Peat and Liquid Organic Fertilizer Promoted Kiwifruit Performance by Modifying Rhizosphere Soil Physicochemical and Microbial Properties

ABSTRACT Applications of peat and liquid organic fertilizer enhance soil physicochemical properties and modulate microbial community composition. Rhizosphere soil microorganisms play pivotal roles in mediating plant growth dynamics. Nevertheless, the effects of peat and liquid organic fertilizer amendments on growth performance and associated microbial regulation mechanisms in kiwifruit production systems remain poorly elucidated. This study investigated the rhizosphere soil physicochemical and microbiological traits, together with kiwifruit plant traits, following a gradient of peat application ranging from 0% to 25%, combined with two fertilization strategies (chemical fertilizer and liquid organic fertilizer). Results showed that compared to fertilizers, the effects of peat on soil physicochemical traits were more pronounced, for example, enhancement of soil organic matter, total carbon, available nitrogen and available phosphorus content, moisture, reduction of pH, and bulk density. Combined utilization of liquid organic fertilizer and 25% peat enhanced soil catalase, urease, and acid phosphatase activities by 30.8%, 46.3%, and 67.5%, respectively, compared to the control. High‐dose peat application can also significantly elevate soil phospholipid fatty acid content, especially eukaryotes. Sequencing results showed that fertilization practices and peat did not noticeably impact soil bacterial and fungal diversity. The application of 12.5% peat resulted in a higher number of soil microbial network links and a more complex network, while liquid organic fertilizer also increased the number of network links and the average clustering coefficient. Notably, the number of keystone taxa elevated with the increase of peat application. Finally, peat enhanced plant height and root activity, with liquid organic fertilizer significantly increasing root activity compared to the control and chemical fertilizer. Based on the above findings, the utilization of peat and liquid organic fertilizer can improve soil physicochemical properties, thereby enhancing soil enzyme activity and microbial abundance, adjusting the composition and interaction patterns of the microbiome, and ultimately promoting kiwifruit growth. Nevertheless, the effects of peat and liquid organic fertilizer in field trials should be explored in the future.

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Publication Details

Journal
Land Degradation and Development
Published
2025-03-23
DOI
https://doi.org/10.1002/ldr.5562
Citations
1
Primary Topic
Composting and Vermicomposting Techniques
Type
article
Field-Weighted Citation Impact
1.19
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article

Peat and Liquid Organic Fertilizer Promoted Kiwifruit Performance by Modifying Rhizosphere Soil Physicochemical and Microbial Properties

Guodong Zheng, Lei Wang, Jianxun Qin, Xiyu Ouyang et al.
1 citations
Land Degradation and Development
Composting and Vermicomposting Techniques
1.19
article

Peat and Liquid Organic Fertilizer Promoted Kiwifruit Performance by Modifying Rhizosphere Soil Physicochemical and Microbial Properties

Guodong Zheng, Lei Wang, Jianxun Qin, Xiyu Ouyang, Jinlong Wang, Xinyu Wang, Zhe Li, Jie Li, Zhe Liu, Jia Zhang, Juan Wu, Wenbo Gu
article en
1 citations

Abstract

ABSTRACT Applications of peat and liquid organic fertilizer enhance soil physicochemical properties and modulate microbial community composition. Rhizosphere soil microorganisms play pivotal roles in mediating plant growth dynamics. Nevertheless, the effects of peat and liquid organic fertilizer amendments on growth performance and associated microbial regulation mechanisms in kiwifruit production systems remain poorly elucidated. This study investigated the rhizosphere soil physicochemical and microbiological traits, together with kiwifruit plant traits, following a gradient of peat application ranging from 0% to 25%, combined with two fertilization strategies (chemical fertilizer and liquid organic fertilizer). Results showed that compared to fertilizers, the effects of peat on soil physicochemical traits were more pronounced, for example, enhancement of soil organic matter, total carbon, available nitrogen and available phosphorus content, moisture, reduction of pH, and bulk density. Combined utilization of liquid organic fertilizer and 25% peat enhanced soil catalase, urease, and acid phosphatase activities by 30.8%, 46.3%, and 67.5%, respectively, compared to the control. High‐dose peat application can also significantly elevate soil phospholipid fatty acid content, especially eukaryotes. Sequencing results showed that fertilization practices and peat did not noticeably impact soil bacterial and fungal diversity. The application of 12.5% peat resulted in a higher number of soil microbial network links and a more complex network, while liquid organic fertilizer also increased the number of network links and the average clustering coefficient. Notably, the number of keystone taxa elevated with the increase of peat application. Finally, peat enhanced plant height and root activity, with liquid organic fertilizer significantly increasing root activity compared to the control and chemical fertilizer. Based on the above findings, the utilization of peat and liquid organic fertilizer can improve soil physicochemical properties, thereby enhancing soil enzyme activity and microbial abundance, adjusting the composition and interaction patterns of the microbiome, and ultimately promoting kiwifruit growth. Nevertheless, the effects of peat and liquid organic fertilizer in field trials should be explored in the future.

Land Degradation and DevelopmentVol. 36(9)
China University of Mining and Technology (CN), China University of Geosciences (Beijing) (CN), Guilin University of Technology (CN), Guangxi Hydraulic Power Machinery Research Institute (CN), Center for Agricultural Resources Research (CN), The People's Hospital of Guangxi Zhuang Autonomous Region (CN)
Openalex Percentile: Top 22%
Composting and Vermicomposting Techniques
1.19
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