Climatología urbana por modificación antropogénica. Alteración del balance de energía natural
Keywords:
Climatología, Islas de calor, hábitat.Abstract
La investigación valora el análisis climático histórico para establecer la temperatura y humedad relativa media, en contraste con la climatología urbana por modificación antropogénica estudio de caso, y su contribución de consigna fijado para invierno y verano que son las estaciones críticas. El procedimiento metodológico a implementar, apoya a los planificadores urbanos a no tener que participar científicamente para evaluar el emplazamiento térmico de sus proyectos y por lo tanto se puede acelerar el proceso de diseño sin comprometer el énfasis en el contexto urbano sustentable. Con base a los resultados se establecen las islas de calor urbano y su huella térmica en el hábitat. El objetivo de la presente investigación es determinar la climatología urbana por modificación antropogénica y su alteración a la calidad del hábitat en Tampico, México.Downloads
References
Adrian, Chong Zhun Min; Hien, Wong Nyuk;
Marcel, Ignatius; Kardinal, Jusuf Steve. (2013).
Predicting the envelope performance of commercial
office buildings in Singapore. Energy and Buildings.
Volumen: 66. 66-76.
Allegrini, Jonas; Dorer, Viktor; Carmeliet, Jan.
(2012). Influence of the urban microclimate in street
canyons on the energy demand for space cooling
and heating of buildings. Energy and Buildings.
Volumen: 55. 823-832.
Anniballe, Roberta; Bonafoni, Stefania; Pichierri,
Manuele. (2014). Spatial and temporal trends of the
surface and air heat island over Milan using MODIS
data. Remote Sensing of Environment. Volumen:
163-171.
Berger, Tania; Amann, Christof; Formayer, Herbert;
Korjenic, Azra; Pospichal, Bernhard; Neururer,
Christoph; Smutny, Roman. (2014). Impacts of
urban location and climate change upon energy
demand of office buildings in Vienna, Austria.
Building and Environment. Volumen: 81. 258-269.
Buyadi, Siti nor Afzan; Mohd, Wan Mohd Naim
Wan; Misni, Alamah. (2013). Green Spaces Growth
Impact on the Urban Microclimate. Asia Pacific
International Conference on Environment-Behaviour
Studies (AicE-Bs 2013) London. Volumen:
547-557.
CONAGUA. (2015). “Climatología de Tampico,
México”. Comisión Nacional del Agua. Servicio
Meteorológico Nacional. Recuperado de
<http://smn.cna.gob.mx>. [10 de enero de 2015].
Coseo, Paul; Larsen, Larissa. (2014). How factors of
land use/land cover, building configuration, and
adjacent heat sources and sinks explain Urban Heat
Islands in Chicago. Landscape and Urban Planning.
Volumen: 125. 117-129.
Cotana, Franco; Rossi, Federico; Filipponi, Mirko;
Coccia, Valentina; Pisello, Anna Laura; Bonamente,
Emanuele; Petrozzi, Alessandro; Cavalaglio,
Gianluca. (2014). Albedo control as an effective
strategy to tackle Global Warming: A case study.
Applied Energy. Volumen: 130. 641-647.
Dimoudi, A; Kantzioura, A; Zoras, S; Pallas, C;
Kosmopoulos, P. (2013). Investigation of urban
microclimate parameters in an urban center. Energy
and Buildings. Volumen: 64. 1-9.
Feng, Huihui; Zhao, Xiaofeng; Chen, Feng; Wu,
Lichun. (2014). Using land use change trajectories to
quantify the effects of urbanization on urban heat
island. Advances in Space Research. Volumen: 53.
-473.
Feyisa, Gudina Legese; Dons, Klaus; Meilby,
Henrik. (2014). Efficiency of parks in mitigating
urban heat island effect: An example from Addis
Ababa. Landscape and Urban Planning. Volumen:
87-95.
Fuentes Pérez, Carlos Alberto. (2011). Evaluación
del comportamiento térmico de la vivienda tradicional
y la vivienda común en Tampico, México.
Tesis Doctoral. Programa de Doctorado en Arquitectura
con Orientación en Vivienda. Facultad de Arquitectura,
Diseño y Urbanismo de la Universidad
Autónoma de Tamaulipas. Tampico, Tamaulipas.
México.
Futcher, Julie Ann; Kershaw, Tristan; Mills, Gerald.
(2013). Urban form and function as building performance
parameters. Building and Environment. Volumen:
112-123.
Gago, EJ; Roldan, J; Pacheco-Torres, R; Ordoñez, J.
(2013). The city and urban heat islands: A review of
strategies to mitigate adverse effects. Renewable &
Sustainable Energy Reviews. Volumen: 25. 749-758.
Giannaros, T. M.; Melas, D.; Daglis, I. A.; Keramitsoglou,
I. (2014). Development of an operational modeling system for urban heat islands: an application
to Athens, Greece. Natural Hazards and Earth
System Sciences. Volumen: 14. 347-358.
Goldberg, Valeri; Kurbjuhn, Cornelia; Bernhofer,
Christian. (2013). How relevant is urban planning
for the thermal comfort of pedestrians? Numerical
case studies in two districts of the City of Dresden
(Saxony/Germany). Meteorologische Zeitschrift.
Volumen: 22. 739-751.
Ho, Hung Chak; Knudby, Anders; Sirovyak, Paul;
Xu, Yongming; Hodul, Matus; Henderson, Sarah B.
(2014). Mapping maximum urban air temperature
on hot summer days. Remote Sensing of Environment.
Volumen: 154. 38-45.
Kuttler, W. (2010). Urban climate. Gefahrstoffe
Reinhaltung Der Luft. Volumen: 70. 329-340.
Lee, Jong Soo; Kim, Jeong Tai; Lee, Myung Gi.
(2014). Mitigation of urban heat island effect and
green roofs. Indoor and Built Environment. Volumen:
62-69.
Lee, Sungwon; Lee, Bumsoo. (2014). the influence
of urban form on GHG emissions in the US household
sector. Energy Policy. Volumen: 68. 534-549.
Lenzholzer, Sanda; Brown, Robert D. (2013).
Climate-responsive landscape architecture design
education. Journal of Cleaner Production. Volumen:
89-99.
Millward, Andrew A.; Torchia, Melissa; Laursen,
Andrew E.; Rothman, Lorne D. (2014). Vegetation
Placement for Summer Built Surface Temperature
Moderation in an Urban Microclimate. Environmental
Management. Volumen: 53. 1043-1057.
NOAA U.S. National Oceanic and Atmospheric.
(2015). “2015 The Hottest Ever Year – Another call
to Immediate Climate Action”. Recuperado de:
<http://www.ncdc.noaa.gov/sotc/summary-info/global/2014/12.>
de junio de 2015].
Oke, T.R. (1976). Boundary layer climates. London,
Methuen.
Oke, T. R. (2006). Towards better scientific communication
in urban climate. Theoretical and Applied
Climatology. Volumen: 84. 179-190.
Pathirana, Assela; Denekew, Hailu B.; Veerbeek,
William; Zevenbergen, Chris; Banda, Allan T.
(2014). Impact of urban growth-driven landuse
change on microclimate and extreme precipitation -
A sensitivity study. Atmospheric Research. Volumen:
59-72.
Perini, Katia; Magliocco, Adriano. (2014). Effects of
vegetation, urban density, building height, and
atmospheric conditions on local temperatures and
thermal comfort. Urban Forestry & Urban Greening.
Volumen: 13. 495-506.
Planeta Vivo. (2015). “Constantes vitales en tiempo
real. Energía”. Recuperado de <http://www.planeta-vivo.com/energia/el-hemisfer
-
io-norte-se-ahoga-en-co2/>. [18 de enero de 2015].
Radhi, Hassan; Sharples, Stephen. (2013). Quantifying
the domestic electricity consumption for air-conditioning
due to urban heat islands in hot arid
regions. Applied Energy. Volumen: 112. 371-380.
Sánchez-González, Diego (2011). Peligrosidad y
exposición a los ciclones tropicales en ciudades del
Golfo de México. El caso de Tampico, Revista de
Geografía Norte Grande, Número: 50. 151-170.
Singh, Ram Babu; Grover, Aakriti; Zhan, Jinyan.
(2014). Inter-Seasonal Variations of Surface Temperature in the Urbanized Environment of Delhi Using
Landsat Thermal Data. Energies. Volumen: 7.
-1828.
Taylor, J.; Davies, M; Mavrogianni, A; Chalabi, Z;
Biddulph, P; Oikonomou, E; Das, P; Jones, B.
(2014). The relative importance of input weather
data for indoor overheating risk assessment in dwellings.
Building and Environment. Volumen: 76.
-91.
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