitriol. You are seeing exasperation.> > > > You don't even
    understand a simple thing like selection and you are here evangelizing>
    about how evolution could not have produced X, Y, or Z.> > > >> >
    Find an on-line course on population genetics. Take it. There will
    be math, and> > > > lots of it. Not that you're ready for it, but >> you'll understand some of it. More significantly,> > > > if you do it,
    you might begin to discover just how much you really don't know, and> >
    something about the things you think you know that just ain't so.>
    Population genetics is mathematically difficult, and can be
    assisted by computer simulation. Out of curiosity I've previously >> written a program to explore population behaviour and allele fixation,
    using recombination and various profiles of mutation selection
    coefficients (i.e. assigning different probabilities to a range from
    lethal to neutral to slightly positive).> > >> > > Do you have
    different definitions of genotype and phenotype?> > The problem with
    your claim that topoisomerase mutations are beyond the reach of natural
    selection has little to do with having an incorrect definition of >> phenotype or genotype. The problem is your idea that mutations that >> effect basic, internal cellular functions, like DNA replication, or >> transcription, or formation of chromatin, are somehow less accessible
    to natural selection than genes that effect things like body mass, or
    coloration, or beak shape. Any mutation that effects fitness in any >> way, no matter where that effect occurs in the organism, is accessible
    to natural selection. And no matter where in the organism the effect
    occurs, there is always a long chain of effects between the mutation
    itself and whatever effect it has on fitness. There is nothing special
    in that regard about mutations in topoisomerase genes.
    To repeat an example: the development of the camera-style eyes of >> vertebrates requires gradual refinement over many steps with positive
    selection pressure applied.>> The evolution of Topoisomerase II may >> include some functional intermediates or it may co-opt extant
    subcomponents, but either way, its high informational and functional
    specificity and complexity will similarly necessitate gradual
    refinement over many steps with positive selection pressure applied.>>
    The evolutionary pathway of an eye can be conceived of as a long series
    of small variations each producing *functional* intermediates. But this
    is much more difficult with the evolution of Topoisomerase II. Most >> intermediates will be *non-functional* in terms of *progression towards
    Topoisomerase II function*. That's the problem.
    Why do you think intermediates will be non-functional, even in terms of
    progression to topoisomerase II function? That function requires various enzymatic activities, various specific bindings. Why can't changes in the amino acid sequence (and hence the 3-d structure) lead
    to slightly better substrate binding, slightly increased enzymatic activity, etc? How is this different than gradual refinement of any biological activity?
    The problem is that MarkE knows no biochemistry, and just repeats stuff
    he's found in creationist publications. It's probably a waste of time arfuing with him. So far the specific point is concerned we *know* from
    Steve Benner's work (on ribonuclease, for example) that the catalytic activity of ancestral forms can be measured.
    Actually, I think your problem is you really don't like anyone challenging the naturalist position. I've noticed your own tactic is either to not respond, or make unsubstantiated dismissive remarks like this one. What is conspicuously missing is a
    coherent and substantive critique of my proposition. Rather, you offer a lazy "Steve Benner said..."

    Once more: the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.
    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its high informational and functional specificity and complexity will similarly necessitate gradual refinement over
    many steps with positive selection pressure applied.
    The evolutionary pathway of an eye can be conceived of as a long series of small variations each producing *functional* intermediates. But this is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-
    functional* in terms of *progression towards Topoisomerase II function*. Regardless of Steve Benner's work (on ribonuclease, for example).

    That's the problem.
    Except that you have not shown that it's a problem. Topoisomerase is an enzyme. Mutations in enzymes change their activity. What's problematic about mutations gradually improving the activity of topoisomerase? Given a choice between a barely active
    proto-topoisomerase and one that is slightly more active, why couldn't natural selection select for the slightly more active one? You (or, more likely, your sources) are inventing a problem that is not there.
    The enzymatic activity here is not simple catalysis that lends itself to gradual improvements and reaction efficiency.

    In this case, it's the action of a molecular machine that is complex (765 amino acids) and specialised (it catalyses changes in DNA topology by passing one double-stranded DNA segment through another, which includes strand capture, cleavage, swapping,
    ligation, and release).

    There are lots of big enzymes and enzyme complexes which catalyze multi-step processes. Why do you think topoisomerase is special?

    Even if some subunits are preexisting, an evolutionary process would be required to integrate each subunit and control the new function (e.g. alterations to existing polymers to adapt them to the new ensemble, and additional amino acids to provide
    coordination).

    I guess this comes down to familiar questions of a plausible gradual pathway and avoidance of irreducible complexity (the latter being a subset of the former?).

    Sure. And if you were interested, you could go to Google Scholar and search on evolution of topoisomerases (and gyrases) and try to figure out what is already known in terms of possible intermediates, etc. You might have to stop by a molecular biology
    text on the way to get enough background that the papers on topoisomerase evolution would make sense to you.

    The much bigger question is why are you wasting your time with this stuff? It is beyond obvious that your main interest in any of this, OoL or topoisomerase evolution is to say "look, science has no explanation for this, therefore there is a (
    supernatural) designer." But that sort of argument is useless both scientifically and theologically.

    Supernatural ID is useless scientifically because it leads nowhere. All it does is say - "If you've been trying to understand something for X amount of time and have had Y amount of resources available to you, and you still don't have a definitive answer,
    give up." Supernatural ID provides no details and is supported by no direct evidence - indeed you say yourself that it would be a category error to ask such things of supernatural ID. So it gets you nowhere in terms of understanding the what happened at
    the origin of life or of topoisomerase genes.

    More importantly, supernatural ID is useless theologically. Remember your favorite Dawkins quote about how the universe looks like it has nothing but blind, pitiless indifference to anything we care about. Well, here are two potential rebuttals.

    1. More or less mainstream Christian rebuttal: Yes, the universe can look pitiless and indifferent to human suffering, especially the suffering of the innocent. Children die of cancer, good, generous people die in natural disasters while the wicked
    prosper. The race does not go to the swift. But, the indifference is an illusion. God is not indifferent to human suffering, indeed He became a human and suffered terribly and unjustly. He knows what you are going through, and He says "Have faith. Love
    one another. Take care of one another. Befriend people who are despised, criminals, refugees, prostitutes. Lay off the self-righteous religiosity. Feed the hungry. Clothe the naked. Stop laying up treasures on earth. Do these things and have faith, and
    you will come to see that the 'pitiless indifference' is an illusion and that underneath it all is 'the Love that moves the Sun and the other stars.'"

    2. Supernatural ID rebuttal: Yes, the universe looks pitiless and indifferent. But it also contains a lot of complicated stuff in it that could not have occurred naturally - finely tuned constants of nature, the origin of life, multi-step enzyme
    processes, bacterial flagella, metazoan body plans. So there must be an intelligent designer behind it all. We cannot draw any conclusions about the designer apart from the things he designed. So we know that the designer designed a universe that acts
    with blind, pitiless indifference towards us, and everything else within it. Not much consolation but at least we don't have to lie awake at night wondering about the evolution of topoisomerases.

    Supernatural ID does not get you to the sort of God you want to believe in - an invisible, omnipotent, personal loving God who cares for you and everybody else and offers you eternal life and the chance to reconnect with all your loved ones who have died
    as long as you sincerely believe. For that you need a leap of faith. And that leap of faith is no bigger or smaller depending on whether you are satisfied with progress in OoL research or topoisomerase evolution.

    If you want to understand evolutionary biology and molecular biology and genetics, you need to go take some courses or at least work through a few textbooks. If you want to work on Rebuttal #1, though, you can skip right over anything having to do with
    science as totally irrelevant. Nobody accepts Jesus Christ as their personal Lord and Savior because he offers a better explanation of the OoL than David Deamer. And a fully worked out empirically supported naturalistic explanation for the OoL would not
    be evidence against the existence of God.



    --
    athel cb : Biochemical Evolution, Garland Science, 2016

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Sun Oct 15 06:33:49 2023
    On Sunday, October 15, 2023 at 7:16:09 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 2:26:07 AM UTC+11, Ernest Major wrote:
    On 14/10/2023 13:15, MarkE wrote:
    Not so. I accepted the correction that these are indeed phenotype changes (e.g. lactose metabolism in bacteria). But my argument is that substantial intracellular changes (what might be called "molecular macroevolution") may be less accessible to NS. For example, the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.

    The
    evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its informational and functional specificity and complexity will similarly necessitate gradual refinement over many steps with positive selection pressure applied.

    The development pathway of an eye can be conceived as long
    series of small variations each producing *functional* intermediates. This is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-functional* in terms of progression towards Topoisomerase II function. That's the problem.
    That's not what you seemed to be claiming before. You were claiming that it wasn't accessible to natural selection. You're now claiming an
    absence of functional intermediates, which is not the same thing. "Accessible to natural selection" and "accessible by natural selection" may be only a small change in sequence, but it's a large change in semantics.
    Further reflection makes me wonder if much/all of this debate is variations on / specific instances of (i) a plausible gradual pathway and (ii) avoidance of irreducible complexity (the latter being a subset of the former?), with evaluation of
    probabilities associated with proposed solutions.

    Sure, that's what people have been doing for decades in molecular evolution, trying to figure out likely pathways. As you said earlier, most of the "core machinery" of the cell was probably in place before the evolution of multicellular organisms. So you
    have to ask what sort of evidence of the actual evolutionary pathway for any of those core functions will be available. It's mostly sequence comparisons across different taxonomic groups. But if you can think of additional forms of evidence that would
    bear on evolution of things like topoisomerase, have at it.

    Evaluating probabilities is not terribly straightforward, but it's certainly possible to ask how long it takes a mutation that provides an X percent increase in fitness to spread through a population. The difficulty is in knowing what the fitness effects
    of any given mutation are likely to be in enough detail to put a number to it. There are also experiments in enzyme evolution that look at possible pathways, use synthetic biology to generate actual physical versions of proposed intermediates, and then
    measure their enzyme activity.

    Evolutionnews may leave you with the idea that nobody has really thought about any of this, but that's not remotely true.

    Anyway, creationists have long claimed that eyes are unevolvable due to
    a putative lack of intermediates. Why should we take your claim about topoisomerases more seriously that their claims about eyes? Picking a darker crevice (topoisomerases evolved longer ago, so more of the
    evidence has been erased by time) for your gap doesn't make the argument better.

    --
    alias Ernest Major

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From JTEM is my hero@21:1/5 to jillery on Mon Oct 16 13:09:45 2023
    jillery wrote:

    "selection" implies a conscious decision similar to how "design"
    implies a designer, among those who believe in magic.

    If you went on to say that "People who believe in magic" are those
    who say things like "Selection" and "Design," you'd be correct.

    You can say "Selective pressure," because you're attributing this
    selection to the result of external pressures.



    -- --

    https://jtem.tumblr.com/post/730831540483932160

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From jillery@21:1/5 to jtem01@gmail.com on Tue Oct 17 01:21:18 2023
    On Mon, 16 Oct 2023 13:09:45 -0700 (PDT), JTEM is my hero
    <jtem01@gmail.com> wrote:

    jillery wrote:

    "selection" implies a conscious decision similar to how "design"
    implies a designer, among those who believe in magic.

    If you went on to say that "People who believe in magic" are those
    who say things like "Selection" and "Design," you'd be correct.


    Incorrect. Both "selection" and "design" are both nouns and verbs,
    and both are effects of both purposeful intelligence and unguided
    natural processes. This is the basis for the word games cdesign
    proponentsists play. Your last sentence above yields these words to
    them.

    --
    To know less than we don't know is the nature of most knowledge

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From brogers31751@gmail.com@21:1/5 to MarkE on Tue Oct 17 06:06:26 2023
    On Tuesday, October 17, 2023 at 8:31:11 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 10:46:09 PM UTC+11, broger...@gmail.com wrote:
    On Sunday, October 15, 2023 at 7:06:09 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 2:16:08 AM UTC+11, broger...@gmail.com wrote:
    On Saturday, October 14, 2023 at 9:56:08 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 12:21:08 AM UTC+11, Athel Cornish-Bowden wrote:
    On 2023-10-14 13:04:27 +0000, broger...@gmail.com said:

    On Saturday, October 14, 2023 at 8:26:07 AM UTC-4, MarkE wrote:
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11,
    broger...@gmail.com wrote:> > On Saturday, October 14, 2023 at 7:51:08
    AM UTC-4, MarkE wrote:> > > On Friday, October 13, 2023 at 11:26:07 PM
    UTC+11, Lawyer Daggett wrote:> > > > On Friday, October 13, 2023 at
    6:56:06 AM UTC-4, MarkE wrote:> > > > > On Thursday, October 12, 2023
    at 10:16:06 PM UTC+11, Lawyer Daggett wrote:> > > > > > On Thursday,
    October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:> > > > > > > NS acts
    on the phenotype, selecting on the basis of its traits or behaviours in
    a given environment. For example, Galapagos finches beak size selected
    as a result of the varying availability of large hard seeds or small
    soft seeds. Or the gradual, incremental development of the camera-style
    eyes of vertebrates. In both examples, NS has direct “visibility” of
    the competing variants.> > > > .> > > > > > The above presses a gross
    misconception: that phenotype means "observable> > > > > > anatomical
    feature" . You compound this gross misunderstanding below.> > > > .> >
    Here’s the problem.> > > > > > >> > > > > > > Human >> topoisomerase, for example, contains 765 amino acids. Topoisomerase II
    gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it
    has very high information content (765 units) and functional complexity
    and specificity.> > > > > > >> > > > > > > But this is all happening
    inside the cell, out of the direct reach of NS.> > > > > > I'm cutting
    you off. Nobody, who has completed even a high school biology course,>
    has any excuse for that misconception. It's grotesquely
    wrong.> > > > > >> > > > > > My question for you is, is that level of
    ignorance a proper foundation from> > > > > > which to debate the
    validity of the theory of evolution? Son, people can see you.> > > >> >
    Valid point - my premise should instead be stated something like
    this: "parts of the> > > > > phenotype less accessible to natural
    selection". As regards the genotype/phenotype> > > > > distinction, I
    would say that even the DNA itself (including protein coding regions)>
    is part of the phenotype, insofar as it is a dynamic, >> chemically active, physical> > > > > structure. It follows from this
    that the genotype is non-physical information,> > > > > which is
    embodied in DNA.> > > > >> > > > > My question to you is, why the rage
    and vitriol?> > > > You're "correction" is still loaded is falsehoods.
    We're not talking about incorrect> > > > deductions. We're talking
    about asserting false premises. It's bullshit.> > > >> > > > It makes
    it evident that you have almost no understanding of even the terms> > >
    "phenotype", "selections", and as such no understanding of
    evolution.> > > >> > > > Imagine you are an auto mechanic, somebody
    drops off their car for repair and> > > > you fix it. The car's >> computer had thrown some codes about about misfiring and> > > > >> problems with certain voltage on some fuel injectors. You know your
    stuff so> > > > you strip off the plenum and get to the injectors, you
    take out your handy volt-ohm> > > > meter and check the resistance
    across the indicated injector and it is a dead short.> > > >> > > > You
    call up the customer and ask if they want you to go ahead and replace
    all of> > > >> > > > the injectors while you are there as the car has
    over 90K miles and it will save> > > > them a lot of money if you do
    them all now rather than have to do the tear down> > > > again for one
    that will quite likely fail in the next 10-15K miles.> > > >> > > > He
    gets upset and tells you you don't know what you're doing, you just
    need to> > > > clear the computer code so you could pass your state
    inspection. It was a computer> > > > problem, the engine was running
    fine. Sure, running fine with a fuel injector that> > > > was shorted
    out.> > > >> > > > The guy doesn't understand cars but he's telling you
    what the problem is.> > > >> > > > The point is, you aren't seeing rage
    and vitriol. You are seeing exasperation.> > > > You don't even >> understand a simple thing like selection and you are here evangelizing>
    about how evolution could not have produced X, Y, or Z.> > > >> >
    Find an on-line course on population genetics. Take it. There will
    be math, and> > > > lots of it. Not that you're ready for it, but
    you'll understand some of it. More significantly,> > > > if you do it,
    you might begin to discover just how much you really don't know, and> >
    something about the things you think you know that just ain't so.>
    Population genetics is mathematically difficult, and can be >> assisted by computer simulation. Out of curiosity I've previously
    written a program to explore population behaviour and allele fixation,
    using recombination and various profiles of mutation selection >> coefficients (i.e. assigning different probabilities to a range from
    lethal to neutral to slightly positive).> > >> > > Do you have >> different definitions of genotype and phenotype?> > The problem with
    your claim that topoisomerase mutations are beyond the reach of natural
    selection has little to do with having an incorrect definition of
    phenotype or genotype. The problem is your idea that mutations that
    effect basic, internal cellular functions, like DNA replication, or
    transcription, or formation of chromatin, are somehow less accessible
    to natural selection than genes that effect things like body mass, or
    coloration, or beak shape. Any mutation that effects fitness in any
    way, no matter where that effect occurs in the organism, is accessible
    to natural selection. And no matter where in the organism the effect
    occurs, there is always a long chain of effects between the mutation
    itself and whatever effect it has on fitness. There is nothing special
    in that regard about mutations in topoisomerase genes.
    To repeat an example: the development of the camera-style eyes of
    vertebrates requires gradual refinement over many steps with positive
    selection pressure applied.>> The evolution of Topoisomerase II may
    include some functional intermediates or it may co-opt extant >> subcomponents, but either way, its high informational and functional
    specificity and complexity will similarly necessitate gradual >> refinement over many steps with positive selection pressure applied.>>
    The evolutionary pathway of an eye can be conceived of as a long series
    of small variations each producing *functional* intermediates. But this
    is much more difficult with the evolution of Topoisomerase II. Most
    intermediates will be *non-functional* in terms of *progression towards
    Topoisomerase II function*. That's the problem.
    Why do you think intermediates will be non-functional, even in terms of
    progression to topoisomerase II function? That function requires various enzymatic activities, various specific bindings. Why can't
    changes in the amino acid sequence (and hence the 3-d structure) lead
    to slightly better substrate binding, slightly increased enzymatic
    activity, etc? How is this different than gradual refinement of any
    biological activity?
    The problem is that MarkE knows no biochemistry, and just repeats stuff
    he's found in creationist publications. It's probably a waste of time
    arfuing with him. So far the specific point is concerned we *know* from
    Steve Benner's work (on ribonuclease, for example) that the catalytic
    activity of ancestral forms can be measured.
    Actually, I think your problem is you really don't like anyone challenging the naturalist position. I've noticed your own tactic is either to not respond, or make unsubstantiated dismissive remarks like this one. What is conspicuously missing
    is a coherent and substantive critique of my proposition. Rather, you offer a lazy "Steve Benner said..."

    Once more: the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.
    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its high informational and functional specificity and complexity will similarly necessitate gradual refinement
    over many steps with positive selection pressure applied.
    The evolutionary pathway of an eye can be conceived of as a long series of small variations each producing *functional* intermediates. But this is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-
    functional* in terms of *progression towards Topoisomerase II function*. Regardless of Steve Benner's work (on ribonuclease, for example).

    That's the problem.
    Except that you have not shown that it's a problem. Topoisomerase is an enzyme. Mutations in enzymes change their activity. What's problematic about mutations gradually improving the activity of topoisomerase? Given a choice between a barely
    active proto-topoisomerase and one that is slightly more active, why couldn't natural selection select for the slightly more active one? You (or, more likely, your sources) are inventing a problem that is not there.
    The enzymatic activity here is not simple catalysis that lends itself to gradual improvements and reaction efficiency.

    In this case, it's the action of a molecular machine that is complex (765 amino acids) and specialised (it catalyses changes in DNA topology by passing one double-stranded DNA segment through another, which includes strand capture, cleavage,
    swapping, ligation, and release).
    There are lots of big enzymes and enzyme complexes which catalyze multi-step processes. Why do you think topoisomerase is special?

    Even if some subunits are preexisting, an evolutionary process would be required to integrate each subunit and control the new function (e.g. alterations to existing polymers to adapt them to the new ensemble, and additional amino acids to provide
    coordination).

    I guess this comes down to familiar questions of a plausible gradual pathway and avoidance of irreducible complexity (the latter being a subset of the former?).
    Sure. And if you were interested, you could go to Google Scholar and search on evolution of topoisomerases (and gyrases) and try to figure out what is already known in terms of possible intermediates, etc. You might have to stop by a molecular
    biology text on the way to get enough background that the papers on topoisomerase evolution would make sense to you.

    The much bigger question is why are you wasting your time with this stuff? It is beyond obvious that your main interest in any of this, OoL or topoisomerase evolution is to say "look, science has no explanation for this, therefore there is a (
    supernatural) designer." But that sort of argument is useless both scientifically and theologically.

    Supernatural ID is useless scientifically because it leads nowhere. All it does is say - "If you've been trying to understand something for X amount of time and have had Y amount of resources available to you, and you still don't have a definitive
    answer, give up." Supernatural ID provides no details and is supported by no direct evidence - indeed you say yourself that it would be a category error to ask such things of supernatural ID. So it gets you nowhere in terms of understanding the what
    happened at the origin of life or of topoisomerase genes.
    There is not unlimited time and space to overcome the improbability of naturalistic OoL and evolution. Creationist arguments that appeal to science attempt show that naturalism has exceeded its budget.

    They attempt to show that naturalism has exceeded its budget, and they fail to do so.

    You are in effect saying that the creation vs OoL/evolution debate is invalid. You'd be much happier posting to talk.only_naturalistic_origins

    I'm saying that the questions about the origin of life or the evolution of topoisomerase are completely irrelevant to the question of God's existence, and that ID arguments get you nowhere scientifically or theologically.

    More importantly, supernatural ID is useless theologically. Remember your favorite Dawkins quote about how the universe looks like it has nothing but blind, pitiless indifference to anything we care about. Well, here are two potential rebuttals.

    1. More or less mainstream Christian rebuttal: Yes, the universe can look pitiless and indifferent to human suffering, especially the suffering of the innocent. Children die of cancer, good, generous people die in natural disasters while the wicked
    prosper. The race does not go to the swift. But, the indifference is an illusion. God is not indifferent to human suffering, indeed He became a human and suffered terribly and unjustly. He knows what you are going through, and He says "Have faith. Love
    one another. Take care of one another. Befriend people who are despised, criminals, refugees, prostitutes. Lay off the self-righteous religiosity. Feed the hungry. Clothe the naked. Stop laying up treasures on earth. Do these things and have faith, and
    you will come to see that the 'pitiless indifference' is an illusion and that underneath it all is 'the Love that moves the Sun and the other stars.'"

    2. Supernatural ID rebuttal: Yes, the universe looks pitiless and indifferent. But it also contains a lot of complicated stuff in it that could not have occurred naturally - finely tuned constants of nature, the origin of life, multi-step enzyme
    processes, bacterial flagella, metazoan body plans. So there must be an intelligent designer behind it all. We cannot draw any conclusions about the designer apart from the things he designed. So we know that the designer designed a universe that acts
    with blind, pitiless indifference towards us, and everything else within it. Not much consolation but at least we don't have to lie awake at night wondering about the evolution of topoisomerases.

    Supernatural ID does not get you to the sort of God you want to believe in - an invisible, omnipotent, personal loving God who cares for you and everybody else and offers you eternal life and the chance to reconnect with all your loved ones who have
    died as long as you sincerely believe. For that you need a leap of faith. And that leap of faith is no bigger or smaller depending on whether you are satisfied with progress in OoL research or topoisomerase evolution.

    If you want to understand evolutionary biology and molecular biology and genetics, you need to go take some courses or at least work through a few textbooks. If you want to work on Rebuttal #1, though, you can skip right over anything having to do
    with science as totally irrelevant. Nobody accepts Jesus Christ as their personal Lord and Savior because he offers a better explanation of the OoL than David Deamer. And a fully worked out empirically supported naturalistic explanation for the OoL would
    not be evidence against the existence of God.

    --
    athel cb : Biochemical Evolution, Garland Science, 2016

    --- SoupGate-Win32 v1.05
    * Origin: fsxNet Usenet Gateway (21:1/5)
  • From MarkE@21:1/5 to broger...@gmail.com on Tue Oct 17 05:28:04 2023
    On Sunday, October 15, 2023 at 10:46:09 PM UTC+11, broger...@gmail.com wrote:
    On Sunday, October 15, 2023 at 7:06:09 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 2:16:08 AM UTC+11, broger...@gmail.com wrote:
    On Saturday, October 14, 2023 at 9:56:08 AM UTC-4, MarkE wrote:
    On Sunday, October 15, 2023 at 12:21:08 AM UTC+11, Athel Cornish-Bowden wrote:
    On 2023-10-14 13:04:27 +0000, broger...@gmail.com said:

    On Saturday, October 14, 2023 at 8:26:07 AM UTC-4, MarkE wrote:
    On Saturday, October 14, 2023 at 11:16:08 PM UTC+11,
    broger...@gmail.com wrote:> > On Saturday, October 14, 2023 at 7:51:08
    AM UTC-4, MarkE wrote:> > > On Friday, October 13, 2023 at 11:26:07 PM
    UTC+11, Lawyer Daggett wrote:> > > > On Friday, October 13, 2023 at
    6:56:06 AM UTC-4, MarkE wrote:> > > > > On Thursday, October 12, 2023
    at 10:16:06 PM UTC+11, Lawyer Daggett wrote:> > > > > > On Thursday,
    October 12, 2023 at 6:06:06 AM UTC-4, MarkE wrote:> > > > > > > NS acts
    on the phenotype, selecting on the basis of its traits or behaviours in
    a given environment. For example, Galapagos finches beak size selected
    as a result of the varying availability of large hard seeds or small
    soft seeds. Or the gradual, incremental development of the camera-style
    eyes of vertebrates. In both examples, NS has direct “visibility” of
    the competing variants.> > > > .> > > > > > The above presses a gross
    misconception: that phenotype means "observable> > > > > > anatomical
    feature" . You compound this gross misunderstanding below.> > > > .> >
    Here’s the problem.> > > > > > >> > > > > > > Human >> topoisomerase, for example, contains 765 amino acids. Topoisomerase II
    gathers, clamps, snips, swaps, and rejoins DNA strands [1]. That is, it
    has very high information content (765 units) and functional complexity
    and specificity.> > > > > > >> > > > > > > But this is all happening
    inside the cell, out of the direct reach of NS.> > > > > > I'm cutting
    you off. Nobody, who has completed even a high school biology course,>
    has any excuse for that misconception. It's grotesquely >> wrong.> > > > > >> > > > > > My question for you is, is that level of
    ignorance a proper foundation from> > > > > > which to debate the >> validity of the theory of evolution? Son, people can see you.> > > >> >
    Valid point - my premise should instead be stated something like
    this: "parts of the> > > > > phenotype less accessible to natural >> selection". As regards the genotype/phenotype> > > > > distinction, I
    would say that even the DNA itself (including protein coding regions)>
    is part of the phenotype, insofar as it is a dynamic,
    chemically active, physical> > > > > structure. It follows from this
    that the genotype is non-physical information,> > > > > which is >> embodied in DNA.> > > > >> > > > > My question to you is, why the rage
    and vitriol?> > > > You're "correction" is still loaded is falsehoods.
    We're not talking about incorrect> > > > deductions. We're talking
    about asserting false premises. It's bullshit.> > > >> > > > It makes
    it evident that you have almost no understanding of even the terms> > >
    "phenotype", "selections", and as such no understanding of
    evolution.> > > >> > > > Imagine you are an auto mechanic, somebody
    drops off their car for repair and> > > > you fix it. The car's >> computer had thrown some codes about about misfiring and> > > > >> problems with certain voltage on some fuel injectors. You know your
    stuff so> > > > you strip off the plenum and get to the injectors, you
    take out your handy volt-ohm> > > > meter and check the resistance
    across the indicated injector and it is a dead short.> > > >> > > > You
    call up the customer and ask if they want you to go ahead and replace
    all of> > > >> > > > the injectors while you are there as the car has
    over 90K miles and it will save> > > > them a lot of money if you do
    them all now rather than have to do the tear down> > > > again for one
    that will quite likely fail in the next 10-15K miles.> > > >> > > > He
    gets upset and tells you you don't know what you're doing, you just
    need to> > > > clear the computer code so you could pass your state
    inspection. It was a computer> > > > problem, the engine was running
    fine. Sure, running fine with a fuel injector that> > > > was shorted
    out.> > > >> > > > The guy doesn't understand cars but he's telling you
    what the problem is.> > > >> > > > The point is, you aren't seeing rage
    and vitriol. You are seeing exasperation.> > > > You don't even >> understand a simple thing like selection and you are here evangelizing>
    about how evolution could not have produced X, Y, or Z.> > > >> >
    Find an on-line course on population genetics. Take it. There will
    be math, and> > > > lots of it. Not that you're ready for it, but >> you'll understand some of it. More significantly,> > > > if you do it,
    you might begin to discover just how much you really don't know, and> >
    something about the things you think you know that just ain't so.>
    Population genetics is mathematically difficult, and can be >> assisted by computer simulation. Out of curiosity I've previously >> written a program to explore population behaviour and allele fixation,
    using recombination and various profiles of mutation selection
    coefficients (i.e. assigning different probabilities to a range from
    lethal to neutral to slightly positive).> > >> > > Do you have
    different definitions of genotype and phenotype?> > The problem with
    your claim that topoisomerase mutations are beyond the reach of natural
    selection has little to do with having an incorrect definition of >> phenotype or genotype. The problem is your idea that mutations that
    effect basic, internal cellular functions, like DNA replication, or
    transcription, or formation of chromatin, are somehow less accessible
    to natural selection than genes that effect things like body mass, or
    coloration, or beak shape. Any mutation that effects fitness in any
    way, no matter where that effect occurs in the organism, is accessible
    to natural selection. And no matter where in the organism the effect
    occurs, there is always a long chain of effects between the mutation
    itself and whatever effect it has on fitness. There is nothing special
    in that regard about mutations in topoisomerase genes.
    To repeat an example: the development of the camera-style eyes of >> vertebrates requires gradual refinement over many steps with positive
    selection pressure applied.>> The evolution of Topoisomerase II may
    include some functional intermediates or it may co-opt extant
    subcomponents, but either way, its high informational and functional
    specificity and complexity will similarly necessitate gradual
    refinement over many steps with positive selection pressure applied.>>
    The evolutionary pathway of an eye can be conceived of as a long series
    of small variations each producing *functional* intermediates. But this
    is much more difficult with the evolution of Topoisomerase II. Most
    intermediates will be *non-functional* in terms of *progression towards
    Topoisomerase II function*. That's the problem.
    Why do you think intermediates will be non-functional, even in terms of
    progression to topoisomerase II function? That function requires various enzymatic activities, various specific bindings. Why can't changes in the amino acid sequence (and hence the 3-d structure) lead
    to slightly better substrate binding, slightly increased enzymatic activity, etc? How is this different than gradual refinement of any
    biological activity?
    The problem is that MarkE knows no biochemistry, and just repeats stuff
    he's found in creationist publications. It's probably a waste of time
    arfuing with him. So far the specific point is concerned we *know* from
    Steve Benner's work (on ribonuclease, for example) that the catalytic
    activity of ancestral forms can be measured.
    Actually, I think your problem is you really don't like anyone challenging the naturalist position. I've noticed your own tactic is either to not respond, or make unsubstantiated dismissive remarks like this one. What is conspicuously missing is
    a coherent and substantive critique of my proposition. Rather, you offer a lazy "Steve Benner said..."

    Once more: the development of the camera-style eyes of vertebrates requires gradual refinement over many steps with positive selection pressure applied.
    The evolution of Topoisomerase II may include some functional intermediates or it may co-opt extant subcomponents, but either way, its high informational and functional specificity and complexity will similarly necessitate gradual refinement over
    many steps with positive selection pressure applied.
    The evolutionary pathway of an eye can be conceived of as a long series of small variations each producing *functional* intermediates. But this is much more difficult with the evolution of Topoisomerase II. Most intermediates will be *non-
    functional* in terms of *progression towards Topoisomerase II function*. Regardless of Steve Benner's work (on ribonuclease, for example).

    That's the problem.
    Except that you have not shown that it's a problem. Topoisomerase is an enzyme. Mutations in enzymes change their activity. What's problematic about mutations gradually improving the activity of topoisomerase? Given a choice between a barely active
    proto-topoisomerase and one that is slightly more active, why couldn't natural selection select for the slightly more active one? You (or, more likely, your sources) are inventing a problem that is not there.
    The enzymatic activity here is not simple catalysis that lends itself to gradual improvements and reaction efficiency.

    In this case, it's the action of a molecular machine that is complex (765 amino acids) and specialised (it catalyses changes in DNA topology by passing one double-stranded DNA segment through another, which includes strand capture, cleavage, swapping,
    ligation, and release).
    There are lots of big enzymes and enzyme complexes which catalyze multi-step processes. Why do you think topoisomerase is special?

    Even if some subunits are preexisting, an evolutionary process would be required to integrate each subunit and control the new function (e.g. alterations to existing polymers to adapt them to the new ensemble, and additional amino acids to provide
    coordination).

    I guess this comes down to familiar questions of a plausible gradual pathway and avoidance of irreducible complexity (the latter being a subset of the former?).
    Sure. And if you were interested, you could go to Google Scholar and search on evolution of topoisomerases (and gyrases) and try to figure out what is already known in terms of possible intermediates, etc. You might have to stop by a molecular biology
    text on the way to get enough background that the papers on topoisomerase evolution would make sense to you.

    The much bigger question is why are you wasting your time with this stuff? It is beyond obvious that your main interest in any of this, OoL or topoisomerase evolution is to say "look, science has no explanation for this, therefore there is a (
    supernatural) designer." But that sort of argument is useless both scientifically and theologically.

    Supernatural ID is useless scientifically because it leads nowhere. All it does is say - "If you've been trying to understand something for X amount of time and have had Y amount of resources available to you, and you still don't have a definitive
    answer, give up." Supernatural ID provides no details and is supported by no direct evidence - indeed you say yourself that it would be a category error to ask such things of supernatural ID. So it gets you nowhere in terms of understanding the what
    happened at the origin of life or of topoisomerase genes.

    There is not unlimited time and space to overcome the improbability of naturalistic OoL and evolution. Creationist arguments that appeal to science attempt show that naturalism has exceeded its budget.

    You are in effect saying that the creation vs OoL/evolution debate is invalid. You'd be much happier posting to talk.only_naturalistic_origins


    More importantly, supernatural ID is useless theologically. Remember your favorite Dawkins quote about how the universe looks like it has nothing but blind, pitiless indifference to anything we care about. Well, here are two potential rebuttals.

    1. More or less mainstream Christian rebuttal: Yes, the universe can look pitiless and indifferent to human suffering, especially the suffering of the innocent. Children die of cancer, good, generous people die in natural disasters while the wicked
    prosper. The race does not go to the swift. But, the indifference is an illusion. God is not indifferent to human suffering, indeed He became a human and suffered terribly and unjustly. He knows what you are going through, and He says "Have faith. Love
    one another. Take care of one another. Befriend people who are despised, criminals, refugees, prostitutes. Lay off the self-righteous religiosity. Feed the hungry. Clothe the naked. Stop laying up treasures on earth. Do these things and have faith, and
    you will come to see that the 'pitiless indifference' is an illusion and that underneath it all is 'the Love that moves the Sun and the other stars.'"

    2. Supernatural ID rebuttal: Yes, the universe looks pitiless and indifferent. But it also contains a lot of complicated stuff in it that could not have occurred naturally - finely tuned constants of nature, the origin of life, multi-step enzyme
    processes, bacterial flagella, metazoan body plans. So there must be an intelligent designer behind it all. We cannot draw any conclusions about the designer apart from the things he designed. So we know that the designer designed a universe that acts
    with blind, pitiless indifference towards us, and everything else within it. Not much consolation but at least we don't have to lie awake at night wondering about the evolution of topoisomerases.

    Supernatural ID does not get you to the sort of God you want to believe in - an invisible, omnipotent, personal loving God who cares for you and everybody else and offers you eternal life and the chance to reconnect with all your loved ones who have
    died as long as you sincerely believe. For that you need a leap of faith. And that leap of faith is no bigger or smaller depending on whether you are satisfied with progress in OoL research or topoisomerase evolution.

    If you want to understand evolutionary biology and molecular biology and genetics, you need to go take some courses or at least work through a few textbooks. If you want to work on Rebuttal #1, though, you can skip right over anything having to do with
    science as totally irrelevant. Nobody accepts Jesus Christ as their personal Lord and Savior because he offers a better explanation of the OoL than David Deamer. And a fully worked out empirically supported naturalistic explanation for the OoL would not
    be evidence against the existence of God.

    --
    athel cb : Biochemical Evolution, Garland Science, 2016

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