胶结物质驱动的土壤团聚体形成过程与稳定机制
作者:
基金项目:

国家重点研发计划项目 (2021YFD1901200) 和国家自然科学基金项目 (41977023,32061123007) 资助


The Formation Process and Stabilization Mechanism of Soil Aggregates Driven by Binding Materials
Author:
Fund Project:

the National Key R&D Program of China (No. 2021YFD1901200) and the National Natural Science Foundation of China(Nos. 41977023 and 32061123007)

  • 摘要
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    摘要:

    团聚体是土壤的基本组成单元,影响着土壤水、气、热及养分的保持和运移。胶结物质在团聚体形成过程中起关键作用,但不同类型胶结物质在土壤团聚体中所起作用与机理尚缺乏系统总结。本论文回顾了土壤团聚体相关的关键理论,梳理了不同地理环境与人为活动下土壤团聚体中胶结物质类型、形态、转化与作用机制,探讨了胶结物质对土壤团聚体结构与稳定性的影响,提出了胶结物质驱动的土壤团聚体自组织形成过程模型,阐明了土壤团聚体的形成与转化机制。最后对土壤团聚体研究领域未来的发展进行展望,特别是在土壤团聚体的原位分析方法、土壤团聚体形成过程的定量化描述、土壤团聚体稳定性在景观尺度上的空间结构、良好土壤结构体培育的产品与技术研发等方面还有待加强。这些工作的开展将对培育良好土壤团聚体、揭示土壤物质循环与演化过程、提高土壤质量和生产力等具有重要的科学意义和生产实践价值。

    Abstract:

    Soil aggregates are the essential building blocks of soil, which impact the retention and distribution of water, air, heat, and nutrients. Binding materials play a pivotal role in the formation of soil aggregates. However, the specific functions of different types of binding materials as well as the mechanisms of the complex interactions in the formation of these aggregates still lack a systematic summary. This article reviews the key theories related to soil aggregates and sorts out types, forms, transformations, and interaction mechanisms of binding materials in soil aggregates under different geographical contexts and human activities. It also describes the effects of binding materials (e.g., organic matter, minerals, roots, organisms and their derivatives such as Extracellular Polymeric Substances) on the structure and stability of soil aggregates. Furthermore, it introduces models illustrating the self-organization process driven by binding materials within soil aggregates and elucidates the mechanisms of the formation and transformation of soil aggregates. Finally, the future development of soil aggregates is suggested. Specifically, future research could investigate the in-situ analysis of soil aggregates, quantitative description of the formation process of soil aggregates, spatial structure of soil aggregates at the landscape scale in relation to its stability, and development of product/technology in cultivating good soil aggregates for applications. This research holds significant scientific and practical value in promoting the development of healthy soil aggregates, unraveling the processes of soil elemental cycling and evolution, and enhancing overall soil quality and productivity.

    参考文献
    [1] Amézketa E. Soil aggregate stability:A review[J]. Journal of Sustainable Agriculture,1999,14(2/3):83-151.
    [2] Blanco-Canqui H,Lal R. Mechanisms of carbon sequestration in soil aggregates[J]. Critical Reviews in Plant Sciences,2004,23(6):481-504.
    [3] Dou S,Li K,Cui J T,et al. Advancement in the study on formation,transformation and structural characteristics of soil humic substances[J]. Acta Pedologica Sinica,2008,45(6):1148-1158. [窦森,李凯,崔俊涛,等. 土壤腐殖物质形成转化与结构特征研究进展[J]. 土壤学报,2008,45(6):1148-1158.]
    [4] Lal R. Food insecurity’s dirty secret[J]. Science,2008,322(5902):673-674.
    [5] Zhao Q G,Zhang T L,Lu R K,et al. Mechanism,temporal-spatial changes and controlling countermeasures of soil degradation in hilly red soil region of southeastern China[M]. Beijing:Science Press,2002. [赵其国,张桃林,鲁如坤,等. 中国东部红壤地区土壤退化的时空变化、机理及调控[M]. 北京:科学出版社,2002.]
    [6] Emerson W W. The structure of soil crumbs[J]. Journal of Soil Science,1959,10(2):235-244.
    [7] Edwards A P,Bremner J M. Microaggregates in soils[J]. Journal of Soil Science,1967,18(1):64-73.
    [8] Tisdall J M,Oades J M. Organic matter and water-stable aggregates in soils[J]. Journal of Soil Science,1982,33(2):141-163.
    [9] Oades J M. Soil organic matter and structural stability:mechanisms and implications for management[J]. Plant and Soil,1984,76(1/3):319-337.
    [10] Bronick C J,Lal R. Soil structure and management:A review[J]. Geoderma,2005,124(1/2):3-22.
    [11] Kleber M,Sollins P,Sutton R. A conceptual model of organo-mineral interactions in soils:Self-assembly of organic molecular fragments into zonal structures on mineral surfaces[J]. Biogeochemistry,2007,85(1):9-24.
    [12] Young I M,Crawford J W. Interactions and self- organization in the soil-microbe complex[J]. Science,2004,304(5677):1634-1637.
    [13] Malamoud K,McBratney Alex B,Minasny B,et al. Modelling how carbon affects soil structure[J]. Geoderma,2009,149(1/2):19-26.
    [14] Oades J,Waters A. Aggregate hierarchy in soils[J]. Soil Research,1991,29(6):815.
    [15] Tan W F,Zhu Z F,Liu F,et al. Organic carbon distribution and storage of soil aggregates under land use change in Jianghan Plain,Hubei Province[J]. Journal of Natural Resources,2006,21(6):973-980. [谭文峰,朱志锋,刘凡,等. 江汉平原不同土地利用方式下土壤团聚体中有机碳的分布与积累特点[J]. 自然资源学报,2006,21(6):973-980.]
    [16] Gonzalez J M,Laird D A. Carbon sequestration in clay mineral fractions from 14C-labeled plant residues[J]. Soil Science Society of America Journal,2003,67(6):1715-1720.
    [17] Wattel-Koekkoek E J W,van Genuchten P P L,Buurman P,et al. Amount and composition of clay-associated soil organic matter in a range of kaolinitic and smectitic soils[J]. Geoderma,2001,99(1/2):27-49.
    [18] Laird D A,Martens D A,Kingery W L. Nature of clay-humic complexes in an agricultural soil:I. Chemical,biochemical,and spectroscopic analyses[J]. Soil Science Society of America Journal,2001,65(5):1413-1418.
    [19] Schöning I,Knicker H,Kögel-Knabner I. Intimate association between O/N-alkyl carbon and iron oxides in clay fractions of forest soils[J]. Organic Geochemistry,2005,36(10):1378-1390.
    [20] Huang L,Wang C Y,Tan W F,et al. Distribution of organic matter in aggregates of eroded Ultisols,Central China[J]. Soil and Tillage Research,2010,108(1/2):59-67.
    [21] Igwe C A,Akamigbo F O R,Mbagwu J S C. Physical properties of soils of southeastern Nigeria and the role of some aggregating agents in their stability[J]. Soil Science,1995,160(6):431-441.
    [22] Zhang B,Horn R. Mechanisms of aggregate stabilization in Ultisols from subtropical China[J]. Geoderma,2001,99(1/2):123-145.
    [23] Hu G C,Zhang M K. Mineralogical evidence of the strong binding effect of iron oxides on soil aggregates[J]. Chinese Journal of Soil Science,2002,33(1):25-27. [胡国成,章明奎. 氧化铁对土粒强胶结作用的矿物学证据[J]. 土壤通报,2002,33(1):25-27.]
    [24] Duiker S W,Rhoton F E,Torrent J,et al. Iron(hydr)oxide crystallinity effects on soil aggregation[J]. Soil Science Society of America Journal,2003,67(2):606-611.
    [25] Rhoton F E,Römkens M J M,Bigham J M,et al. Ferrihydrite influence on infiltration,runoff,and soil loss[J]. Soil Science Society of America Journal,2003,67(4):1220-1226.
    [26] Barral M T,Arias M,Guérif J. Effects of iron and organic matter on the porosity and structural stability of soil aggregates[J]. Soil and Tillage Research,1998,46(3/4):261-272.
    [27] Barberis E,Marsan F A,Boero V,et al. Aggregation of soil particles by iron oxides in various size fractions of soil B horizons[J]. Journal of Soil Science,1991,42(4):535-542.
    [28] Goldberg S. Interaction of aluminum and iron oxides and clay minerals and their effect on soil physical properties:A review[J]. Communications in Soil Science and Plant Analysis,1989,20(11/12):1181-1207.
    [29] Le Bissonnais Y. Aggregate stability and assessment of soil crustability and erodibility:I. Theory and methodology:Aggregate stability and assessment of soil crustability and erodibility[J]. European Journal of Soil Science,2016,67(1):11-21.
    [30] Liu D S. Loess and the environment[M]. Beijing:Science Press,1985. [刘东生. 黄土与环境[M]. 北京:科学出版社,1985.]
    [31] Boix-Fayos C,Calvo-Cases A,Imeson A C,et al. Influence of soil properties on the aggregation of some Mediterranean soils and the use of aggregate size and stability as land degradation indicators[J]. Catena,2001,44(1):47-67.
    [32] Clough A,Skjemstad J O. Physical and chemical protection of soil organic carbon in three agricultural soils with different contents of calcium carbonate[J]. Soil Research,2000,38(5):1005.
    [33] Lin D,Cai P,Peacock C L,et al. Towards a better understanding of the aggregation mechanisms of iron(hydr)oxide nanoparticles interacting with extracellular polymeric substances:Role of pH and electrolyte solution[J]. Science of the Total Environment,2018,645:372-379.
    [34] Guhra T,Ritschel T,Totsche K U. Formation of mineral-mineral and organo-mineral composite building units from microaggregate-forming materials including microbially produced extracellular polymeric substances[J]. European Journal of Soil Science,2019,70(3):604-615.
    [35] Martin J P,Aldrich D G. Influence of soil exchangeable cation ratios on the aggregating effects of natural and synthetic soil conditioners[J]. Soil Science Society of America Journal,1955,19(1):50-54.
    [36] Chenu C,Cosentino D. Microbial regulation of soil structural dynamics//Ritz K,Young I. The architecture and biology of soils:Life in inner space[M]. UK:CABI,2011:37-70.
    [37] Martin J P,Richards S J. Influence of the copper,zinc,iron,and aluminum salts of some microbial and plant polysaccharides on aggregation and hydraulic conductivity of ramona sandy loam[J]. Soil Science Society of America Journal,1969,33(3):421-423.
    [38] Barré P,Hallett P D. Rheological stabilization of wet soils by model root and fungal exudates depends on clay mineralogy[J]. European Journal of Soil Science,2009,60(4):525-538.
    [39] Sandhya V,Ali Sk Z. The production of exopolysaccharide by Pseudomonas putida GAP-P45 under various abiotic stress conditions and its role in soil aggregation[J]. Microbiology,2015,84(4):512-519.
    [40] Costa O Y A,Raaijmakers J M,Kuramae E E. Microbial extracellular polymeric substances:Ecological function and impact on soil aggregation[J]. Frontiers in Microbiology,2018,9:1636.
    [41] Cheng C,Shang-Guan W L,He L Y,et al. Effect of exopolysaccharide-producing bacteria on water-stable macro-aggregate formation in soil[J]. Geomicrobiology Journal,2020,37(8):738-745.
    [42] Büks F,Kaupenjohann M. Enzymatic biofilm digestion in soil aggregates facilitates therelease of particulate organic matter by sonication[J]. Soil,2016,2(4):499-509.
    [43] Redmile-Gordon M,Gregory A S,White R P,et al. Soil organic carbon,extracellular polymeric substances(EPS),and soil structural stability as affected by previous and current land-use[J]. Geoderma,2020,363:114143.
    [44] Sher Y,Baker N R,Herman D,et al. Microbial extracellular polysaccharide production and aggregate stability controlled by switchgrass(Panicum virgatum)root biomass and soil water potential[J]. Soil Biology & Biochemistry,2020,143:107742.
    [45] Zethof J H T,Bettermann A,Vogel C,et al. Prokaryotic community composition and extracellular polymeric substances affect soil microaggregation in carbonate containing semiarid grasslands[J]. Frontiers in Environmental Science,2020,8:51.
    [46] Zhang M,Cai P,Wu Y C,et al. Bacterial extracellular polymeric substances:from the perspective of soil ecological functions[J]. Acta Pedologica Sinica,2022,59(2):308-323. [张铭,蔡鹏,吴一超,等. 细菌胞外聚合物:基于土壤生态功能的视角[J]. 土壤学报,2022,59(2):308-323.]
    [47] Spohn M,Giani L. Water-stable aggregates,glomalin-related soil protein,and carbohydrates in a chronosequence of sandy hydromorphic soils[J]. Soil Biology & Biochemistry,2010,42(9):1505-1511.
    [48] Ji L L,Tan W F,Chen X H. Arbuscular mycorrhizal mycelial networks and glomalin-related soil protein increase soil aggregation in Calcaric Regosol under well-watered and drought stress conditions[J]. Soil and Tillage Research,2019,185:1-8.
    [49] Liu J Y,Zhou Z Z,Su X M. Review of the mechanism of root system on the formation of soil aggregates[J]. Journal of Soil and Water Conservation,2020,34(3):267-273. [刘均阳,周正朝,苏雪萌. 植物根系对土壤团聚体形成作用机制研究回顾[J]. 水土保持学报,2020,34(3):267-273.]
    [50] Monroe C D,Kladivko E J. Aggregate stability of a silt loam soil as affected by roots of corn,soybeans and wheat[J]. Communications in Soil Science and Plant Analysis,1987,18(10):1077-1087.
    [51] Hudek C,Putinica C,Otten W,et al. Functional root trait-based classification of cover crops to improve soil physical properties[J]. European Journal of Soil Science,2022,73(1):e13147.
    [52] Garcia L,Damour G,Gary C,et al. Trait-based approach for agroecology:contribution of service crop root traits to explain soil aggregate stability in vineyards[J]. Plant and Soil,2019,435(1/2):1-14.
    [53] Saleem M,Pervaiz Z H,Contreras J,et al. Cover crop diversity improves multiple soil properties via altering root architectural traits[J]. Rhizosphere,2020,16:100248.
    [54] Li J Y,Yuan X L,Ge L,et al. Rhizosphere effects promote soil aggregate stability and associated organic carbon sequestration in rocky areas of desertification[J]. Agriculture,Ecosystems & Environment,2020,304:107126.
    [55] Watteau F,Villemin G,Burtin G,et al. Root impact on the stability and types of micro- aggregates in silty soil under maize:Root impact on soil microaggregates[J]. European Journal of Soil Science,2006,57(2):247-257.
    [56] Freitas P L,Zobel R W,Synder V A. Corn root growth in soil columns with artificially constructed aggregates[J]. Crop Science,1999,39(3):725-730.
    [57] Ali W,Hussain S,Chen J,et al. Cover crop root-derived organic carbon influences aggregate stability through soil internal forces in a clayey red soil[J]. Geoderma,2023,429:116271.
    [58] Tan W F,Zhou S Z,Liu F,et al. Advancement in the study on interactions between iron-aluminum(hydro-)oxides and clay minerals in soil[J]. Soils,2007,39(5):726-730. [谭文峰,周素珍,刘凡,等. 土壤中铁铝氧化物与黏土矿物交互作用的研究进展[J]. 土壤,2007,39(5):726-730.]
    [59] Tisdall J M. Formation of soil aggregates and accumulation of soil organic matter//Carter M R,Stewart B A. Structure and organic matter storage in agricultural soils[M]. CRC Press,2020:57-96.
    [60] Xu J M,Cheema S U,Yuan K N. Studies on organo- mineral complexes in soil Ⅸ. Characteristics of humus in calcium-bound and iron/aluminum-bound organo-mineral complexes in soil[J]. Acta Pedologica Sinica,1999,36(2):168-178. [徐建民,赛夫,袁可能. 土壤有机矿质复合体研究Ⅸ.钙键复合体和铁铝键复合体中腐殖质的性状特征[J]. 土壤学报,1999,36(2):168-178.]
    [61] Wei S Y,Liu F,Feng X H,et al. Formation and transformation of iron oxide-kaolinite associations in the presence of iron(II)[J]. Soil Science Society of America Journal,2011,75(1):45-55.
    [62] Chen H F,Li Q,Wang M X,et al. XPS and two-dimensional FTIR correlation analysis on the binding characteristics of humic acid onto kaolinite surface[J]. Science of the Total Environment,2020,724:138154.
    [63] Aquino A J A,Tunega D,Schaumann G E,et al. The functionality of cation bridges for binding polar groups in soil aggregates:Functionality of Cation Bridges[J]. International Journal of Quantum Chemistry,2011,111(7/8):1531-1542.
    [64] Wei S Y,Tan W F,Zhao W,et al. Microstructure,interaction mechanisms,and stability of binary systems containing goethite and kaolinite[J]. Soil Science Society of America Journal,2012,76(2):389-398.
    [65] Gu B H,Schmitt J,Chen Z H,et al. Adsorption and desorption of natural organic matter on iron oxide:Mechanisms and models[J]. Environmental Science & Technology,1994,28(1):38-46.
    [66] Weng L P,Koopal L K,Hiemstra T,et al. Interactions of calcium and fulvic acid at the goethite-water interface[J]. Geochimica et Cosmochimica Acta,2005,69(2):325-339.
    [67] Wang X D,Zhang Y P,Hu T T,et al. Characteristics of adsorption of humic acids and its fractions from soils with different fertilization by montmorillonite Ⅰ. The adsorption of humic acid by montmorillonite[J]. Acta Pedologica Sinica,2000,37(4):506-513. [王旭东,张一平,胡田田,等. 蒙脱石对不同施肥处理土壤胡敏酸及其级分的吸附特征Ⅰ.蒙脱石对胡敏酸的吸附特征[J]. 土壤学报,2000,37(4):506-513.]
    [68] Cheshire M V,Dumat C,Fraser A R,et al. The interaction between soil organic matter and soil clay minerals by selective removal and controlled addition of organic matter:Soil clay-organic matter interactions[J]. European Journal of Soil Science,2000,51(3):497-509.
    [69] Xu Y,Bai Y L,Hiemstra T,et al. Resolving humic and fulvic acids in binary systems influenced by adsorptive fractionation to Fe-(hydr)oxide with focus on UV-Vis analysis[J]. Chemical Engineering Journal,2020,389:124380.
    [70] Chen H F,Koopal L K,Xu J L,et al. Selective adsorption of soil humic acid on binary systems containing kaolinite and goethite:Assessment of sorbent interactions[J]. European Journal of Soil Science,2019,70(5):1098-1107.
    [71] Xu Y,Hiemstra T,Tan W F,et al. Key factors in the adsorption of natural organic matter to metal(hydr)oxides:Fractionation and conformational change[J]. Chemosphere,2022,308:136129.
    [72] Chen H F,Koopal L K,Xiong J,et al. Mechanisms of soil humic acid adsorption onto montmorillonite and kaolinite[J]. Journal of Colloid and Interface Science,2017,504:457-467.
    [73] Cao Y Y,Wei X,Cai P,et al. Preferential adsorption of extracellular polymeric substances from bacteria on clay minerals and iron oxide[J]. Colloids and Surfaces B:Biointerfaces,2011,83(1):122-127.
    [74] Lin D,Ma W T,Jin Z X,et al. Interactions of EPS with soil minerals:A combination study by ITC and CLSM[J]. Colloids and Surfaces B:Biointerfaces,2016,138:10-16.
    [75] Cai P,Lin D,Peacock C L,et al. EPS adsorption to goethite:Molecular level adsorption mechanisms using 2D correlation spectroscopy[J]. Chemical Geology,2018,494:127-135.
    [76] Mikutta R,Zang U,Chorover J,et al. Stabilization of extracellular polymeric substances(Bacillus subtilis)by adsorption to and coprecipitation with Al forms[J]. Geochimica et Cosmochimica Acta,2011,75(11):3135-3154.
    [77] Zhang M,Peacock C L,Cai P,et al. Selective retention of extracellular polymeric substances induced by adsorption to and coprecipitation with ferrihydrite[J]. Geochimica et Cosmochimica Acta,2021,299:15-34.
    [78] Jing X X,Wu Y C,Shi L,et al. Outer membrane c -Type Cytochromes OmcA and MtrC play distinct roles in enhancing the attachment of Shewanella oneidensis MR-1 cells to goethite[J]. Applied and Environmental Microbiology,2020,86(23):e01941-20.
    [79] Zou M Z,Wu Y C,Redmile-Gordon M,et al. Influence of surface coatings on the adhesion of Shewanella oneidensis MR-1 to hematite[J]. Journal of Colloid and Interface Science,2022,608:2955-2963.
    [80] Czarnes S,Hallett P D,Bengough A G,et al. Root- and microbial-derived mucilages affect soil structure and water transport:Mucilages,soil structure and sorptivity[J]. European Journal of Soil Science,2000,51(3):435-443.
    [81] Denef K,Six J,Bossuyt H,et al. Influence of dry-wet cycles on the interrelationship between aggregate,particulate organic matter,and microbial community dynamics[J]. Soil Biology & Biochemistry,2001,33(12/13):1599-1611.
    [82] Martens D. Plant residue biochemistry regulates soil carbon cycling and carbon sequestration[J]. Soil Biology & Biochemistry,2000,32(3):361-369.
    [83] Zhao S W,Zhao Y G,Wu J S. Quantitative analysis of soil pores under natural vegetation successions on the Loess Plateau[J]. Science China:Earth Science,2010,40(2):223-231. [赵世伟,赵勇钢,吴金水. 黄土高原植被演替下土壤孔隙的定量分析[J]. 中国科学:地球科学,2010,40(2):223-231.]
    [84] Huang C Q,Zhou Q,Tan W F. Effects of agricultural utilization on composition of binding agents and cementation characteristics of loess[J]. Journal of Huazhong Agricultural University,2017,36(4):43-49. [黄传琴,周琴,谭文峰. 不同农业利用条件对黄土胶结物质组成与团聚特征的影响[J]. 华中农业大学学报,2017,36(4):43-49.]
    [85] Plante A F,McGill W B. Soil aggregate dynamics and the retention of organic matter in laboratory-incubated soil with differing simulated tillage frequencies[J]. Soil and Tillage Research,2002,66(1):79-92.
    [86] Wang X X,Zhang T L,Lu R K. Effect of application of fertilizers on soil structure in red soil[J]. Chinese Journal of Eco-Agriculture,2001,9(3):70-72. [王兴祥,张桃林,鲁如坤. 施肥措施对红壤结构的影响[J]. 中国生态农业学报,2001,9(3):70-72.]
    [87] Haynes R J,Naidu R. Influence of lime,fertilizer and manure applications on soil organic matter content and soil physical conditions:A review[J]. Nutrient Cycling in Agroecosystems,1998,51(2):123-137.
    [88] Carrizo M E,Alesso C A,Soares Franco H H,et al. Tensile strength of mollisols of contrasting texture under influence of plant growth and crop residues addition[J]. Geoderma,2018,329:1-10.
    [89] Guo Z C,Zhang J B,Fan J,et al. Does animal manure application improve soil aggregation? Insights from nine long-term fertilization experiments[J]. Science of the Total Environment,2019,660:1029-1037.
    [90] Siqueira D S,Marques J,Pereira G T. The use of landforms to predict the variability of soil and orange attributes[J]. Geoderma,2010,155(1/2):55-66.
    [91] Jakšík O,Kodešová R,Kubiš A,et al. Soil aggregate stability within morphologically diverse areas[J]. Catena,2015,127:287-299.
    [92] Zádorová T,Jakšík O,Kodešová R,et al. Influence of terrain attributes and soil properties on soil aggregate stability[J]. Soil and Water Research,2011,6(3):111-119.
    [93] Camargo L A,Marques Júnior J,Pereira G T. Spatial variability of physical attributes of an alfisol under different hillslope curvatures[J]. Revista Brasileira de Ciência do Solo,2010,34(3):617-630.
    [94] Ye L P,Tan W F,Fang L C,et al. Spatial analysis of soil aggregate stability in a small catchment of the Loess Plateau,China:I. Spatial variability[J]. Soil and Tillage Research,2018,179:71-81.
    [95] Ye L P,Tan W F,Fang L C,et al. Research advances in spatial variability of soil aggregate by using geostatistics[J]. Science of Soil and Water Conservation,2019,17(2):146-153. [叶露萍,谭文峰,方临川,等. 基于地统计学的土壤团聚体空间变异研究进展[J]. 中国水土保持科学,2019,17(2):146-153.]
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谭文峰,许运,史志华,蔡鹏,黄巧云.胶结物质驱动的土壤团聚体形成过程与稳定机制[J].土壤学报,2023,60(5):1297-1308. DOI:10.11766/trxb202308060312 TAN Wenfeng, XU Yun, SHI Zhihua, CAI Peng, HUANG Qiaoyun. The Formation Process and Stabilization Mechanism of Soil Aggregates Driven by Binding Materials[J]. Acta Pedologica Sinica,2023,60(5):1297-1308.

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  • 收稿日期:2023-08-06
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