“The Edge of Chaos” (2017)
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“The Edge of Chaos” (2017)
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Re: “The Edge of Chaos” (2017)
#2> the evolutionary argument...rests of [sic] a big mistake about what nervous systems, immune systems, genetic regulatory nets, etc., evolve to do. This is not transmit information from one place to another, or be "flexible" in some abstract sense, but cause actions which enhance the fitness of the organism they happen to be in.
What reasons does the author have for maintaining these ideas? Naturally, none are given.
It's just a bunch of disconnected opinions.
Re: “The Edge of Chaos” (2017)
#3Re: “The Edge of Chaos” (2017)
#4There's no focused argument here. Mere polemic. > the evolutionary argument...rests of [sic] a big mistake about what nervous systems, immune systems, genetic regulatory nets, etc., evolve to do. This is not transmit information from one place to another, or be "flexible" in some abstract sense, but cause actions which enhance the fitness of the organism they happen to be in. What reasons does the author have for mai…
I, for one, am happy that my homeostatic regulatory nets have not evolved to "the edge of chaos."
Is there something provocative about his thesis, that would require focused argument?
Re: “The Edge of Chaos” (2017)
#5Transmitting information and being flexible enhances the fitness of the organism.
It would be an interesting piece if the author elaborated on their claim, as to refute this obvious counterargument.
Re: “The Edge of Chaos” (2017)
#6Biological systems don't evolve to do anything - they randomly mutate and are selected by a stochastic process that loosely correlates with Darwinian fitness. Chaos is the default state of all matter; most systems operate on the edge of chaos not because there is something desirable about that state, but because any amount of order emerging from chaos is highly improbable.
Re: “The Edge of Chaos” (2017)
#7The overly quick summary: most convention thermodynamics/chemistry concerns itself with systems that reach equilibrium (various reactions take place, energy is consumed or produced, and a new state is reached in which things are stable). Living systems (and a few non-living) systems don't work this way, but use a continual input of energy to drive reactions and maintain a "non-equilibrium" state.
Re: “The Edge of Chaos” (2017)
#8Re: “The Edge of Chaos” (2017)
#9Whoever wrote this doesn't seem to make the connection with Prigogine's work on non-equilibrium thermodynamics, which seem to me to have as much to do with the "edge of chaos" idea(s) as anything from the cellular automata world. The overly quick summary: most convention thermodynamics/chemistry concerns itself with systems that reach equilibrium (various reactions take place, energy is consumed or produced, and a ne…
Re: “The Edge of Chaos” (2017)
#10Whoever wrote this doesn't seem to make the connection with Prigogine's work on non-equilibrium thermodynamics, which seem to me to have as much to do with the "edge of chaos" idea(s) as anything from the cellular automata world. The overly quick summary: most convention thermodynamics/chemistry concerns itself with systems that reach equilibrium (various reactions take place, energy is consumed or produced, and a ne…