Primary biological aerosol particles (PBAP) play an important role in the climate system,
facilitating the formation of ice within clouds, consequently PBAP may be important in …

The Arctic is very susceptible to climate change and thus is warming much faster than the
rest of the world. Clouds influence terrestrial and solar radiative fluxes and thereby impact …

The Arctic environment is rapidly changing due to accelerated warming in the region. The
warming trend is driving a decline in sea ice extent, which thereby enhances feedback loops …

The Arctic region is sensitive to climate change and is warming faster than the global
average. Aerosol particles change cloud properties by acting as cloud condensation nuclei …

The roles of Arctic aerosols as ice-nucleating particles remain poorly understood, even
though their effects on cloud microphysics are crucial for assessing the climate sensitivity of …

The aerosol particles serving as cloud condensation and ice nuclei contribute to key cloud
processes associated with cold-air outbreak (CAO) events but are poorly constrained in …

Secondary organic aerosols (SOAs) account for a large fraction of atmospheric fine particles,
but the mechanisms of their formation and evolution processes remain unclear. In this study …

Black carbon (BC) is a short-lived climate forcer affecting the Arctic climate through multiple
mechanisms, which vary substantially from winter to summer. Several models still fail in …

The sizes and shapes of ice crystals influence the radiative properties of clouds, as well as
precipitation initiation and aerosol scavenging. However, ice crystal growth mechanisms …

Mixed-phase clouds (MPCs) are key players in the Arctic climate system due to their role in
modulating solar and terrestrial radiation. Such radiative interactions rely, among other …