Dcase initiative to discuss Khovanov paper

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The discussion centers on the relationship between Khovanov's work on braid cobordisms and knot theory, suggesting potential connections to mathematical game theory through concepts like Nash Equilibria. Participants explore the idea that diverse mathematical representations, such as differential geometry and game theory, could be unified. The Krebs cycle is mentioned as an example of energy exchanges in biophysiology, linking to broader themes of symmetry and energy interactions. There is speculation about modifying Einstein's equation to reflect chaotic games and its implications for astrophysics and nuclear physics. The conversation emphasizes the interdisciplinary nature of these mathematical concepts and their potential applications.
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Dcase you accidentally put this in the bibliography thread, where we don't have extra room for discussion.
Biblio is primarily for links to preprints and abstracts of selected new research---non-string QG.
Please make a separate thread to initiate discussion of any of the papers in the bibliography thread.

Dcase said:
1 - The language of "braid cobordisms" suggests a possible relationship to knot theory, from my perspective.

'Braid cobordisms, triangulated categories, and flag varieties'
Mikhail Khovanov, Richard Thomas
89 pages, 21 figures

http://arxiv.org/abs/math.QA/0609335

2 - In 3D braids appear to be helices. Some game theorists think that saddle points [found in helicoids] are equivalent to Nash Equilibria from Mathematical Game Theory.

http://ggierz.ucr.edu/Math121/Winter06/LectureNotes/09SaddlePointsNashEqui.pdf#search=%22saddle%20points%20Nash%20Equilibrium%22

3 - Is it possible that two such diverse mathematical representations of objects might somehow be unifiable? [through Nash Equilibrium and Nash embedding theorems]

Are differential geometries essentially manifestations of energy interactions of energy games [attractor v Disipator / braid v unbraid]
 
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Hi Marcus:

Thanks for starting the thread. Sorry for posting to a bibliography for discussion.

I wonder if the 'beautiful mind' of John Nash somehow realized that both differential geometry and game theory represented mathematical objects?

In biophysiology, the simple loop diagram [although a helix diagram is more likely since the same H is unlikely to always be the same donor-acceptor] of the Krebs cycle demonstrates that nucleic acid life is all about energy exchanges eventually leading to various phenotypic expressions, often with great symmetry.

Perhaps if Einstein's most famous equation were modified as a chaotic game,
v^2 * E-attracting = E-dissipating
lim v -> c
where E-attracting is m and E-dissipating is E,
it might represent the transformation of a star into a supernova as welll as have application to nuclear physics with gauge as the only difference?
 
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