地理科学进展, 2022, 41(12): 2383-2395 doi: 10.18306/dlkxjz.2022.12.015

研究综述

社会—生态系统结构研究进展与网络化探索

王凯歌,1, 郑慧慧1, 徐艳,1,2,*, 张凤荣1,2

1.中国农业大学土地科学与技术学院,北京 100193

2.自然资源部农用地质量与监控重点实验室,北京 100193

Research progress of social-ecological system structure and networking exploration

WANG Kaige,1, ZHENG Huihui1, XU Yan,1,2,*, ZHANG Fengrong1,2

1. College of Land Science and Technology, China Agricultural University, Beijing 100193, China

2. Key Laboratory of Agricultural Land Quality, Ministry of Natural Resources, Beijing 100193, China

通讯作者: 徐艳(1977— ),女,新疆乌鲁木齐人,副教授,研究方向为土地可持续利用。E-mail: xyan@cau.edu.cn

收稿日期: 2022-04-26   修回日期: 2022-06-20  

基金资助: 国家自然科学基金项目(41301614)
科技部第三次新疆综合科学考察项目(2021xjkk0202)

Received: 2022-04-26   Revised: 2022-06-20  

Fund supported: National Natural Science Foundation of China(41301614)
The Third Xinjiang Comprehensive Scientific Expedition Project of the Ministry of Science and Technology(2021xjkk0202)

作者简介 About authors

王凯歌(1998— ),男,河南新乡人,博士生,中国地理学会学生会员(S110014586A),研究方向为土地可持续利用。E-mail: 18837157838@163.com

摘要

论文运用文献调研法与归纳推理法重点梳理社会—生态系统结构的类型、特征与发展趋向,并开展网络化建模的新探索,旨在归纳社会—生态系统研究热点。综述表明,社会—生态系统研究涵盖状态、过程和响应3个基本面,状态层面的结构研究揭示了社会—生态系统结构特征与要素间作用机理,并形成了“层次式”“综合交互式”“平衡式”“协同式”“点轴网络式”“开放空间式”6种基本结构类型,但仍需引入新的结构建模思想拓宽这一方向的研究路径。论文探索性地提出了社会—生态系统六边形循环网络结构,阐明社会—生态系统是由双链嵌套循环运转的网络结构,系统性地回答了“社会—生态系统由哪些要素构成、要素之间呈现怎样的关联特征,最终形成的系统结构运行原理如何”3个基本问题。六边形循环网络遵循“点—线—网格—网络”的建模过程以及要素流组网嵌套循环原理,启示实现可持续发展应协调好社会与生态子系统之间的平衡关系。面对人地关系问题更加综合化、复杂化以及不确定性增强等趋势,论文认为社会—生态系统结构研究未来应在理论、方法和应用3个方面突破,理论上增强多学科理论融合与支撑,方法上增强多类型建模互鉴与创新,应用上增强多领域服务拓展与推广。

关键词: 人地关系; 社会—生态系统结构; 研究进展; 网络化

Abstract

This study summarized the core research problems of social-ecological systems, focusing on the types, characteristics, and development trend of social-ecological system structure, with novel explorations of network modeling. Social-ecological system research covers three fundamental aspects of state, process, and response. The structural research at the state level has revealed the structural characteristics of the social-ecological systems and the interaction mechanism between elements, and has formed six basic structural types, including hierarchical, comprehensive interactive, balanced, collaborative, axial network, and open space, but it is still necessary to introduce new structural modeling ideas to broaden the research path in this direction. This study exploratively proposed the hexagonal circular network structure, clarified that the social-ecological system is a network structure operated by a double-chain nested cycle, and systematically answered the questions of what elements constitute the social-ecological system; what are the related characteristics between them; and what is the operation principle of the final system structure. In this article, the basic elements of a social-ecological system are summarized into six elements: population, capital, facility, management, resource, and environment, which are connected by the basic material circulation chain and the basic social production chain. It also tentatively put forward the hexagonal circular network structure of social-ecological systems, and expounded that social-ecological system is a network structure operated by double chain nested cycle. The structural modeling of social-ecological system is related to the basic attributes and architecture of the system. The hexagonal circular network follows the modeling process of point-line-grid-network and the principle of element flow network nested cycle, which suggests that the realization of sustainable development should be based on the balance between social and ecological subsystems. With the increasingly more comprehensive, complex, and uncertain relationship between human and the environment, this study maintained that the research on social-ecological system structure should make breakthroughs in three aspects in the future: theory, method, and application. It is necessary to strengthen the integration and support of multi-disciplinary theories, the mutual learning and innovation of multi-type modeling in method, and the expansion and promotion of multi-domain services in application.

Keywords: human-environment relationship; social-ecological system structure; research progress; networking

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本文引用格式

王凯歌, 郑慧慧, 徐艳, 张凤荣. 社会—生态系统结构研究进展与网络化探索[J]. 地理科学进展, 2022, 41(12): 2383-2395 doi:10.18306/dlkxjz.2022.12.015

WANG Kaige, ZHENG Huihui, XU Yan, ZHANG Fengrong. Research progress of social-ecological system structure and networking exploration[J]. Progress in Geography, 2022, 41(12): 2383-2395 doi:10.18306/dlkxjz.2022.12.015

自然生态系统和人类社会系统相互耦合,形成社会—生态系统(Social-Ecological System, SES)[1-2]。当前地球进入“人类世”,一方面,全球气候变化与一系列灾害事件标志着地球生态系统失衡风险快速上升[3];另一方面,国际社会正经历着全球化与逆全球化的并行过程,移民问题、供应链危机、经济下行压力叠加新冠疫情成为社会系统的重要不稳定性因素[4],人地关系在自然与社会风险因素驱动下面临失衡,如何协调人地矛盾成为国土空间治理的重点[5-6]。联合国发布的2030年可持续发展议程(SDGs)指出,亟需探索社会—生态系统可持续发展模式与路径,旨在以综合方式彻底解决社会、经济和环境3个维度的发展问题,这也构成地理科学领域的关键科学问题[7-9]

社会—生态系统是复杂的动态系统,由社会子系统、生态子系统及两者的交互作用构成,具有不同于社会系统或生态系统单独具有的结构、功能和复杂特征[10]。当前可持续发展所面临的社会生态耦合问题已经复杂到单凭一个部门或子系统无法解决的地步[11-13],必须形成整体性方案与框架合力解决复杂社会生态耦合问题[14-15]。社会—生态系统研究框架为研究人地系统耦合关系提供了更具整体性与系统性的研究思路[16-17],为促进可持续发展提供了科学可行的理论支撑。那么,社会—生态系统研究都回答了哪些问题,其研究核心内涵有哪些?因此,有必要系统性地梳理社会—生态系统研究领域热点,明确该领域研究的现状特征,分析研究热点间的关联关系,构建研究基础框架。

1 社会—生态系统研究热点

作者以“social-ecological system”为关键词在Web of Science官网进行检索,对社会—生态系统领域的发文情况进行统计[18](图1),可以发现,对社会—生态系统的研究起步相对较晚,国际上开展这一领域的研究主要从1990年起步,进入21世纪后研究热度显著提升,发文量屡创新高,这表明学界逐渐开始重视社会—生态系统框架在回答复杂人地关系过程中的重要价值[19],社会—生态系统研究也逐渐成为地理科学、系统科学、生态学等领域重要的热点与焦点,本质上体现出学科交叉与尺度综合的不断扩展[20-23]

图1

图1   社会—生态系统研究发文数量历年状况

注:数据统计截至2022年4月17日。

Fig.1   Annual number of publications on social-ecological system research since the 1990s


以“social-ecological system”为检索词,在Web of Science数据库中共检索到6355篇相关领域文献(1989—2022年,数据截至2022年4月17日),将文献关键词导入VOSviewer软件进行词频共现热力分析(图2),可以发现“Social-ecological systems”[24]、“Framework”[25-26]、“Adaptation”[27]、“Governance”[28]、“Resilience”[29]、“Vulnerability”[30]、“Systems”[31]、“Ecosystem services”[32]、“Conservation”[33]、“Dynamics”[34]、“Biodiversity”[35-36]、“Impacts”[37]等关键词位于热点区,构成社会—生态系统领域研究的核心内容。

图2

图2   社会—生态系统研究词频共现热力图

Fig.2   Thermal map of word co-occurrence in social-ecological system research


对上述核心热点领域进行梳理,能够归纳出社会—生态系统领域研究主要围绕状态、过程和响应3个基本面开展,并统一于社会—生态系统研究范式之中(图3)。状态层面研究重点回答“社会—生态系统是什么”的问题,提供框架支撑与理论指引;过程层面研究重点回答“社会—生态系统如何演变”的问题,剖析系统演变机制与驱动力;响应层面研究重点回答“社会—生态系统如何治理”的问题,侧重治理响应与上层建筑的构建。

图3

图3   社会—生态系统研究热点基础框架

Fig.3   Basic framework of social-ecological system research hotspots


状态层面的研究重点围绕社会—生态系统结构与阈值开展,前者重点对社会—生态系统的要素构成、要素组织方式、耦合框架以及复杂性开展探究[38-40],后者重点探讨社会—生态系统的状态变量阈值,由此演化出关于适应性、弹性、脆弱性与可持续性的研究,其本质是基于系统学与地理学知识探究系统状态变化的极限条件[41]

过程层面的研究重点利用状态研究提供的指标、变量以及相应阈值进行建模,基于地理学与生态学知识对当前全球生态系统服务[42-43]、生物多样性[44]、气候变化[45]与土地利用[46-47]等关键社会—生态过程进行研究,重点从这一系列过程的效应和动态机理切入,以期探求这一系列重要过程的演化机制与关键驱动力,为响应层面的研究提供指引[48]

响应层面的研究基于经济学与管理学知识重点围绕社会—生态系统的规划管制、合作与交易机制、政策与机构设置等方面开展[49]。作为社会—生态系统研究的落脚点,这一层面的研究关注治理工具的选择搭配与制度框架的顶层设计,是人类发挥主观能动性、调节社会—生态系统不稳定要素与结构性矛盾的重要基石[50]

需注意的是,社会—生态系统具有显著的尺度效应,3个层面的研究需定义在一定的空间与时间尺度下[51]。由此可见,社会—生态系统的研究是在一定尺度综合视角下开展的多层次组合嵌套研究[52-53],需要多学科交叉与知识体系的不断交融[54]

当前社会—生态系统领域的研究在3个层面都取得了丰富而广泛的成果,多数研究集中在状态层面的阈值以及系统属性研究、过程层面的实证研究以及响应层面的治理体系研究,但在状态层面的结构研究上较为分散,缺少系统性的归纳与梳理,同时亟需引入新的结构建模思想拓宽这一方向的研究路径。本文重点围绕社会—生态系统状态层面的系统结构方向开展综述,并阐述关于社会—生态系统结构研究的新思考,以期丰富社会—生态系统研究的基础思路,为促进人地可持续发展提供更多可行性框架支撑。

2 社会—生态系统结构研究进展

社会—生态系统结构是社会—生态系统各组成要素之间相互作用与相互联系的方式,即要素之间的关联、搭配与排列方式。当前国内外围绕社会—生态系统结构的研究渐趋丰富,可归纳为“平衡式”“协同式”“层次式”“开放空间式”“综合交互式”“点轴网络式”6种典型结构类型(表1)[55]。6种典型结构是基于不同立足点对社会—生态系统结构的建构,旨在揭示社会—生态系统结构特征与要素间作用机理,其建模思想与图式表达具有差异性,但其回答的本质问题具有一致性,能够服务于不同领域具体问题的分析。

表1   社会—生态系统基本结构类型概述

Tab.1  Overview of basic structural types of social-ecological systems

类型特点典型图式应用领域
层次式
实现了对人地系统从空间层次的逐层剥离,较好地表现出各层次之间的连通性与尺度异质性,但对层次间的互馈作用阐述较粗略,没有划分具体要素
引自文献[56],2009年提出
土地利用变化的多尺度模拟、多尺度景观规划、全球变化的尺度效应、碳排放的跨尺度效应[60-61]
综合交互式结合层次性,易于分解指标,为构建评价指标体系提供框架基础;要素间关系过于复杂或简化,展示性强而说理性弱
引自文献[62],2009年提出
自然资源管理多部门联动、可持续发展评价体系构建、碳排放的综合影响因素分析[66]
平衡式阐明人地系统基本构架与均衡关系,同时融入了资源环境承载力思想;人类与环境子系统内部的表述较为粗略,并没有将子系统细化到要素层面
引自文献[67],2011年提出
自然资源与服务(水、能源、粮食、生态系统服务等)供需平衡与界限分析、系统韧性分析、资源环境承载力评价、碳排放源汇分析[68-69]
协同式其亮点在于将社会和生物物质模块之间的互馈作用与中间过程进行了较为细致的归纳,但是系统要素划分层次不一致,适于描述但难于量化
引自文献[70],2011年提出
土地利用/覆被变化驱动机制分析、生态足迹分析、系统变化驱动机制、碳排放的生态环境效应与社会治理效应[71-72]
点轴网络式清晰展示要素或不同主体间关联,易于分析要素间互馈过程与整体关系;需注重引入尺度效应,并实现定量化建模
引自文献[73],2017年提出
自然资源跨区域治理与协作、远程耦合机制与效应分析、供应链管理、系统韧性分析、碳排放多主体协同治理与跨区域合作[76-77]
开放空间式统筹系统开放性和尺度差异性,提出从时间、空间、组织和表象维度研究人地系统耦合“魔方”;量化与建模难度大
引自文献[78],2019年提出
重要社会—生态过程(城镇化、气候变化、沙漠化等)的多维度分析框架构建与响应、国土空间规划、系统风险评价、碳排放的时滞效应与区域耦合效应[69,78]

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(1) “层次式”结构

此结构基于层次叠加视角提出社会—生态系统由地质层、生物层、覆被层、利用层、经济层、思维层和治理层叠加形成,并对各层次变化周期进行衡量,明确土地利用层是人类子系统和环境子系统的交互层[56-61]。这一类型基于立体层次结构较为系统地剖析了社会—生态系统组成,阐明社会—生态系统是由多层次叠加形成的综合体,为土地利用动态机制的研究提供新思路,但对各层次间的作用机理缺少深入阐述。

(2) “综合交互式”结构

此结构是将社会—生态系统分解为多主体/要素后对主体/要素间关系开展的建模[62-66],例如基于资源单位、资源系统、管理系统和用户4个方面分析如何调控人类同资源之间的关系,这一结构类型为网络化建模奠定了基础,学者开始对社会—生态系统多主体/要素间的关系进行解剖与例证,对主体/要素间关系的剥离更加细化,但往往会导致建模与量化难度上升,故多用于人地耦合机理的概念化阐述。

(3) “平衡式”结构

此结构基于均衡思想提出人类系统与生态系统处于同一天平的两端,天平的平衡同人类系统总需求量及生态系统总供给量密切相关,并融入了外部因素对天平平衡的干扰作用[67-69]。这一结构较好地体现了人地之间的供需平衡关系,能够支撑资源环境承载力与系统稳态方面的研究,但建模过于简化,未对系统内部要素之间的作用过程实现有效展开。

(4) “协同式”结构

此结构重点关注社会(人类)子系统与生态(自然)子系统之间的协同耦合过程,明确了社会子系统通过胁迫与压力对生态子系统进行干扰,生态子系统将不同种类的生态系统服务输入到社会子系统的过程[24,36,70-72]。此结构对生态系统服务与人类胁迫领域的研究具有启发意义,阐明了社会同生态子系统之间的作用过程与所涉及的重要变量,是对人地关系循环过程的进一步细化,但系统要素划分层次缺少统一性,不利于量化与建模,同时在一定程度上存在要素和过程的混淆。

(5) “点轴网络式”结构

此结构利用“点”“线”几何要素来构建“网”,是社会—生态系统结构网络化建模的基本类型[73-77],能够对多主体多要素之间的复杂关系进行反映,易于分析要素间作用互馈过程与整体关系结构,适用于对复杂人地耦合过程的建模,同时网络结构兼容性较强,可兼容“协同式”的过程性分析,以及“层次式”的层次叠加效应[74]。网络式结构建模是对社会—生态系统结构的整体性再现,为社会—生态系统结构研究开辟新方向[75]

(6) “开放空间式”结构

此结构是对社会—生态系统在三维立体空间内的多维度拟合,较为典型的研究是刘海猛等[78]提出的“耦合魔方”(CHNC),通过从时间、空间、组织和表象4个维度系统地阐述了人地系统耦合机制与要素演化规律,并对定量化方法进行了梳理。这一类型较为深入地结合了尺度效应与耦合机制,但模型还需更多实证应用实现模型参数化以提升其稳定性。

虽然以上结构类型立足视角与侧重点具有差异性,但本质上都是对社会—生态系统结构的表征与可视化,从不同切入点明确社会—生态系统是一种循环互馈结构[72],而什么样的结构能够将系统内以及系统间要素循环互馈作用相结合以完成循环作用链仍是需要深入探讨的关键问题,围绕这一问题,社会—生态系统结构研究出现由传统“协同式”向“立体化”与“网络化”演变的趋势,“立体化”重点从尺度效应与多维度耦合视角切入,“网络化”注重将复杂关系以高连通性与兼容性的网络进行可视化来破题[79]。本文对“点轴网络式”结构开展进一步探索,构建出基于要素六分法的社会—生态系统六边形网络结构,通过明确2条要素循环链来阐明网络结构运行原理。要素六分法避免将要素划分过粗导致过程“黑箱”,也避免要素划分过细导致冗杂,所构建出的六边形网络结构能够通过流量与存量要素将系统之间要素的相互作用与流动过程阐明,以网络结构与要素流动为抓手明确系统间的互馈机理,具体回答以下3个问题:社会—生态系统由哪些要素构成,要素之间呈现怎样的关联特征,最终形成的系统结构运行原理如何?

3 社会—生态系统结构网络化建模探索

3.1 社会—生态系统要素组成

要素是构成复杂系统的基本因子,本文将社会—生态系统基本要素归纳为人口、资本、设施、组织、资源、环境6项,要素之间相互关联,统一于社会—生态系统网络体系之中。

人口要素是社会—生态系统中兼备生产与消费双重属性的能动性要素,按照年龄结构分为低幼人口(<16岁)、劳动人口(16~60岁)、老龄人口(>60岁)。人口要素既能够产生消费需求,又能作为劳动力参与生产,其数量、质量和结构直接关系社会子系统的发展演化。

资本要素是社会—生态系统中那些通过直接或间接形式服务于最终产品和劳务生产过程的全部交易关系、价值符号与商品,包括市场、货币与商品3个子系统。资本要素具有最强的流动性与符号化特征,起到重要的媒介传导与调节作用,是人口要素干预物质价值流影响的结果,也是社会化大生产与物质分配、交换、消费不可或缺的要素系统。

设施要素是社会—生态系统中部分资源要素经物化或知识化后用于改造自然环境的社会化产物,是人口要素作用于生态子系统后将部分资源要素加以人为干预形成的社会性要素,包含知识、软件、硬件3个子系统。设施要素受人口要素控制,但又独立于人口要素,当存在交易关系时,设施要素可转化为资本要素,对维系社会子系统的生产、分配、交换、消费,以及促进地域互联互通具有重要的支撑作用。

组织要素是社会子系统中的治理性要素,包括制度、政策、法律、规划和机构,能够调控社会子系统内社会性物质流与价值流的方向与流量,影响到人口要素的行为与功能,发挥治理调控与宏观引导作用。

资源要素在社会—生态系统网络中即人类可以直接利用的自然资源,包括空气、水、土地、森林、草原、矿产等自然资源,是承载社会子系统运转的基础要素,对维持社会子系统的再生产、满足人口要素需求具有基础性支撑作用。

环境要素定义为人类不能直接利用的自然资源及全部自然资源所处的三维空间的总和,包括大气环境、水环境、地质环境、生物栖息地和土壤环境等,发挥出承载和消纳社会子系统废弃物质与外部性的功能,是吸收社会子系统外部性的基础空间,其自净功能与自我修复功能为整个社会—生态系统运行托底。

3.2 社会—生态系统要素间关联

社会—生态系统各组成要素具有差异化功能和内涵,要素之间的关联依靠物质流与信息流来完成。物质流即系统中流动着的物质,在全过程中总量不发生改变,是守恒流;信息流是连接状态变量和速率变量的信息通道,是非守恒流。

6个要素的分工构成社会—生态系统要素间格局的基础。资源和环境要素基于地质大循环和生物小循环的演化周期律,构成社会—生态系统中的供养基础与消纳空间;设施和资本要素通过汇聚物质流和信息流构成社会—生态系统的流通媒介与开发手段;人口和组织要素构成社会—生态系统的上层建筑与消费终端,调控整个社会子系统。

3.2.1 基本物质循环链

基于差异化分工,6大要素通过特定的物质流与信息流彼此关联。环境要素能够消纳各项废弃物质流,也是系统运行所需物质流的供给者,而人口要素则是消费终端。人口要素对环境要素的利用需要通过两次转化,即通过信息流指引并控制设施要素对环境要素进行开发改造,获取可利用的资源要素,进一步通过信息流将资源要素进行分配反向供给设施要素开展生产,最终将产品与服务输送到人口要素供给消费。设施要素生产过程以及人口要素消费过程产生的废弃物返还给环境要素,环境要素对其进行消纳后进入下一次循环,在此将连接供给者(环境要素)与消费者(人口要素)的单向物质流循环定义为社会—生态系统基本物质循环链(图4),其循环起止点为环境要素。

图4

图4   社会—生态系统基本循环链

注:基本物质循环链不包括组织和资本要素,基本社会生产链不包括资源和环境要素。

Fig.4   Basic cycles of social-ecological systems


3.2.2 基本社会生产链

在社会—生态系统基本物质循环链的基础上,社会子系统演化出资本与组织要素,参与到社会—生态系统基本物质循环链之中,用以调节基本物质循环链,提升社会子系统要素的流通性,由此形成起止于人口要素的社会—生态系统基本社会生产链(图4)。人口要素接受组织要素的调控联合设施要素进行生产,所产生的资本流(价值)流入资本要素,并在组织要素的调控下对资本流进行分配,一部分资本回流到设施要素用于扩大社会再生产,另一部分资本流入人口要素,用于等价转换设施要素为人口要素提供的产品与服务。

社会—生态系统基本物质循环链同基本社会生产链相互耦合,揭示了社会—生态系统各要素间的相互作用过程与系统的基本运行过程。

3.3 社会—生态系统网络结构

社会—生态系统综合循环链将单个社会—生态系统中的6大要素进行耦合,构成一个单元社会—生态系统(元系统)(图5)。元系统内各要素为存量要素,元系统间对应类型的流动性要素为流量要素(图6) (① 一般来讲,存量是某一时刻某要素在系统内的累计量,表征系统的状态;流量是一定时间段内某要素的流入量和流出量,流量是速率量,表征存量变化的速率。)。存量要素在元系统内部沿着社会—生态系统综合循环链循环流动,支撑元系统的生存发展,构成元系统的内部环境,呈现为六边形结构;流量要素在元系统之间自由流动联结各元系统,构成系统外部环境,呈现为六边形镶嵌结构。元系统能够适应多尺度效应,可定义为多等级的行政区或自然区划。

图5

图5   社会—生态系统元系统

Fig.5   Meta system of social-ecological systems


图6

图6   社会—生态系统六边形循环网络结构

Fig.6   Hexagonal circular network structure of social-ecological systems


流量要素与存量要素之间能够相互转化,同种类型的流量要素与存量要素一一对应,控制二者进出元系统的连接位置称之为端口(② 端口可以认为是元系统同外部环境进行物质流、能量流、信息流交换的出入口,端口发挥控制和调节作用,主要通过作用于流量来影响存量。在实际中,端口有很多实例,如海关管理进出口货物、河流上的水闸控制水量分配、移民政策与法律控制人口迁徙等。)。物质流和信息流能够通过端口在各元系统间传导流动,流量要素基于同各类型存量要素的对应关系形成六边形流量要素网络。各类型要素沿着网络结构完成传输与流动,物质流在特定信息流的指引下通过对应元素的端口流入目标元系统,存量要素在元系统内部聚合循环。一方面,元系统之间依靠流量要素网络产生联结,促进元系统间的交流与发展,例如“一带一路”倡议促进元系统间实现“政策沟通、设施联通、贸易畅通、资金融通、民心相通”;另一方面,流量要素网络也会将某一元系统内部的风险与失衡传导到其他元系统,导致更大范围的失衡,例如经济危机的全球性蔓延。

3.4 社会—生态系统双链嵌套循环体系

社会—生态系统各要素之间通过基本物质循环链与基本社会生产链实现联结(图7),2条链的接口部位就是人口要素与设施要素,物质与信息通过要素之间的作用链流动,以维持社会—生态系统的正常运行。

图7

图7   社会—生态系统双链嵌套循环体系

Fig.7   Social-ecological system double chain nested circular system


基本物质循环链起止于环境要素,环境要素表现出一定的资源环境承载能力(SE),并通过资源要素分化为资源承载力(SR)与环境容纳力(SEE)。资源承载力(SR)体现为资源要素供给社会生产的能力,环境容纳力(SEE)体现为环境要素对社会子系统所排放的全部废弃物的消纳能力,设施因素会对生态子系统资源环境承载力进行科技转化,当科技转化率(Ts)不断提高时总的资源环境承载能力也在提高。生态子系统的环境要素将社会子系统输出的全部物质与效应进行消纳后即结束基本物质循环链的一轮循环,并为下一轮循环做准备。

基本社会生产链嵌套在基本物质循环链之中,起止于人口要素。人口要素既产生社会总需求(DP),自身又参与社会生产,形成劳动力原始供给(SP)。但是人类社会是有一定组织形态的,必然受到组织要素中一系列制度、政策、法律与伦理的影响,因而组织要素会产生一个组织干扰系数(Tb),对社会总需求与劳动力原始供给进行重塑。重塑后的劳动力供给(SP*Tb)与通过设施要素输入社会子系统的资源承载力(SR*Ts)进行生产组合,实现社会大生产。在生产的过程中会产生废弃物(W2),所生产的产品与服务通过资本要素进行分配,最后被人口要素所消耗和转化(DP′),产生生产剩余(SP′)与消费过程废弃物(W1),消费过程废弃物与生产过程废弃物(W1+W2)流入生态系统中消纳处理,实现基本社会生产链的循环运作与同基本物质循环链的联结。

社会生产嵌套在整个自然系统物质循环的大体系内,意味着社会生产本质上是生态系统生产的延续与扩展。社会文明的发展离不开社会生产的进步,而社会生产必须时刻以生态子系统的生产能力为基础,不能以牺牲生态子系统的生产能力为代价获取社会子系统的短期快速增长,而是应该在生态子系统资源环境承载力的阈值约束之下运用社会子系统的管理智慧提升设施和资本的配置效率,实现人类福祉的最大化。

4 研究展望

社会—生态系统结构研究为回应国土空间高效治理与可持续发展等重大问题提供了基础支撑,当前逐渐形成了“平衡式” “协同式” “层次式” “开放空间式” “综合交互式”和“点轴网络式”6种基本结构类型,并且呈现出“立体化” “网络化”的发展趋势。本文在社会—生态系统结构“网络化”方面进行探索,提出社会—生态系统六边形循环网络结构,创新性地阐述了社会—生态系统要素六边形网络镶嵌关联方式与循环运行机理,结合“协同式”的优点强化系统内部要素间关联关系的表达,结合“点轴网络式”的优点强化对系统间远程耦合关联关系的分析,但模型仍需进一步实现定量化与参数化,引入实证以强化模型稳定性。社会—生态系统是动态的复杂系统,所引致的人地关系问题更加综合化、复杂化,不确定性更强,因而未来该领域研究需要多学科理论交叉形成整体性框架,同时也需注重模型的融合创新与应用推广,对其结构的建模研究仍有许多可突破的途径。

(1) 理论层面,增强多学科理论融合与支撑

社会—生态系统的综合性决定了对其结构的研究必然要基于多学科理论的交叉来实现,这也与地理科学未来的发展方向相契合。一方面,增强地理学与生态学、管理学的理论交叉与融合,拓展地理科学开展社会—生态系统结构研究的深度与广度,关注地理学空间分异理论、区位理论、“流空间”理论与生态学生态系统服务理论、管理学可持续发展理论等的融合与创新运用;另一方面,注重将系统科学理论(系统论、控制论、信息论)与哲学学科理论引入社会—生态系统结构研究,提升社会—生态系统结构建模原理的解释力,从系统学与哲学原理中寻求新的研究路径,最终形成支撑社会—生态系统结构研究的学科体系网络。

(2) 方法层面,增强多类型建模互鉴与创新

社会—生态系统的复杂性与动态性要求建模方法进一步融合创新,关注变量间复杂关联关系的刻画与表达,因而社会—生态系统建模呈现出“立体化”“网络化”的发展趋势。

“协同式”建模可综合多类型优势更新迭代。“协同式”结构研究相对较为成熟稳定,但是对尺度效应的嵌套以及对复杂系统的解释力度有待提升,可以吸收“开放空间式”与“层次式”对尺度与维度视角的巧妙应用,增强尺度适应性,同时借鉴“网络式”对复杂问题的分析框架,形成适应性更强、耦合过程阐述更加细化的综合模型。

通过加强层次串联与原理表达推进“立体化”建模。“立体化”三维建模模型空间感较强,能够对不同尺度与维度进行综合,进而表现出较强的尺度弹性与维度韧性,未来研究需注重在一定尺度与维度定义下加强对过程耦合机理的细节表达与可视化,“层次式”可加强层次之间的耦合关系探究,“开放空间式”可加强多维度综合下耦合原理的可视化表达。

通过加强定量化与应用拓展推进“网络化”建模。社会—生态系统结构“网络化”研究仍需重点推进模型的定量化,特别是对模型中各变量之间的关系进行定量性率定,逐步实现概念模型向数理模型的转化,还需关注模型同尺度效应的结合以及对空间差异性的适应,引入相应实证研究,不断增强模型对特定地域特征的适应性与稳定性,并扩大模型的应用领域。

(3) 应用层面,增强多领域服务拓展与推广

社会—生态系统结构研究在整个研究领域中基础性较强,其生命力在于服务社会—生态系统复杂关联问题的解决,未来需要一方面聚焦土地利用/覆被变化、气候变化、生态系统服务、城镇化、乡村振兴以及共同富裕等重要人地系统过程,开展相应的系统状态评估、演变机理分析与响应机制构建等工作,增强社会—生态系统的韧性与适应性;另一方面聚焦国内外重大战略目标,基于联合国可持续发展目标以及国家“双碳”战略导向,关注生态系统服务与人类社会福祉之间的耦合机理分析和权衡举措制定,服务国土空间规划、乡村振兴规划,助推社会—生态系统结构研究由基础性研究向创新性研究发展,并不断在服务实践的过程中趋于成熟与完善。

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本文从地球进入“人类世”(Anthropocene)之后,实现世界可持续发展、建设人类命运共同体的角度出发,就地表系统的复杂性、人类面临的各种灾难以及将要面临的各种资源短缺和环境风险等问题,提出发展“地理协同论”,即:地球表层系统与区域可持续性机理、过程与动力学,以实现地理学研究从理解“人—地关系”到设计“人—地协同”的转变。着眼于“人类世”时代地球表层系统由多尺度、多过程等组成的复杂性,回顾了区域论、综合论、系统论等经典地理学理论,从自然单元与社会单元的结合、自然资源利用与自然灾害防御、人类功与过的评价、自然地图与行政地图间的关系、动力学与非动力学的耦合等主题入手,深入讨论了现代地理科学与技术问题。通过理解灾害系统及其致灾成害机理、过程和动力学,构建凝聚度指标,量化综合减灾系统的复杂性。利用协同宽容、约束、放大和分散原理,以灾害风险防范共识最高、成本最低、福利最大、风险最小化为目标,构建以政府为主导、企业为主体和社区全面参与的综合灾害风险防范凝聚力模式。在分析都江堰工程如何实现除害与兴利并举的基础上,综合阐释了“人类世”时代“适度改造自然”,以实现人与自然的协同。

[ Shi Peijun, Song Changqing, Cheng Changxiu.

Geographical synergetics: From understanding human-environment relationship to designing human-environment synergy

Acta Geographica Sinica, 2019, 74(1): 3-15. ]

DOI:10.11821/dlxb201901001      [本文引用: 1]

From the perspective of achieving sustainable development in the world and building a community with a shared future for humankind in the "Anthropocene", and considering the complexity of the Earth's surface system, various disasters facing humanity, and future challenges of resource shortages and environmental risks, we proposed the development of "geographical synergy"—the mechanism, process and dynamics of the Earth's surface system and regional sustainability—in order to realize the transformation of geographical research from the explanation of human-environment relationship to the design of human-environment synergy. We discussed the scientific and technological questions of modern geography from the perspectives of integrating natural and social units, natural resources and natural disasters, achievements and faults of humans, and coupling of dynamic and non-dynamic processes and systems. We proposed the metrics of "consilience degree" as a measure of the complexity of integrated disaster reduction system based on the understanding of disaster system and the mechanism, process and dynamics of hazard and disaster formation. Using the principles of synergetic tolerance, synergetic constraint, synergetic amplification and synergetic diversification, we proposed to build an integrated disaster risk governance consilience model under the leadership of governments and with enterprises as the main body and the full participation of communities, with multiple optimization objectives of social consent maximization, cost minimization, welfare maximization, and risk minimization. Finally, we elaborated on the synergy of human and nature through "changing nature appropriately", with a case study on the Dujiangyan irrigation system, which enabled the win-win pattern of disaster reduction and benefit making.

孙晶, 刘建国, 杨新军, .

人类世可持续发展背景下的远程耦合框架及其应用

[J]. 地理学报, 2020, 75(11): 2408-2416.

DOI:10.11821/dlxb202011010      [本文引用: 1]

在全球一体化进程不断加深的背景下,国家与地区之间的联系日益紧密,产生了一系列跨国家、跨地区、多尺度的社会—经济—环境影响,远程耦合(Telecoupling,社会、经济、环境的远距离相互作用)科学概念和综合框架的提出为解决上述问题提供了新方法和新途径。为更好促进远程耦合综合框架的正确使用和规范推广,本文系统解析了远程耦合综合框架,厘清各组成部分的定义和功能,梳理了框架的应用现状;通过对3个中国典型案例的阐释,展示了远程耦合综合框架的使用方法、结果分析及由此得出的科学意义和政策价值;最后描述了远程耦合综合框架使用中需要重点关注的问题,并对其应用前景进行了展望。远程耦合综合框架的推广应用有助于以跨国家、跨地区、多尺度的视角,重新审视多个人类与自然耦合系统的相互作用,揭示隐藏的远距离地理空间作用的科学价值,服务于有关政策的制定和实施,促进全球社会、经济、环境的可持续发展。

[ Sun Jing, Liu Jianguo, Yang Xinjun, et al.

Sustainability in the Anthropocene: Telecoupling framework and its applications

Acta Geographica Sinica, 2020, 75(11): 2408-2416. ]

DOI:10.11821/dlxb202011010      [本文引用: 1]

With increasing global integration, distant coupled human and natural systems have more interactions than ever before, which often lead to unexpected outcomes with profound implications for sustainability. The integrated framework of telecoupling (socioeconomic and environmental interactions over distances) has been proposed to address such cross-border and cross-scale challenges, helping better evaluate and understand telecouplings. We first provide an introduction to the telecoupling framework, including components, definitions, and functions, and then offer an overview of the growing number of telecoupling studies. Particularly, we use three Chinese cases to illustrate the methods, results, significance, and implications of applying the telecoupling framework. We also point out some research gaps and critical unsolved questions in the applications. The telecoupling framework provides a powerful tool to incorporate feedbacks, trade-offs, and synergies across multiple coupled human and natural systems, and helps improve the understanding of distant interactions and the effectiveness of policies for socioeconomic and environmental sustainability across local to global levels.

刘建国, 李舒心.

中国的可持续发展之路

[J]. 世界环境, 2010, 28(5): 64-65.

[本文引用: 1]

[ Liu Jianguo, Li Shuxin.

China's road to sustainability

World Environment, 2010, 28(5): 64-65. ]

[本文引用: 1]

程昌秀, 沈石, 李强坤.

黄河流域人地系统研究的大数据支撑与方法探索

[J]. 中国科学基金, 2021, 35(4):529-536.

[本文引用: 1]

[ Cheng Changxiu, Shen Shi, Li Qiangkun.

Big data support and method exploration about natural and human systems research in the Yellow River Basin

Bulletin of National Natural Science Foundation of China, 2021, 35(4): 529-536. ]

[本文引用: 1]

宋爽, 王帅, 傅伯杰, .

社会—生态系统适应性治理研究进展与展望

[J]. 地理学报, 2019, 74(11): 2401-2410.

DOI:10.11821/dlxb201911015      [本文引用: 1]

社会—生态系统(SES)由社会子系统、生态子系统及两者的交互作用构成,具有不同于社会系统或生态系统单独具有的结构、功能和复杂特征。社会—生态系统适应性治理旨在通过适应性的社会权利分配与行为决策机制,使社会—生态系统能够在动态条件下可持续地保障人类福祉。适应性治理理论的形成受到“公共池塘资源管理”“韧性”和“治理”3方面理论的影响,并为“转型治理”与“协作治理”提供了建构基础。该理论具有以下3个主要目的:① 理解和应对社会—生态系统多稳态、非线性、不确定性、整体性以及复杂性;② 建立非对抗性的社会结构、权利分配制度以及行为决策体系,匹配社会子系统与自然子系统;③ 通过综合方法管理生态系统,使其可持续提供生态系统服务。因此,面对人类行为主导地表过程的“人类世”,实现适应性治理有助于应对社会—生态系统的复杂性与不确定性。鉴于中国的生态环境正处于迅速变化时期,且中国与世界各国间的相互影响日益复杂,未来研究可重点关注以下3个方面:① 理解耦合系统的多元互动过程,增强适应能力;② 强调社会—生态系统的整体性研究;③ 提高环境变化背景下理解和预测系统动态的能力。

[ Song Shuang, Wang Shuai, Fu Bojie, et al.

Study on adaptive governance of social-ecological system:Progress and prospect

Acta Geographica Sinica, 2019, 74(11): 2401-2410. ]

DOI:10.11821/dlxb201911015      [本文引用: 1]

Social-Ecological System (SES) is composed of social subsystem, ecological subsystem and the interaction between them; its structure, functions, and characteristics are different from those of social subsystem or ecological subsystem alone. Relying on adaptive social mechanisms of power-sharing and decision making, the adaptive governance of SES aims to guarantee human well-being in a sustainable manner under dynamic conditions. Adaptive governance theory is influenced by "common pool resources management", "resilience" and "governance", and lays a foundation for the construction of transformative governance and collaborative governance. This theory has three main objectives: (1) understanding and coping with the multi-stability, nonlinearity, uncertainty, integrity and complexity of SES; (2) establishing non-confrontational social structure, power-sharing structure and decision-making structure, and match with social subsystem and ecological subsystem; (3) achieving sustainable management of ecosystem services through an integrated approach. Therefore, in the face of the "Anthropocene" of human-behaviour-dominant surface processes, achieving adaptive governance helps to deal with the complexity and uncertainty of SES. Given the rapid changes in China's environment and the increasingly complicated interactions between China and countries all over the world, it will be helpful for future studies to pay close attention to the following fields: (1) understand the multi-interaction processes of a coupled system, and enhance its adaptability; (2) emphasize the significance of a holistic approach of studying SES; (3) improve the ability to understand and predict system dynamics in the context of environmental change.

Reyers B, Selig E R.

Global targets that reveal the social-ecological interdependencies of sustainable development

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论土地善治

[J]. 中国土地科学, 2020, 34(1): 1-7.

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[ Gan Zangchun, Zhu Daolin.

Study on good land governance

China Land Science, 2020, 34(1): 1-7. ]

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周兵兵, 马群, 邬建国, .

再论可持续性科学: 新形势与新机遇

[J]. 应用生态学报, 2019, 30(1): 325-336.

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[ Zhou Bingbing, Ma Qun, Wu Jianguo, et al.

Sustainability science revisited: Recent advances and new opportunities

Chinese Journal of Applied Ecology, 2019, 30(1): 325-336. ]

[本文引用: 1]

钱学森, 于景元, 戴汝为.

一个科学新领域: 开放的复杂巨系统及其方法论

[J]. 自然杂志, 1990, 12(1): 3-10, 64.

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[ Qian Xuesen, Yu Jingyuan, Dai Ruwei.

A new field of science-open complex giant system and its methodology

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刘建国, Vanessa Hull, Mateus Batistella, .

远程耦合世界的可持续性框架

[J]. 生态学报, 2016, 36(23): 7870-7885.

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[ Liu Jianguo, Hull V, Batistella M, et al.

Sustainability framework of remote coupling world

Acta Ecologica Sinica, 2016, 36(23): 7870-7885. ]

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傅伯杰, 王帅, 沈彦俊, .

黄河流域人地系统耦合机理与优化调控

[J]. 中国科学基金, 2021, 35(4): 504-509.

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[ Fu Bojie, Wang Shuai, Shen Yanjun, et al.

Mechanisms of human-natural system coupling and optimization of the Yellow River Basin

Bulletin of National Natural Science Foundation of China, 2021, 35(4): 504-509. ]

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陆大道.

关于地理学的“人—地系统”理论研究

[J]. 地理研究, 2002, 21(2): 135-145.

[本文引用: 1]

[ Lu Dadao.

Theoretical studies of man-land system as the core of geographical science

Geographical Research, 2002, 21(2): 135-145. ]

DOI:10.11821/yj2002020001      [本文引用: 1]

In the late 1970s and early 1980s, geographical science entered a new stage, which is characterized by the shift of major attention from the nature dominated environmental changes to the human dominated ones, that is, the interactions between natural process, biological process and human activity. All this shows the changing nature of geography is at the core of dramatic changes within ecosphere, the dynamic man land relationship. Unfortunately, it is the dramatic relationship that has led to the continuing destruction of resources bases as well as ecological and environmental bases upon which human being are dependant. Given the global changes, geographers are obliged to carry out theoretical and empirical studies about sustainable development and environmental protection, from both man land relationship and regional perspectives. The central issues to be concerned are the influences of global change on China and rational approaches for China to realize sustainable development. In recent years, Chinese geographers have contributed a lot to the fields of natural environment, territorial planning and regional development, providing scientific analysis and suggestions essential to China's responses to global change and sustainable development. However, the potential advantages of geography in terms of resolution of these critical issues have not been realized so far. To change such a situation, geographers have to make great efforts to synthetic theories and methodologies, giving full recognition to the theoretical studies of man land territorial system. The issues of sustainable development should remain as major concern by China's geographers in a long time. In fact, the efforts to coordinate the man land relationship aim at the realization of sustainable development. Clearly, the theories of man land territorial system should work as important theoretical bases of sustainable development. Therefore, it is a significant task for geographers to enhance the theoretical studies of man land territorial system. The prior issues regarding man land territorial system are as follows: 1) studies on regional differences from systematic perspective; 2) a deeper understanding of the characteristics of man land territorial system; and 3) studies on the approaches for comprehensive integration. Furthermore, the development of methodologies with comprehensive and systematic perspectives, territorial and dimensional perspectives as well as model building and simulation applicable to practice deserves more efforts.

樊杰.

“人地关系地域系统”是综合研究地理格局形成与演变规律的理论基石

[J]. 地理学报, 2018, 73(4): 597-607.

DOI:10.11821/dlxb201804001      [本文引用: 1]

同近年国外人文地理学呈现人文化趋势相比,中国人文与经济地理学秉承吴传钧先生关于人文与经济地理学是研究自然圈与人文圈相互作用下、人类活动分布格局形成和演变规律的一门交叉学科的定位,形成了以不同空间尺度的地域、重要的生产生活领域、以及典型的地域空间类型的可持续发展时空规律作为研究指向的中国人文与经济地理学主流学派。吴先生提出的“人地关系地域系统”理论不仅为人文与经济地理学,而且是为整个地理学的综合研究提供了重要的理论基石。地域功能性、系统结构化、时空变异有序过程、以及人地系统效应的差异性及可调控性,是该理论的精髓,这与“未来地球”研究计划的前沿思想完全契合。近10年来,以城镇化科学模式、主体功能区划、一带一路路线图、京津冀城市群、农村空心化和精准扶贫、东北振兴与资源型城市转型、行政区划优化等为研究对象,发展了人文与经济地理重要的可持续过程、地域功能形成和综合地理格局有序化规律、城市群形成演化机理及其资源环境效应、问题地区可持续生命周期与振兴路径、地缘政治地缘经济和区域间相互作用关系、人文界线对可持续发展的影响等理论方法。人文与经济地理学科建设取得重要进展,应用成果对近年来中国生态文明建设和可持续发展产生了重要影响。中国人文与经济地理学在全球范围内发展态势最佳、总体水平领先,以此告慰吴传钧先生,并以此纪念吴传钧先生百年诞辰。

[ Fan Jie.

"Territorial System of Human-environment interaction": A theoretical cornerstone for comprehensive research on formation and evolution of the geographical pattern

Acta Geographica Sinica, 2018, 73(4): 597-607. ]

DOI:10.11821/dlxb201804001      [本文引用: 1]

Compared with the increasingly obvious humanistic tendency in foreign human geography, China's human and economic geography still follows Academician Wu Chuanjun's theory, with human and economic geography as an interdisciplinary subject which is the study of the formation and evolution of the distribution pattern of human activities under the interaction of natural circle and human circle. And China's mainstream school on human and economic geography has been formed with studies on spatio-temporal rule of sustainable development on territories with different space scales, territories with important production and living, and territories with typical geospatial patterns as the main research points. "Territorial System of Human-environment Interaction", developed by Academician Wu Chuanjun, is the important theoretical foundation not only for human and economic geography, but also for the comprehensive research on geography. The essence of the theory, which includes territorial functional, system structured, orderly process for spatio-temporal variation, and the difference and controllability of human-environment interaction system effect, is entirely harmonious with the forefront of thought of the "Future Earth" studies program. In recent decade, with scientific mode of urbanization, major function oriented zoning, road map for the Belt and Road Initiative, Beijing-Tianjin-Hebei urban agglomeration, rural hollowing and targeted poverty alleviation, revitalization of Northeast China and transformation of resource-based cities, and administrative area optimization as the main research objects, theoretical methods have been developed in the aspects of important sustainable process of human and economic geography, territorial function formation and ordering rules for comprehensive geographical pattern, formation and evolution mechanism of urban agglomeration and its resources and environmental effects, sustainable life cycle and the revitalization of the path for problem areas, the interaction between geopolitics, geo-economy and regions, and effect of cultural boundaries on sustainable development. China's human and economic geography has made great progress in discipline development, and the application results have produced profound influences on the ecological civilization construction and sustainable development in recent years. With decades of hard work, China's human and economic geography has reached a world-class advanced level, so as to console the soul and spirit of Wu Chuanjun on the occasion of commemoration of the centenary of his birth.

刘彦随.

现代人地关系与人地系统科学

[J]. 地理科学, 2020, 40(8): 1221-1234.

DOI:10.13249/j.cnki.sgs.2020.08.001      [本文引用: 1]

人地关系地域系统理论系统提出30 a来,对促进地理学综合研究、学科建设和服务国家重大战略决策发挥了重要的科学支撑与导向作用。深入解析了人地关系地域系统理论的科学内涵及时代价值,诠释了现代人地系统的类型与环境,提出了“人地圈”与人地系统科学研究的主要内容和前沿领域。初步研究表明:① 现代人地系统具有复杂性、地域性和动态性特征,人?地交互作用过程、格局及其综合效应正在发生深刻变化,地球表层人地系统成为现代地学综合研究的核心内容和重要主题。② 科学认知和有效协调人地关系,亟需深入探究人地系统耦合格局与机理,探明人地关系地域系统类型、结构及其动力机制。依据城乡关系将人地关系地域类型划分为城市地域系统、城乡融合系统、乡村地域系统。乡村地域系统可细分为农业系统、村庄系统、乡域系统、城镇系统等子系统,分别对应于作土关系、人居关系、居业关系、产城关系。③ 现代人类活动强烈地作用于地球表层人地系统,形成了人地系统耦合与交互作用的地表圈层——“人地圈”,其实质是现代人类活动与地表环境相互联系、耦合渗透而形成的自然–经济–技术综合体或人地协同体。④ 人地系统科学或人地科学是研究人地系统耦合机理、演变过程及其复杂交互效应的新型交叉学科。它是现代地理科学与地球系统科学的深度交叉和聚焦,以现代人地圈系统为对象,致力于探究人类活动改造和影响地表环境系统的状态,以及人地系统交互作用与耦合规律、人地协同体形成机理与演化过程。人地系统耦合与可持续发展是人地系统科学的研究核心。传承创新人地关系地域系统理论和发展人地系统科学,更能凸显地球表层人类的主体性、人地协同的过程性和可持续发展的战略性,为人地系统协调与可持续发展决策提供科学指导。

[ Liu Yansui.

Modern man-earth relationship and man-earth system science

Scientia Geographica Sinica, 2020, 40(8): 1221-1234. ]

DOI:10.13249/j.cnki.sgs.2020.08.001      [本文引用: 1]

In the past 30 years, the theory of human-earth areal system has played an important support and guidance role in promoting the comprehensive research, disciplinary development and serving national strategic decision of geography. This study analyzes the scientific connotation and era value of human-earth areal system, explores the types and environment of modern human-earth system, and puts forward 'human-earth sphere' and the main contents and frontier fields of human-earth system science. The results show that: 1) The modern human-earth system is characterized by complexity, regionalism and dynamicity. The processes, pattern and comprehensive effect of human-earth interaction are undergoing profound changes, and the human-earth system on the surface of the earth has become the critical content and important theme of modern geosciences. 2) To scientifically understand and effectively coordinate the human-earth relationship, it is urgent to explore the coupling pattern and mechanism of human-earth relationship and to analyze the type, structure and dynamic mechanism of human-earth areal system. Based on the urban-rural relationship, the human-earth areal system can be divided into urban regional system, urban-rural integration system and rural regional system. Furthermore, the rural regional system is subdivided into agricultural system, village system, rural system and township system. 3) Modern human activities strongly affect the human-earth system on the surface of the earth, forming a new surface with the coupling and interaction between human and earth. In essence, it is a natural-economic-technological synthesis or human-earth coordination. They are also the main contents of deepening the researches on the coupling of human-earth system and supporting decision-making for coordinated development of human-earth system. 4) Human-earth system science or human-earth science is a new interdisciplinary subject which studies the coupling mechanism, evolution process and complex interaction effect of man earth system. It is the deep intersection and focus of modern geographic science and earth system science. Taking the modern human-earth sphere system as the research object, it is committed to exploring the state of human activities transforming and affecting the surface environment system, the interaction and coupling law of human-earth system, the formation mechanism and evolution process of human-earth coordination.Human-earth system coupling and sustainable development is the core of human-earth system science. Inheriting and innovating the theory of human-earth areal system and developing the human-earth system science will highlight the subjectivity of human on the earth surface, the process of human-earth coordination and the strategy of sustainable development, thus providing scientific guidance for the coordination of human-earth system and sustainable development decision-making.

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&#x0201C;社会—生态系统&#x0201D;治理的关键挑战是知识的积累和转移。一方面,&#x0201C;社会—生态系统&#x0201D;的情景依赖使得很难得出有关有效治理的一般结论;另一方面,通用的制度设计又可能由于过于抽象而无法应用于具体的问题。这看似是一个&#x0201C;无解&#x0201D;的问题。但是,比较分析现实中成功或失败的治理案例,为寻找&#x0201C;社会—生态系统&#x0201D;治理之道提供了可能。在&#x0201C;社会—生态系统&#x0201D;治理研究中,原型揭示了人与自然互动中反复出现的规律(pattern),成为一种新的研究方法。论文厘清了原型的概念与特征,阐述了原型分析的意义,梳理并评述了原型分析在&#x0201C;社会—生态系统&#x0201D;治理研究领域的进展。研究发现:① 原型分析在一个中间抽象层次上探索解释某个现象的重复模式,可视为案例中的&#x0201C;积木&#x0201D;;② 应将原型分析作为一种基于整体主义的方法论(methodological holism)来理解,而不是一种特定的方法、框架或理论;③ 原型分析能促进案例研究知识的积累与转移、&#x0201C;兼容&#x0201D;多种研究方法并在&#x0201C;社会—生态系统&#x0201D;治理中实现一定程度的预测性;④ 原型分析基于&#x0201C;类型—子类型&#x0201D;的多层次分析,有助于找到复杂&#x0201C;社会—生态系统&#x0201D;中的&#x0201C;强&#x0201D;因果关系;⑤ 原型不仅是研究的结果,也是研究的起点,对原型的测试、修正、完善和可信度检验是未来研究的重要方向。

[ Gong Yanqing, Tan Rong.

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A key challenge of social-ecological system governance is to effectively accumulate and transfer successful strategies across heterogeneous contexts. The context-dependence of social-ecological dynamics makes it extremely difficult to draw general conclusions about the determinants of effective governance. Generic design factors can be too abstract to be applied to concrete problems because every case is different. Archetype analysis is a particularly salient approach in this regard that helps researchers to understand and compare patterns of (un)sustainability in heterogeneous cases. This article clarifies the concept and characteristics of archetype, expounds on the significance of archetype analysis, and reviews the progress of archetype analysis in the key research fields of social-ecological system governance. The result reveals that: 1) Archetype analysis generally investigates recurrent patterns of the phenomenon of interest at an intermediate level of abstraction to identify multiple models that explain the phenomenon under specific conditions. 2) Archetype analysis is best conceived as a methodological approach, rather than a particular method, framework, or theory. 3) Archetype analysis can promote the accumulation and transfer of case study knowledge, is compatibility with multiple research methods, and can achieve a certain degree of predictability in social-ecological system governance. 4) Archetype analysis is based on "type-subtype" multi-level analysis, which helps to find the "strong" causality of the complex social-ecological system. 5) Archetype is not only the result of the research but also the starting point of the research. The test, modification, improvement, and validation of the archetype are also an important direction of future research.

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人地关系演变具有继承性,从历史视角认识人地关系的演变过程及机制有助于增加对人地关系的综合认知。从人地关系核心内涵出发,将资源环境要素视为人地作用的焦点,以人类的核心需求和主要活动、对“地”的作用强度及认知能力为主线,在梳理中国历史人地关系演变过程的基础上归纳其演变特征,并进一步提炼其演变动力。发现:随着人类生产力水平提高,人对“地”的认知先后经历了“混沌未知、天人合一、人地相称、人定胜天、人地和谐共生”的演变历程。与此相应,中国历史人地关系经历了从萌芽到以土地为核心的一元化关系再到以土地、水、能矿等资源为核心的无序多元化关系以及现如今重新探索有序多元化人地关系的总体历程。从历史视角看,中国人地关系演变的动力机制是:生产力是最核心的动力,促进了人对“地”作用能力的发展;人口是最活跃的动力,人口需求及人口数量和质量的提升增强了人和“地”作用的紧密程度;生产关系主要通过影响人的生产积极性及资源所有权而间接影响人地关系演变;战争和自然灾害对中国历史人地关系演变均起到促进和阻碍的双面作用。无论从理论还是实践层面,人地关系研究不能脱离时代背景。中国现代人地矛盾的形成有其必然性,以史为鉴,提升人对“地”的科学认识,实施因地制宜,加快技术研发和生产方式转型是破解中国当下人地矛盾的重要途径。

[ Li Xiaoyun, Yang Yu, Liu Yi.

The evolution process and its mechanism of man-land relationship in China

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The evolution of man-land relationship is inheritable. Understanding the evolution process of man-land relationship and its mechanism from the historical perspective can help us to increase the comprehensive cognition about this relationship. According to the core connotation of man-land relationship, this paper points out that resources and environment factors are the chief interaction point between human and "land", and human are in the positive position in man-land relationship. Based on this, the paper focuses on the primary human-needs, the main human activities and their action intensity as well as the cognitive ability on "land" to unfold the evolution process, and then to generalize the evolution characteristics of man-land relationship in China, and further, to extract the dynamic factors. Findings suggest that: with human productivity level rising, the perception of human to "land" has experienced successively the following periods: Almost unconscious, Unity of man and land, Mutual matching of man and land, Superior man than land, Co-exist harmoniously man and land. Accordingly, the man-land relationship in China has gone through from the bud, to the singleness relationship centered on farmland, then to the disordered multielement relationships centered on farmland, freshwater, energy and mineral resources etc. till nowadays to well-organized multielement relationships chased by human again. Historically, the dynamic mechanism of the man-land relationship evolution in China is that, productivity is the most core motivation, which promoted the development of humans' ability to act on "land"; The population is the most active power, since the population demands, and the population size and together quality increasing, enhance the closeness between human and "land"; the production relationship mainly influences the evolution process of man-land relationship indirectly through influencing human's enthusiasm for production and resource ownership; both wars and natural disasters have promoted and hindered effects on the historical evolution process of man-land relationship in China. Taking history as a mirror, the study of man-land relationship cannot be divorced from its varying background, both theoretically and practically. Also, the formation of contradictory between human and "land" in modern China has its inevitability. The basis of long-term harmonies between human and "land" rests on promoting human's scientific cognition about "man -land relationship", and also adjusting human's behaviors under various local conditions. Besides, speeding up the technology development and upgrading the mode of production are also important approaches to relieving the present contradictions between human activities and multiple land elements.

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[J]. 地理科学进展, 2021, 40(2): 330-342.

DOI:10.18306/dlkxjz.2021.02.013      [本文引用: 2]

适应性研究旨在通过主体对外部环境变化的调整,以削减其负面影响并改善适应能力,是实现人地系统可持续发展的重要途径。鉴于目前对适应性理论体系缺乏统一认识和系统梳理,论文通过对国内外人地系统适应性研究文献总结,从概念内涵、理论框架和方法对适应性研究进展进行了总结,并提出了适应性研究的科学范式。研究发现:① 学术界对适应性概念的理解并未达成科学共识,阻碍了通用的适应性研究理论体系的构建。② 现有适应性分析框架多是基于全球变化领域理论框架基础的延伸和修订。③ 适应性研究缺乏具有代表性的方法,以借用脆弱性、恢复力评估方法和指标体系为主。因此,统一的适应性概念和理论体系的构建亟需加强,而国外既有积累的理论经验并不通用,中国化的适应性分析框架、方法是未来的重要研究方向。同时,应强化人类社会和自然环境“综合”的人地系统适应性研究,注重多尺度结合的适应性动态分析。

[ Yin Sha, Yang Xinjun, Chen Jia.

Progress of research on adaptation of human-environment systems: Concepts, theoretical frameworks and methods

Progress in Geography, 2021, 40(2): 330-342. ]

DOI:10.18306/dlkxjz.2021.02.013      [本文引用: 2]

The purpose of adaptation research is to reduce the negative effects of external environment and improve adaptation through the adjustment of the subject to the changes of the external environment, which is an important way to realize the sustainable development of human-environment systems. In view of the lack of a unified understanding and systematic review of the adaptation theories, this article summarized the progress of research on adaptation from the concepts, theoretical frameworks, and methods by examining the literature on adaptation of human-environment systems in China and internationally, and put forward a scientific paradigm of adaptation research. The findings are as follows: 1) There is no scientific consensus on the concept of adaptation in academia, which hinders the construction of a general theoretical system of adaptation research. 2) The existing analytical frameworks of adaptation are mostly based on the extension and revision of the theoretical framework in the field of global change. 3) There is no representative method in adaptation research, which mainly uses vulnerability and resilience assessment methods and index systems. Therefore, the construction of a unified concept and theoretical system of adaptation needs to be strengthened. The existing theoretical research in other countries may not be universally applicable, and an analytical framework and method of adaptation research specifically useful in China should be an important research direction in the future. Simultaneously, it is necessary to strengthen the research on integrated adaptation of human-environment systems considering both human society and the natural environment, and pay attention to the dynamic analysis of adaptation with a combination of multiple scales.

Reynolds J F, Grainger A, Smith D M S, et al.

Scientific concepts for an integrated analysis of desertification

[J]. Land Degradation & Development, 2011, 22(2): 166-183.

DOI:10.1002/ldr.1104      URL     [本文引用: 1]

张军泽, 王帅, 赵文武, .

地球界限概念框架及其研究进展

[J]. 地理科学进展, 2019, 38(4): 465-476.

DOI:10.18306/dlkxjz.2019.04.001      [本文引用: 2]

“地球界限(Planetary Boundaries)”是指用于界定“安全运行空间(safe operating space)”的边界值,是Johan Rockstr?m等近年来提出的旨在保障人类生存和发展的重要概念框架。该框架一经提出就引起了广泛关注,一方面质疑者对这一概念框架的科学意义以及评估方法提出批评;另一方面支持者则对其评估方法、研究内容和研究尺度进行了完善和扩展,并取得了重要的成果。为了促进国内学者对该领域的了解和应用,论文在回顾相关文献的基础上,首先介绍了“地球界限”的概念内涵,并将其与中国学者所熟知的环境承载力等概念进行了比较分析;随后总结了该概念框架的争议观点,同时也对其近期的发展状况进行了评述;最后结合中国目前的发展状况,分析了“地球界限”概念框架对中国可持续发展的借鉴意义,并对未来的研究提出了展望,包括① 进一步了解不同地球系统过程的相互作用机制,完善“地球界限”的指标评估体系;② 明确“地球界限”与生态系统服务以及人类福祉三者之间的内在联系;③ 结合“地球界限”的评估结果,加强变革式环境治理的研究。

[ Zhang Junze, Wang Shuai, Zhao Wenwu, et al.

Review on the conceptual framework of planetary boundaries and the development of its research

Progress in Geography, 2019, 38(4): 465-476. ]

DOI:10.18306/dlkxjz.2019.04.001      [本文引用: 2]

Planetary boundaries is a conceptual framework proposed by Johan Rockstr?m in recent years, which is aimed to build a safe operating space for safeguarding humans' survival and development. Since this framework was put forward, it has attracted widespread attention. The skeptics criticized the scientific significance and evaluation methods of the conceptual framework. However, the proponents have gradually improved its evaluation methods and research contents, and explored the downscaling results. In order to promote the understanding and application of this concept and framework, after reviewing the relevant literature we first introduced the conceptual connotation of planetary boundaries and its evaluation results, and then compared them with concepts such as environmental carrying capacity that have been well known to Chinese scholars. We also summarized the controversial views of the conceptual framework, and reviewed its recent development status. Finally, combined with China's current development situation, we analyzed the implications of the conceptual framework of planetary boundaries for China's sustainable development research, and put forward the prospect of future research, including: 1) improving the assessment system of planetary boundaries through making further exploration on the interrelationship between different Earth system processes; 2) defining the links between planetary boundaries, ecosystem services, and human well-being; 3) strengthening research on transformative environmental governance in conjunction with the assessment of planetary boundaries.

Wu X D, Guo J L, Han M Y, et al.

An overview of arable land use for the world economy: From source to sink via the global supply chain

[J]. Land Use Policy, 2018, 76: 201-214.

DOI:10.1016/j.landusepol.2018.05.005      URL     [本文引用: 3]

Collins S L, Carpenter S R, Swinton S M, et al.

An integrated conceptual framework for long-term social-ecological research

[J]. Frontiers in Ecology and the Environment, 2011, 9(6): 351-357.

DOI:10.1890/100068      URL     [本文引用: 1]

Liu J G, Yang W.

Integrated assessments of payments for ecosystem services programs

[J]. PNAS, 2013, 110(41): 16297-16298.

DOI:10.1073/pnas.1316036110      PMID:24072648      [本文引用: 2]

香宝, 刘纪远.

东亚土地覆盖对ENSO事件的响应特征

[J]. 遥感学报, 2003, 7(4): 316-320.

[本文引用: 3]

[ Xiang Bao, Liu Jiyuan.

Characteristic of East Asia land cover's response to ENSO events

Journal of Remote Sensing, 2003, 7(4): 316-320. ]

[本文引用: 3]

Bodin Ö.

Collaborative environmental governance: Achieving collective action in social-ecological systems

[J]. Science, 2017, 357: 1114-1121.

[本文引用: 1]

Danziger M M, Barabási A L.

Recovery coupling in multilayer networks

[J]. Nature Communications, 2022, 13(1): 955. doi: 10.1038/s41467-022-28379-5.

PMID:35177590      [本文引用: 2]

The increased complexity of infrastructure systems has resulted in critical interdependencies between multiple networks-communication systems require electricity, while the normal functioning of the power grid relies on communication systems. These interdependencies have inspired an extensive literature on coupled multilayer networks, assuming a hard interdependence, where a component failure in one network causes failures in the other network, resulting in a cascade of failures across multiple systems. While empirical evidence of such hard failures is limited, the repair and recovery of a network requires resources typically supplied by other networks, resulting in documented interdependencies induced by the recovery process. In this work, we explore recovery coupling, capturing the dependence of the recovery of one system on the instantaneous functional state of another system. If the support networks are not functional, recovery will be slowed. Here we collected data on the recovery time of millions of power grid failures, finding evidence of universal nonlinear behavior in recovery following large perturbations. We develop a theoretical framework to address recovery coupling, predicting quantitative signatures different from the multilayer cascading failures. We then rely on controlled natural experiments to separate the role of recovery coupling from other effects like resource limitations, offering direct evidence of how recovery coupling affects a system's functionality.© 2022. The Author(s).

Janssen M A, Anderies J M, Ostrom E.

Robustness of social-ecological systems to spatial and temporal variability

[J]. Society and Natural Resources, 2007, 20(4): 307-322.

DOI:10.1080/08941920601161320      URL     [本文引用: 2]

刘志敏, 叶超.

社会—生态韧性视角下城乡治理的逻辑框架

[J]. 地理科学进展, 2021, 40(1): 95-103.

DOI:10.18306/dlkxjz.2021.01.009      [本文引用: 2]

伴随着快速城镇化,生态环境剧烈变化与社会经济结构深刻转变使中国城乡发展问题愈发突出,城乡治理面临新挑战。社会—生态韧性理论与城乡治理实践存在紧密关联,但对两者关系的研究欠缺。论文以中国城乡发展问题为导向,厘清社会—生态韧性与城乡发展的关系,构建社会—生态韧性视角下城乡治理的逻辑框架。将社会—生态韧性的核心理念(耦合、自组织和学习)引入城乡规划、个体参与和政策制定,将促进城乡融合和可持续发展。在未来的城乡治理中,需要将社会与生态问题统筹考虑,贯彻人地耦合的理念,形成多层级的城乡协同治理网络,促进适应性治理,培育不同尺度城乡治理主体的合作和创新,尤其要重视城乡社区的学习、适应能力构建。实践中需要充分利用空间规划工具,将生态系统服务纳入城乡空间治理范畴,协调城乡生态系统服务与居民福祉的关系,增强城乡对不确定性的缓冲和应对能力。

[ Liu Zhi-min, Ye Chao.

A logical framework of rural-urban governance from the perspective of social-ecological resilience

Progress in Geography, 2021, 40(1): 95-103. ]

DOI:10.18306/dlkxjz.2021.01.009      [本文引用: 2]

Along with the rapid progress of urbanization, dramatic changes in the ecological environment and profound changes in the social and economic systems have made issues related to China's urban and rural development more prominent. Urban and rural governance faces new challenges. The concept of social-ecological resilience may shed some light on changes in the practice of rural-urban governance, but there is a lack of research on the relationship between them. Focusing on major issues of urban and rural development in China, this study clarified the relationship between social-ecological resilience and urban and rural development, and constructed a logical framework of rural-urban governance from the perspective of social-ecological resilience. The framework aims to promote urban and rural integration and sustainable development by introducing the key characteristics of social-ecological resilience (coupling, self-organization, and learning) into rural-urban governance mechanisms (planning, participation, and policy). In the future, social and ecological issues should be taken into overall consideration in rural-urban governance, with the idea of human-earth system coupling. A multiple-tiered network of coordinated rural-urban governance should be established. Attention should be paid to the cultivation of cooperation and innovation of the participants at different scales, especially to the construction of learning and adaptability of urban and rural communities. In practice, it is necessary to make full use of spatial planning, to incorporate ecosystem services into rural-urban spatial governance and take them as a priority. The goal of enhancing the resilience and adaptive capacity of urban and rural areas to uncertain challenges will be achieved by coordinating the relationship between ecosystem services and human well-being.

马恩朴, 蔡建明, 韩燕, .

人地系统远程耦合的研究进展与展望

[J]. 地理科学进展, 2020, 39(2): 310-326.

DOI:10.18306/dlkxjz.2020.02.012      [本文引用: 2]

在越发紧密关联的全球化世界中,如何实现可持续发展日益需要跨系统思维和超区域政策。这首先要求致力于可持续发展研究的学科要提升自身对跨区域资源环境问题的洞察力,因此就有必要推动地理学传统研究框架的适应性创新和变革。远程耦合作为聚焦于&#x0201C;远距离人类与自然耦合系统之间社会经济与环境相互作用&#x0201D;的理论框架,有极大的潜力和优势来促进这一理论创新进程。为了缩小国内外在远程耦合领域的研究差距,论文基于文献研究和笔者对远程耦合框架的理解,从远程耦合的理论建构、经验证据、重点研究领域和研究方法4个方面介绍了该理论框架及其应用进展,并提出3个方面的展望来激发新的研究。综述表明,由于远距离人类活动不断增长以及大尺度自然过程与人类活动的相互作用,在远程连接、全球化和城市化维度上均存在大量远程耦合的经验证据;目前学术界对远程耦合框架的应用主要集中于生态系统服务、远程耦合的社会经济和环境影响及土地变化科学3个方面;同时得益于理论操作化的进展,目前开展远程耦合研究已具备较好的方法支持。基于此,论文认为,为应对新兴的现实科学命题,基于远程耦合框架的地理学研究应当在人地关系网络系统的理论创新、远程耦合动力机制和远程耦合的调控工具集3个方面实现突破。

[ Ma Enpu, Cai Jianming, Han Yan, et al.

Research progress and prospect of telecoupling of human-earth system

Progress in Geography, 2020, 39(2): 310-326. ]

DOI:10.18306/dlkxjz.2020.02.012      [本文引用: 2]

Achieving sustainable development in an increasingly interconnected globalized world requires cross-system thinking and more integrated regional policy. First, it requires disciplines devoted to sustainable development research to improve their insights into trans-regional resource and environmental issues. Accordingly, it is necessary to promote the adaptive innovation and transformation of the traditional research framework of geography. Telecoupling, as a theoretical framework focusing on socioeconomic and environmental interactions among coupled human and natural systems over distances, has great potential and advantages to facilitate the process of theoretical innovation. In order to narrow the gap between Chinese and international research in the field of telecoupling, we introduce the telecoupling framework and its application progress from theoretical construction, empirical evidence, key research areas, and research methods based on literature review, document analysis, and our own understanding of telecoupling, and further give some suggests. The review shows that there is a large amount of empirical evidence of telecoupling in the dimensions of teleconnection, globalization, and urbanization due to the continuous growth of long-distance human activities and their interaction with large-scale natural processes. Currently, the application of the telecoupling framework in academia mainly focuses on three aspects: ecosystem services, the socioeconomic and environmental impacts of telecoupling, and land change science. Due to the progress in operationalizing the theories, current telecoupling research has been well supported methodologically. We further argue that geographical research based on the telecoupling framework should make breakthroughs in the theoretical innovation of Human-Earth relationship network system, telecoupling mechanism, and telecoupling regulatory tool sets, so that scientific research can keep up with the latest trends and solve the emerging real world problems.

刘海猛, 方创琳, 李咏红.

城镇化与生态环境“耦合魔方”的基本概念及框架

[J]. 地理学报, 2019, 74(8): 1489-1507.

DOI:10.11821/dlxb201908001      [本文引用: 2]

城镇化与生态环境耦合系统是人地关系地域系统的重要一环,面对新时代全球尺度的远程联系、时空压缩与社会经济重构,传统的研究框架急需转型和升级。借鉴人地关系地域系统、远程耦合和星球城市化等理论,从复杂性科学视角出发,首先解析了城镇化与生态环境耦合系统的内涵,进而从空间、时间、表象和组织四个维度,提出了一个解释城镇化与生态环境耦合机理的分析框架——“耦合魔方(CHNC)”,并论述了其概念、内涵、演化规律和分析框架:魔方中的系统与系统、系统与要素、要素与要素间通过各种“耦合线”相互联系与作用,形成一个彼此嵌套、相互联系、对立统一的有机整体;魔方的旋转代表了不同地域间城镇化与生态环境的时空非线性耦合作用,系统通过不断能量交换,产生临界相变与整体涌现性,长期处于有序与无序之间的中间状态;“耦合魔方”包括近远程耦合、近远期耦合、组内间耦合和显隐性耦合,共四个维度,八种类型。重点剖析了远程、远期、组间和隐性耦合的科学内涵、研究方法与典型案例,并形成更具普遍意义的人地关系耦合矩阵。“耦合魔方”为揭示城镇化与生态环境耦合系统的演化和机理提供一个更加全面系统的跨学科研究范式,拓展了人地系统耦合研究的分析维度,为面向人类福祉的区域可持续发展政策制定提供科学支撑。

[ Liu Haimeng, Fang Chuanglin, Li Yonghong.

The Coupled Human and Natural Cube: A conceptual framework for analyzing urbanization and eco-environment interactions

Acta Geographica Sinica, 2019, 74(8): 1489-1507. ]

DOI:10.11821/dlxb201908001      [本文引用: 2]

The coupled urbanization and eco-environment system is an important aspect of coupled human and natural systems. However, the time-space compression, long range interactions, and reconstruction of socio-economic structure at the global scale pose great challenges to the traditional analysis frameworks for human-nature systems. We are in urgent need of developing a brand new analysis framework. In this paper, based on the connotation of the coupled urbanization and eco-environment system and its four dimensions — space, time, appearance and organization, we propose a conceptual framework "Coupled Human and Natural Cube (CHNC)" to explain the coupling mechanism between urbanization and eco-environment, which is inspired by the theories including human-earth areal system, telecoupling, planetary urbanization, and perspectives from complexity science. We systematically introduce the concept, connotation, evolution rules and analysis dimensions of the CHNC. It is worth noting that there exist various "coupling lines" in the CHNC, which connects different systems and elements at multiple scales, and forms a nested, interconnected organic bigger system. The rotation of the CHNC represents the spatiotemporal nonlinear fluctuation of the urbanization and eco-environment system in different regions. As the system exchanges energy with the environment continually, the critical phase transition occurs when fluctuation reaches a certain threshold, and leads to emergence behaviors of the system. The CHNC has four dimensions — pericoupling and telecoupling, syncoupling and lagcoupling, apparent coupling and hidden coupling, intra-organization coupling and inter-organization coupling. We mainly focus on the theoretical connotation, research methods and typical cases of telecoupling, lagcoupling, hidden coupling, and inter-organization coupling, and finally put forward a human-nature coupling matrix to integrate multiple dimensions. In summary, the CHNC provides a more comprehensive and systematic research paradigm for understanding the evolution and coupling mechanism of the human-nature system, which expands the analysis dimension of coupled human and natural systems, and provides some scientific supports to formulate regional sustainable development policies for human wellbeing.

Bodin Ö, Alexander S M, Baggio J, et al.

Improving network approaches to the study of complex social-ecological interdependencies

[J]. Nature Sustainability, 2019, 2(7): 551-559.

DOI:10.1038/s41893-019-0308-0      [本文引用: 1]

Achieving effective, sustainable environmental governance requires a better understanding of the causes and consequences of the complex patterns of interdependencies connecting people and ecosystems within and across scales. Network approaches for conceptualizing and analysing these interdependencies offer one promising solution. Here, we present two advances we argue are needed to further this area of research: (i) a typology of causal assumptions explicating the causal aims of any given network-centric study of social-ecological interdependencies; (ii) unifying research design considerations that facilitate conceptualizing exactly what is interdependent, through what types of relationships and in relation to what kinds of environmental problems. The latter builds on the appreciation that many environmental problems draw from a set of core challenges that re-occur across contexts. We demonstrate how these advances combine into a comparative heuristic that facilitates leveraging case-specific findings of social-ecological interdependencies to generalizable, yet context-sensitive, theories based on explicit assumptions of causal relationships.

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