2010
DOI: 10.1214/09-aap647
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Large deviation principles for empirical measures of colored random graphs

Abstract: For any finite colored graph we define the empirical neighborhood measure, which counts the number of vertices of a given color connected to a given number of vertices of each color, and the empirical pair measure, which counts the number of edges connecting each pair of colors. For a class of models of sparse colored random graphs, we prove large deviation principles for these empirical measures in the weak topology. The rate functions governing our large deviation principles can be expressed explicitly in te… Show more

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Cited by 18 publications
(21 citation statements)
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“…From this large deviation results we obtain LDPs for graph quantities such as number of edges per vertex, the degree distribution and the proportion of isolated vertices of geometric random graphs in the intermediate case. Our results are similar to those in O’Connell ( 1998 ), Biggins and Penman ( 2009 ), Doku-Amponsah and Mörters ( 2010 ), Doku-Amponsah ( 2006 , ( 2014 ), Bordenave and Caputo ( 2015 ) and Mukherjee ( 2014 ) for the Erdö–Renyi graph except that the rate functions of the LDPs in our current setting is bigger as a result of the effect of the geometric in the model.…”
Section: Introductionsupporting
confidence: 88%
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“…From this large deviation results we obtain LDPs for graph quantities such as number of edges per vertex, the degree distribution and the proportion of isolated vertices of geometric random graphs in the intermediate case. Our results are similar to those in O’Connell ( 1998 ), Biggins and Penman ( 2009 ), Doku-Amponsah and Mörters ( 2010 ), Doku-Amponsah ( 2006 , ( 2014 ), Bordenave and Caputo ( 2015 ) and Mukherjee ( 2014 ) for the Erdö–Renyi graph except that the rate functions of the LDPs in our current setting is bigger as a result of the effect of the geometric in the model.…”
Section: Introductionsupporting
confidence: 88%
“…In this article we study the coloured geometric random graph CGRG, where n points or vertices or nodes are picked uniformly at random in colours or spins are assigned independently from a finite alphabet and any two points with colours distance at most apart are connected. This random graph models, which has the geometric random graph (see Penrose 2003 ) as special case, has been suggested by Cannings and Penman ( 2003 ) as a possible extension to the coloured random graph studied in Biggins and Penman ( 2009 ), Doku-Amponsah and Mörters ( 2010 ), Doku-Amponsah ( 2006 ), Bordenave and Caputo ( 2015 ), Mukherjee ( 2014 ) and Doku-Amponsah ( 2014 ).…”
Section: Introductionmentioning
confidence: 89%
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“…In the next subsection, we review the symbolled random graph model as in (Doku-Amponsah et al, 2010).…”
Section: Introductionmentioning
confidence: 99%
“…i.e. [15], [2], [9], [3], [7], [5]. The main technique use to prove our main result is rooted in spectral potential theory.…”
Section: Introductionmentioning
confidence: 93%