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Title: Cultivating More Growth of Paddy: Techniques and Benefits Introduction:

Control of Zinc Deficiency in Paddy

Zinc deficiency in paddy crops is a prevailing issue that can greatly impact both crop productivity and human health. Zinc is an essential micronutrient required for proper plant growth and development. Its deficiency can result in stunted growth, reduced grain quality, and impaired nutrient uptake in paddy plants. However, there are several effective methods to mitigate and control zinc deficiency in paddy crops. In this article, we will explore some of these strategies.

1. Soil management: The first step in combating zinc deficiency in paddy is to assess the soil conditions. Conducting a soil test can help determine the zinc levels and pH of the soil. Zinc availability is greatly affected by soil pH, with acidic soils (pH below 6) reducing its availability. Liming the soil to raise the pH and reduce acidity can enhance the uptake and availability of zinc to paddy plants.

2. Balanced fertilization: Applying zinc-rich fertilizers is a common approach to combat zinc deficiency. Zinc sulfate or chelated zinc fertilizers can be used to replenish zinc levels in the soil. Incorporating these fertilizers during soil preparation or as foliar sprays can effectively address the zinc deficiency in paddy crops. However, it is important to apply fertilizers at the recommended dosage to avoid excess zinc accumulation, which can be detrimental to plants.

3. Organic matter and compost application: Adding organic matter to the soil can improve its overall quality and increase the availability of micronutrients like zinc. Compost or well-decomposed organic materials, such as farmyard manure, can be incorporated into the soil. This practice enhances the soil’s water-holding capacity, nutrient retention, and nutrient availability, including zinc.

4. Crop rotation and diversification: Continuous cultivation of paddy crops on the same land can deplete soil nutrients, including zinc. Implementing crop rotation or diversifying crops in the field can help break the cycle of zinc deficiency. By alternating paddy cultivation with leguminous crops, such as pulses or soybeans, the nitrogen fixation process by legumes promotes nutrient recycling and enhances soil health, including zinc availability.

5. Biofortification: Biofortification involves breeding or selecting crop varieties with enhanced nutrient content, including zinc. Researchers and agronomists are working on developing zinc-enriched paddy varieties that can efficiently uptake zinc from the soil and accumulate it in the edible parts of the plant. Incorporating biofortified paddy varieties into agricultural practices can be a sustainable long-term solution to combat zinc deficiency.

6. pH adjustment through foliar sprays: In cases where soil pH is not optimal for efficient zinc uptake, foliar sprays can be an effective remedy. Foliar application of zinc sulfate or zinc chelates helps bypass the soil and directly provides zinc to the paddy plant. This method ensures that plants receive the necessary zinc supply irrespective of soil conditions, effectively addressing zinc deficiency.

In conclusion, the control of zinc deficiency in paddy crops requires a comprehensive approach that includes soil management, balanced fertilization, organic matter application, crop rotation, biofortification, and targeted foliar sprays. By implementing these strategies, farmers can mitigate zinc deficiency, improve crop productivity, and contribute to better nutritional outcomes for both humans and animals who depend on paddy crops for sustenance.

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