Sustainable Agricultural Development Research Articles

Climatic suitability and development potential of facility agriculture at county-level in China

Facility agriculture is a modern cultivation system that utilizes certain facilities and engineering techniques to create a suitable environment for crops growth, which can ensure China's national food security and human nutrition. Both beneficial and limited climatic conditions have influenced the development for facility agriculture. In this study, 12 dominant factors were distilled by using Maximum Entropy model (MaxEnt) to quantify climatic suitability of facility agriculture and its variation in counties across China in 1991–2020. The climatic suitable areas for facility agriculture were mainly distributed in the southern part of Northeast China, North China, central China, southern part of Southwest China, and northern part of East China, especially during 2000–2020. There was a general fluctuating upward trend in the climatic suitability of facility agriculture in traditional advantageous production areas such as Jiangsu, Shandong, Hebei, and Liaoning. Positive trends in the changes of climatic suitability were detected in central and eastern China where rapid development of facility agriculture could be realized through scientific planning and layout. Western provinces such as Gansu, Shaanxi, and Inner Mongolia were highlighted as considerable development potential for facility agriculture, with the perspective of developing energy-saving solar greenhouses in especial. These distribution characteristics and potential changes of climate suitability would help to optimize production layout and achieve green and sustainable development of facility agriculture.

Soil erosion assessment using SWAT, in relation withLand use, agricultural practices, and future climate change in a semi-arid catchment in Tunisia

Abstract Soil erosion is a severe environmental concern arising from intensive agricultural uses, land degradation, and anthropogenic activities. This problem threatens agricultural productivity and sustainable development, particularly in emerging countries. Therefore, evaluating soil erosion is essential in conservation, planning, and management on a watershed or basin scale. This study aims to assess the erosion of soil loss in the El Gouazine Watershed, central Tunisia, using the Soil and water assessment tool (SWAT). We define the impact of soil and water conservation management implementation combined with climate change scenario. We identified the spatial distribution of erosion rates based on soil properties, topography, and land use. The observed specific erosion rate of the watershed is estimated at 1.6 t.ha−1.yr−1, whereas according to the SWAT model, the average soil loss rate is 1.4 t.ha−1.yr−1. Furthermore, the obtained results highlight importance of the slope factor in affecting the severity of the soil loss rates in the El Gouazine watershed. It was also demonstrated that it’s urgent to prioritize other measures such as contour cropping or conservation agriculture, to enhance and strengthen the soils’ resistance against the detachment due to discharge water. In this context, this research found that these techniques decrease considerably the soil loss by 22% for the strip cropping, 33% for the No-tillage, and 72% for the bench terracing. Moreover, these farming techniques, contribute at the same time to the amelioration of the water balance by reducing the evapotranspiration and enhancing the soil water storage. To go further in this study a soil erosion forecast using the worst-case scenario for climate change RCP 8.5 was conducted. an overview of the future soil erosion patterns is obtained. We noticed then a decrease of the average annual soil loss rate until 2050 and then a prominent increase from 2051 to 2100.

Quantify the effects of water-soluble salts and available fractions of nutrient elements on mobility of cadmium in paddy soil: A case study of the Pearl River Delta

As one of the most toxic heavy metal, soil Cd mobility is crucial to understand Cd transfer in soil-crop system and ensure crop safety production. Water-soluble salts and available fractions of nutrient elements have important influence on soil Cd mobility. However, effects of multi-factor interactions in water-soluble salts and available fractions of nutrient elements on Cd mobility and their quantified contributions haven’t been enough emphasized. In this study, conditional inference tree and random forest were adopted to quantify effects of water-soluble salts, available fractions of nutrient elements and their interactions on Cd mobility in paddy soil from Pearl River Delta. The results suggested that cations (K+, Mg2+ and Na+) in water-soluble salts exerted important influence on Cd mobility, especially K+. Cd mobility is enhanced with the increase of K+ concentration and cation exchange capacity and their interaction. Available Si is the primary factor affecting Cd mobility, followed by available K and easily reducible Mn. With increases of their concentrations, interaction of available K and available Si boosts Cd mobility. When available K concentration is higher than 122 mg·kg-1, Cd mobility is primarily restricted by available Si. In general, cations improve Cd mobility through competitive adsorption with Cd in soil, and available Si affect Cd mobility by changing Cd fractionation. Therefore, measures can be taken to reduce Cd mobility in paddy soil and promote sustainable development of agriculture. Such as increasing application of organic fertilizer, reducing application of chemical fertilizer, and promoting straw carbonization to return to field and so on.

Bidirectional uptake and redistribution, bio-stimuli responsive xyloglucan-based nanodelivery system for enhanced translocation of non-systemic pesticide in soybean plants

Non-systemic pesticides, like fludioxonil, have the advantages of broad-spectrum and fast-acting, but the limited space of action restricts their effectiveness. This study proposed a nano-delivery strategy (Flu@EXG) by loading fludioxonil on aminated xyloglucan-based nanoparticles (EXG) to enhance the systematicity of fludioxonil in vivo and consequently achieve systemic defense against soybean diseases. The resulting Flu@EXG had an average diameter of 75.6 nm and exhibited responsive release properties to dual-stimuli of hemicellulases and pH value. The combined measurements of target dose and efficacy demonstrated that the Flu@EXG achieved bi-directional uptake and redistribution of fludioxonil, consequently inhibiting both Phytophthora sojae in roots and Botrytis cinerea on leaves meanwhile with a single application method (root irrigation or foliar spraying) in soybean. In contrast, fludioxonil commercial suspensions (Flu SC) hardly reached the roots to control root diseases when applied to foliage. Additionally, the direct inhibition of Flu@EXG against oomycetes was 2.0 times higher than Flu SC at high test concentrations as EXG could directly provide additional membrane damage. Finally, Flu@EXG provided comparable foliar performance to Flu SC and do not affect the growth of soybeans during the test cycle. Thus, the bio-stimuli responsive Flu@EXG nanodelivery system has promising for achieving the systemic prevention by overcoming the spatial and temporal limitations of non-systemic pesticide application, providing new perspectives and technologies for prompting sustainable development of agriculture.

Measures of state regulation and support of the soybean breeding and seed production industry

Abstract One of the priority directions of economy in different countries of the world is the application of measures of state support and regulation of the agricultural industry, including laws and various programs that foster sustainable development of agriculture. In view of prevailing social and economic conditions in Russia, the problem of domestic supply of agricultural production with in-country selected high-yielding varieties of soybean and intensification of domestic seed production has become acute. Currently, the State is providing support to the seed industry and is intended to ensure import substitution in the seed market in the foreseeable future. However, there are also revealed some problems, which are mostly related to the functioning of state breeding and seed production centers, which include state breeding plots, breeding and seed production farms at research institutions and agrarian universities. To solve these problems, state research organizations and universities should become full-fledged participants of the seed market on a par with business. Achieving the assigned tasks should be facilitated by measures, supporting science and innovation at the state level.

Streptomyces improves sugarcane drought tolerance by enhancing phenylalanine biosynthesis and optimizing the rhizosphere environment

Drought stress is a common hazard faced by sugarcane growth, and utilizing microorganisms to enhance plant tolerance to abiotic stress has become an important method for sustainable agricultural development. Several studies have demonstrated that Streptomyces chartreuses WZS021 improves sugarcane tolerance to drought stress. However, the molecular mechanisms underlying tolerance at the transcriptional and metabolomic levels remain unclear. We comprehensively evaluated the physiological and molecular mechanisms by which WZS021 enhances drought tolerance in sugarcane, by performing transcriptome sequencing and non-targeted metabolomics; and examining rhizosphere soil properties and plant tissue antioxidant capacity. WZS021 inoculation improved the rhizosphere nutritional environment (AP, ammonia, OM) of sugarcane and enhanced the antioxidant capacity of plant roots, stems, and leaves (POD, SOD, CAT). Comprehensive analyses of the transcriptome and metabolome revealed that WZS021 mainly affects plant drought tolerance through phenylalanine metabolism, plant hormone signal transduction, and flavonoid biosynthesis pathways. The drought tolerance signaling molecules mediated by WZS021 include petunidin, salicylic acid, α-Linoleic acid, auxin, geranylgeraniol and phenylalanine, as well as key genes related to plant hormone signaling transduction (YUCCA, amiE, AUX, CYPs, PAL, etc.). Interestingly, inoculation with WZS021 during regular watering induces a transcriptome-level response to biological stress in sugarcane plants. This study further elucidates a WZS021-dependent rhizosphere-mediated regulatory mechanism for improving sugarcane drought tolerance, providing a theoretical basis for increasing sugarcane production capacity.

Deep return of straw improves topsoil health and maize productivity more efficiently than shallow return

AbstractStraw return is an important nature‐based solution to identify optimal management practices to maintain cropland soil health and food security. However, there is still limited information available regarding the impacts of different straw return strategies on soil health, especially when considering a comprehensive assessment of soil physical, chemical and biological characteristics. Soil microorganisms are the core and key to maintaining soil health. The present research aims to determine the impact of straw return to different depths on soil health index (SHI) and crop productivity across different soil layers. We conducted a 3–year field experiment with four treatments: a blank control with no straw return (NR), straw return treatments with shallow return (SR), mulch return (MR) and deep return (DR), and the straw application rate was 10,500 kg/ha. The results showed that it was the microbial indicators that dominated the effects on soil health, rather than soil organic carbon (SOC). Specifically, we found that the SR treatment exhibited the highest extracellular enzyme activities of both hydrolases and oxidases in the subsoil, and the peroxidase (PEO) activity was 758.99 nmol/g/h. In addition, compared with MR and DR treatments, the abundance of symbiotroph fungi in SR treatment increased by 78.41% and 54.38%, releasing more nutrients to the soil. Hence, SR treatment increased SHI mainly by increasing the PEO activity and NO3−–N content, and SR treatment significantly increased SHI by 25.59% and 22.16% compared with MR and DR treatments. By contrast, the DR treatment greatly increased the topsoil SHI by 43.33% and 58.98% compared with SR and SM treatments, mainly due to the enhanced microbial biomass N (MBN) and dissolved organic nitrogen (DON). The DR treatment in topsoil had the lowest soil bulk density (BD) which enhanced Bacteroidota but decreased Methylomirabilota abundance, thus resulting in the accumulation of MBN. Moreover, DR treatment led the highest maize yield which increased with an increasing SHI. To conclude, DR treatment is an effective method to improve SHI and crop productivity in nutrient‐rich topsoil, while SR treatment has a much better effect in the subsoil. Our results will provide a theoretical paradigm for selecting straw return strategies, which is crucial for promoting soil health and food productivity, achieving high crop yields, and supporting sustainable agricultural development.

Agri-entrepreneurship support systems: Fostering sustainable agricultural development and rural livelihoods in Assam

Agri-entrepreneurship support systems: Fostering sustainable agricultural development and rural livelihoods in Assam

The Effect of Farmer’s Cognition on the Inconsistency Between Behavior and Intention in Manure Application

Manure utilization in China is below optimum due to the inconsistency between farmers’ behavior and their intention to apply manure to their crops. With increasing constraints on the availability of chemical fertilizer and their impact on the environment, understanding how farmers’ perceptions affect their intention and behavior toward manure application is an issue for the implementation of sustainable agricultural development. This study uses primary survey data from 653 farmers. A probit model was used to assess the influence of cognition on farmers’ intentions, behavior, and the inconsistency between them in the use of manure application. Heterogeneity analysis was conducted to identify differences between farmers with different education levels and operation scales. The results showed that enhancing subjective norms, perceived behavioral control, and behavioral attitudes could increase their intention and behavior. Furthermore, improving the perceived behavioral control and behavioral attitudes of farmers would reduce the inconsistency between behavior and intention. In addition, some differences were identified in the role of farmers’ cognition with different education levels and operation scales. In general, it is necessary to enhance farmers’ comprehensive cognition of the value of manure through publicity and popularization of technology, reduce farmers’ perceptions about difficulties in applying manure through new policies and subsidies, and stimulate farmers’ enthusiasm to participate in the practice.

Effects of Tillage Depth and Lime Application on Acidification Reduction and Nutrient Availability in Vertisol Soil

Cropland acidification seriously restricts sustainable agricultural development. The main purpose of this study was to determine whether deeper tilling could alleviate topsoil acidification to improve the quality of arable land. A soil column incubation experiment simulating tillage depths (10 cm, 30 cm and 50 cm) and lime addition was conducted to determine their effects on soil acidification improvement. The changes in soil pH, exchangeable acidity, ammonium nitrogen (NH4+-N), nitrate nitrogen (NO3−-N), available phosphorus (AP), and microbial phospholipid fatty acids (PLFA) were analyzed. Tillage depth, lime application, and their interaction all had significant impacts on soil pH. T50 (simulated tillage depth of 50 cm) and T50+Lime (simulated tillage depth of 50 cm plus lime) treatments significantly increased the topsoil pH from 5.41 to 6.35 and 7.12, respectively. T50 treatment significantly reduced the soil exchangeable acid content compared to the T10 treatment. The nutrient accumulation along soil column indicated that the T50 and T50+Lime treatments significantly increased NO3−-N and AP content in the >30–50 cm soil layer. Compared with T30, NO3−-N accumulation in the >30–50 cm soil layers of T50 and T50+Lime treatments was 6.62 and 7.93 times higher, respectively. The accumulation of AP in the >30–50 cm soil layers of the T50 and T50+Lime treatments was 1.33 and 1.54 times higher than in the T30 treatment, respectively. These findings imply tillage up to 50 cm without exogenous materials could be a potential measure to reduce topsoil acidification and increase nutrition availability of >30–50 cm soil layers. Tillage of up to 30 cm combined with lime application confers greater benefits, which would particularly impact crops with shallow root systems. Subsequent field experiments will be conducted to further investigate the efficacy of these strategies in enhancing crop yield.

A Review: Progress in the Mitigation of Soil Continuous Cropping Obstacles by Biochar Application in Agricultural System

Under the dual pressure of agricultural economic development and limited land resources, the continuous cultivation in same area has been a mainstream pattern. The continuous cropping obstacle has seriously impaired the soil physicochemical properties and soil microflora, hindering the sustainable development of agriculture. Various strategies have been used to mitigate the negative effects caused by continuous cropping; however, they cannot be solved effectively. Recently, biochar, as a new type of soil conditioner, has been found to be able to utilize its special physicochemical properties and adsorption properties to improve soil quality conditions. Besides, biochar application is one of the effective methods to reduce the obstacles of soil continuous cropping. In this paper, we reviewed the causes of soil continuous cropping obstacles and their effects on soil and plant, and emphatically analyzed the regulatory role and potential limitations of biochar in alleviating soil continuous cropping obstacles. For example, the type of raw material, pyrolysis conditions of biochar and differences in soil types would yield different effects on the efficiency of biochar on soil continuous cropping obstacles mitigation, Furthermore, other influenced factors, such as the adsorption of biochar on root secretion, the interactions among plants, soils, and microorganisms, need to be investigated. This article provides theoretical support for the application of biochar in in alleviating soil continuous cropping obstacles.

Analysis of the Level of Agricultural Development in Kazakhstan: Identifying Agro-Hubs

The study examines Kazakhstan's agricultural sector and its potential for developing resilient agro-hubs, focusing on identifying regions that can contribute to the country's long-term agricultural growth. The purpose of this study is to examine essential agricultural indicators, including gross agrarian output, gross crop production, gross livestock production, and agricultural services, in order to identify regions with the potential for agro-hub development. The methodology includes Pearson correlation analysis of data collected from national agricultural reports and regional statistical databases. Data for the study were gathered from national agricultural reports and regional statistical databases, which provide quantitative measures of agricultural output, crop yields, livestock production, and farming services. Results indicate the strongest correlations between Kostanay and North Kazakhstan (0.995 for Gross Agricultural Output and 0.996 for Crop Production, p < 0.001). Additionally, significant alignment in crop production was observed between Almaty and South Kazakhstan (0.969, p = 0.007), whereas weaknesses in agricultural services were noted, particularly in Kyzylorda and Zhambyl, with a negative correlation. The results highlight the northern and southern regions' potential for forming agro-hubs supported by solid production indicators. The study provides strategic recommendations for policymakers to foster regional collaboration, enhance productivity, and promote sustainable agricultural development across Kazakhstan. Future research will focus on improving infrastructure and developing collaborative agricultural initiatives within agro-hubs to strengthen Kazakhstan's agricultural sector resilience.

THE IMPACT OF DIGITALIZATION ON THE DEVELOPMENT OF THE AGRO-FOOD SPHERE

The agro-food sphere is one of the key industries in the country's economy and plays a major role in ensuring food security. The development of the agro-food sphere requires the development and implementation of innovative projects in this field. The creation and implementation of such innovative projects require the availability of information support, which includes complete and up-to-date information about the objects and processes related to the project. It has been proven that the innovative development of the agro-food sphere is closely related to the digitalization process in this field. It is noted that digitalization in the management of agriculture and the agro-food sphere opens up new opportunities for increasing the efficiency, transparency, and sustainability of this industry. The main directions of implementing digitalization in the agro-food sphere have been studied, including the creation of electronic registers and databases, and the development of decision support systems. The integration of e-government services in the agro-food sphere offers significant opportunities for improving the efficiency of public administration, enhancing service delivery, improving interaction between public authorities and agricultural market entities, and ensuring sustainable agricultural development. The author has developed a methodology for the integral assessment of the level of e-government development in the country. The integral assessment is based on initial indicators, including those defined by the United Nations Department of Economic and Social Affairs. The method of the modified principal component was used to determine the weighting coefficients of these indicators in the integral assessment. Integral assessments of the components of the agro-food sphere have been determined: the food industry, retail trade in food products, and indicators related to the protection and preservation of the environment associated with the agro-food sphere. A significant correlation has been found between these integral assessments and the integral assessment of digitalization

The Coupling Coordination Degree and Its Driving Factors for Water–Energy–Food Resources in the Yellow River Irrigation Area of Shandong Province

Water resources, energy, and food are essential for the development of society, and they are strongly interdependent. The coupling and coordination relationships of the water–energy–food (WEF) system are important for regional resource security and high-quality development. The Yellow River Irrigation Area in Shandong Province, China, is a grain production base and has a substantial impact on national food security. To examine the water, energy, and food subsystem dynamics in this area, an evaluation system for the WEF system was established. A comprehensive weighting method based on game theory was employed to determine index weights. TOPSIS was used to assess the development level of the WEF system. A coupling coordination degree model was used to analyze the evolution of the coupling coordination degree of the WEF system from 2000 to 2020, and a GWR model was constructed to explore the spatial heterogeneity of its driving factors. The findings indicated that the development level of the WEF system in the study area was moderate, with a gradual upward trend. The coupling coordination degree fluctuated between 0.62 and 0.739. The GWR model revealed that temperature had an overall negative effect on the coupling coordination degree, with the greatest impact on the central irrigation area; the slope and NDVI had a negative effect, with increasing intensity from the southwest to the northeast; and rainfall had an overall positive effect, with the greatest impact on the irrigation area near the estuary in the northeast. Overall, the building area ratio had a negative effect on the coupling coordination degree, with exceptions in some areas. These research outcomes provide theoretical support for sustainable agricultural development in the Yellow River irrigation areas of Shandong Province and methodological reference data for studying collaborative resource utilization in irrigation regions.

Spatial Simulation and Optimization of Cropping Structure Under Climate and Land Use Change Conditions Considering Synergistic Economic Benefits and Carbon Reduction in Crop Growth Processes

AbstractThe climate and land use changes caused by the natural environment and socioeconomic development have potential impacts on the green and sustainable development of agriculture. To accommodate agricultural production under multiple scenarios of future climate and land‐use change, this study proposes a “simulation–optimization” modeling approach based on a crop growth model with a synergistic “carbon emission–economic benefit” approach. This approach is based on climate change conditions and it accurately simulates future land use changes and crop growth processes, establishes a carbon emission intensity optimization model, and generates a spatial planting structure optimization and regulation scheme based on intelligent optimization algorithms under changing scenarios. The results of the model application show that the planting structure option in the future scenario can increase economic benefit by up to 14.8% compared to the current scenario while simultaneously reducing total greenhouse gas emissions by 6.77%. Correlation analysis of planting area, irrigation water volume, carbon intensity value and unilateral water use efficiency can be used to obtain the coordination level of each county under different regulation scenarios. This “simulation–optimization” modeling approach provides an effective approach to achieve synergistic and coordinated development of regional agricultural benefits and carbon reduction by fine‐tuning the planting structure, which promotes low‐carbon and high‐quality development of regional agriculture.

Village Government's Role in Advancing Agricultural Development Through Supportive Policies

Background: Indonesia, a tropical country with rich agricultural potential, faces challenges in optimizing its agricultural sector. Specific Background: Despite significant contributions to the economy and employment, issues like low human resource capacity and dependency on food imports hinder productivity. Knowledge Gap: The role of village governments in facilitating agricultural development, particularly in rural areas like Grabagan Village, remains underexplored. Aims: This study analyzes the village government's role in agricultural development in Grabagan Village, focusing on key success indicators. Results: Findings indicate that the village government functions effectively as a facilitator, mobilizer, and regulator, yet faces challenges in resource mobilization and farmer engagement. Novelty: This research enhances understanding of local governance's influence on agricultural outcomes. Implications: The study highlights the need for improved collaboration between the village government and farmers to optimize resource allocation and align agricultural initiatives with local needs for sustainable development. Highlights: The village government serves as a crucial facilitator in agricultural initiatives, providing necessary infrastructure and budget support. Effective mobilization of resources and farmer involvement in planning processes are essential for enhancing agricultural productivity. Addressing challenges in local governance can significantly improve sustainable agricultural development in rural areas. Keywords: Village Government, Agricultural, Farmer Empowerment, Facilitation, Mobilization

Environmental–economic total factor productivity of vegetable production in China from the life cycle perspective

Enhancing agricultural green total factor productivity (GTFP) is crucial for promoting sustainable economic development. However, the absence of systematic approaches to assess the environmental-economic productivity from a full life cycle perspective hinders sustainable agricultural development and constrains the transition to a green economy. This study introduced an innovative framework of life cycle GTFP (LCGTFP) through interdisciplinary collaboration. This framework integrated regionalized life cycle impact assessment (LCIA), multimedia LCIA-based life cycle costing analysis, and the epsilon-based measure combined with the global Malmquist–Luenberger approach. This integration allows for the inclusion of comprehensive environmental burdens into GTFP analysis. Empirical results from the production of 10 types of vegetables in China reveal a “win–win” trend in vegetable industry from an environmental–economic perspective. The LCGTFP reached a value of 1.036 (CV: 0.021) over the past decade, indicating a 3.6% increase in environmental–economic productivity. However, challenges (e.g., fertilizer overuse and regression on the technical frontier) persist in sustainable vegetable production. This study highlights the necessity of technical dissemination, agricultural education, high-quality crop varieties, and e-commerce. Furthermore, the development of the vegetable industry must incorporate environmental and economic conditions, because environmental–economic misallocation occurs in areas that are recognized as having geoclimatic–locational advantages.

EVALUATING SOIL AMENDMENT EFFECTS ON TOMATO YIELD AND FRUIT QUALITY

This study investigates the impact of various soil treatments on key yield components of tomato (Solanum lycopersicum) plants, including fruit diameter, length, number per plant, and weight. Eight treatments were evaluated: BK+, MgSO4, CaPh, EcoTea, Pig Manure, Cow Manure, Combined Inorganic Fertilizer, and a Control. Comprehensive statistical analyses revealed significant differences in yield parameters across treatments. CaPh, MgSO4, and the Combined Inorganic fertilizer enhanced fruit production. EcoTea promoted larger tomato lengths, while Pig Dung increased weights. Mineral composition analyses showed distinct treatment effects on sodium, potassium, calcium, magnesium, and zinc levels. Nutrient profiling indicated varied impacts on moisture, protein, ash, fiber, fat, and carbohydrate contents. Strong correlations were observed between mineral and nutrient pairs, highlighting potential synergies and antagonisms. This research provides valuable insights into optimizing soil management practices for improved tomato yield, quality, and nutritional value, contributing to sustainable agricultural development.

A Review of the Current Status of Soil Organic Matter in China's Arable Land

Soil organic matter (SOM) in China's arable land is a critical foundation for maintaining agricultural productivity and ecosystem health. However, in recent years, the content of SOM has shown a declining trend due to unsustainable agricultural practices, excessive use of chemical fertilizers, and land degradation. This decline has adversely affected soil fertility, water retention capacity, biodiversity, and carbon sequestration. Although certain regions have seen improvements through the application of organic fertilizers, straw return, and conservation tillage, the overall SOM levels remain low. Therefore, there is an urgent need to develop comprehensive management strategies to increase SOM content, promote sustainable agricultural development, and protect the ecological environment.

Research Progress and Trend of Biochar based Microbial Fertilizer

Biochar based microbial fertilizer has loose porous structure, which can improve soil structure, improve soil fertility, promote crop growth, and provide strong support for agricultural sustainable development. In this paper, the research progress of biochar based microbial fertilizer in the preparation process, fertilizer efficiency research, application effect and other aspects was reviewed, and it was pointed out that in the future, in-depth research should be carried out in the aspects of preparation process and performance optimization, microbial strain screening and function enhancement, application effect and mechanism research, standardization and standardization system establishment, application field expansion and technology innovation.