activity
20162019
most citedOn the existence of 4-regular matchstick graphs

3 citations · 5 across the 5 of their papers we have counts for

collaborators

5 papers

math.CO2019

A 3-regular matchstick graph of girth 5 consisting of 54 vertices

Mike Winkler, Peter Dinkelacker, Stefan Vogel

In 2010 it was proved that a 3-regular matchstick graph of girth 5 must consist at least of 30 vertices. The smallest known example consisted of 180 vertices. In this article we co…

math.MG2019

4-regular planar unit triangle graphs without additional triangles

Mike Winkler, Peter Dinkelacker, Stefan Vogel

In this article we proof the existence of 4-regular planar unit-distance graphs consisting only of unit triangles without additional triangles. It is shown that the smallest number…

math.CO2017★ 3 cited

On the existence of 4-regular matchstick graphs

Mike Winkler, Peter Dinkelacker, Stefan Vogel

A matchstick graph is a planar unit-distance graph. We call it \emph{4-regular} if every vertex has degree 4. While examples of 4-regular matchstick graphs with fewer than 63 verti…

math.CO2016

Minimal completely asymmetric (4; n)-regular matchstick graphs

Mike Winkler, Peter Dinkelacker, Stefan Vogel

A matchstick graph is a graph drawn with straight edges in the plane such that the edges have unit length, and non-adjacent edges do not intersect. We call a matchstick graph $(m;n…

math.MG2016★ 2 cited

New minimal (4; n)-regular matchstick graphs

Mike Winkler, Peter Dinkelacker, Stefan Vogel

A matchstick graph is a graph drawn with straight edges in the plane such that the edges have unit length, and non-adjacent edges do not intersect. We call a matchstick graph ($m;n…