Crop Improvement Now and Beyond

A topical collection in Biology (ISSN 2079-7737). This collection belongs to the section "Biotechnology".

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Editors


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Collection Editor
Florimond-Desprez—Recherche & Innovation, 3 rue Florimond Desprez, P.O. Box 41, 59242 Cappelle-en-Pévèle, France
Interests: plant breeding; biotechnology; omics; molecular biology; pest and diseases; applied genetics; doubled haploid; gene editing; genomic selection; epigenetic
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Collection Editor
INRAE, UMR 1095 INRAE—Université Clermont-Auvergne, Genetics, Diversity & Ecophysiology of Cereals, 5, Chemin de Beaulieu, 63000 Clermont-Ferrand, France
Interests: recombination; meiosis; crop genetics
Special Issues, Collections and Topics in MDPI journals

Topical Collection Information

Dear Colleagues, 

Since the green revolution in the early 1970s, crop production has mostly covered the human needs, allowing feeding a regularly growing population. However, yields have been stagnating for most crops—especially for cereals—for more than 20 years, and the surpluses that used to cover at least three months of consumption have dramatically decreased, leading to stock depletion with potentially disastrous consequences for human feeding. In addition, crops initially intended for human consumption have been diverted to non-food productions, thus further impacting food stocks. The traditional answer to the growing demands of the world population has also long relied on extending land cultivation, implementing large deforestation programs in some developing countries. Nevertheless, this will no longer be possible because of the non-negotiable need to preserve natural biodiversity. Agriculture has also to face increasing ecological constraints, and crop yield improvement will have to be achieved despite a drastic reduction of the use of fertilizers, herbicides, insecticides, and fungicides, and the scarcity of water caused by climate change and the frequent occurrence of drought and heat stress. Therefore, it is necessary to “give crops a genetic helping hand” and to provide breeders with new tools to allow the fast development of new original and powerful crop varieties. These achievements will require the application of cell and molecular biology techniques, high-throughput genotyping and sequencing approaches, genome-wide association mapping and genomic selection, gene expression and regulation methods, targeted mutagenesis, including genome editing, high-throughput phenotyping, epigenetics. The objective if this Topical Collection is to show how these new tools are being specifically setup and used for the improvement of major crops and how they will be used and improved in the coming years to face the challenge of crop yield improvement and meet human needs by 2050 in the context of sustainable agriculture. Review articles on the latest technologies and methodologies will also be of interest.

Dr. Pierre Devaux
Dr. Pierre Sourdille
Collection Editors

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Keywords

  • crop improvement
  • genetics
  • breeding
  • biotechnology
  • genotyping
  • new technologies
  • omics
  • phenotyping

Related Special Issue

Published Papers (1 paper)

2024

35 pages, 5142 KiB  
Article
Comparative Effects of Calcium, Boron, and Zinc Inhibiting Physiological Disorders, Improving Yield and Quality of Solanum lycopersicum
by Bibi Haleema, Syed Tanveer Shah, Abdul Basit, Wafaa M. Hikal, Muhammad Arif, Waleed Khan, Hussein A. H. Said-Al Ahl and Mudau Fhatuwani
Biology 2024, 13(10), 766; https://doi.org/10.3390/biology13100766 - 26 Sep 2024
Viewed by 1486
Abstract
Localized calcium deficiency at the tomato flower end causes a physiological disorder called blossom end rot, resulting in yield losses of up to 50 percent. Fruit cracking is another physiological disorder of tomatoes that most often occurs when the movement of water and [...] Read more.
Localized calcium deficiency at the tomato flower end causes a physiological disorder called blossom end rot, resulting in yield losses of up to 50 percent. Fruit cracking is another physiological disorder of tomatoes that most often occurs when the movement of water and solutes to the tomato is protracted or rapid, but the underlying cause of fruit cracking is, again, calcium deficiency. Therefore, the present field experiment was conducted with the aim of increasing yield and reducing physiological disorders in tomatoes with a foliar application of calcium and micronutrients (zinc and boron). Four levels of calcium (0, 0.3, 0.6, and 0.9%), three levels of boron (0, 0.25, and 0.5%), and three levels of Zinc (0, 0.25, and 0.5%) were applied foliarly three times (starting at flowering, the 2nd application was repeated when the fruits set, and the 3rd after a period of 15 days from the fruits set). An addition of 0.6% calcium increased yield and associated traits with a decreased flower drop. Likewise, a 0.9% calcium addition increased fruit Ca content and decreased blossom end rot, fruit cracking, and Zn content. Foliar spraying with 0.25% boron (compound B) improved flowering and production while reducing flower drop and tomato fruit cracking. Similarly, an application of 0.5% B significantly increased Ca and B content with minimal blossom end rot and Zn content. Likewise, a 0.5% Zn application resulted in yield and yield-related traits with increased fruit B and Zn contents while blossom end rot, fruit cracking, and fruit Ca content were lower when 0.5% of foliar Zn was applied. Therefore, it is concluded that a foliar application of Ca, B, and Zn can be used alone or in combination to minimize the physiological disorders, increase production, and improve tomato fruit quality. Full article
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