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contributor authorGrimmond, C. S. B.
contributor authorBlackett, M.
contributor authorBest, M. J.
contributor authorBarlow, J.
contributor authorBaik, J-J.
contributor authorBelcher, S. E.
contributor authorBohnenstengel, S. I.
contributor authorCalmet, I.
contributor authorChen, F.
contributor authorDandou, A.
contributor authorFortuniak, K.
contributor authorGouvea, M. L.
contributor authorHamdi, R.
contributor authorHendry, M.
contributor authorKawai, T.
contributor authorKawamoto, Y.
contributor authorKondo, H.
contributor authorKrayenhoff, E. S.
contributor authorLee, S-H.
contributor authorLoridan, T.
contributor authorMartilli, A.
contributor authorMasson, V.
contributor authorMiao, S.
contributor authorOleson, K.
contributor authorPigeon, G.
contributor authorPorson, A.
contributor authorRyu, Y-H.
contributor authorSalamanca, F.
contributor authorShashua-Bar, L.
contributor authorSteeneveld, G-J.
contributor authorTombrou, M.
contributor authorVoogt, J.
contributor authorYoung, D.
contributor authorZhang, N.
date accessioned2017-06-09T16:33:40Z
date available2017-06-09T16:33:40Z
date copyright2010/06/01
date issued2010
identifier issn1558-8424
identifier otherams-70004.pdf
identifier urihttp://onlinelibrary.yabesh.ir/handle/yetl/4211738
description abstractA large number of urban surface energy balance models now exist with different assumptions about the important features of the surface and exchange processes that need to be incorporated. To date, no comparison of these models has been conducted; in contrast, models for natural surfaces have been compared extensively as part of the Project for Intercomparison of Land-surface Parameterization Schemes. Here, the methods and first results from an extensive international comparison of 33 models are presented. The aim of the comparison overall is to understand the complexity required to model energy and water exchanges in urban areas. The degree of complexity included in the models is outlined and impacts on model performance are discussed. During the comparison there have been significant developments in the models with resulting improvements in performance (root-mean-square error falling by up to two-thirds). Evaluation is based on a dataset containing net all-wave radiation, sensible heat, and latent heat flux observations for an industrial area in Vancouver, British Columbia, Canada. The aim of the comparison is twofold: to identify those modeling approaches that minimize the errors in the simulated fluxes of the urban energy balance and to determine the degree of model complexity required for accurate simulations. There is evidence that some classes of models perform better for individual fluxes but no model performs best or worst for all fluxes. In general, the simpler models perform as well as the more complex models based on all statistical measures. Generally the schemes have best overall capability to model net all-wave radiation and least capability to model latent heat flux.
publisherAmerican Meteorological Society
titleThe International Urban Energy Balance Models Comparison Project: First Results from Phase 1
typeJournal Paper
journal volume49
journal issue6
journal titleJournal of Applied Meteorology and Climatology
identifier doi10.1175/2010JAMC2354.1
journal fristpage1268
journal lastpage1292
treeJournal of Applied Meteorology and Climatology:;2010:;volume( 049 ):;issue: 006
contenttypeFulltext


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