Can this be a feasible idea to be worked upon for SoC ?? Any comments would
be great.


On Thu, Jan 30, 2014 at 7:54 PM, Amit Jamadagni <[email protected]>wrote:

> I have gone through the package and it seems to have integrated sage and
> SnapPy for computing Alexander's polynomial. They have used the idea of
> manifolds to implement (I would like to mention that my grasp of subject is
> not that far even though I understand the basics of manifold as a local
> homeomorphism to real line( I might be completely wrong)). My plan was to
> start with implementing the Braid groups with the braid word, assigning
> numbers to the generators and reading from top to bottom which has been the
> most used algorithm to construct braids. Then I would like to use the
> concept of Braid words to get to the Alexander's polynomial (That could be
> achieved through Burau representation). Then other representation like
> Lawerence - Krammer could be achieved by relating to matrices (The points I
> have mentioned above have been already been implemented in various other
> modules). I had the idea of implementing the Kaufmann's invariant alteast
> for small number of crossings by the following way : As we can construct a
> knot from a braid, if the crossing at each point can be mentioned by X for
> one going over the other and X inverse for the one going below the other
> and then applying the conditions and splitting it for each crossing and
> representing the new replacements by one and the other by zero could lead
> to the final polynomial.I am even trying to understand the implementation
> of invariants like the HOMFLY - PT polynomial and Khovanov Homology
> (atleast the arc representation is possible to implement). My initial
> attempt was to relate the braids to anyon braiding which act as gates to
> perform quantum computation (I could not find any material regarding this
> but I am still on the search).My recent realization being it can be
> achieved as a solution to Yang Baxter Equations. These are the ideas I have
> had but the algorithms relating to the implementation still needs heavy
> thinking.
>
>
> On Thu, Jan 30, 2014 at 4:23 AM, David Joyner <[email protected]> wrote:
>
>> On Wed, Jan 29, 2014 at 4:32 PM, Amit <[email protected]> wrote:
>> > Hello,
>> >        I would like to discuss the implementation of Braid Groups. This
>>
>> Are you planning on going beyond what is already known?
>> http://www.math.uiuc.edu/~nmd/snappea/
>> If so, what is your plan?
>>
>> > would involve the implementation of various invariants related to Braids
>> > like the Alexander's polynomial
>> > (http://mathworld.wolfram.com/AlexanderPolynomial.html) by building up
>> the
>> > Burau representation of the same
>> > (http://mathworld.wolfram.com/BurauRepresentation.html) [There are more
>> > accurate versions of Braid Group representation] and various other
>> > properties relating to permutation group underlying Braids. However I
>> could
>> > not think of any idea which would implement the other invariants like
>> the
>> > Kauffman's invariant for knots (I wonder whether such kind of
>> implementation
>> > can be worked around atleast for knots with less number of crossings).
>> I was
>> > also looking through the implementation of Braid Diagrams by various
>> means
>> > one attempt was by using TikZ. Braid Diagrams can be converted into link
>> > diagrams as every link can be represented as closed Braid. The main
>> > motivation behind everything is to implement certain features in Knot
>> Theory
>> > module of Mathematica
>> > (
>> http://katlas.math.toronto.edu/wiki/The_Mathematica_Package_KnotTheory%60
>> )
>> > in Sympy. Thanks.
>> >
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>
>

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