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Derivation of spatially distributed thermal comfort levels in Jordan as investigated from remote sensing, GIS tools, and computational methods

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Abstract

Thermal comfort is usually calculated using discrete point measurements. This procedure is not suitable to study thermal comfort for inhabited areas with rugged terrains where climate gradient is high. The wide availability of remote sensing data and GIS tools has revolutionized data management, processing, and visualization. The present paper implemented digital elevation data, GIS tools, and a computational algorithm to generate spatially continuous maps of climatological elements which were employed to derive thermal comfort levels across Jordan. Results show detailed information of the spatial distribution of the degree of thermal comfort in winter and summer across the country which cannot be resolved using discrete point measurements. It is shown that most mountainous areas in the country, where most urban centers are situated, experience “slightly warm” to “warm” indoor apparent temperatures in summer in 50% of the diurnal cycle. The Jordan Valley and the desert experience high indoor apparent temperatures in summer with warm and hot conditions for the most part of the diurnal cycle. Cold conditions prevail over most parts of the country in winter, with the heating degree days ranging from 2200 in the southern mountains to values close to zero near the Dead Sea area. Mountainous and desert areas experience cold or very cold conditions in more than 75% of the diurnal cycle. The presented procedure demonstrated that the very low levels of ambient vapor pressure is an important atmospheric forcing contributing to the widespread cold conditions prevailing over the desert areas in winter. The efficiency of direct evaporative cooling systems to achieve thermal comfort in the various parts of the country is investigated. The procedure presented can be used over regional scales with different levels of spatial resolutions for a wide range of climatological studies.

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Funding

Financial support to author was provided by Mu’tah University, Jordan: Grant no. 2019/21.

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  1. Mu’tah University, Karak, Jordan

    Ibrahim M. Oroud

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Correspondence to Ibrahim M. Oroud.

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Oroud, I.M. Derivation of spatially distributed thermal comfort levels in Jordan as investigated from remote sensing, GIS tools, and computational methods. Theor Appl Climatol 148, 569–583 (2022). https://doi.org/10.1007/s00704-022-03951-7

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