Hello, are you aware of any open source implementation of this algorithm ?
Hello, are you aware of any open source implementation of this algorithm ?
Some nice presentations on the topic:
- https://www.irif.fr/~habib/Documents/cours_4-2015.pdf
- http://igm.univ-mlv.fr/AlgoB/algoperm2012/04Paul.pdf
- http://www.lirmm.fr/~paul/Talks/talk-06-algo-sem-McGill.pdf
Some nice presentations on the topic:
- https://www.irif.fr/~habib/Documents/cours_4-2015.pdf
- http://igm.univ-mlv.fr/AlgoB/algoperm2012/04Paul.pdf
- http://www.lirmm.fr/~paul/Talks/talk-06-algo-sem-McGill.pdf
>See table 3 from https://arxiv.org/abs/1811.10705
This is with $n=50$ nodes. It seems that the behavior is not the same for $n$ large:
- I think that in a large ER, if the proba of connection $p$ is not too large or too small, then it is rare to find a group of nodes with the same neighbors outside the group (i.e. find a module). Can you prove that?
- I don't think that the code https://github.com/antonovvk/decmod is buggy.
>See table 3 from https://arxiv.org/abs/1811.10705
This is with $n=50$ nodes. It seems that the behavior is not the same for $n$ large:
- I think that in a large ER, if the proba of connection $p$ is not too large or too small, then it is rare to find a group of nodes with the same neighbors outside the group (i.e. find a module). Can you prove that?
- I don't think that the code https://github.com/antonovvk/decmod is buggy.
[Almost all finite graphs are asymmetric](https://en.wikipedia.org/wiki/Asymmetric_graph#Random_graphs). There is no pair of vertices with common neighborhood.
[Almost all finite graphs are asymmetric](https://en.wikipedia.org/wiki/Asymmetric_graph#Random_graphs). There is no pair of vertices with common neighborhood.
An improvement to Boldi-Vigna WebGraph. It uses Huffman coding, asymmetric numeral systems (a form of arithmetic coding) and a new hybrid integer encoding schema.
The paper also mentions other algorithms like [Log(Graph) by Besta et al.](https://www.youtube.com/watch?v=j98N9nthr0M) and Apostolico-Drovandi method together with $k^2$-trees, 2D block trees, ZipG graph store... Author suggest the [Besta-Hoefler survey (2018) with more than 460 references](https://arxiv.org/abs/1806.01799) to any reader interested in lossless graph compression methods.
The paper does not consider node permutations.
The code is in [google's github account](https://github.com/google/zuckerli).
An improvement to Boldi-Vigna WebGraph. It uses Huffman coding, asymmetric numeral systems (a form of arithmetic coding) and a new hybrid integer encoding schema.
The paper also mentions other algorithms like [Log(Graph) by Besta et al.](https://www.youtube.com/watch?v=j98N9nthr0M) and Apostolico-Drovandi method together with $k^2$-trees, 2D block trees, ZipG graph store... Author suggest the [Besta-Hoefler survey (2018) with more than 460 references](https://arxiv.org/abs/1806.01799) to any reader interested in lossless graph compression methods.
The paper does not consider node permutations.
The code is in [google's github account](https://github.com/google/zuckerli).
Furthermore, Apostolico and Drovandi suggest to use $\pi$-code, see Section 4 from [their paper](https://papers-gamma.link/paper/178), when the power law distribution have an exponent close to 1.
It actually pushes me to ask, maybe a naive question: is there any standard method to construct such a code when the distribution of the gaps is given or estimated from the data?
Furthermore, Apostolico and Drovandi suggest to use $\pi$-code, see Section 4 from [their paper](https://papers-gamma.link/paper/178), when the power law distribution have an exponent close to 1.
It actually pushes me to ask, maybe a naive question: is there any standard method to construct such a code when the distribution of the gaps is given or estimated from the data?
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