Multi-functional coupling-based rural ecological pattern construction and network prioritization evaluation: A case study of Jiangning District, Nanjing

被引:5
作者
Zhang, Qing-Hai [1 ,2 ]
Wang, Jia-Bei [1 ,3 ]
机构
[1] Nanjing Agr Univ, Coll Hort, Nanjing 210095, Peoples R China
[2] Minist Agr, Key Lab Landscaping, Nanjing 210095, Peoples R China
[3] Southeast Univ, Sch Architecture, Nanjing 210096, Peoples R China
关键词
Multi -functional coupling; Rural ecological pattern; Circuit theory; Water -land corridor; Priority evaluation; HABITAT PATCHES; URBANIZATION; EVOLUTION; IMPACT; MSPA; CITY;
D O I
10.1016/j.ecolind.2024.112277
中图分类号
X176 [生物多样性保护];
学科分类号
090705 ;
摘要
Multi -functional coupling evaluation of land use is the basis of rural land use coordination and allocation, and it is the key to determine the inherent function combination pattern of urban land use and the dynamic trade-offs between functions, which is of great theoretical and practical significance, but a set of feasible coupling methodology has not been constructed for a long time. In this study, we constructed a functional classification system for rural ecological -production -living space (PLES), systematically integrated the accounting function groups of spatial functional values, optimize the ecological sources (ESs) and form an ecological pattern in line with the rural human settlement environment. The topologized network is extracted by using linkage mapper, and the network priority is evaluated by combining with sDNA plug-in. The results of the study demonstrate that:1) Four types of patches, namely, low coupling, antagonistic, friction, and coordinated coupling, with areas of 497.03, 93.38, 434.91, and 287.61 km 2 , respectively, were identified, which provided a theoretical basis for the spatial survival of PLES coupling and the spatial selection of rural source sites. 2) The comprehensive evaluation yielded 20 source sites accounting for 11.05 % of the total area. The overall pattern of ESs is "more at the edge and less in the center ". Compared with the selection based on the dPC results and the minimum area threshold, the combination of the coupling surface results is more adaptable to the development needs of the rural areas under the multiple scenarios. Ecological corridors (ECs) are 46 in number, with a total length of 426.13 km, which are evenly distributed in the region. The construction of ECs in combination with rivers is more in line with the habitat characteristics of Jiangnan water towns, and is conducive to the symbiosis of blue-green ecological space. 3) The priority of the ecological corridor network evaluates 7 preferred corridors, based on the structural optimization perspective, which provides an effective path based on low -impact exploitation for the rapid construction of the habitat network in rural areas. 4) A multi -level composite ecological pattern of "one belt, three corridors and three wedges " was integrated. This study constructed a multi -functional coupled refined evaluation system. It explored the ecological pattern in line with the ecological context of the combination of multi -river and hilly habitats in the rural areas of Jiangnan, and had some innovations in technical methods in the links such as prioritization evaluation. Overall, it created a replicable ecological security pattern construction and optimization path in the same type of area.
引用
收藏
页数:14
相关论文
共 63 条
[11]   Identification and spatial-temporal evolution of rural "production-living-ecological" space from the perspective of villagers' behavior - A case study of Ertai Town, Zhangjiakou City [J].
Duan, Yaming ;
Wang, Hui ;
Huang, An ;
Xu, Yueqing ;
Lu, Longhui ;
Ji, Zhengxin .
LAND USE POLICY, 2021, 106
[12]   Identifying priority areas for ecological conservation and restoration based on circuit theory and dynamic weighted complex network: A case study of the Sichuan Basin [J].
Gao, Cheng ;
Pan, Hongyi ;
Wang, Mengchao ;
Zhang, Tianyi ;
He, Yanmei ;
Cheng, Jianxiong ;
Yao, Caiyi .
ECOLOGICAL INDICATORS, 2023, 155
[13]   Integrating ecosystem services and rocky desertification into identification of karst ecological security pattern [J].
Gao, Jiangbo ;
Du, Fujun ;
Zuo, Liyuan ;
Jiang, Yuan .
LANDSCAPE ECOLOGY, 2021, 36 (07) :2113-2133
[14]   An integrated evaluation framework for Land-Space ecological restoration planning strategy making in rapidly developing area [J].
Han, Bo ;
Jin, Xiaobin ;
Xiang, Xiaomin ;
Rui, Sun ;
Zhang, Xiaolin ;
Jin, Zhifeng ;
Zhou, Yinkang .
ECOLOGICAL INDICATORS, 2021, 124
[15]   Integrating Risk-Conflict assessment for constructing and optimizing ecological security patterns of Polder landscape in the Urban-Rural fringe [J].
Han, Pingyang ;
Xiong, Haojun ;
Hu, Haozhi ;
Zhou, Jiayan ;
Wang, Min .
ECOLOGICAL INDICATORS, 2024, 166
[16]   Incorporating circuit theory, complex networks, and carbon offsets into the multi-objective optimization of ecological networks: A case study on karst regions in China [J].
Huang, Kexin ;
Peng, Li ;
Wang, Xiaohui ;
Deng, Wei ;
Liu, Ying .
JOURNAL OF CLEANER PRODUCTION, 2023, 383
[17]   Mapping an ecological network of green habitat patches and their role in maintaining urban biodiversity in and around Debrecen city (Eastern Hungary) [J].
Huse, Bernadett ;
Szabo, Szilard ;
Deak, Balazs ;
Tothmeresz, Bela .
LAND USE POLICY, 2016, 57 :574-581
[18]   Quantitative identification and the evolution characteristics of production-living-ecological space in the mountainous area: From the perspective of multifunctional land [J].
Ji, Zhengxin ;
Liu, Chao ;
Xu, Yueqing ;
Sun, Minxuan ;
Wei, Hejie ;
Sun, Danfeng ;
Li, Yaoyao ;
Zhang, Ping ;
Sun, Qiangqiang .
JOURNAL OF GEOGRAPHICAL SCIENCES, 2023, 33 (04) :779-800
[19]  
Jin X., 2018, ACTA ECOL SIN, V38, P4286, DOI DOI 10.5846/stxb201801310267
[20]  
Lan Y., 2023, Landsscape Architecture, V30, P131