Efficient seed storage is crucial for maintaining seed quality, viability, and germination potential, which directly impact agricultural productivity and food security. However, prolonged storage leads to seed deterioration due to both biotic and abiotic factors, resulting in significant post-harvest losses. Modified atmospheric packaging (MAP) is a sustainable non-chemical technology that enhances seed storability by altering the gaseous environment around seeds. MAP operates through active packaging, which injects desired gases and passive packaging, where the product’s respiration modifies the atmosphere. By reducing oxygen (O2) levels, minimizing moisture absorption, and inhibiting microbial and insect activity, MAP extends seed shelf life. Typically, O2 is replaced with nitrogen (N2) or carbon dioxide (CO2), limiting oxidative reactions and metabolic activity. MAP benefits multiple seed types, including cereals, legumes, oilseeds, and horticultural crops. Physically, it reduces seed moisture, delaying deterioration and preserving seed coat color. Physiologically, it prolongs seed longevity by reducing the accumulation of reactive oxygen species (ROS) and conserving seed reserves. Biochemically, it minimizes lipid peroxidation, maintains enzyme activities like alpha-amylase and catalase and reduces electrolyte leakage. Additionally, MAP controls storage pests and pathogens; elevated CO2 inhibits insect proliferation and fungal contamination, mitigating mycotoxin risks. This review examines the strategic role of MAP in seed conservation for sustainable agriculture by comparing MAP with traditional storage methods and assessing its impact on seed viability and longevity.

The demand for rice is predicted to rise by over 200 million tons by 2050 due to the rapidly growing population. India needs to step up its rice production because of the burgeoning population and decreasing land and other resources. Existing lower yield in rice caused by improper planting methods, particularly related to transplanting. This research was conducted to understand the effect of planting methods with coated and uncoated seeds to maximize seed yield and quality of rice. A field was raised in a randomized block design (RBD) on different treatments as coated and uncoated seeds with methods of sowings such as drone sowing, drum sowing, machine transplanting and manual transplanting with three replications. The observation on the number of hills m-2, number of tillers m-2, number of productive tillers m 2, number of grains panicle-1, 1000-grain weight, rice yield m-2 and quality indicators were gathered. The result indicates the maximum seed yield and productive tillers per hill recorded in drone seeding with coated seeds (59.71 q ha-1 and 31.75, respectively) whereas uncoated manual transplanting recorded 51.68 q ha-1 and 25.0 numbers, respectively in rice variety CO 55. Further, results on seed quality parameters revealed that machine transplanting yields higher production with the best seed quality compared to the seeds from drone sowing. It is concluded that drone sowing and machine transplanting are superior in seed yield and quality than conventional manual transplanting. Further research on enhancing the seed productivity through drone sowing on seeding density, population maintenance and productive tiller enhancement can be done.