In the last decade the breeding technology referred to as 'genomic selection' (GS) has been implemented in a variety of species, with particular success in animal breeding.
The progress made in these breeding technologies, especially the modern biotechnology-based breeding technologies, has had a great impact on crop breeding as well as on our lives.
TMPPS experiencing the greatest increases in adoption have been automatic take-offs, the internet, breeding technologies, and USDA certified organic production; recombinant bovine somatotropin experienced a reduction in usage between 2005 and 2010.
Known as transgenic technology, the beauty of this breeding technology is that it can transfer the cloned gene regardless of the source or recipient of the genes.
The hot pepper genome will enable the advancement of new breeding technologies through the exploration of genome-wide associations and genomic selection studies on horticulturally important traits such as fruit size, yield, pungency, tolerance to abiotic stresses, nutritional content and resistance to multiple diseases.
Here, we briefly summarize the development of breeding technologies in horticultural crops, we then introduce the latest genome-editing technologies, and, finally, we discuss their potential applications and challenges in breeding horticultural crops.
Moreover, the system of genetic modification and Cre/loxP in aid of three different drug-resistance markers presented in the study significantly improved breeding efficiency and will facilitate the application of breeding technologies in prototrophic industrial microorganisms.
EDC is the Director of Istituto Zooprofilattico Sperimentale del Mezzogiorno (IZSM) – Salerno Section and the head of the National Centre for hygiene, breeding technologies and Buffalo production.
As extension specialist he has written extensively about the importance of modern plant breeding technologies for the development of a sustainable agriculture.
This grade of phenotypic unpredictability inherent to the environment has long hampered the use of molecular breeding technologies, such as marker-assisted selection (MAS), to develop appropriate isoflavone lines.
