| [1] |
Govindasamy P, Muthusamy SK, Bagavathiannan M, Mowrer J, Jagannadham PTK, et al. 2023. Nitrogen use efficiency—a key to enhance crop productivity under a changing climate. |
| [2] |
Ludemann CI, Wanner N, Chivenge P, Dobermann A, Einarsson R, et al. 2024. A global FAOSTAT reference database of cropland nutrient budgets and nutrient use efficiency (1961–2020): nitrogen, phosphorus and potassium. |
| [3] |
Yu Z, Liu J, Kattel G. 2022. Historical nitrogen fertilizer use in China from 1952 to 2018. |
| [4] |
Farooq MS, Wang X, Uzair M, Fatima H, Fiaz S, et al. 2022. Recent trends in nitrogen cycle and eco-efficient nitrogen management strategies in aerobic rice system. |
| [5] |
Wang R, Zhang J, Cai C, Wang S. 2023. Mechanism of nitrogen loss driven by soil and water erosion in water source areas. |
| [6] |
Guo C, Liu X, He X. 2022. A global meta-analysis of crop yield and agricultural greenhouse gas emissions under nitrogen fertilizer application. |
| [7] |
Shen N, Tan J, Wang W, Xue W, Wang Y, et al. 2024. Long-term changes of methane emissions from rice cultivation during 2000–2060 in China: trends, driving factors, predictions and policy implications. |
| [8] |
Colina M, Meerhoff M, Pérez G, Veraart AJ, Bodelier P, et al. 2021. Trophic and non-trophic effects of fish and macroinvertebrates on carbon emissions. |
| [9] |
Liu YH, Huang JN, Wen B, Gao JZ, Chen ZZ. 2024. Comprehensive assessment of three crayfish culture modes: from production performance to environmental sustainability. |
| [10] |
Yan X, Shan J, Wang X, Wang B, Liu SJ, et al. 2025. Uncovering the soil nitrogen cycle from microbial pathways to global sustainability. |
| [11] |
Sun G, Zhang Z, Xiong S, Guo X, Han Y, et al. 2022. Mitigating greenhouse gas emissions and ammonia volatilization from cotton fields by integrating cover crops with reduced use of nitrogen fertilizer. |
| [12] |
Park JR, Jang YH, Kim EG, Lee GS, Kim KM, et al. 2023. Nitrogen fertilization causes changes in agricultural characteristics and gas emissions in rice field. |
| [13] |
Ge L, Sun Y, Li Y, Wang L, Guo G, et al. 2023. Ecosystem sustainability of rice and aquatic animal co-culture systems and a synthesis of its underlying mechanisms. |
| [14] |
Bashir MA, Liu J, Geng Y, Wang H, Pan J, et al. 2020. Co-culture of rice and aquatic animals: an integrated system to achieve production and environmental sustainability. |
| [15] |
Li W, He Z, Wu L, Liu S, Luo L, et al. 2022. Impacts of co-culture of rice and aquatic animals on rice yield and quality: a meta-analysis of field trials. |
| [16] |
Wang C, Shi X, Qi Z, Xiao Y, Zhao J, et al. 2023. How does rice-animal co-culture system affect rice yield and greenhouse gas? A meta-analysis. |
| [17] |
Li P, Wu G, Li Y, Hu C, Ge L, et al. 2022. Long-term rice-crayfish-turtle co-culture maintains high crop yields by improving soil health and increasing soil microbial community stability. |
| [18] |
Wang W, Li M, Chen P, Yuan S, Wang K, et al. 2025. Role of nitrogen cycling functional genes and their key influencing factors in eutrophic aquatic ecosystems. |
| [19] |
Chen K, Yu M, Cheng B, Cao C, Jiang Y. 2025. Co-cultivation of rice and aquatic animals: improving soil fertility and providing more rice in China. |
| [20] |
Zhao L, Guo L, Hu L, Zhang T, Dai R, et al. 2025. Mechanisms underlying the sustainability of yields and soil nitrogen in the rice-fish system. |
| [21] |
Huang M, Zhou Y, Guo J, Dong X, An D, et al. 2024. Co-culture of rice and aquatic animals mitigates greenhouse gas emissions from rice paddies. |
| [22] |
Zhang Y, Chen L, Wang M, Lu J, Zhang H, et al. 2024. Evaluating micro-nano bubbles coupled with rice-crayfish co-culture systems: a field study promoting sustainable rice production intensification. |
| [23] |
Zhang M, Jiang R, Yang X, Wen S, Hua Z, et al. 2025. Developing native fish to control Spirogyra in paddy fields for improving the growth, nutrient uptake, and physiological characteristics of Oryza sativa L. |
| [24] |
Liu D, Feng Q, Zhang J, Zhang K, Tian J, et al. 2021. Ecosystem services analysis for sustainable agriculture expansion: rice-fish co-culture system breaking through the Hu Line. |
| [25] |
Zhao M, Liu J, Zhang C, Liang X, Qian E, et al. 2021. Development and applications of an in situ probe for multi-element high-resolution measurement at soil/sediment-water interface and rice rhizosphere. |
| [26] |
Huang J, Li J, Zhou W, Cheng Y, Li J. 2023. Effect of different rice transplanting patterns on microbial community in water, sediment, and Procambarus clarkii intestine in rice-crayfish system. |
| [27] |
Farooq MS, Uzair M, Maqbool Z, Fiaz S, Yousuf M, et al. 2022. Improving nitrogen use efficiency in aerobic rice based on insights into the ecophysiology of archaeal and bacterial ammonia oxidizers. |
| [28] |
Li Q, Xie L, Lin S, Cheng X, Liu Q, et al. 2025. Effects of rice–fish coculture on greenhouse gas emissions: a case study in terraced paddy fields of Qingtian, China. |
| [29] |
Mihrete TB, Mihretu FB. 2025. Crop diversification for ensuring sustainable agriculture, risk management and food security. |
| [30] |
Gui X, Wang W, Qin D, Luo H, Qin F, et al. 2025. Revisiting the microbial nitrogen-cycling network: bibliometric analysis and recent advances. |
| [31] |
Pan X, Lv J, Dyck M, He H. 2021. Bibliometric analysis of soil nutrient research between 1992 and 2020. |
| [32] |
Xu Q, Dai L, Zhou Y, Dou Z, Gao W, et al. 2023. Effect of nitrogen application on greenhouse gas emissions and nitrogen uptake by plants in integrated rice-crayfish farming. |
| [33] |
Hu Y, Yang T, Liu Y, Li F, Xu C, et al. 2022. High fish stocking density weakens the effects of rice-fish co-culture on water eutrophication and greenhouse gas emissions. |
| [34] |
Zhang Y, Guan C, Li Z, Luo J, Ren B, et al. 2023. Review of rice–fish–duck symbiosis system in China—one of the globally important ingenious agricultural heritage systems (GIAHS). |
| [35] |
Qi Z, Liu S, Ning B, Wu X. 2022. The history of rice-fish co-culture in China and its inspiration for the cooperation of the Lancang-Mekong countries. |
| [36] |
Li H, Zhang H, Yang Y, Fu G, Tao L, et al. 2022. Effects and oxygen-regulated mechanisms of water management on cadmium (Cd) accumulation in rice (Oryza sativa). |
| [37] |
Ahmed N, Thompson S, Hardy B, Turchini GM. 2021. An ecosystem approach to wild rice-fish cultivation. |
| [38] |
Zhang Y, Liu YH, Tang DY, Zhang J, Zhang XY, et al. 2024. Enhancing biomass and ecological sustainability in rice–fish cocropping systems through the induction of functional microbiota with compound biogenic bait. |
| [39] |
Wang M, Li F, Wu J, Yang T, Xu C, et al. 2024. Response of CH4 and N2O emissions to the feeding rates in a pond rice-fish co-culture system. |
| [40] |
Haque MM, Mahmud MN. 2025. Potential role of aquaculture in advancing sustainable development goals (SDGs) in Bangladesh. |
| [41] |
Xu Q, Peng X, Guo H, Che Y, Dou Z, et al. 2022. Rice-crayfish coculture delivers more nutrition at a lower environmental cost. |
| [42] |
Zhang Y, Hu T, Wang H, Jin H, Liu Q, et al. 2022. Nitrogen content and C/N ratio in straw are the key to affect biological nitrogen fixation in a paddy field. |
| [43] |
Wu Y, Li Y, Niu L, Zhang W, Wang L, et al. 2022. Nutrient status of integrated rice-crayfish system impacts the microbial nitrogen-transformation processes in paddy fields and rice yields. |
| [44] |
Liu T, Li C, Tan W, Wang J, Feng J, et al. 2022. Rice-crayfish co-culture reduces ammonia volatilization and increases rice nitrogen uptake in Central China. |
| [45] |
Wu M, Lu R, Huang W, Liu H, Zou Y, et al. 2024. Major diet of common carp (Cyprinus carpio L.) over different developmental stages in rice fields: agroecological interactions between fishes and rice in Sichuan, China, based on DNA metabarcoding approach. |
| [46] |
Jiang Y, Cao C. 2021. Crayfish–rice integrated system of production: an agriculture success story in China. A review. |
| [47] |
Hou J, Wang X, Xu Q, Cao Y, Zhang D, et al. 2021. Rice-crayfish systems are not a panacea for sustaining cleaner food production. |
| [48] |
Ren Y, Li S, Shao J, Xun W, Miao Y, et al. 2025. Integrating composite microorganism agents in rice-crayfish rotational cropping systems to enhance water quality and productivity. |
| [49] |
Zhang Y, Tang KW, Yang P, Yang H, Tong C, et al. 2022. Assessing carbon greenhouse gas emissions from aquaculture in China based on aquaculture system types, species, environmental conditions and management practices. |
| [50] |
Yang T, Wang X, Wang M, Li F, Barthel M, et al. 2025. Impact of rice-crab and rice-fish co-cultures on the methane emission and its transport in aquaculture ponds. |
| [51] |
Hu Z, Wu S, Ji C, Zou J, Zhou Q, et al. 2016. A comparison of methane emissions following rice paddies conversion to crab-fish farming wetlands in southeast China. |
| [52] |
Liu J, Cao J, Su R, Yan L, Wang K, et al. 2025. Variations in the N2 fixation and CH4 oxidation activities of type I methanotrophs in the rice roots in saline-alkali paddy field under nitrogen fertilization. |
| [53] |
Zhang Z, Du L, Xiao Z, Li C, Wang Z, et al. 2022. Rice-crayfish farming increases soil organic carbon. |
| [54] |
Chen S, Guo Y, Yuan P, Jiang Y, Cao C. 2025. Carbon sequestration, emission reduction, and technical strategies of rice-crayfish farming in Central China. |
| [55] |
Xu Q, Dai L, Shang Z, Zhou Y, Li J, et al. 2023. Application of controlled-release urea to maintain rice yield and mitigate greenhouse gas emissions of rice–crayfish coculture field. |
| [56] |
Feng J, Liu Y, Li F, Zhou X, Xu C, et al. 2021. Effect of phosphorus and potassium addition on greenhouse gas emissions and nutrient utilization of a rice-fish co-culture system. |
| [57] |
Zhang Z, Xie D, Teng W, Gu F, Zhang R, et al. 2025. A state-of-the-art review on carbon, nitrogen, and phosphorus cycling and efficient utilization in paddy fields. |
| [58] |
Yang T, Zhang H, Li F, Yang T, Shi Y, et al. 2024. Optimized tillage method increased rice yield in rice ratooning system. |
| [59] |
Sun N, Liu J, Wang ZJ, Liu S, Wang HC, et al. 2023. Phenanthrene release-migration characteristics and potential influencing mechanisms from paddy soil to overlying water under bioturbation in a rice-fish coculture agroecosystem. |
| [60] |
Wu Y, Sun J, Yu P, Zhang W, Lin Y, et al. 2022. The rhizosphere bacterial community contributes to the nutritional competitive advantage of weedy rice over cultivated rice in paddy soil. |
| [61] |
Sun N, Yu S, Cai Z, Liu J, Wang T, et al. 2022. Inhibition of polycyclic aromatic hydrocarbon (PAHs) release from sediments in an integrated rice and crab coculture system by rice straw biochar. |
| [62] |
Xie K, Wang M, Wang X, Li F, Xu C, et al. 2024. Effect of rice cultivar on greenhouse-gas emissions from rice–fish co-culture. |
| [63] |
Rao K, Yang L, Sun M, Wu C, Guo L, et al. 2025. Effects of rice-fish co-culture models on sediment heavy metals, nutrient dynamics, and bacterial community structure. |
| [64] |
Khoshru B, Khoshmanzar E, Asgari Lajayer B, Ghorbanpour M. 2023. Soil moisture–mediated changes in microorganism biomass and bioavailability of nutrients in paddy soil. In Plant Stress Mitigators. US: Academic Press. pp. 479−494 doi: 10.1016/B978-0-323-89871-3.00005-7 |
| [65] |
Wang L, Luo P, Jiang C, Shen J, Liu F, et al. 2023. Distinct effects of biochar addition on soil macropore characteristics at different depths in a double-rice paddy field. |
| [66] |
Jin Q, Wang C, Sardans J, Vancov T, Fang Y, et al. 2022. Effect of soil degradation on the carbon concentration and retention of nitrogen and phosphorus across Chinese rice paddy fields. |
| [67] |
Wang B, Sun Y, Jiao W. 2021. Ecological benefit evaluation of agricultural heritage system conservation—a case study of the Qingtian rice-fish culture system. |
| [68] |
Liu X, Shi ZJ, Zhang JE, Sun DL, Wei H. 2023. Effects of integrated rice-animals co-culture on paddy soil and water properties and rice yield: a meta-analysis. |
| [69] |
Wu G, Ling J, Zhao DQ, Liu ZX, Xu YP, et al. 2023. Straw return counteracts the negative effects of warming on microbial community and soil multifunctionality. |
| [70] |
Cheng Z, Xu H, Xia Y, Xu F. 2022. Estimation of bed shear stress and analysis of sediment resuspension in Lake Chaohu, China. |
| [71] |
Arunrat N, Sereenonchai S. 2022. Assessing ecosystem services of rice–fish co-culture and rice monoculture in Thailand. |
| [72] |
Gu J, Yang J. 2022. Nitrogen (N) transformation in paddy rice field: its effect on N uptake and relation to improved N management. |
| [73] |
Yao BM, Wang SQ, Xie ST, Li G, Sun GX. 2022. Optimal soil Eh, pH for simultaneous decrease of bioavailable Cd, as in co-contaminated paddy soil under water management strategies. |
| [74] |
Xiong Q, Hu J, Wei H, Zhang H, Zhu J, et al. 2021. Relationship between plant roots, rhizosphere microorganisms, and nitrogen and its special focus on rice. |
| [75] |
Ma M, Lv W, Huang Y, Zhang J, Li S, et al. 2025. Nitrogen fertilizer reduction in rice–eel co-culture system improves the soil microbial diversity and its functional stability. |
| [76] |
Liu L, Zheng N, Yu Y, Zheng Z, Yao H. 2024. Soil carbon and nitrogen cycles driven by iron redox: a review. |
| [77] |
Sun G, Sun M, Du L, Zhang Z, Wang Z, et al. 2021. Ecological rice-cropping systems mitigate global warming–a meta-analysis. |
| [78] |
Duan Y, Li Q, Zhang L, Huang Z, Zhao Z, et al. 2022. Toxic metals in a paddy field system: a review. |
| [79] |
Huang H, Wang Z, Ma Y, Zhu P, Zhang X, et al. 2025. The impact of rice–frog co-cultivation on greenhouse gas emissions of reclaimed paddy fields. |
| [80] |
Abulaiti A, She D, Zhang W, Xia Y. 2023. Regulation of denitrification/ammonia volatilization by periphyton in paddy fields and its promise in rice yield promotion. |
| [81] |
Ibrahim MM, Tong C, Hu K, Zhou B, Xing S, et al. 2020. Biochar-fertilizer interaction modifies N-sorption, enzyme activities and microbial functional abundance regulating nitrogen retention in rhizosphere soil. |
| [82] |
Ibrahim LA, Shaghaleh H, Abu-Hashim M, Elsadek EA, Hamoud YA, et al. 2023. Exploring the integration of rice and aquatic species: insights from global and national experiences. |
| [83] |
Han RC, Xu ZR, Li CY, Rasheed A, Pan XH, et al. 2022. The removal of nitrate reductase phosphorylation enhances tolerance to ammonium nitrogen deficiency in rice. |
| [84] |
Ren L, Liu P, Xu F, Gong Y, Zhai X, et al. 2023. Rice–fish coculture system enhances paddy soil fertility, bacterial network stability and keystone taxa diversity. |
| [85] |
Ding B, Li Z, Qin Y. 2017. Nitrogen loss from anaerobic ammonium oxidation coupled to Iron(III) reduction in a riparian zone. |
| [86] |
Wang Y, Wang C, Chen Y, Zhang D, Zhao M, et al. 2021. Microbiome analysis reveals microecological balance in the emerging rice–crayfish integrated breeding mode. |
| [87] |
Liu X, Jia Q, Sun D, Zhang J, Zheng H, et al. 2024. Influence of nitrogen substitution at an equivalent total nitrogen level on bacterial and fungal communities, as well as enzyme activities of the ditch-bottom soil in a rice–fish coculture system. |
| [88] |
Fang K, Chen H, Dai W, Wang J, Cao L, et al. 2022. Microbe-mediated reduction of methane emission in rice-frog crop ecosystem. |
| [89] |
Li S, Li W, Ding K, Shi X, Kalkhajeh YK, et al. 2024. Co-culture of rice and aquatic animals enhances soil organic carbon: a meta-analysis. |
| [90] |
Hou Y, Jia R, Zhou L, Zhang L, Wei S, et al. 2025. Alterations in microbial-mediated methane, nitrogen, sulfur, and phosphorus cycling within paddy soil induced by integrated rice-fish farming. |
| [91] |
Ding B, Li Z, Cai M, Lu M, Liu W. 2022. Feammox is more important than anammox in anaerobic ammonium loss in farmland soils around Lake Taihu, China. |
| [92] |
Yu C, Zhang L, Yang L, Bai W, Feng C, et al. 2021. Effect of a urea and urease/nitrification inhibitor combination on rice straw hydrolysis and nutrient turnover on rice growth. |
| [93] |
Li W, Li Z, Liu Y, Nie X, Deng C, et al. 2022. Reshaping of soil carbon and nitrogen contents in quincentenary ancient rice terraces: the role of both short-term abandonment and prokaryotic functional groups. |
| [94] |
Wang C, Yang Q, Chen J, Zhang C, Liu K, et al. 2024. Variations in soil organic carbon fractions and microbial community in rice fields under an integrated cropping system. |
| [95] |
Yan Y, Liu MD, Yang D, Zhang W, An H, et al. 2014. Effect of different rice-crab coculture modes on soil carbohydrates. |
| [96] |
Huang X, Li M, Huang Y, Yang H, Geng Y, et al. 2022. Microbiome analysis reveals microecological advantages of emerging ditchless rice-crayfish co-culture mode. |
| [97] |
Xu H, Wang D, Li X, Li J, Xu Y, et al. 2025. Cultivating crayfish (Procambarus clarkii) significantly enhances the quantity and diversity of soil microorganisms: evidence from the comparison of rice-wheat and rice-crayfish rotation models. |
| [98] |
Yang Z, Yao Y, Sun M, Li G, Zhu J. 2023. Effects of rice–crayfish co-culture on ammonia-oxidizing microbial abundance and community structure. |
| [99] |
Liu X, Sun D, Huang H, Zhang J, Zheng H, et al. 2024. Rice-fish coculture without phosphorus addition improves paddy soil nitrogen availability by shaping ammonia-oxidizing archaea and bacteria in subtropical regions of South China. |
| [100] |
Zhang Y, Hou Y, Jia R, Li B, Zhu J, et al. 2024. Alterations in soil bacterial community and its assembly process within paddy field induced by integrated rice–giant river prawn (Macrobrachium rosenbergii) farming. |
| [101] |
Wang R, Ma W, Wu D, Zhang Y, Ma X, et al. 2023. Soil bacterial community composition in rice-turtle coculture systems with different planting years. |
| [102] |
Zhang Y, Chen M, Zhao YY, Zhang AY, Peng DH, et al. 2021. Destruction of the soil microbial ecological environment caused by the over-utilization of the rice-crayfish co-cropping pattern. |
| [103] |
Zhang Z, Zhang C, Yang Y, Zhang Z, Guo K, et al. 2025. Roles of nitrite in facilitating nitrogen and sulfur conversion in the hybrid bioreactor of sulfate-reduced ammonium oxidation and anaerobic ammonium oxidation. |
| [104] |
Wang A, Zou D, Zhang M, Luo Y, Li S, et al. 2025. Metagenomic insight into the impact of soil nutrients and microbial community structure on greenhouse gas emissions: a case study in giant rice–fish co-cultured mode. |
| [105] |
Gao T, Li Y, Yang N, Xiong W, Liang X, et al. 2025. Plant-rhizosphere microbe interactions and their roles in nitrogen cycles under periodic flooding: from cooperation mechanisms to ecological responses. |
| [106] |
Bian W, Yang L, Li YL, Guo D, Lu HQ, et al. 2025. Enhanced nitrogen removal in constructed wetlands by low-temperature-tolerant heterotrophic nitrification bacteria Pseudomonas umsongensis YL-1: pollutant removal, rhizosphere effects, and bacterial interactions. |
| [107] |
Chen LF, Chen LX, Pan D, Ren YL, Zhang J, et al. 2023. Ammonium removal characteristics of Delftia tsuruhatensis SDU2 with potential application in ammonium-rich wastewater treatment. |
| [108] |
Zhu X, Yang P, Xiong G, Wei H, Zhang L, et al. 2023. Microbial biogeochemical cycling reveals the sustainability of the rice-crayfish co-culture model. |
| [109] |
Wang A, Hao X, Chen W, Luo X, Huang Q. 2023. Rice-crayfish co-culture increases microbial necromass' contribution to the soil nitrogen pool. |
| [110] |
Arunrat N, Sansupa C, Kongsurakan P, Sereenonchai S, Hatano R, et al. 2022. Soil microbial diversity and community composition in rice–fish co-culture and rice monoculture farming system. |
| [111] |
Herlambang A, Murwantoko M, Istiqomah I. 2021. Dynamic change in bacterial communities in the integrated rice–fish farming system in Sleman, Yogyakarta, Indonesia. |
| [112] |
Shi HT, Feng XC, Xiao ZJ, Jiang CY, Wang WQ, et al. 2025. Enhanced denitrification in constructed wetlands with low carbon/nitrogen ratios: insights into reallocation of carbon metabolism based on electron utilization. |
| [113] |
Wei D, Xing C, Hou D, Zeng S, Zhou R, et al. 2021. Distinct bacterial communities in the environmental water, sediment and intestine between two crayfish-plant coculture ecosystems. |
| [114] |
Du F, Yin Y, Zhai L, Zhang F, Wang S, et al. 2024. Increased anaerobic conditions promote the denitrifying nitrogen removal potential and limit anammox substrate acquisition within paddy irrigation and drainage units. |
| [115] |
Zhao Z, Chu C, Zhou D, Wang Q, Wu S, et al. 2021. Soil bacterial community composition in rice–fish integrated farming systems with different planting years. |
| [116] |
Si G, Yuan J, Xu X, Zhao S, Peng C, et al. 2018. Effects of an integrated rice-crayfish farming system on soil organic carbon, enzyme activity, and microbial diversity in waterlogged paddy soil. |
| [117] |
Wu W, Du X, Qin Z, Liu Q, Pan F, et al. 2024. Integrated rice-snail-crayfish farming system shapes soil microbial community by enhancing pH and microbial biomass in south subtropical China. |
| [118] |
Hu L, Guo L, Zhao L, Shi X, Ren W, et al. 2020. Productivity and the complementary use of nitrogen in the coupled rice-crab system. |
| [119] |
Ma H, Lv M, Lin Y, Chen X, Wang D, et al. 2020. Prawn (Macrobrachium rosenbergii)–plant (Hydrilla verticillata) co-culture system improves water quality, prawn production and economic benefit through stocking density and feeding regime manage. |
| [120] |
Zhang X, Ward BB, Sigman DM. 2020. Global nitrogen cycle: critical enzymes, organisms, and processes for nitrogen budgets and dynamics. |
| [121] |
Ashraf MN, Hu C, Wu L, Duan Y, Zhang W, et al. 2020. Soil and microbial biomass stoichiometry regulate soil organic carbon and nitrogen mineralization in rice-wheat rotation subjected to long-term fertilization. |
| [122] |
Hou Y, Xu Q, Yang Y, Jia R, Huang X, et al. 2024. Dynamic impact of one-year integrated rice–crayfish farming on bacterioplankton communities in paddy water. |
| [123] |
Majumdar A, Dubey PK, Giri B, Moulick D, Srivastava AK, et al. 2023. Combined effects of dry-wet irrigation, redox changes and microbial diversity on soil nutrient bioavailability in the rice field. |
| [124] |
Li SX, Jiang J, Lv WG, Siemann E, Woodcock BA, et al. 2025. Rice-fish co-culture promotes multiple ecosystem services supporting increased yields. |
| [125] |
Ren W, Hu L, Guo L, Zhang J, Tang L, et al. 2018. Preservation of the genetic diversity of a local common carp in the agricultural heritage rice–fish system. |
| [126] |
Li F, Feng J, Zhou X, Xu C, Jijakli MH, et al. 2019. Impact of rice-fish/shrimp co-culture on the N2O emission and NH3 volatilization in intensive aquaculture ponds. |
| [127] |
Saowakoon S, Saowakoon K, Jutagate A, Hiroki M, Fukushima M, et al. 2021. Growth and feeding behavior of fishes in organic rice–fish systems with various species combinations. |
| [128] |
Lokuhetti RT, Kondaramage RSKH, Herath SS, Vidanapathirana NP, Atapaththu KSS. 2025. Comparison of rice production in an integrated rice-fish system using tilapia (Oreochromis niloticus) and common carp (Cyprinus carpio): rice fish integration. |
| [129] |
Ye Y, Bai H, Zhang J, Sun D. 2024. A comparative analysis of ecosystem service values from various rice farming systems: a field experiment in China. |
| [130] |
Li M, Hu X, Hu R, Liang K, Zhong X, et al. 2023. Evaluating rice varieties for suitability in a rice–fish co-culture system based on lodging resistance and grain yield. |
| [131] |
Zhou J, Zhao Z, Zhang L, Huang Z, Zhao H, et al. 2021. Integrative analysis identifies the quality advantage and corresponding regulatory mechanism of paddy field–cultured crayfish (Procambarus clarkii). |
| [132] |
Ahmed N, Hornbuckle J, Turchini GM. 2022. Blue–green water utilization in rice–fish cultivation towards sustainable food production. |
| [133] |
Guo H, Qi M, Hu Z, Liu Q. 2020. Optimization of the rice-fish coculture in Qingtian, China: 1. Effects of rice spacing on the growth of the paddy fish and the chemical composition of both rice and fish. |
| [134] |
Hu W, Gao Y, He X, Sun J, Liu Q. 2023. Origin of domesticated Qingtian paddy-field carp and its genetic differentiation from wild common carp populations. |
| [135] |
Yan J, Yu J, Huang W, Pan X, Li Y, et al. 2023. Initial studies on the effect of the rice–duck–crayfish ecological co-culture system on physical, chemical, and microbiological properties of soils: a field case study in Chaohu Lake Basin, southeast China. |
| [136] |
Li CF, Cao CG, Wang JP, Zhan M, Yuan WL, et al. 2008. Nitrogen losses from integrated rice–duck and rice–fish ecosystems in southern China. |
| [137] |
Guo L, Zhao L, Ye J, Ji Z, Tang JJ, et al. 2022. Using aquatic animals as partners to increase yield and maintain soil nitrogen in the paddy ecosystems. |
| [138] |
Mirhaj M, Razzak MA, Wahab MA. 2014. Comparison of nitrogen balances and efficiencies in rice cum prawn vs. rice cum fish cultures in Mymensingh, North-Eastern Bangladesh. |
| [139] |
Wan NF, Li SX, Li T, Cavalieri A, Weiner J, et al. 2019. Ecological intensification of rice production through rice-fish co-culture. |
| [140] |
Li Y, Wu Y, Wang S, Peng H, Zheng F, et al. 2024. Rational nitrogen reduction helps mitigate the nitrogen pollution risk while ensuring rice growth in a tropical rice–crayfish coculture system. |
| [141] |
Kaewpuangdee P, Saowakoon S, Kasamawut K, Kruapukdee A, Jutagate A, et al. 2024. Changes in water quality and soil property in the rice–freshwater animal co-culturing system. |
| [142] |
Hu L, Ren W, Tang J, Li N, Zhang J, et al. 2013. The productivity of traditional rice–fish co-culture can be increased without increasing nitrogen loss to the environment. |
| [143] |
Oehme M, Frei M, Razzak MA, Dewan S, Becker K. 2007. Studies on nitrogen cycling under different nitrogen inputs in integrated rice-fish culture in Bangladesh. |
| [144] |
Tsuruta T, Yamaguchi M, Abe SI, Iguchi K. 2011. Effect of fish in rice-fish culture on the rice yield. |