Triangle Collection*: Difference between revisions

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(Created page with "{{DISPLAYTITLE:Triangle Collection* (Graph Triangle Problems)}} == Description == See Definition 3 of reference. == Related Problems == Generalizations: Triangle Detection Related: Negative Triangle Detection, Negative Triangle Search, Negative Triangle Listing, Nondecreasing Triangle, Minimum Triangle, Triangle in Unweighted Graph == Parameters == <pre>n: number of vertices m: number of edges</pre> == Table of Algorithms == Curren...")
 
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== Parameters ==  
== Parameters ==  


<pre>n: number of vertices
$n$: number of nodes
m: number of edges</pre>
 
$m$: number of edges


== Table of Algorithms ==  
== Table of Algorithms ==  

Latest revision as of 09:27, 10 April 2023

Description

See Definition 3 of reference.

Related Problems

Generalizations: Triangle Detection

Related: Negative Triangle Detection, Negative Triangle Search, Negative Triangle Listing, Nondecreasing Triangle, Minimum Triangle, Triangle in Unweighted Graph

Parameters

$n$: number of nodes

$m$: number of edges

Table of Algorithms

Currently no algorithms in our database for the given problem.

Reductions TO Problem

Problem Implication Year Citation Reduction
dynamic 4/3-Diameter assume: SETH or {3}SUM Hypothesis or APSP Hypothesis
then: there exists no incremental (or decremental) algorithm that approximates the diameter of unweighted graph within a factor of ${4}/{3}-\epsilon$ running in amortized time $O(n^{1/{2}-\epsilon'})$ for any $\epsilon,\epsilon' > {0}$. Furthermore, if we allow node insertions in the incremental case the bound is $O(n^{0.{618}-\epsilon'})$
2016 https://arxiv.org/abs/1602.06705 link
dynamic 4/3-Diameter assume: SETH or {3}SUM Hypothesis or APSP Hypothesis
then: there exists no static ${4}/{3}-\epsilon$ approximation to the diameter on unweighted graphs running in $O((n\sqrt{m})^{1-\epsilon'})$ time for any $\epsilon,\epsilon' > {0}$ and an number of edges $m$
2016 https://arxiv.org/abs/1602.06705 link
dynamic 4/3-Diameter assume: SETH or {3}SUM Hypothesis or APSP Hypothesis
then: there exists no static ${4}/{3}-\epsilon$ approximation with additive error $O(m^\delta)$ with running time $O(m^{\frac{3}{2}({1}-\delta)-\epsilon'})$ or incremental/decremental algorithm with amortized time $O(m^{\frac{1}{2}-\frac{3\delta}{2}-\epsilon'})$ for any $\epsilon,\epsilon' > {0}$
2016 https://arxiv.org/abs/1602.06705 link