Anthropogenic heat in the city of São Paulo, Brazil

被引:0
作者
Mauricio Jonas Ferreira
Amauri Pereira de Oliveira
Jacyra Soares
机构
[1] University of São Paulo,Group of Micrometeorology, Department of Atmospheric Sciences, Institute of Astronomy, Geophysics and Atmospheric Sciences
[2] Departamento de Ciências Atmosféricas—IAG/USP,undefined
来源
Theoretical and Applied Climatology | 2011年 / 104卷
关键词
Urban Heat Island; Stationary Source; Daily Consumption; Seasonal Evolution; Urban Canopy;
D O I
暂无
中图分类号
学科分类号
摘要
The main goal of this work is to describe the anthropogenic energy flux (QF) in the city of São Paulo, Brazil. The hourly, monthly, and annual values of the anthropogenic energy flux are estimated using the inventory method, and the contributions of vehicular, stationary, and human metabolism sources from 2004 to 2007 are considered. The vehicular and stationary sources are evaluated using the primary consumption of energy based on fossil fuel, bio fuel, and electricity usage by the population. The diurnal evolution of the anthropogenic energy flux shows three relative maxima, with the largest maxima occurring early in the morning (∼19.9 Wm−2) and in the late afternoon (∼20.3 Wm−2). The relative maximum that occurs around noontime (∼19.6 Wm−2) reflects the diurnal pattern of vehicle traffic that seems to be specific to São Paulo. With respect to diurnal evolution, the energy flux released by vehicular sources (QFV) contributes approximately 50% of the total anthropogenic energy flux. Stationary sources (QFS) and human metabolism (QFM) represent about 41% and 9% of the anthropogenic energy flux, respectively. For 2007, the monthly values of QFV, QFS, QFM, and QF are, respectively, 16.8 ± 0.25, 14.3 ± 0.16, 3.5 ± 0.03, and 34.6 ± 0.41 MJ m−2 month−1. The seasonal evolution monthly values of QFV, QFS, QFM, and QF show a relative minimum during the summer and winter vacations and a systematic and progressive increase associated with the seasonal evolution of the economic activity in São Paulo. The annual evolution of QF indicates that the city of São Paulo released 355.2 MJ m−2 year−1 in 2004 and 415.5 MJ m−2 year−1 in 2007 in association with an annual rate of increase of 19.6 MJ m−2 year−1 (from 2004 to 2006) and 30.5 MJ m−2 year−1 (from 2006 to 2007). The anthropogenic energy flux corresponds to about 9% of the net radiation at the surface in the summer and 15% in the winter. The amplitude of seasonal variation of the maximum hourly value of the diurnal variation increases exponentially with latitude.
引用
收藏
页码:43 / 56
页数:13
相关论文
共 50 条
[41]   City expansion and urban heat island in Bogor [J].
Nurwanda, A. ;
Honjo, T. .
3RD INTERNATIONAL SYMPOSIUM FOR SUSTAINABLE LANDSCAPE DEVELOPMENT (ISSLD 2017), 2018, 179
[42]   The Urban Heat Island effect in the city of Toronto [J].
Wang, Yupeng ;
Berardi, Umberto ;
Akbari, Hashem .
DEFINING THE FUTURE OF SUSTAINABILITY AND RESILIENCE IN DESIGN, ENGINEERING AND CONSTRUCTION, 2015, 118 :137-144
[43]   The urban heat island effect and city contiguity [J].
Debbage, Neil ;
Shepherd, J. Marshall .
COMPUTERS ENVIRONMENT AND URBAN SYSTEMS, 2015, 54 :181-194
[44]   THE HEAT ISLAND IN THE CITY OF LLORET DE MAR [J].
Moreno Garcia, Maria del Carmen ;
Serra Pardo, Juan Antonio .
BOLETIN DE LA ASOCIACION DE GEOGRAFOS ESPANOLES, 2017, (73) :247-267
[45]   The urban heat island intensity in Hefei city [J].
Zha, Liangsong ;
Wang, Yingying ;
Wang, Xinyuan .
SIXTH INTERNATIONAL SYMPOSIUM ON DIGITAL EARTH: DATA PROCESSING AND APPLICATIONS, 2010, 7841
[46]   Estimating the building based energy consumption as an anthropogenic contribution to urban heat islands [J].
Boehme, Peter ;
Berger, Matthias ;
Massier, Tobias .
SUSTAINABLE CITIES AND SOCIETY, 2015, 19 :373-384
[47]   High-Resolution Mapping of Anthropogenic Heat in China from 1992 to 2010 [J].
Yang, Wangming ;
Chen, Bing ;
Cui, Xuefeng .
INTERNATIONAL JOURNAL OF ENVIRONMENTAL RESEARCH AND PUBLIC HEALTH, 2014, 11 (04) :4066-4077
[48]   Effect of retro-reflecting transparent window on anthropogenic urban heat balance [J].
Ichinose, Masayuki ;
Inoue, Takashi ;
Nagahama, Tsutomu .
ENERGY AND BUILDINGS, 2017, 157 :157-165
[49]   City-Heat Equity Adaptation Tool (City-HEAT): Multi-objective optimization of environmental modifications and human heat exposure reductions for urban heat adaptation under uncertainty [J].
Shi, Rui ;
Hobbs, Benjamin F. ;
Quinn, Julianne D. ;
Lempert, Robert ;
Knopman, Debra .
ENVIRONMENTAL MODELLING & SOFTWARE, 2023, 160
[50]   Assessing the Relationship between Urban Heat Islands and Local Climate Zones during a Winter Period in the Coastal City of Balneário Camboriú/SC, Brazil [J].
da Silva, Aline Nunes ;
Wollmann, Cassio Arthur ;
Iensse, Amanda Comassetto ;
Hoppe, Ismael Luiz ;
Baumhardt, Otavio de Freitas ;
Writzl, Luana ;
Costa, Iago Turba ;
Gobo, Joao Paulo Assis ;
Galvani, Emerson ;
Matzarakis, Andreas .
ATMOSPHERE, 2024, 15 (10)