Advances in Meteorology · 2014 · 25 citations · 37 references
Natural SciencesEarth SciencesEnvironmental SciencesAir PollutionAtmospheric RadiationAtmospheric ScienceAerosol ChemistryAerosol PhysicsAerosol Radiative EffectsFire HazardsParticulate MatterRadiative ForcingAbsorption CoefficientsAerosol Optical PropertiesAerosol PropertiesAerosol Radiative ForcingAerosol Radiative Heating EffectsAtmospheric Heating RatesOptical DepthRadiative Cooling
During Diwali festival, extensive burning of crackers and fireworks is made. Weeklong intensive observational campaign for aerosol study was carried out at a representative urban location in the eastern Indo-Gangetic Plain (IGP), Varanasi (25.3°N, 83.0°E), from October 29 to November 04, 2005 (Diwali on November 01, 2005), to investigate behavioral change of aerosol properties and radiative forcing between firework affected and nonaffected periods. Results show a substantial increase (~27%) in aerosol optical depth, aerosol absorption coefficients, and aerosol scattering coefficients during affected period as compared to non-affected periods. Magnitudes of radiative forcing at top of atmosphere during affected and non-affected periods are found to be +10 ± 1 and +12 ± 1 Wm −2 , respectively, which are −31 ± 7 and −17 ± 5 Wm −2 , respectively, at surface. It suggests an additional cooling of ~20% at top of atmosphere, ~45% cooling at surface, and additional atmospheric heating of 0.23 Kday −1 during fireworks affected period, which is ~30% higher than the non-affected period average.
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Climate Change 2001: The Scientific Basis
Richard N. Cooper, J. T. Houghton, James J. McCarthy et al. · Foreign Affairs · 2002 · 13K citations
Natural Sciences, Earth Sciences, Environmental Sciences +14
Oceanic phytoplankton, atmospheric sulphur, cloud albedo and climate
Robert J. Charlson, J. E. Lovelock, Meinrat O. Andreae et al. · Nature · 1987 · 4.4K citations