Dynamic of Organic Matter, Nutrient Cycling, and PH in Soil Aggregate Particle Sizes Under Long-Term Cultivation of Camellia Oleifera

Camellia oleifera is intensively cultivated in subtropical areas of China, exposing soils to various threats. However, the effect of long-term cultivation of Camellia oleifera on soil properties remains unclear and needs to be elucidated to improve soil and Camelia oleifera sustainable management. T...

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Published inJournal of soil science and plant nutrition Vol. 24; no. 2; pp. 2599 - 2606
Main Authors Zipei, Luo, Qi, Sun, Ndzana, Georges Martial, Lijun, Chen, Yuqi, Chen, sheng, Lu, Lichao, Wu
Format Journal Article
LanguageEnglish
Published Cham Springer International Publishing 01.06.2024
Springer Nature B.V
Subjects
Aggregates
Agriculture
Alkenes
Aromatic compounds
Biomedical and Life Sciences
Camellia oleifera
Carbon
Chemical composition
Composition effects
Crop diseases
Cultivation
Ecology
Environment
Fractionation
Functional groups
Ketones
Life Sciences
Nitrogen
Nutrient cycles
Nutrients
Organic carbon
Organic matter
Organic phosphorus
Original Paper
Phenols
Phosphorus
Plant Sciences
Planting
Polysaccharides
Potassium
Saccharides
Soil aggregates
Soil analysis
Soil chemistry
Soil fertility
Soil improvement
Soil investigations
Soil organic matter
Soil pH
Soil properties
Soil Science & Conservation
Sustainability management
Trees
Variance analysis
China
Soil organic matter
Aggregates
Available nutrients
Long-term cultivation
Online AccessGet full text

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Abstract Camellia oleifera is intensively cultivated in subtropical areas of China, exposing soils to various threats. However, the effect of long-term cultivation of Camellia oleifera on soil properties remains unclear and needs to be elucidated to improve soil and Camelia oleifera sustainable management. This study collected soil samples from different Camellia oleifera planting ages (2, 10, and 40 years) and performed aggregate fractionation and various analyses including physico-chemical, soil organic matter chemical composition analyses and a semi-quantitative analysis of organic carbon functional groups to investigate the effect of long-term cultivation of Camellia oleifera on soil macroaggregates (< 2 mm), mesoaggregates (2-0.25 mm) and microaggregates (< 0.25 mm) formation, soil organic matter (SOM), available nitrogen (AN), available phosphorus (AP), and available potassium (AK). The aggregate particles increased with increasing Camellia oleifera planting ages. Camellia oleifera long-term cultivation did not affected the soil pH in the aggregates, but significantly ( P  < 0.05) increased SOM concentration with the decrease in soil aggregate size. Similarly, Phenolics-C, ketones-C, lignins-C, and alkenes-C increased in soil aggregates with increasing cultivation time and are mainly distributed in < 0.25 mm fraction. The aromatics-C, carboxylic-C, aliphatic-C, and polysaccharides-C declined with increasing cultivation time and were mainly distributed in 2-0.25 mm and < 2 mm fraction. AN is abundantly distributed in 2-0.25 mm and its abundance increases with Camellia oleifera long-term cultivation. All soils were poor in AP and AK. Our study indicated that long-term cultivation of Camellia oleifera promoted soil aggregate formation, increased available nitrogen (AN), soil organic matter (SOM) and controlled the change of SOM chemical composition. However, our study recommended providing available phosphorus (AP) and available potassium (AK) in soil with Camellia oleifera cultivation for sustainable management.
AbstractList Camellia oleifera is intensively cultivated in subtropical areas of China, exposing soils to various threats. However, the effect of long-term cultivation of Camellia oleifera on soil properties remains unclear and needs to be elucidated to improve soil and Camelia oleifera sustainable management. This study collected soil samples from different Camellia oleifera planting ages (2, 10, and 40 years) and performed aggregate fractionation and various analyses including physico-chemical, soil organic matter chemical composition analyses and a semi-quantitative analysis of organic carbon functional groups to investigate the effect of long-term cultivation of Camellia oleifera on soil macroaggregates (< 2 mm), mesoaggregates (2-0.25 mm) and microaggregates (< 0.25 mm) formation, soil organic matter (SOM), available nitrogen (AN), available phosphorus (AP), and available potassium (AK). The aggregate particles increased with increasing Camellia oleifera planting ages. Camellia oleifera long-term cultivation did not affected the soil pH in the aggregates, but significantly (P < 0.05) increased SOM concentration with the decrease in soil aggregate size. Similarly, Phenolics-C, ketones-C, lignins-C, and alkenes-C increased in soil aggregates with increasing cultivation time and are mainly distributed in < 0.25 mm fraction. The aromatics-C, carboxylic-C, aliphatic-C, and polysaccharides-C declined with increasing cultivation time and were mainly distributed in 2-0.25 mm and < 2 mm fraction. AN is abundantly distributed in 2-0.25 mm and its abundance increases with Camellia oleifera long-term cultivation. All soils were poor in AP and AK. Our study indicated that long-term cultivation of Camellia oleifera promoted soil aggregate formation, increased available nitrogen (AN), soil organic matter (SOM) and controlled the change of SOM chemical composition. However, our study recommended providing available phosphorus (AP) and available potassium (AK) in soil with Camellia oleifera cultivation for sustainable management.
Camellia oleifera is intensively cultivated in subtropical areas of China, exposing soils to various threats. However, the effect of long-term cultivation of Camellia oleifera on soil properties remains unclear and needs to be elucidated to improve soil and Camelia oleifera sustainable management. This study collected soil samples from different Camellia oleifera planting ages (2, 10, and 40 years) and performed aggregate fractionation and various analyses including physico-chemical, soil organic matter chemical composition analyses and a semi-quantitative analysis of organic carbon functional groups to investigate the effect of long-term cultivation of Camellia oleifera on soil macroaggregates (< 2 mm), mesoaggregates (2-0.25 mm) and microaggregates (< 0.25 mm) formation, soil organic matter (SOM), available nitrogen (AN), available phosphorus (AP), and available potassium (AK). The aggregate particles increased with increasing Camellia oleifera planting ages. Camellia oleifera long-term cultivation did not affected the soil pH in the aggregates, but significantly ( P  < 0.05) increased SOM concentration with the decrease in soil aggregate size. Similarly, Phenolics-C, ketones-C, lignins-C, and alkenes-C increased in soil aggregates with increasing cultivation time and are mainly distributed in < 0.25 mm fraction. The aromatics-C, carboxylic-C, aliphatic-C, and polysaccharides-C declined with increasing cultivation time and were mainly distributed in 2-0.25 mm and < 2 mm fraction. AN is abundantly distributed in 2-0.25 mm and its abundance increases with Camellia oleifera long-term cultivation. All soils were poor in AP and AK. Our study indicated that long-term cultivation of Camellia oleifera promoted soil aggregate formation, increased available nitrogen (AN), soil organic matter (SOM) and controlled the change of SOM chemical composition. However, our study recommended providing available phosphorus (AP) and available potassium (AK) in soil with Camellia oleifera cultivation for sustainable management.
Author Lichao, Wu
Qi, Sun
Lijun, Chen
sheng, Lu
Zipei, Luo
Ndzana, Georges Martial
Yuqi, Chen
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CitedBy_id crossref_primary_10_3390_agriculture15010014
crossref_primary_10_1016_j_apsoil_2024_105840
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Snippet Camellia oleifera is intensively cultivated in subtropical areas of China, exposing soils to various threats. However, the effect of long-term cultivation of...
Camellia oleifera is intensively cultivated in subtropical areas of China, exposing soils to various threats. However, the effect of long-term cultivation of...
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SubjectTerms Aggregates
Agriculture
Alkenes
Aromatic compounds
Biomedical and Life Sciences
Camellia oleifera
Carbon
Chemical composition
Composition effects
Crop diseases
Cultivation
Ecology
Environment
Fractionation
Functional groups
Ketones
Life Sciences
Nitrogen
Nutrient cycles
Nutrients
Organic carbon
Organic matter
Organic phosphorus
Original Paper
Phenols
Phosphorus
Plant Sciences
Planting
Polysaccharides
Potassium
Saccharides
Soil aggregates
Soil analysis
Soil chemistry
Soil fertility
Soil improvement
Soil investigations
Soil organic matter
Soil pH
Soil properties
Soil Science & Conservation
Sustainability management
Trees
Variance analysis
Title Dynamic of Organic Matter, Nutrient Cycling, and PH in Soil Aggregate Particle Sizes Under Long-Term Cultivation of Camellia Oleifera
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