Plant tissue culture and micropropagation are powerful biotechnological techniques that have revolutionized plant breeding, conservation, and commercial production. These methods enable the growth and multiplication of plants under sterile, controlled conditions, bypassing the limitations of traditional propagation methods such as seed and vegetative propagation. Tissue culture involves cultivating plant cells, tissues, or organs on a nutrient medium, while micropropagation refers specifically to the rapid multiplication of plants via tissue culture. These techniques have extensive applications in agriculture, horticulture, forestry, and the conservation of endangered plant species. They also play a crucial role in improving crop varieties, enabling the production of disease-free plants, and preserving plant genetic diversity. Furthermore, tissue culture can facilitate the development of genetically modified plants with desired traits, enhancing food security and sustainable agriculture. These innovations continue to advance, offering new possibilities for addressing challenges in plant production and conservation.
Title : Techniques for Identification and managing bacterial and fungal diseases of tomatoes
Mohammad Babadoost, University of Illinois, United States
Title : The importance of plant biology research in supporting phytosanitary capacities and applications
Shaza Roushdy Omar, Cairo University, Egypt
Title : Key innovations of prognostic breeding that increase the efficiency of crop genetic improvement
Vasilia A Fasoula, Adjunct Research Scientist and Consultant, United States
Title : Phytochemical diversity of the flora of the Western Ghats- An investigation through hyphenated mass spectrometric techniques
Rameshkumar K B, Jawaharlal Nehru Tropical Botanic Garden and Research Institute, India
Title : Fungal endophytes promote wheat growth (PBW-343) and enhance salt tolerance through improvement of ascorbate glutathione cycle and gene expression
Priyanka Prajapati, Banaras Hindu University, India
Title : Abc1kN is involved in glucosinolate metabolism and stress response during seed development in Arabidopsis thaliana
Giovanni DalCorso, University of Verona, Italy