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?
Clever algorithm. The java code is [available on the net](https://github.com/drovandi/GraphCompressionByBFS).
In 2009, it was almost simultaneously published with [Permuting Web and Social Graphs](https://papers-gamma.link/paper/177) of Boldi et al.
At this time it is better than Boldi et al. solution in many cases.
The Apostolico-Drovandi paper is mentioned as "The only coordinate-free compression algorithm we are aware of"
in [another](https://papers-gamma.link/paper/105) Boldi et al. paper which was published after a while. At that time Boldi et al. provide better results.
Clever algorithm. The java code is [available on the net](https://github.com/drovandi/GraphCompressionByBFS).
In 2009, it was almost simultaneously published with [Permuting Web and Social Graphs](https://papers-gamma.link/paper/177) of Boldi et al.
At this time it is better than Boldi et al. solution in many cases.
The Apostolico-Drovandi paper is mentioned as "The only coordinate-free compression algorithm we are aware of"
in [another](https://papers-gamma.link/paper/105) Boldi et al. paper which was published after a while. At that time Boldi et al. provide better results.
An interested reader may also take a look at [Apostolico-Drovandi](https://www.mdpi.com/1999-4893/2/3/1031/pdf) paper and their [code](https://github.com/drovandi/GraphCompressionByBFS).
that often works better than BV framework with some exceptions.
Furthermore, in the paper about [Layered Label Propagation](https://papers-gamma.link/paper/105/) Boldi et al. improved their Gray code based order from this paper.
An interested reader may also take a look at [Apostolico-Drovandi](https://www.mdpi.com/1999-4893/2/3/1031/pdf) paper and their [code](https://github.com/drovandi/GraphCompressionByBFS).
that often works better than BV framework with some exceptions.
Furthermore, in the paper about [Layered Label Propagation](https://papers-gamma.link/paper/105/) Boldi et al. improved their Gray code based order from this paper.
Anonymize graph by adding edges. No lossy compression considered here.
$(k, \ell)$-anonymity is defined in this paper.
See also
* http://theory.stanford.edu/~tomas/
and
* http://theory.stanford.edu/~sunabar/Publications.html
Anonymize graph by adding edges. No lossy compression considered here.
$(k, \ell)$-anonymity is defined in this paper.
See also
* http://theory.stanford.edu/~tomas/
and
* http://theory.stanford.edu/~sunabar/Publications.html
Another item in our with [aGuyot](https://papers-gamma.link/aGuyot)
library about [Graph anonymization](https://papers-gamma.link/domain/Graph%20anonymization).
One of the authors of this paper, [Paolo Boldi](https://papers-gamma.link/author/Paolo%20Boldi), also created a Boldi-Vigna Webgraph framework.
Another item in our with [aGuyot](https://papers-gamma.link/aGuyot)
library about [Graph anonymization](https://papers-gamma.link/domain/Graph%20anonymization).
One of the authors of this paper, [Paolo Boldi](https://papers-gamma.link/author/Paolo%20Boldi), also created a Boldi-Vigna Webgraph framework.
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