Abstract:Yield analysis is necessary to test the overall performance of different okra varieties. For this, field experiments were performed during the summer season to assess the yield or production of different okra varieties under open field conditions. The experiment comprised four treatments with seven replicas in an RCBD. The treatments included four different varieties of okra: Arka Anamika, Chiranjeevi F1, Gunjan, and JK 1666. The experimental results showed that the average mean yield of four okra varieties wa… Show more
“…Researchers and breeders can access preserved germplasm collections to identify genes associated with desirable traits and incorporate them into breeding programs to develop new varieties or genotypes that meet the evolving needs of farmers and consumers (Yadav et al, 2023e). There are several researches that aid in understanding of genetic diversity of several crops, which is important for germplasm conservation efforts (Mehata et al, 2023;Yadav et al, 2023f). Conservation initiatives for germplasm frequently involve safeguarding heirloom or landrace cultivars with cultural and historical importance.…”
Section: Utilization Of Germplasm Conservationsmentioning
Plant genetic resources are critical for maintaining global biodiversity and ensuring food security. However, these resources face threats from factors such as habitat loss and climate change, with approximately 22% of plant species estimated to be at risk of extinction. To address this issue, both natural and biotechnological methods are being developed to preserve plant genetic resources, with germplasm being a key component. Germplasm contains the complete genetic information of a plant and can be stored for extended periods and replicated as required. The objective of this study is to emphasize the importance of preserving germplasm of endangered or near-extinct plant species through in situ and ex situ conservation methods. In situ conservation involves conserving species in their natural environment, while ex situ conservation includes using gene-seed banks and tissue culture to store genetic resources. These methods are crucial for maintaining genetic diversity and preventing the loss of valuable plant resources. The study highlights the various ex situ conservation methods, including cryopreservation, pollen and DNA banks, farmer's fields, botanic gardens, genetic reserves, and slow-growing cultures, which are essential for preserving germplasm. Gene banks worldwide currently hold over 7.4 million accessions of crop genetic resources, demonstrating the value of germplasm conservation efforts. Additionally, understanding the phenotypic and genetic characterization of related species is crucial for identifying endangered or vulnerable species that can diversify into new varieties or subspecies. In conclusion, prioritizing germplasm conservation efforts is crucial for meeting future demands while preserving endangered or vulnerable species. This will ensure that plant genetic resources remain available for future generations and that agricultural innovation can effectively address global food security challenges.
“…Researchers and breeders can access preserved germplasm collections to identify genes associated with desirable traits and incorporate them into breeding programs to develop new varieties or genotypes that meet the evolving needs of farmers and consumers (Yadav et al, 2023e). There are several researches that aid in understanding of genetic diversity of several crops, which is important for germplasm conservation efforts (Mehata et al, 2023;Yadav et al, 2023f). Conservation initiatives for germplasm frequently involve safeguarding heirloom or landrace cultivars with cultural and historical importance.…”
Section: Utilization Of Germplasm Conservationsmentioning
Plant genetic resources are critical for maintaining global biodiversity and ensuring food security. However, these resources face threats from factors such as habitat loss and climate change, with approximately 22% of plant species estimated to be at risk of extinction. To address this issue, both natural and biotechnological methods are being developed to preserve plant genetic resources, with germplasm being a key component. Germplasm contains the complete genetic information of a plant and can be stored for extended periods and replicated as required. The objective of this study is to emphasize the importance of preserving germplasm of endangered or near-extinct plant species through in situ and ex situ conservation methods. In situ conservation involves conserving species in their natural environment, while ex situ conservation includes using gene-seed banks and tissue culture to store genetic resources. These methods are crucial for maintaining genetic diversity and preventing the loss of valuable plant resources. The study highlights the various ex situ conservation methods, including cryopreservation, pollen and DNA banks, farmer's fields, botanic gardens, genetic reserves, and slow-growing cultures, which are essential for preserving germplasm. Gene banks worldwide currently hold over 7.4 million accessions of crop genetic resources, demonstrating the value of germplasm conservation efforts. Additionally, understanding the phenotypic and genetic characterization of related species is crucial for identifying endangered or vulnerable species that can diversify into new varieties or subspecies. In conclusion, prioritizing germplasm conservation efforts is crucial for meeting future demands while preserving endangered or vulnerable species. This will ensure that plant genetic resources remain available for future generations and that agricultural innovation can effectively address global food security challenges.
“…Okra (Abelmoschus esculentus L. Moench) is a popular summer vegetable crop that grows in tropical, subtropical, and temperate climates worldwide. It belongs to the family Malvaceae (Bereded Sheferie, 2023;Ziaf et al, 2022;Yadav et al, 2023a). The fibrous fruit of the okra plant provides 5.4% of its calories from carbohydrates, 4% from protein, and 0.5% from total fat, making it a highly nutritious fruit.…”
The present study has been conducted to study the effect of various primer treatments i.e., PEG (5%), PEG (10%), NaCl (2%), KCl (2%), CuSO4•5H2O (2%), NaOH (2%) and control on germination and growth of two okra (Abelmoschus esculentus) varieties (var. Arka Anamika and Clemson). Growth parameters were measured at 10, 20, and 30 DAS, while germination parameters were recorded over a period of seven days. Compared to Arka Anamika, Clemson showed better germination and growth metrics, which also showed significant differences in seed priming treatments. The use of different concentrations of PEG solution for seed priming proved to be particularly effective as evidenced by the highest germination percentage (79%), speed (95.95%), energy (76%), and Vigor index (2037.94 cm). Growth parameters also showed significant differences with these treatments. Similarly, seed priming with 2% NaOH and 2% CuSO4•5H2O had the lowest results for growth and germination metrics. The results highlight how priming can significantly improve the germination and growth of okra seedlings; the Clemson and PEG solution treatments stand out as particularly successful techniques. This highlights the potential for improved okra production through the use of these priming methods.
“…This helps change plant growth status, make resistance, and create new varieties (Pimentel et al, 1989). The production of crops can differ from plant to plant, which is influenced by numerous factors such as the composition of the soil, use of fertilizers, intercultural practices, watering techniques, disease prevention measures, and other related factors (Yadav et al, 2023;Mehata et al, 2022). Therefore, the new DNA strands inserted into the plant for modification can be a part of the plant genome in seed produced by the modified plant through genetic engineering (Colwell et al, 1985).…”
Abiotic stresses like drought, heat, and salinity are major causes of agricultural production losses worldwide. However, progress in developing genetically modified crops with better tolerance to these stresses has been slow. Modern agriculture faces various challenges, such as the complex field environment, diverse abiotic stress combinations, and global climatic changes. A combination of approaches is required to improve crop tolerance to abiotic stress significantly. These include understanding stress response and acclimation networks, testing under different growth conditions, using innovative techniques considering genetic and physiological variations in crops, and incorporating enzymes and proteins from other organisms.
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