Skip to product information
1 of 1

Genome editing of tomatoes and other Solanaceae

Regular price £25.00
Sale price £25.00 Regular price £25.00
Sale Sold out
To ensure populations have sufficient, safe, and nutritious food requires a concerted effort that involves politics, economics, farming practices, and enhancement of crops to withstand abiotic and ...
Read More
  • Format:
  • 19 April 2021
View Product Details
To ensure populations have sufficient, safe, and nutritious food requires a concerted effort that involves politics, economics, farming practices, and enhancement of crops to withstand abiotic and biotic pressures yet remain productive. Keeping pace with population size and stresses imposed by climate change make it critical for plant scientists to have access and the freedom to apply all the tools available for crop improvement. The advent of gene editing increased the options for achieving desired traits and has been shown to be effective across a broad range of species including those in the Solanaceae, which contains some of the most relied upon food crops, such as tomato and potato. Traits related to disease resistance, fruit and tuber quality have been modified and improved through the use of editing in tomato and potato. Application and effectiveness of different editing approaches based on CRISPR/Cas of solanaceous species are outlined in this chapter.
files/i.png Icon
Price: £25.00
Publisher: Burleigh Dodds Science Publishing
Imprint: Burleigh Dodds Science Publishing
Series: Burleigh Dodds Series in Agricultural Science
Publication Date: 19 April 2021
ISBN: 9781801461450
Format: eBook
BISACs:

TECHNOLOGY & ENGINEERING / Agriculture / Agronomy / Crop Science, Agronomy and crop production, TECHNOLOGY & ENGINEERING / Agriculture / Sustainable Agriculture, Sustainable agriculture, Botany and plant sciences

REVIEWS Icon

1 Introduction 2 Gene editing proof-of-concept investigations 3 DNA sequence insertion 4 Application of CRISPR/Cas ribonucleoprotein complexes 5 Base editing 6 Modification of gene function for improved disease tolerance 7 Editing to affect fruit and tuber quality 8 Plant growth and development modifications 9 Case study: application of gene editing for de novo domestication 10 Conclusion and future trends 11 Where to look for further information 12 References