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Knot Physics

Spacetime is assumed to be a branched 4-dimensional manifold embedded in a 6-dimensional Minkowski space. The branches allow quantum interference; each individual branch is a history in the sum-over-histories. A n-manifold embedded in a n+2-space can be knotted. The metric on the spacetime manifold is inherited from the Minkowski space and only allows a particular variety of knots. We show how those knots correspond to the observed particles with corresponding properties. We derive a 2-term Lagrangian. The Lagrangian combined with the geometry of the manifold produces gravity, electromagnetism, weak force, and strong force.



A quick introduction to knot physics.
The conference presentation 2010
The conference presentation 2011
The conference poster
The frequently asked questions page
A short discussion of LHC predictions in knot physics
A short discussion of OPERA results (faster than light neutrinos) in knot physics



The knot physics paper:

Knot physics, spacetime in co-dimension 2
(Two papers "A knot theory of physics" and "The particles and topology of knot physics" combined into this single paper. 1/17/2011)
(Minor corrections and changes for clarity. 1/26/2011)
(Section XII "Neutrino helicity" added. 3/18/2011)
(Description of quantum conservation laws added. 4/11/2011)
(Many changes for clarity. 4/29/2011)
(Neutrino helicity separated out. 11/3/2011)
(Minor changes for clarity. 1/6/2012)



Neutrino helicity in knot physics:

Knot physics: neutrino helicity
(Neutrino helicity separated as new paper. 11/3/2011)



The fine structure constant in knot physics:

Knot physics: the fine structure constant, an open question
(Paper created. 11/10/2011)
(Changes for clarity and field cusped at maximum. 1/6/2012)
Fine structure Mathematica notebook 1
Fine structure Mathematica notebook 2