| 摘要: |
| 面对人类世的复杂社会-生态挑战,风景园林生态规划在取得丰富成果的同时,也日益面临如何系统性整合多元研究路径以回应人居环境综合治理
需求的挑战。基于此,构建了“人-自然深度共生”(DEEP-Symbiosis)整合理论框架。该框架借鉴深生态学倡导的互利共生愿景,由“深度嵌套”(DEEPNesting)
的系统认知论、“深度融合”(DEEP-Fitting)的设计过程论与“深度计算”(DEEP-Computing)的技术方法论三大支柱构成。该框架提炼了当前风景
园林生态规划从格局到过程、从静态到动态、从物本到人本,这一不断从“表象”向“深度”演化的趋势,并为5种典型研究范式提供了系统性的理论指引。框架
的提出旨在为风景园林生态规划提供一种系统性的理论指导与方法路径,推动人居环境的可持续发展。 |
| 关键词: 风景园林 风景园林生态规划 深度共生 整合理论框架 学科反思 人-自然耦合 生态感知 |
| DOI:10.19775/j.cla.2026.02.0015 |
| 投稿时间:2025-09-29修订日期:2025-11-23 |
| 基金项目:国家自然科学基金重点项目(52238003)
* |
|
| Human-Nature Deep Symbiosis: Exploration of the Integrated Theoretical Framework for LandscapeEcological Planning |
| SHEN Jiake,,WANG Yuncai* |
| Abstract: |
| In the Anthropocene, landscape architecture is under pressure
to evolve from a practice focused on spatial aesthetics to one of systemic
governance for complex socio-ecological systems. While landscape ecological
planning (LEP), a core practice area, has produced abundant research in
biodiversity, ecosystem services, and spatial networks, it faces a critical
challenge. Current approaches, despite their individual strengths, struggle to
systematically integrate diverse research streams when addressing complex,
multi-objective challenges in human habitat governance. This paper identifies
this as a core challenge - a lack of systemic integration - which leads to two
persistent practical dilemmas: 1) a failure to effectively translate quantitative
scientific analysis into qualitative design language and spatial schema, and
2) a weak capacity to model and integrate the dynamic interactions between
objective biophysical processes and subjective human perception. To address
these challenges, this article constructs an integrated theoretical framework
named "Human-Nature Deep-Symbiosis". The framework is philosophically
grounded in the ethical vision of Deep Ecology, advocating for a shift from
parasitic or commensal relationships toward "mutualistic symbiosis" between
humans and nature. This comprehensive theory is systematically constructed
upon three core pillars, each designed to resolve one of the identified theoretical
needs: 1) a systemic cognition theory ("DEEP-Nesting"), 2) a design process
theory ("DEEP-Fitting"), and 3) a technical methodology ("DEEP-Computing").
The first pillar, "DEEP-Nesting", serves as the framework's systemic cognition
theory, addressing the challenge of fragmentation. It draws from Socio-Ecological
System (SES) theory to reframe the landscape not as a static container, but as
a complex adaptive system of multi-scalar, nested, and coupled human-nature
interactions. The second pillar, "DEEP-Fitting", provides the design process
theory to bridge the science-practice gap. It builds upon the traditions of Ian
McHarg's Design with Nature and John T. Lyle's Design for Human Ecosystems,
offering a methodology for adaptively "fitting" human activities within site-specific
ecological and cultural processes. The third pillar, "DEEP-Computing", delivers
the technical methodology to overcome the subject-object divide. By leveraging
computational science and Artificial Intelligence (AI), this pillar provides tools to
model, simulate, and quantify the dynamic feedback loops between objective
environmental data and subjective human perceptual data. This integrated
framework is not merely abstract; it directly drives and operationalizes five typical
research paradigms: 1) Multi-Scenario Simulation, 2) Mechanistic Study of
Multiple Scenarios, 3) Causal Relationship Modeling, 4) Correlational Relationship
Modeling, and 5) Interactive Experiment. These paradigms demonstrate how
the three pillars work in synergy, providing concrete pathways to resolve
the identified practical dilemmas. In conclusion, the "Human-Nature Deep-
Symbiosis" framework offers a systematic, end-to-end logic - from cognition
to process to tools - designed to guide landscape architecture research and
practice. It provides a robust theoretical and methodological pathway to move
the discipline beyond fragmented approaches and toward a truly integrated,
systemic, and sustainable future for human-nature co-evolution. |
| Key words: landscape architecture landscape ecological planning deep
symbiosis integrated theoretical framework discipline reflection human-nature
coupling ecological approach to perception |