A $k$-stack layout (also called a $k$-page book embedding) of a graph
consists of a total order of the vertices, and a partition of the edges into
$k$ sets of non-crossing edges with respect to the vertex order. The stack
number (book thickness, page number) of a graph is the minimum $k$ such that it
admits a $k$-stack layout. A $k$-queue layout is defined similarly, except that
no two edges in a single set may be nested.
It was recently proved that graphs of various non-minor-closed classes are
subgraphs of the strong product of a path and a graph with bounded treewidth.
Motivated by this decomposition result, we explore stack layouts of graph
products. We show that the stack number is bounded for the strong product of a
path and (i) a graph of bounded pathwidth or (ii) a bipartite graph of bounded
treewidth and bounded degree. The results are obtained via a novel concept of
simultaneous stack-queue layouts, which may be of independent interest.
%0 Generic
%1 pupyrev2020embeddings
%A Pupyrev, Sergey
%D 2020
%K 3330 graph graph_embedding
%T Book Embeddings of Graph Products
%U http://arxiv.org/abs/2007.15102
%X A $k$-stack layout (also called a $k$-page book embedding) of a graph
consists of a total order of the vertices, and a partition of the edges into
$k$ sets of non-crossing edges with respect to the vertex order. The stack
number (book thickness, page number) of a graph is the minimum $k$ such that it
admits a $k$-stack layout. A $k$-queue layout is defined similarly, except that
no two edges in a single set may be nested.
It was recently proved that graphs of various non-minor-closed classes are
subgraphs of the strong product of a path and a graph with bounded treewidth.
Motivated by this decomposition result, we explore stack layouts of graph
products. We show that the stack number is bounded for the strong product of a
path and (i) a graph of bounded pathwidth or (ii) a bipartite graph of bounded
treewidth and bounded degree. The results are obtained via a novel concept of
simultaneous stack-queue layouts, which may be of independent interest.
@misc{pupyrev2020embeddings,
abstract = {A $k$-stack layout (also called a $k$-page book embedding) of a graph
consists of a total order of the vertices, and a partition of the edges into
$k$ sets of non-crossing edges with respect to the vertex order. The stack
number (book thickness, page number) of a graph is the minimum $k$ such that it
admits a $k$-stack layout. A $k$-queue layout is defined similarly, except that
no two edges in a single set may be nested.
It was recently proved that graphs of various non-minor-closed classes are
subgraphs of the strong product of a path and a graph with bounded treewidth.
Motivated by this decomposition result, we explore stack layouts of graph
products. We show that the stack number is bounded for the strong product of a
path and (i) a graph of bounded pathwidth or (ii) a bipartite graph of bounded
treewidth and bounded degree. The results are obtained via a novel concept of
simultaneous stack-queue layouts, which may be of independent interest.},
added-at = {2020-07-31T08:58:10.000+0200},
author = {Pupyrev, Sergey},
biburl = {https://www.bibsonomy.org/bibtex/2c6af4ca6ab5e63337423d40f3aa43815/j.c.m.janssen},
description = {Book Embeddings of Graph Products},
interhash = {082b71cc7a2af49c03967ae4f1b2aed9},
intrahash = {c6af4ca6ab5e63337423d40f3aa43815},
keywords = {3330 graph graph_embedding},
note = {cite arxiv:2007.15102},
timestamp = {2020-07-31T08:59:14.000+0200},
title = {Book Embeddings of Graph Products},
url = {http://arxiv.org/abs/2007.15102},
year = 2020
}