Gene-environment interaction analysis : methods in bioinformatics and computational biology / edited by Sumiko Anno. -- Singapore : Pan Stanford Publishing, c2016. – (58.1486/G326) |
Contents
1. Understanding Skin Color Variations as an
Adaptation by Detecting Gene-Environment Interactions
1.1 Introduction
1.2 A
Linkage Disequilibrium-Based Statistical Approach to Detect Interactions
between SNP Alleles at Multiple Loci That Contribute to Skin Pigmentation
Variation between Human Populations
1.3 SNP Analyses Reveal Natural Selection of
Pigmentation Candidate Genes from Haplotypes
1.4 Elucidation of the UVR-Induced Selective
Genetic Mechanisms Influencing Variations in Human Skin Pigmentation
1.5
Conclusions
2. Information Theoretic Methods for
Gene-Environment Interaction Analysis
2.1
Introduction
2.2
Information Theoretic Metrics and Searching for GEIs
2.3
How and Why Do the KWII and the Pal Measure Statistical Interaction?
2.4
Performance of KWII and PAl Search Algorithms on Simulated Data
2.5
Algorithms
2.6
Applications of Information Theory to Interaction Analysis
2.7
Critiques of Information Theory Approaches to Interaction Analysis
2.8
Conclusions
3. Approaches for Gene-Environment
Interaction Analysis: Practice of Regional Epidemiological Study
3.1
Introduction
3.2
Community Investigation and Setting of the Research Objective
3.3
Study Design and Methods
3.4 Statistical Analysis
3.5
Later Surveys
3.6 Conclusion
4. Use of Bioinformatics in Revealing the
Identity of Nature's Products with Minimum Genetic Variation: The Sibling
Species
4.1
Cryptic Species: An Introduction
4.2
Computer Power in Taxonomy of Sibling Species
4.3 Automated Species Identification
4.4 Species Complex among Insect Vectors in Sri
Lanka: Two Case Studies Where Bioinformatic Approaches Have Solved Taxonomic
Problems
4.5 Conclusion
5. Integrated Bioinformatics, Biostatistics,
and Molecular Epidemiologic Approaches to Study How the Environment and Genes
Work Together to Influence the Oevelopment of Complex Chronic Oiseases
5.1
Introduction
5.2 Tools for Identifying Genetic, Environmental,
and Stochastic Factors Relevant in Complex Human Diseases
5.3
Integration of Functional Genomic, Epigenetic, and Environmental Data of
Molecular Epidemiological Studies Using Bioinformatics and Biostatistics
Approaches
5.4 Predictive Analysis of Lifetime Risk of
Developing Disease
5.5 Technical Challenges
5.6 Conclusion
5.7
Online Resources