Guide to Plant Single-Cell Technology: Functional Genomics and Crop Improvement summarizes the current status of single-cell technology in plants involving food and energy crops. Presenting methods and applications of emerging high-throughput technologies performed using the single-cell platform it includes an emphasis on single-cell RNA sequencing and eventually towards single-cell omics, which are highly complementary and effective for profiling the plant cell subject to either environmental factors or pathogenic threats. These technologies can advance the exploration of plant physiology as well as precision crop breeding for future anti-stress and high-yield plants and achieve sustainable agriculture. The book covers crop improvement and breeding strategies involving single-cell technology to produce future stress-tolerant and high-yield plants, which have better performances on growth, and development to achieve enhanced production of foods and biomass. Guide to Plant Single-Cell Technology: Functional Genomics and Crop Improvement will be a valuable reference resource for academics and researchers in plant and crop sciences.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. List of contributors - p. xv 7. About the editor - p. xix 8. Preface - p. xxi 9. Chapter 1. An overview of single-cell high-throughput technology in plants - p. 1 10. Chapter 2. Understanding single-cell multi-omics for high resolution cellular interactome mapping - p. 35 11. Chapter 3. Single cell technology for studying plant growth and development - p. 67 12. Chapter 4. Single-cell technology for studying plant–microbe interactions - p. 89 13. Chapter 5. Single-cell technology for disease-resistant plants - p. 111 14. Chapter 6. Single-cell technology for plant systems biology - p. 133 15. Chapter 7. Single-cell technology for plant biotechnology - p. 159 16. Chapter 8. Single-cell technology for crop breeding - p. 189 17. Chapter 9. Single-cell technology for plant metabolomics - p. 221 18. Chapter 10. Single-cell technology for plant natural product research - p. 248 19. Chapter 11. Single-cell omics to dissect molecular features in plant root development - p. 273 20. Chapter 12. Single-cell technology for improvement in significant crops - p. 300 21. Chapter 13. Annotation of single-cell clusters using marker genes within and across species - p. 322 22. Chapter 14. Machine learning prediction of novel gene functions with single-cell sequencing data - p. 349 23. Index - p. 367
Guide to Plant Single-Cell Technology: Functional Genomics and Crop Improvement summarizes the current status of single-cell technology in plants involving food and energy crops. Presenting methods and applications of emerging high-throughput technologies performed using the single-cell platform it includes an emphasis on single-cell RNA sequencing and eventually towards single-cell omics, which are highly complementary and effective for profiling the plant cell subject to either environmental factors or pathogenic threats. These technologies can advance the exploration of plant physiology as well as precision crop breeding for future anti-stress and high-yield plants and achieve sustainable agriculture. The book covers crop improvement and breeding strategies involving single-cell technology to produce future stress-tolerant and high-yield plants, which have better performances on growth, and development to achieve enhanced production of foods and biomass. Guide to Plant Single-Cell Technology: Functional Genomics and Crop Improvement will be a valuable reference resource for academics and researchers in plant and crop sciences.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. List of contributors - p. xv 7. About the editor - p. xix 8. Preface - p. xxi 9. Chapter 1. An overview of single-cell high-throughput technology in plants - p. 1 10. Chapter 2. Understanding single-cell multi-omics for high resolution cellular interactome mapping - p. 35 11. Chapter 3. Single cell technology for studying plant growth and development - p. 67 12. Chapter 4. Single-cell technology for studying plant–microbe interactions - p. 89 13. Chapter 5. Single-cell technology for disease-resistant plants - p. 111 14. Chapter 6. Single-cell technology for plant systems biology - p. 133 15. Chapter 7. Single-cell technology for plant biotechnology - p. 159 16. Chapter 8. Single-cell technology for crop breeding - p. 189 17. Chapter 9. Single-cell technology for plant metabolomics - p. 221 18. Chapter 10. Single-cell technology for plant natural product research - p. 248 19. Chapter 11. Single-cell omics to dissect molecular features in plant root development - p. 273 20. Chapter 12. Single-cell technology for improvement in significant crops - p. 300 21. Chapter 13. Annotation of single-cell clusters using marker genes within and across species - p. 322 22. Chapter 14. Machine learning prediction of novel gene functions with single-cell sequencing data - p. 349 23. Index - p. 367
