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Plant nutrient removal and soil residual chemical properties as impacted by maize planting date and density

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This study aimed to measure maize (Zea mays) plant nutrient content and nutrient removal in grain, and to evaluate the residual soil nitrogen, phosphorus, and potassium as impacted by planting date and density. Field experiments were conducted to evaluate six plant densities and seven planting dates using a split-split plot design with three replications. Besides the crop growth and yield parameters, six plants were collected at the maturity and soil was sampled from each plot for nutrient analysis. Plant N, P, and K concentrations varied with planting date and density and within the ranges of 0.6–1.024%, 0.054–0.127%, and 0.75–1.71%, respectively. Grain N, P, and K concentrations decreased with plant density and varied from 1.059 to 1.558%, 0.20 to 0.319%, and 0.29 to 0.43%, respectively. Soil residual nutrient varied with depth, planting density and date. Residual N concentration in the topsoil varied from 0.6 to 37.2 mg kg-1 in 2019 and from 1.5 to 11.2 mg kg-1 in 2020 and was high under the last two planting dates. Soil residual N concentration was higher in the second layer than in the topsoil. The N concentration in the third layer varied from 0.1 to 33.2 mg kg-1 and was impacted by plant density. Topsoil P did not vary among planting dates and densities. The second and third soil layers P concentration was not affected. There was 83% increase in topsoil K in 2020 compared to 2019, and a decrease of 65 and 23% in soil K was observed in the second and third soil layers, respectively. For maize production system sustainability, future research should use a holistic approach investigating the impact of planting date, plant density on crop growth, yield, nutrient uptake and remobilization, and soil properties under different fertilizer rates to develop the fertilizer recommendation for maize while reducing the environmental impact of the production system.
Title: Plant nutrient removal and soil residual chemical properties as impacted by maize planting date and density
Description:
This study aimed to measure maize (Zea mays) plant nutrient content and nutrient removal in grain, and to evaluate the residual soil nitrogen, phosphorus, and potassium as impacted by planting date and density.
Field experiments were conducted to evaluate six plant densities and seven planting dates using a split-split plot design with three replications.
Besides the crop growth and yield parameters, six plants were collected at the maturity and soil was sampled from each plot for nutrient analysis.
Plant N, P, and K concentrations varied with planting date and density and within the ranges of 0.
6–1.
024%, 0.
054–0.
127%, and 0.
75–1.
71%, respectively.
Grain N, P, and K concentrations decreased with plant density and varied from 1.
059 to 1.
558%, 0.
20 to 0.
319%, and 0.
29 to 0.
43%, respectively.
Soil residual nutrient varied with depth, planting density and date.
Residual N concentration in the topsoil varied from 0.
6 to 37.
2 mg kg-1 in 2019 and from 1.
5 to 11.
2 mg kg-1 in 2020 and was high under the last two planting dates.
Soil residual N concentration was higher in the second layer than in the topsoil.
The N concentration in the third layer varied from 0.
1 to 33.
2 mg kg-1 and was impacted by plant density.
Topsoil P did not vary among planting dates and densities.
The second and third soil layers P concentration was not affected.
There was 83% increase in topsoil K in 2020 compared to 2019, and a decrease of 65 and 23% in soil K was observed in the second and third soil layers, respectively.
For maize production system sustainability, future research should use a holistic approach investigating the impact of planting date, plant density on crop growth, yield, nutrient uptake and remobilization, and soil properties under different fertilizer rates to develop the fertilizer recommendation for maize while reducing the environmental impact of the production system.

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