Genotyping by Sequencing for Crop Improvement

Genotyping by Sequencing for Crop Improvement
Автор книги: id книги: 2301212     Оценка: 0.0     Голосов: 0     Отзывы, комментарии: 0 17870,3 руб.     (178,31$) Читать книгу Купить и скачать книгу Электронная книга Жанр: Биология Правообладатель и/или издательство: John Wiley & Sons Limited Дата добавления в каталог КнигаЛит: ISBN: 9781119745679 Скачать фрагмент в формате   fb2   fb2.zip Возрастное ограничение: 0+ Оглавление Отрывок из книги

Реклама. ООО «ЛитРес», ИНН: 7719571260.

Описание книги

OGENOTYPING BY SEQUENCING FOR CROP IMPROVEMENT A thoroughly up-to-date exploration of genotyping-by-sequencing technologies and related methods in plant science In Genotyping by Sequencing for Crop Improvement, a team of distinguished researchers delivers an in-depth and current exploration of the latest advances in genotyping-by-sequencing (GBS) methods, the statistical approaches used to analyze GBS data, and its applications, including quantitative trait loci (QTL) mapping, genome-wide association studies (GWAS), and genomic selection (GS) in crop improvement. This edited volume includes insightful contributions on a variety of relevant topics, like advanced molecular markers, high-throughput genotyping platforms, whole genome resequencing, QTL mapping with advanced mapping populations, analytical pipelines for GBS analysis, and more. The distinguished contributors explore traditional and advanced markers used in plant genotyping in extensive detail, and advanced genotyping platforms that cater to unique research purposes are discussed, as is the whole-genome resequencing (WGR) methodology. The included chapters also examine the applications of these technologies in several different crop categories, including cereals, pulses, oilseeds, and commercial crops. Genotyping by Sequencing for Crop Improvement also offers: A thorough introduction to molecular marker techniques and recent advancements in the technology Comprehensive explorations of the genotyping of seeds while preserving their viability, as well as advances in genomic selection Practical discussions of opportunities and challenges relating to high throughput genotyping in polyploid crops In-depth examinations of recent advances and applications of GBS, GWAS, and GS in cereals, pulses, oilseeds, millets, and commercial crops Perfect for practicing plant scientists with an interest in genotyping-by-sequencing technology, Genotyping by Sequencing for Crop Improvement will also earn a place in the libraries of researchers and students seeking a one-stop reference on the foundational aspects of – and recent advances in – genotyping-by-sequencing, genome-wide association studies, and genomic selection.

Оглавление

Группа авторов. Genotyping by Sequencing for Crop Improvement

Table of Contents

List of Tables

List of Illustrations

Guide

Pages

Genotyping by Sequencing for Crop Improvement

List of Contributors

Preface

1 Molecular Marker Techniques and Recent Advancements

1.1 Introduction

1.2 What is a Molecular Marker?

1.3 Classes of Molecular Markers

1.3.1 Hybridization‐based Markers. 1.3.1.1 Restriction Fragment Length Polymorphism (RFLP)

1.3.1.2 Diversity Array Technology (DArT™)

1.3.2 Polymerase Chain Reaction (PCR)‐based Markers. 1.3.2.1 Simple‐Sequence Repeats (SSRs)

1.3.2.2 Sequence‐Tagged Sites (STSs)

1.3.2.3 Randomly Amplified Polymorphic DNAs (RAPDs)

1.3.2.4 Sequence Characterized Amplified Regions (SCARs)

1.3.2.5 Amplified Fragment Length Polymorphism (AFLP)

1.3.2.6 Expressed Sequence Tags (ESTs)

1.4 Sequencing‐based Markers. 1.4.1 Single‐Nucleotide Polymorphisms (SNPs)

1.4.2 Identification of SNP in a Pregenomic Era

1.5 Recent Advances in Molecular Marker Technologies

1.5.1 Genotyping‐by‐Sequencing (GBS)

1.5.2 Whole‐Genome Resequencing (WGR)

1.5.3 SNP Arrays

1.5.4 Kompetitive Allele‐Specific PCR (KASP™)

1.6 SNP Databases

1.7 Application of Molecular Markers. 1.7.1 Application of Molecular Markers in Crop Improvement

1.7.2 Role of Molecular Markers in Germplasm Characterization

1.7.3 Deployment of Molecular Markers in Plant Variety Protection and Registration

1.8 Summary

References

2 High‐throughput Genotyping Platforms

2.1 Introduction

2.2 SNP Genotyping Platforms

2.2.1 SNP Genotyping Versus SNP Discovery

2.2.2 Types of SNP Genotyping Platforms

2.2.2.1 Allelic Discrimination

2.2.2.1.1 PCR‐Free Genotyping Technology

Invader Assay

2.2.2.1.2 PCR‐based Detection System. Primer Extension Method

TaqMan SNP Genotyping

Kompetitive Allele‐Specific PCR (KASP)

rhAmp SNP Genotyping

2.2.2.1.3 Hybridization‐based Platforms or Array‐based Methods

2.2.2.1.4 Sequencing‐based Platforms

Restriction Site‐Associated DNA (RAD‐seq)

Genotyping‐by‐Sequencing (GBS)

2.2.2.2 Allelic Detection. 2.2.2.2.1 Allele‐Specific Primer‐based SNP Genotyping‐Fluidigm

MALDI TOF‐based SNP Genotyping‐Sequenom

2.2.3 Custom Assay Technologies

2.2.4 Summary

References

3 Opportunity and Challenges for Whole‐Genome Resequencing‐based Genotyping in Plants

3.1 Introduction

3.2 Basic Steps Involved in Whole‐Genome Sequencing and Resequencing

3.3 Whole‐Genome Resequencing Mega Projects in Different Crops. 3.3.1 1K Arabidopsis Genomes Resequencing Project

3.3.2 3K Rice Genomes Resequencing Project

3.3.3 Soybean Whole‐Genome Resequencing

3.3.4 Chickpea

3.3.5 Pigeon pea

3.3.6 Vitis

3.4 Whole‐Genome Pooled Sequencing

3.5 Pinpointing Gene Through Whole‐Genome Resequencing‐based QTL Mapping

3.6 Online Resources for Whole‐Genome Resequencing Data. 3.6.1 SNP Seek

3.6.2 Rice Functional and Genomic Breeding

3.6.3 Genome Variation Map

3.7 Applications and Successful Examples of Whole‐Genome Resequencing

3.8 Challenges for Whole‐Genome Resequencing Studies

3.9 Summary

References

4 QTL Mapping Using Advanced Mapping Populations and High‐throughput Genotyping

4.1 Introduction

4.2 The Basic Objectives of QTL Mapping

4.3 QTL Mapping Procedure

4.4 The General Steps for QTL Mapping

4.5 Factors Influencing QTL Analysis

4.6 QTL Mapping Approaches

4.7 Statistical Methods for QTL Mapping

4.8 Software for QTL Mapping

4.9 Bi‐parental Mapping Populations

4.10 QTL Mapping Using Bi‐parental Populations

4.11 Multiparental Mapping Populations

4.11.1 Nested Association Mapping (NAM)

4.11.2 Multi‐advanced Generation Inter‐cross Populations (MAGIC)

4.12 QTL Mapping Using Multiparental Populations

4.13 Use of High‐throughput Genotyping for QTL Mapping

4.13.1 PCR‐based SNP Genotyping

4.14 Next‐Generation Sequencing‐based Genotyping

4.14.1 Restriction‐Site‐Associated DNA Sequencing (RAD‐seq)

4.14.2 Genotyping‐by‐Sequencing

4.14.3 Whole‐Genome Resequencing

4.15 Challenges with QTL Mapping Using Multiparental Populations and High‐throughput Genotyping

References

5 Genome‐Wide Association Study: Approaches, Applicability, and Challenges

5.1 Introduction

5.2 Methodology to Conduct GWAS in Crops

5.3 Statistical Modeling in GWAS

5.4 Efficiency of GWAS with Different Marker Types

5.5 Computational Tools for GWAS

5.6 GWAS Challenges for Complex Traits

5.7 Factors Challenging the GWAS for Complex Traits

5.8 GWAS Applications in Major Crops

5.8.1 Maize

5.8.2 Rice

5.8.3 Wheat

5.8.4 Barley

5.8.5 Pearl Millet

5.8.6 Sugarcane

5.9 Candidate Gene Identification at GWAS Loci

5.10 Meta‐GWAS

5.11 GWAS vs. QTL Mapping

References

6 Genotyping of Seeds While Preserving Their Viability

6.1 Introduction

6.1.1 Genotyping

6.1.2 Genotyping‐by‐Sequencing

6.2 Genotyping‐by‐Sequencing with Minimum DNA

6.3 DNA Extraction from Half Grain

6.3.1 DNA Extraction from Rice Seeds

6.3.2 DNA Extraction from Wheat and Barley Seeds

6.3.3 DNA Extraction from Maize Seeds

6.3.4 DNA Extraction from Soybean Seeds

6.3.5 DNA Extraction from Cotton Seeds

6.3.6 DNA Extraction from Papaya Seeds

6.3.7 DNA Extraction from Watermelon Seeds

6.4 GBS with Half Seed

6.5 Applications of GBS as Diagnostic Tool. 6.5.1 Germplasm Conservation and Quality Control

6.5.2 Tracking Crop Varieties

6.5.3 Sex Determination

6.5.4 Transgenic Detection

6.5.5 Detection of Seed‐borne Diseases

6.6 Summary

References

7 Genomic Selection: Advances, Applicability, and Challenges

7.1 Introduction

7.2 Natural Selection

7.3 Breeding Selection

7.4 Marker‐assisted Selection

7.5 Genomic Selection

7.6 Genotyping for Genomic Selection

7.7 Integration of Genomic Selection in MAS Program

7.8 The Efficiency of Genomic Selection for Complex Traits

7.9 Integration of Genomic Selection in the Varietal Trial Program

7.10 Cost Comparison of GS vs MAS

References

8 Analytical Pipelines for the GBS Analysis

8.1 Introduction

8.2 Applications of NGS

8.3 NGS Sequencing Platforms

8.3.1 Sequencing by Synthesis

8.3.1.1 Roche 454 Pyrosequencing

8.3.1.2 Illumina

8.3.1.3 Ion Torrent

8.3.2 Sequencing by Ligation

8.3.2.1 SOLiD

8.3.2.2 Polonator

8.3.3 Single‐Molecule Sequencing

8.3.3.1 Helicos

8.3.3.2 Pacific Bioscience

8.3.3.3 ChIP‐Sequencing

8.4 Tools for NGS Data Analysis

8.5 Generalized Procedure for NGS Data Analysis

8.5.1 Assessment of Quality

8.5.2 Aligning Sequences

8.5.3 Identification of Variants

8.6 Variant Annotation

8.6.1 Visualization of NGS Data

8.7 Role of NGS Informatics in Identifying Variants

8.8 Genotyping by Sequencing

8.9 Analytical Pipelines for GBS

8.10 Comparison of GBS Pipelines

References

9 Recent Advances and Applicability of GBS, GWAS, and GS in Maize

9.1 Introduction

9.2 Maize Genetics

9.3 Importance of Genomics and Genotyping‐based Applications in Maize Breeding Programs

9.4 GBS‐based QTL Mapping in Maize

9.5 GBS Protocols and Analytical Pipelines for Maize

9.6 Maize Genome Sequencing and Resequencing

9.6.1 Maize Resequencing

9.7 Genotyping‐by‐Sequencing‐based GWAS and GS Efforts in Maize

9.8 Summary

References

10 Recent Advances and Applicability of GBS, GWAS, and GS in Soybean

10.1 Introduction. 10.1.1 Importance of Soybean for Global Food Security

10.1.2 Challenges in Soybean Production

10.1.3 Soybean Genetic Improvement

10.2 GBS Efforts in Soybean

10.3 High‐Density Linkage Maps in Soybean

10.4 GBS Protocols and Analytical Pipelines for Soybean

10.5 GBS‐based QTL Mapping Efforts in Soybean

10.6 Soybean Genome Sequencing and Resequencing

10.7 GBS‐based GWAS Efforts in Soybean

10.7.1 The General Procedure for Association Mapping

10.7.2 Approaches Used for Association Studies

10.8 GBS‐based Genomic Selection Efforts in Soybean

References

11 Advances and Applicability of Genotyping Technologies in Cotton Improvement

11.1 Introduction

11.2 Challenges due to Polyploidy in Cotton

11.3 Applications of Genomics and Genotyping for Cotton Breeding Programs

11.4 Genotyping Efforts in Cotton

11.5 High‐Density Linkage Maps in Cotton

11.6 Whole‐Genome Sequencing of Cotton Germplasm

11.7 Application of GBS Technology in Cotton Research

11.8 GBS‐based Bi‐Parental QTL Mapping and Association Mapping in Cotton

11.9 Summary and Outlook

References

Note

12 Recent Advances and Applicability of GBS, GWAS, and GS in Millet Crops*

12.1 Introduction

12.2 GBS Efforts in Millet Crops

12.3 High‐density Linkage Maps in Millet Crops

12.4 GBS‐based QTL Mapping Efforts in Millet Crops

12.5 Genome Sequencing and Resequencing of Millet Crops

12.5.1 Pearl Millet

12.5.2 Broomcorn Millet

12.5.3 Finger Millet

12.5.4 Foxtail Millet

12.5.5 Sorghum

12.6 GBS‐based GWAS Efforts in Millet Crops

12.7 GBS‐based Genomic Selection (GS) Efforts in Millet Crops

12.8 Summary

References

Note

13 Recent Advances and Applicability of GBS, GWAS, and GS in Pigeon Pea

13.1 Introduction

13.2 Pigeon Pea Sequencing and Resequencing

13.3 Development of Pigeon Pea High‐density Genotyping Platforms

13.4 Development of High‐density Linkage Maps in Pigeon Pea

13.5 QTL Analysis Using High‐density Genotyping Platforms and GBS

13.6 GWAS Efforts in Pigeon Pea

13.7 Genomic Selection (GS) Efforts in Pigeon Pea

13.8 Summary

References

14 Opportunity and Challenges for High‐throughput Genotyping in Sugarcane

14.1 Introduction

14.2 Sugarcane Genome and Genetics

14.3 Genetic Studies and Marker Systems

14.4 Genotyping‐by‐Sequencing (GBS)

14.5 SNP Calling Using GBS Pipelines

14.6 Sugarcane Genome Sequencing

14.7 Linkage and QTL Mapping in Sugarcane

14.8 GWAS in Sugarcane

14.9 Genomic Selection in Sugarcane

14.10 Summary

References

15 Recent Advances and Applicability of GBS, GWAS, and GS in Polyploid Crops

15.1 Introduction

15.2 Challenges for Genotyping in Polyploidy Crops

15.3 Genotyping Platforms for Barley

15.4 Long‐Read Sequencing‐based Genotyping in Polyploid Canola

15.5 Peanut Genotyping with Targeted Amplicon Sequencing

15.6 SNP Genotyping Methods and Platforms Available for Sugarcane

15.7 Recent Advances and Applicability of GBS, GWAS, and GS in Polyploidy Crop Species. 15.7.1 Linkage Maps and Mapping Software Tools for Polyploids

15.8 Haplotype‐based Genotyping

15.9 GBS Analytical Pipelines for Polyploids. 15.9.1 Fast‐GBS

15.9.2 PolyRAD

15.9.3 UGbS‐Flex

15.9.4 HaploTag

15.10 GBS‐based QTL Mapping Efforts in Polyploids

15.10.1 Wheat

15.10.2 Potato

15.10.3 Sugarcane

15.10.4 Canola

15.10.5 Peanut

15.10.6 Cotton

15.11 GWAS and GS Using High‐throughput Genotyping in Polyploidy Crops

15.11.1 Wheat

15.11.2 Potato

15.11.3 Sugarcane

15.11.4 Canola

15.11.5 Peanut

15.11.6 Cotton

References

16 Recent Advances and Applicability of GBS, GWAS, and GS in Oilseed Crops

16.1 Introduction

16.2 GBS Efforts in Oilseed Crops

16.3 High‐density Linkage Maps for Oilseed Crops. 16.3.1 High‐density Linkage Maps for Peanut

16.3.2 High‐density Linkage Maps for Sunflower

16.3.3 High‐density Linkage Maps of Sesamum

16.3.4 High‐density Linkage Maps of Safflower

16.3.5 High‐density Linkage Maps of Linseed

16.3.6 High‐density Linkage Maps of Soybean

16.3.7 High‐density Linkage Maps of Rapeseed

16.4 GBS Protocols and Analytical Pipelines

16.5 GBS‐based QTL Mapping Efforts in Oilseed Crops

16.5.1 GBS‐based QTL in Peanut

16.5.2 GBS‐based QTL in Soybean

16.5.3 GBS‐based QTL in Rapeseed

16.6 GBS‐based GWAS Efforts in Oilseed Crops

References

Index. a

b

c

d

e

f

g

h

i

j

k

l

m

n

o

p

q

r

s

t

u

v

w

y

WILEY END USER LICENSE AGREEMENT

Отрывок из книги

Edited by

Humira Sonah

.....

Gunashri Padalkar, Department of Agriculture Biotechnology, National Agri‐Food Biotechnology Institute (NABI), Mohali, Punjab, India

Jayendra Padiya, Mahyco Research Centre, Mahyco Private Limited, Jalna, Maharashtra, India

.....

Добавление нового отзыва

Комментарий Поле, отмеченное звёздочкой  — обязательно к заполнению

Отзывы и комментарии читателей

Нет рецензий. Будьте первым, кто напишет рецензию на книгу Genotyping by Sequencing for Crop Improvement
Подняться наверх