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Author(s)
The big problem of Big Data is the lack of a machine
learning process that scales and finds meaningful features. Humans fill
in for the insufficient automation, but the complexity of the tasks
outpaces the human mind’s capacity to comprehend the data. Heuristic
partition methods may help but still need humans to adjust the
parameters. The same problems exist in many other disciplines and
technologies that depend on Big Data or Machine Learning. Proposed here
is a fractal groupoid-theoretical method that recursively partitions the
problem and requires no heuristics or human intervention. It takes two
steps. First, make explicit the fundamental causal nature of information
in the physical world by encoding it as a causal set. Second, construct
a functor F: C
C′ on the category of causal sets that morphs causal set C into smaller
causal set C′ by partitioning C into a set of invariant
groupoid-theoretical blocks. Repeating the construction, there arises a
sequence of progressively smaller causal sets C, C′, C″, …
The sequence defines a fractal hierarchy of features, with the features
being invariant and hence endowed with a physical meaning, and the
hierarchy being scale-free and hence ensuring proper scaling at all
granularities. Fractals exist in nature nearly everywhere and at all
physical scales, and invariants have long been known to be meaningful to
us. The theory is also of interest for NP-hard combinatorial problems
that can be expressed as a causal set, such as the Traveling Salesman
problem. The recursive groupoid partition promoted by functor F works
against their combinatorial complexity and appears to allow a low-order
polynomial solution. A true test of this property requires special
hardware, not yet available. However, as a proof of concept, a suite of
sequential, non-heuristic algorithms were developed and used to solve a
real-world 120-city problem of TSP on a personal computer. The results
are reported.
Cite this paper
Pissanetzky, S. (2014) Causal Groupoid Symmetries and Big Data. Applied Mathematics, 5, 3489-3510. doi: 10.4236/am.2014.521327.
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