Yue Zhao

Northwest Institute of Eco-Environment and Resources

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Zimin Wei

Liaocheng University

141

Junqiu Wu

Northeast Agricultural University

Caihong Song

Liaocheng University

Xinyu Xie

Shanghai Jinyuan Senior High School

Xiaomeng Chen

Northeast Agricultural University

Longji Zhu

Institute of Urban Environment

Xinyu Zhao

Inner Mongolia University of Finance and Economics

Xu Zhang

Northeast Agricultural University

Yuquan Wei

China Agricultural University

Hongyang Cui

Peking University

Cooperative Institutions

Northeast Agricultural University

134

Chinese Academy of Sciences

Chinese Research Academy of Environmental Sciences

Tianjin Normal University

Ministry of Agriculture and Rural Affairs

University of Chinese Academy of Sciences

Zhejiang University

Shanghai Jiao Tong University

Peking University

Central South University

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Insight into the Soil Dissolved Organic Matter Ligand–Phenanthrene-Binding Properties Based on Parallel Faction Analysis Combined with Two-Dimensional Correlation Spectroscopy

Journal of Agricultural and Food Chemistry (2022)

Hongyang Cui Yue Zhao Li Zhao Caihong Song Qian Lu

Dissolved organic matter (DOM) can strongly bind to organic contaminants and control phenanthrene in soil. Herein, four individual parallel factor analysis (PARAFAC) components were found in soil DOM. Component C1 was the humic-like component ligand T, and component C2 was a combination of humic fluorophore ligands M1 and M2. Furthermore, components C3 and C4 were characterized as terrestrial and ubiquitous humic substances. Then, the modified Stern-Volmer complexation model was used to reveal soil DOM component-phenanthrene-binding properties. The overall binding characteristics of a PARAFAC component could not express the phenanthrene-binding properties. Therefore, two-dimensional correlation spectroscopy was used to reveal DOM ligand-phenanthrene-binding properties. After binding with phenanthrene, DOM ligands T, M2, A2, and C1 were quenched but DOM ligands M1, A1, and C2 were excited. The ligands with higher humification presented higher phenanthrene-binding ability. With these promising results, the DOM ligand-phenanthrene-binding characteristics offered theoretical support for soil pollution control.

Humus

10.1021/acs.jafc.2c06013

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Citations (8)

Effect of precursors combined with bacteria communities on the formation of humic substances during different materials composting

Bioresource Technology (2016)

Junqiu Wu Yue Zhao Wei Zhao Tianxue Yang Xu Zhang

10.1016/j.biortech.2016.12.031

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Citations (300)

Nitrogen retention driven by cooperative succession of bacterial communities through promoting nitrogen fixation and inhibiting denitrification during straw composting with amino acids addition

Environmental Technology & Innovation (2024)

Guangren Zheng Anqi Chen Chao Wang Zimin Wei Yue Zhao

Composting is a biological aerobic fermentation process that decomposes organic solid waste and converts it into humus. However, in the process of mineralization or humification of organic matter, a large amount of nitrogen will be lost. Therefore, it is very essential to find strategies to increase nitrogen retention during composting. This study elucidated the biological mechanism underlying the promotion of nitrogen retention during straw composting through the addition of leucine (TL) and phenylalanine (TP). The results indicated that the total nitrogen (TN) content of TL and TP composting final products were 92.97% and 103.90% higher than that of the initial composting, respectively, and 92.68% and 92.58% higher than CK (no amino acids addition) control group. This was due to the succession of bacterial community structure, from a low-modularity relationship with a small amount of high aggregation to a large number of high modular cooperation. This evolution of bacterial community complexity and stability played an important role in nitrogen transformation. The increase of keystones in TL and TP regulated the change of bacterial community function. The change of this interaction made the nitrogen-fixing gene (nifH) abundance and nitrogen-fixing effect significantly improve and inhibits denitrification in high temperature. The negative growth of nitrogen loss rate also confirmed the key role of nitrogen-fixing bacteria. Therefore, amino acids addition played a positive role in improving the nitrogen retention of straw composting.

Humus

Nitrogen Cycle

10.1016/j.eti.2024.103584

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Citations (5)

Co-composting sugar-containing waste with chicken manure–A new approach to carbon sequestration

Journal of Environmental Management (2024)

Anqi Chen Ziyi Han Xinyu Xie Caihong Song Xu Zhang

Chicken manure

Food Waste

Humus

Green waste