Scientia Agricultura Sinica ›› 2026, Vol. 59 ›› Issue (19): 4301-4317.doi: 10.3864/j.issn.0578-1752.2026.19.009

• SOIL & FERTILIZER·WATER-SAVING IRRIGATION·AGROECOLOGY & ENVIRONMENT • Previous Articles     Next Articles

Nature-Nurturing Agriculture: Investigation on a New Agricultural Paradigm Based on Cross-Kingdom Synergy

CHEN KeYe1(), JIANG ShuoYun2, WANG XianZhe1,3, LIANG XinQiang1, TANG XiaoTian4, JIANG PeiKun5, YUE ChunLei6(), ZHANG ZhiJian1()   

  1. 1 College of Environment and Resource Sciences, Zhejiang University, Hangzhou 310058
    2 School of Environment, Nanjing University, Nanjing 210008
    3 Hangzhou GuSheng Technology Co., Ltd., Hangzhou 313405
    4 College of Agriculture and Biotechnology, Zhejiang University, Hangzhou 310058
    5 College of Environment and Resource Sciences, Zhejiang Agriculture and Forestry University, Hangzhou 311302
    6 Zhejiang Academy of Forestry, Hangzhou 310023
  • Received:2026-02-02 Accepted:2026-06-30 Online:2026-10-01 Published:2026-10-10
  • Contact: YUE ChunLei, ZHANG ZhiJian

Abstract:

In response to the global challenges of ecological degradation, resource constraints and rising quality demands in agriculture, alongside the inherent limitations of organic farming, this paper proposes a new agricultural development paradigm termed ‘nature-nurturing agriculture (NNA)’. This advanced model prioritized the cultivation of ecological carriers, including soils, biotic communities and material cycling, and leveraged “Biomass Mining” as core resources. Building on the prohibition of synthetic inputs that characterized organic farming, this approach aimed to achieve increased yields of high-quality produce, enhanced health of ecological carriers and greater efficacy of ecological assets. This study combined theoretical analysis and case study research. First, it reviewed and discussed the connections and distinctions between existing sustainable agricultural models and NNA, and then constructed an analytical framework for NNA by integrating ecological holism, circular economy theory, and ecological asset theory. Second, three representative case studies from the kingdoms Plantae, Animalia, and Fungi were examined. Through systematic compilation of ecological indicators, the mechanisms related to resource cycling, resilience enhancement, and ecological asset appreciation facilitated by NNA were analyzed, and the viability of the sequential 'Nurture-Produce-Appreciate' framework was assessed. The study found that: (1) In the plant-domain case, through measures, such as the application of bio-organic fertilizers, the return of green manure to the field, and the construction of ecological water bodies and buffer zones, more than two years of nurturing significantly increased soil organic matter content, markedly increased earthworm density in vegetable fields, substantially reduced the use of chemical fertilizers and pesticides, significantly decreased the incidence of major soil-borne diseases, and generated a certain level of carbon-sequestration benefits and additional agro-tourism income; (2) In the animal-domain case, following ecological pond transformation and more than two years of nurturing, biodiversity in aquaculture water bodies was significantly restored, the food chain in fish ponds became more complete; with the support of Chinese herbal medicine, fungal enzyme preparations, and insect-protein substitution technologies, the year-round elimination of antibiotics and conventional fishery drugs was achieved, while both the yield and quality of largemouth bass (Micropterus salmoides) improved and additional income from by-catch and aquatic plants increased; (3) In the fungal-domain case, rice-straw cultivation of Stropharia rugosoannulata was carried out during the fallow period, and frass of black soldier fly larvae was applied to promote straw decomposition and soil cultivation, thereby achieving the high-value utilization of straw, enhanced soil carbon sequestration, improved fungal community diversity, and the secondary nurturing of fungal residues returned to the field, reflecting the coupling of production processes with ecological nurturing. NNA was defined as an agricultural development pathway that, building upon organic farming, further emphasizes the cultivation of ecological carriers, intra-system cycling, and the appreciation of ecological assets. Its essence lies in the support of stable production and the realization of multiple values through ecological health. Future research should be directed toward region-specific adaptation, the construction of technical frameworks, long-term field monitoring, ecological asset accounting, and standard certification, so as to advance NNA from conceptual exploration toward standardized application.

Key words: agricultural modernization, food production system, resource regeneration, ecological resilience, organic farming, biomass mining, nature-nurturing

Table 1

Differential analysis of core elements of various sustainable agriculture models"

农业类型
Agricultural model
核心理念
Core concept
技术手段
Technology means
生态视角
Ecological perspective
监管认证
Regulatory certification
有机农业
Organic farming
禁用人工合成化学品,产出符合认证要求的有机产品
Ban synthetic chemicals and produce organic products that meet certification requirements
允许使用认证有机投入品,部分可实现集约化
The use of certified organic inputs is permitted, and some intensification can be achieved
侧重“禁止清单”
Focus on the “prohibited list”
高度标准化
Highly standardized
自然农法
Natural farming
以遵循自然规律、维护土壤与作物健康为核心
With adhering to natural laws and maintaining soil and crop health as the core
采用生物刺激剂技术,强调本地种子的应用
Employing biostimulant technology, with an emphasis on the application of local seeds
整体哲学观
Overall philosophical perspective
自我监管
Self-regulation
再生农业
Regenerative agriculture
修复并提升生态系统的健康水平
Restore and enhance the health of ecosystems
免耕、覆盖作物、多样化轮作及农牧整合等策略
Strategies such as no-till farming, cover crops, diversified crop rotation, and the integration of agriculture and animal husbandry
强调恢复力
Emphasize resilience
易被“漂绿”
Prone to
“greenwashing”
自然正向农业
Natural positive agriculture
重点关注“土地-水-食物”的互联
Focus on the interconnection of "land-water- food"
因地制宜,同时融合传统与先进技术
Adjust measures to local conditions, while integrating traditional and advanced technologies
重视景观和系统运作
Attach importance to landscape and system operation
发展中
Developing
自然养育农业
Nature-nurturing agriculture
先养育、后生产、再增值,强调整体生态功能最大化与生态资产增值增效
First nurture, then produce, and finally enhance value, emphasizing the maximization of overall ecological functions and the increase in value and efficiency of ecological assets
废弃物生物转化、生物生态防控、物种协同共生等技术
Technologies such as waste biotransformation, bio-ecological prevention and control, and species co-symbiosis
生态载体的培育作为基础和前提
The cultivation of ecological carriers serves as the foundation and prerequisite
尚未发展
Not yet developed

Fig. 1

Technical model of “biomass mining” based on biodegradable organic wastes discharged from “agriculture, rural areas and farmers”"

Fig. 2

The paradigm of nature-nurturing agriculture"

Fig. 3

Plant kingdom-diagram of nature-nurturing agriculture"

Fig. 4

Animal kingdom-diagram of nature-nurturing agriculture"

Fig. 5

Fungi kingdom-diagram of nature-nurturing agriculture"

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