Black soiling of an architectural limestone during two-year term exposure to urban air in the city of Granada (S Spain)

A two-year term aging test was carried out on a building limestone under different urban conditions in the city of Granada (Southern Spain) to assess its Cultural Heritage sustainability. For this purpose stone tablets were placed vertically at four sites with contrasting local pollution micro-envir...

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Veröffentlicht in:The Science of the total environment 2012-01, Vol.414 (1), p.564-575
Hauptverfasser: Urosevic, Maja, Yebra-Rodríguez, Africa, Sebastián-Pardo, Eduardo, Cardell, Carolina
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creator Urosevic, Maja
Yebra-Rodríguez, Africa
Sebastián-Pardo, Eduardo
Cardell, Carolina
description A two-year term aging test was carried out on a building limestone under different urban conditions in the city of Granada (Southern Spain) to assess its Cultural Heritage sustainability. For this purpose stone tablets were placed vertically at four sites with contrasting local pollution micro-environments and exposure conditions (rain-sheltered and unsheltered). The back (rain-sheltered) and the front (rain-unsheltered) faces of the stone tablets were studied for each site. The soiling process (surface blackening) was monitored through lightness (ΔL*) and chroma changes (ΔC*). Additionally atmospheric particles deposited on the stone surfaces and on PM10 filters during the exposure time were studied through a multianalytical approach including scanning electron microscopy (SEM-EDX), transmission electron microscopy (TEM) and micro-Raman spectroscopy. The identified atmospheric particles (responsible for stone soiling) were mainly soot and soil dust particles; also fly ash and aged salt particles were found. The soiling process was related to surface texture, exposure conditions and proximity to dense traffic streets. On the front faces of all stones, black soiling and surface roughness promoted by differential erosion between micritic and sparitic calcite were noticed. Moreover, it was found that surface roughness enhanced a feedback process that triggers further black soiling. The calculated effective area coverage (EAC) by light absorbing dust ranged from 10.2 to 20.4%, exceeding by far the established value of 2% EAC (limit perceptible to the human eye). Soiling coefficients (SC) were estimated based on square-root and bounded exponential fittings. Estimated black carbon (BC) concentration resulted in relatively similar SC for all studied sites and thus predicts the soiling process better than using particulate matter (PM10) concentration. ► A two-year term aging test was carried out on a building limestone under different urban conditions. ► The soiling process depends on surface texture and local micro-environments. ► Stone soiling was due to soot and soil, dust particles and fly ash. ► The estimated soiling coefficients were slightly lower than in other cities of Spain. ► Gypsum crust was developed during the first year of exposure.
doi_str_mv 10.1016/j.scitotenv.2011.11.028
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For this purpose stone tablets were placed vertically at four sites with contrasting local pollution micro-environments and exposure conditions (rain-sheltered and unsheltered). The back (rain-sheltered) and the front (rain-unsheltered) faces of the stone tablets were studied for each site. The soiling process (surface blackening) was monitored through lightness (ΔL*) and chroma changes (ΔC*). Additionally atmospheric particles deposited on the stone surfaces and on PM10 filters during the exposure time were studied through a multianalytical approach including scanning electron microscopy (SEM-EDX), transmission electron microscopy (TEM) and micro-Raman spectroscopy. The identified atmospheric particles (responsible for stone soiling) were mainly soot and soil dust particles; also fly ash and aged salt particles were found. The soiling process was related to surface texture, exposure conditions and proximity to dense traffic streets. On the front faces of all stones, black soiling and surface roughness promoted by differential erosion between micritic and sparitic calcite were noticed. Moreover, it was found that surface roughness enhanced a feedback process that triggers further black soiling. The calculated effective area coverage (EAC) by light absorbing dust ranged from 10.2 to 20.4%, exceeding by far the established value of 2% EAC (limit perceptible to the human eye). Soiling coefficients (SC) were estimated based on square-root and bounded exponential fittings. Estimated black carbon (BC) concentration resulted in relatively similar SC for all studied sites and thus predicts the soiling process better than using particulate matter (PM10) concentration. ► A two-year term aging test was carried out on a building limestone under different urban conditions. ► The soiling process depends on surface texture and local micro-environments. ► Stone soiling was due to soot and soil, dust particles and fly ash. ► The estimated soiling coefficients were slightly lower than in other cities of Spain. ► Gypsum crust was developed during the first year of exposure.</abstract><cop>Netherlands</cop><pub>Elsevier B.V</pub><pmid>22153605</pmid><doi>10.1016/j.scitotenv.2011.11.028</doi><tpages>12</tpages></addata></record>
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source MEDLINE; Elsevier ScienceDirect Journals
subjects air
Air pollution
Architectural heritage
Atmospheric particles
Black soiling
Building limestone
calcite
Calcium Carbonate - analysis
carbon
Cities
Coal Ash - analysis
Color
Construction Materials - analysis
cultural heritage
exposure duration
filters
fly ash
limestone
limestone soils
Microscopy, Electron, Scanning
Microscopy, Electron, Transmission
Particulate Matter - analysis
particulates
pollution
salts
Salts - analysis
scanning electron microscopy
soil erosion
Soot - analysis
Spain
Spectrophotometry
spectroscopy
Spectrum Analysis, Raman
Surface Properties
surface roughness
texture
traffic
transmission electron microscopy
title Black soiling of an architectural limestone during two-year term exposure to urban air in the city of Granada (S Spain)
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