Modelling light-absorbing particle-snow-radiation interactions and impacts on snow albedo: Fundamentals, recent advances and future directions

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Abstract

Abstract: Snow albedo plays a critical role in the Earth system through a strong positive climate feedback, modulating surface energy and water balance. Light-absorbing particles (LAPs), including black carbon, mineral dust, brown carbon, volcanic ash and snow algae, have been found to substantially reduce snow albedo and accelerate snow/ice melting across the global cryosphere. In the past decades, substantial observational and modelling efforts have been made to advance the understanding and quantification of LAP-snow-radiation interactions and impacts on snow albedo and hydro-climate, with important uncertainties still remaining. Here we provide a unique review of the fundamentals and recent scientific advances in modelling LAP-snow-radiation interactions from microscopic (particle level) to macroscopic (bulk snow optical properties and albedo) perspectives. We also discuss the current challenges and potential research directions on this topic to shed light on future studies.

Original languageEnglish
JournalEnvironmental Chemistry
DOIs
StateAccepted/In press - 2022

Keywords

  • aerosol
  • climate
  • global cryosphere
  • light absorption and scattering
  • light-absorbing particles
  • snow albedo
  • snow radiative transfer
  • solar radiation

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