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Luhmann, Nina: Phylogenetic assembly of paleogenomes integrating ancient DNA data. 2017
Inhalt
1 Introduction
1.1 Background
1.1.1 Reconstructing ancestral genomes
1.1.2 Sequencing of ancient DNA
1.1.3 Ancient genome scaffolding and ancestral reconstruction
1.2 Thesis overview
2 The SCJ Small Parsimony Problem integrating an aDNA assembly
2.1 Consistent reconstructions using the Fitch algorithm
2.2 Generalization to the Sankoff-Rousseau algorithm
2.2.1 Edge-weighted SCJ Labeling Problem
2.2.2 Overview of the Sankoff-Rousseau algorithm
2.2.3 Sankoff-Rousseau on adjacencies with edge lengths
2.2.4 Reconstructing consistent genomes
2.3 Integrating aDNA sequencing information
2.3.1 Augmented phylogenetic tree
2.3.2 Labeling Problem on an augmented phylogenetic tree
2.4 Evaluation
2.5 Discussion
3 The SCJ Small Parsimony Problem for weighted adjacencies
3.1 Generalization by weighting adjacencies
3.1.1 Problem complexity
3.2 Methods
3.2.1 Decomposition into independent subproblems
3.2.2 Application to the Weighted SCJ Labeling Problem
3.2.3 Complexity analysis
3.2.4 An Integer Linear Program for complex components
3.2.5 Sampling co-optimal labelings
3.2.6 Weighting ancestral adjacencies
3.2.7 An extinct leaf
3.2.8 Implementation
3.3 Results
3.3.1 Simulations
3.3.2 Mammalian data set
3.4 Discussion
4 Mind the gap: completing ancestral marker orders
4.1 Gap Filling as a shortest path problem
4.1.1 Assembly of ancestral gap sequences from aDNA reads
4.2 Local ancestral reconstruction based on Gap Filling
4.2.1 Local reconstruction pipeline
4.3 Discussion
5 Reconstruction and analysis of two ancient Yersinia pestis strains
5.1 Sequencing data and reference genomes
5.2 Local reconstruction of both ancient strains
5.2.1 Reconstructing the London outbreak strain
5.2.2 Reconstructing the Marseille outbreak strain
5.2.3 Comparison of both reconstructed ancient genomes
5.2.4 Discussion of local reconstruction
5.3 Global reconstruction of London ancestor with EWRA
5.4 Global reconstruction of London ancestor with PhySca
5.4.1 Ancestral reconstruction with Boltzmann weights
5.4.2 Ancestral reconstruction with aDNA weights
5.5 Global reconstruction of London and Marseille strains
5.5.1 Comparison to FPSAC and AGapEs
5.5.2 Discussion of compared reconstructions
6 Conclusion and Perspectives
Bibliography