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Seasonal and Diurnal Characteristics and Drivers of Urban Heat Island Based on Optimal Parameters-Based Geo-Detector Model in Xinjiang, China

In the context of sustainable urban development, elucidating urban heat island (UHI) dynamics in arid regions is crucial. By thoroughly examining the characteristics of UHI variations and potential driving factors, cities can implement effective strategies to reduce their impacts on the environment...

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Published in:Atmosphere 2024-11, Vol.15 (11), p.1377
Main Authors: Chen, Han, Mamitimin, Yusuyunjiang, Abulizi, Abudukeyimu, Huang, Meiling, Tao, Tongtong, Ma, Yunfei
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Mamitimin, Yusuyunjiang
Abulizi, Abudukeyimu
Huang, Meiling
Tao, Tongtong
Ma, Yunfei
description In the context of sustainable urban development, elucidating urban heat island (UHI) dynamics in arid regions is crucial. By thoroughly examining the characteristics of UHI variations and potential driving factors, cities can implement effective strategies to reduce their impacts on the environment and public health. However, the driving factors of a UHI in arid regions remain unclear. This study analyzed seasonal and diurnal variations in a surface UHI (SUHI) and the potential driving factors using Pearson’s correlation analysis and an Optimal Parameters-Based Geographic Detector (OPGD) model in 22 cities in Xinjiang, northwest China. The findings reveal that the average annual surface urban heat island intensity (SUHII) values in Xinjiang’s cities were 1.37 ± 0.86 °C, with the SUHII being most pronounced in summer (2.44 °C), followed by winter (2.15 °C), spring (0.47 °C), and autumn (0.40 °C). Moreover, the annual mean SUHII was stronger at nighttime (1.90 °C) compared to during the daytime (0.84 °C), with variations observed across seasons. The seasonal disparity of SUHII in Xinjiang was more significant during the daytime (3.91 °C) compared to nighttime (0.39 °C), with daytime and nighttime SUHIIs decreasing from summer to winter. The study also highlights that the city size, elevation, vegetation cover, urban form, and socio-economic factors (GDP and population density) emerged as key drivers, with the GDP exerting the strongest influence on SUHIIs in cities across Xinjiang. To mitigate the UHI effects, measures like urban environment enhancement by improving surface conditions, blue–green space development, landscape optimization, and economic strategy adjustments are recommended.
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subjects Arid regions
Arid zones
Cities
Climate
Correlation analysis
Daytime
Diurnal variations
driving factors
Economic factors
Economic growth
Economics
Energy consumption
Environmental aspects
Environmental impact
GDP
Green development
Green infrastructure
Gross Domestic Product
Heat
Impact factors
Land use
Night
Night-time
Nighttime
optimal parameters-based geographic detector
Parameters
Plant cover
Population
Population density
Public health
Remote sensing
Research methodology
seasonal and diurnal characteristics
Sensors
Socioeconomic aspects
Socioeconomic factors
Socioeconomics
Summer
Sustainable development
Urban areas
Urban development
Urban environments
urban heat island
Urban heat islands
Urbanization
Vegetation
Vegetation cover
Winter
title Seasonal and Diurnal Characteristics and Drivers of Urban Heat Island Based on Optimal Parameters-Based Geo-Detector Model in Xinjiang, China
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