Clustering Urban Multifunctional Landscapes Using the Self-Organizing Feature Map Neural Network Model

AbstractMultifunctionality in urban ecosystems has received much attention in the last decade from researchers and policy makers. This paper provides research on urban multifunctional landscape clustering, using the city of Shenzhen, China, as a case study. Utilizing the self-organizing feature map...

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Veröffentlicht in:Journal of urban planning and development 2014-06, Vol.140 (2)
Hauptverfasser: Gao, Yang, Feng, Zhe, Wang, Yang, Liu, Jin-Long, Li, Shuang-Cheng, Zhu, Yu-Kun
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container_issue 2
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container_title Journal of urban planning and development
container_volume 140
creator Gao, Yang
Feng, Zhe
Wang, Yang
Liu, Jin-Long
Li, Shuang-Cheng
Zhu, Yu-Kun
description AbstractMultifunctionality in urban ecosystems has received much attention in the last decade from researchers and policy makers. This paper provides research on urban multifunctional landscape clustering, using the city of Shenzhen, China, as a case study. Utilizing the self-organizing feature map (SOFM) neural network model, six different landscape functional indices were identified, and urban multifunctional landscape regionalization produced five major units. According to SOFM clustering results, each region had its respective primary function, such as gas regulation, water supply, human nature regulation, soil environmental regulation, economy, and cultural priority. The gas regulation ecological supporting region (Zone I) covers 490.5  km2, with long coastline form a nature-dominated, less human-influenced physical environment; the water supply ecological supporting region (Zone II) is 25.8  km2, and river network density reaches 0.986  km/km2, supporting function of water conservation and water supply; the mountain forest environmental regulating region is Zone III, 377.7  km2 with substantial forest cover; covering the largest area of 547.8  km2, zone type (IV) represents soil regulation region; the fifth zone type (V), on the west coast, is definitely a human-dominated region. The results show that the human and nature interfaced peri-urban region is the most affected and threatened area in the city. Under the control of urban sprawling local regulation, the urban population growth would slow down, but there is no convincing evidence that the limitation of build up land have negative influence on the urban economy. Thereafter, the authors analyzed the functions of each unit and compared the SOFM clustering technique with the traditional K-means clustering method. The result revealed that both methods are effective and appropriate for regionalization of urban multifunctional landscapes, but SOFM has advantages in identifying spatial patterns. Finally, approaches to achieve sustainable urban development were illustrated and their importance highlighted for policymakers and stakeholders.
doi_str_mv 10.1061/(ASCE)UP.1943-5444.0000170
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This paper provides research on urban multifunctional landscape clustering, using the city of Shenzhen, China, as a case study. Utilizing the self-organizing feature map (SOFM) neural network model, six different landscape functional indices were identified, and urban multifunctional landscape regionalization produced five major units. According to SOFM clustering results, each region had its respective primary function, such as gas regulation, water supply, human nature regulation, soil environmental regulation, economy, and cultural priority. The gas regulation ecological supporting region (Zone I) covers 490.5  km2, with long coastline form a nature-dominated, less human-influenced physical environment; the water supply ecological supporting region (Zone II) is 25.8  km2, and river network density reaches 0.986  km/km2, supporting function of water conservation and water supply; the mountain forest environmental regulating region is Zone III, 377.7  km2 with substantial forest cover; covering the largest area of 547.8  km2, zone type (IV) represents soil regulation region; the fifth zone type (V), on the west coast, is definitely a human-dominated region. The results show that the human and nature interfaced peri-urban region is the most affected and threatened area in the city. Under the control of urban sprawling local regulation, the urban population growth would slow down, but there is no convincing evidence that the limitation of build up land have negative influence on the urban economy. Thereafter, the authors analyzed the functions of each unit and compared the SOFM clustering technique with the traditional K-means clustering method. The result revealed that both methods are effective and appropriate for regionalization of urban multifunctional landscapes, but SOFM has advantages in identifying spatial patterns. 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The gas regulation ecological supporting region (Zone I) covers 490.5  km2, with long coastline form a nature-dominated, less human-influenced physical environment; the water supply ecological supporting region (Zone II) is 25.8  km2, and river network density reaches 0.986  km/km2, supporting function of water conservation and water supply; the mountain forest environmental regulating region is Zone III, 377.7  km2 with substantial forest cover; covering the largest area of 547.8  km2, zone type (IV) represents soil regulation region; the fifth zone type (V), on the west coast, is definitely a human-dominated region. The results show that the human and nature interfaced peri-urban region is the most affected and threatened area in the city. Under the control of urban sprawling local regulation, the urban population growth would slow down, but there is no convincing evidence that the limitation of build up land have negative influence on the urban economy. Thereafter, the authors analyzed the functions of each unit and compared the SOFM clustering technique with the traditional K-means clustering method. The result revealed that both methods are effective and appropriate for regionalization of urban multifunctional landscapes, but SOFM has advantages in identifying spatial patterns. 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This paper provides research on urban multifunctional landscape clustering, using the city of Shenzhen, China, as a case study. Utilizing the self-organizing feature map (SOFM) neural network model, six different landscape functional indices were identified, and urban multifunctional landscape regionalization produced five major units. According to SOFM clustering results, each region had its respective primary function, such as gas regulation, water supply, human nature regulation, soil environmental regulation, economy, and cultural priority. The gas regulation ecological supporting region (Zone I) covers 490.5  km2, with long coastline form a nature-dominated, less human-influenced physical environment; the water supply ecological supporting region (Zone II) is 25.8  km2, and river network density reaches 0.986  km/km2, supporting function of water conservation and water supply; the mountain forest environmental regulating region is Zone III, 377.7  km2 with substantial forest cover; covering the largest area of 547.8  km2, zone type (IV) represents soil regulation region; the fifth zone type (V), on the west coast, is definitely a human-dominated region. The results show that the human and nature interfaced peri-urban region is the most affected and threatened area in the city. Under the control of urban sprawling local regulation, the urban population growth would slow down, but there is no convincing evidence that the limitation of build up land have negative influence on the urban economy. Thereafter, the authors analyzed the functions of each unit and compared the SOFM clustering technique with the traditional K-means clustering method. The result revealed that both methods are effective and appropriate for regionalization of urban multifunctional landscapes, but SOFM has advantages in identifying spatial patterns. Finally, approaches to achieve sustainable urban development were illustrated and their importance highlighted for policymakers and stakeholders.</abstract><pub>American Society of Civil Engineers</pub><doi>10.1061/(ASCE)UP.1943-5444.0000170</doi></addata></record>
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source American Society of Civil Engineers:NESLI2:Journals:2014
subjects Case Studies
Case Study
Clustering
Control
Economics
Landscapes
Mathematical models
Neural networks
Policies
Water supplies
title Clustering Urban Multifunctional Landscapes Using the Self-Organizing Feature Map Neural Network Model
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