Dear Kevin, Dear all!

What I was thinking about, referring to Floridi's Informational Structural 
Realism is his claim that reality is an informational structure
"A preferable alternative is provided by an informational approach to 
structural realism, according to which knowledge of the world is knowledge of 
its structures. The most reasonable ontological commitment turns out to be in 
favour of an interpretation of reality as the totality of structures 
dynamically interacting with each other." Floridi [11] p. 151.
http://www.mdpi.com/1099-4300/12/4/878/pdf
I could have referred to physicists Zeilinger, Lloyd, or Vedral and number of 
other authors who would say that reality fundamentally is informational.

Now, the question of objective vs. subjective levels (levels of organization 
vs. levels of abstraction). One may be interested in the first place in the 
epistemological aspect and then focus on what an agent can see from that 
informational reality. On the other hand one may put the focus on the 
ontological side and ask what informational reality an agent can see. Those two 
things are closely related. I agree with you that if we only focus on levels of 
abstraction we will miss something, as LOA only reflect epistemological side. 
Besides epistemology we need ontology, which is reflected in Levels of 
organization LOO.

What I find interesting is the interplay of epistemological and ontological 
informational structures. Those informational structures should be seen in 
conjunction with computational processes. All of that is also closely connected 
to the question of it or bit, or the relationships between information and 
matter/energy.

Present FIS discussion shows that there is an interest and a lot of things to 
do in order to elucidate our current understanding of the relationship.
I would like to kindly invite you to contribute to the following special issue 
of the journal Information:
. http://www.mdpi.com/journal/information/special_issues/matter/

With best regards,
Gordana


From: [email protected] [mailto:[email protected]] On 
Behalf Of Kevin Kirby
Sent: den 29 september 2010 00:29
To: [email protected]
Subject: [Fis] FW: Fluc replies - more


All,

It is fascinating to follow the trails here from fluctuons to the it/bit issue 
and beyond.

As I read Conrad's theory, a fluctuon is not a prima facie informational 
object; it is not bit-like, or qubit-like for that matter.  It is as "it" as 
any particle -- even a virtual particle, a vacuum fluctuation -- can ever be. 
(Joe and I agree here.) That being said, fluctuons could still find a home in a 
dual-aspect theory like that which Gordana has been developing (in the same way 
as electrons, protons, etc.)

Is Conrad an idealist? A materialist? Well, in much of his work he emphasized 
the special nature of matter, how it is the material substrate that makes 
evolution work. It was not, pace Dennett, the dumb Darwinian algorithm of 
variation + selection, but the amazingly productive degeneracy and verticality 
of the organization of the physical world that made it work.

On the other hand, he also believed in what he called  "the principle of 
philosophic relativity" (in a paper of the same name in 1997) or later, the 
"principle of antinomic freedom". He said that he wanted to strive for a theory 
that was good in a variety of "philosophical coordinate systems."  (The 
particular issue that motivated this position dealt with free will versus 
determinism.)  Well, despite that stance, I still think he was a materialist of 
a sort.

The overview by Kevin Clark on how he related Kaluza-Klein induced matter 
theories to biophysics is tantalizing, and it certainly strikes one as in the 
spirit of Conrad's work.  He did believe that the Ricci tensor, for example, 
would be interpreted in terms of density in his masson seas, and I suppose this 
could be consistent with some sort of induction down from 5D space into 
ordinary spacetime.  (But this quickly goes far beyond my expertise here.)  I 
do wish we could get more gravitational physicists to tease apart Conrad's 
ideas -- separating what could work from what is pleasing but a dead end.

But as Koichiro points out in his closing recollection, one need not look only 
to the graviton here.

On flows across scales, this itself need not be mysterious. Take a single 
photon hitting a rhodopsin molecule in the retina of a vertebrate then [...long 
chain here...] triggering a fight-or-flight response. Is that a flow across 
scales? Sure. Fluctuons come in to biology because life relies on subtle 
conformation changes of proteins, the tactile dance of enzymes, and quantum 
superposition effects play roles here, as well as fluctuations in the vacuum 
seas.  This is where Conrad daringly closes the loop: in this low-mass 
high-information regime of biomolecules we see a striking similarity to the 
high-mass regime near black holes: the chasing of unreachable self-consistency.

Koichiro's posting captures the metaphysical pathos of all this with these 
beautiful sentences: " What is unique to the Fluctuon model is its emphasis on 
the participation of persistent and itinerant disequilibrium or a Fluctuon in 
implementing conservation laws internally, though there is no room for it in 
the mind of the standard physicist. This perpetual disequilibrium is all 
pervasive and reverberating up and down and from left to right and back."

Now, pulling this back around to logic and Joseph Brenner. Dealing frankly with 
inconsistencies is paramount here. If our formalism of level is akin to 
Floridi's Levels of Abstraction, we will be missing something. (These LoAs are 
formalisms that capture things about the nature of abstraction, but capturing 
something in a formalism is not the same as illuminating it.) Joe's LIR is 
"inconsistency-friendly" which suggests that this is a meeting point with 
fluctuons perhaps?

(I have run long, and will defer responding to Pedro's great new post on 
additional connections later.)

-- Kevin


P.S. As a side note, let me share my perplexity with the initial comment in 
Steven's post. Recursion is most frequently defined so that it has a bottom,  
thus ensuring finiteness, just as mathematical induction requires a base case, 
and just as standard set theory has an axiom of regularity (or foundation). 
Interesting things can be done with conceptually infinite recursion (e.g. 
fractal geometry), or non-well-founded set theory (e.g. Barwise's treatment of 
the liar paradox), but  traditional well-founded recursion is, well, the 
"foundation" for computer science.

_________________________________
Kevin G. Kirby
Chair and Professor, Department of Computer Science
Northern Kentucky University
Highland Heights, KY 41099
[email protected]    (859) 572-6544

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