The approximate Loebl-Komlós-Sós Conjecture IV: Embedding techniques and the proof of the main result
arXiv:1408.3870 · doi:10.1137/140982878
Abstract
This is the last paper of a series of four papers in which we prove the following relaxation of the Loebl-Komlos-Sos Conjecture: For every there exists a number~ such that for every every -vertex graph with at least vertices of degree at least contains each tree of order as a subgraph. In the first two papers of this series, we decomposed the host graph , and found a suitable combinatorial structure inside the decomposition. In the third paper, we refined this structure, and proved that any graph satisfying the conditions of the above approximate version of the Loebl-Komlos-Sos Conjecture contains one of ten specific configurations. In this paper we embed the tree in each of the ten configurations.
81 pages, 12 figures. A fix reflecting the change of Preconfiguration Clubs in Paper III, additional small changes
References in corpus (4)
- The approximate Loebl-Komlós-Sós Conjecture IV: Embedding techniques and the proof of the main result
- The approximate Loebl-Komlós-Sós Conjecture I: The sparse decomposition
- The approximate Loebl-Komlós-Sós Conjecture II: The rough structure of LKS graphs
- The Approximate Loebl-Komlós-Sós Conjecture III: The finer structure of LKS graphs
Cited by in corpus (9)
- The approximate Loebl-Komlós-Sós Conjecture IV: Embedding techniques and the proof of the main result
- The approximate Loebl-Komlós-Sós Conjecture I: The sparse decomposition
- A Variant of the Erdős-Sós Conjecture
- The approximate Loebl-Komlós-Sós Conjecture II: The rough structure of LKS graphs
- The Approximate Loebl-Komlós-Sós Conjecture III: The finer structure of LKS graphs
- The approximate Loebl-Komlos-Sos conjecture and embedding trees in sparse graphs
- Spanning Trees in Graphs of High Minimum Degree with a Universal Vertex II: A Tight Result
- Maximum and minimum degree conditions for embedding trees
- Spanning Trees in Graphs of High Minimum Degree with a Universal Vertex I: An Asymptotic Result