Atmospheric ice‐nucleating particles (INPs) play a critical role in cloud freezing processes,
with important implications for precipitation formation and cloud radiative properties, and …

Atmospheric soot and organic particles from fossil fuel combustion and biomass burning
modify Earth's climate through their interactions with solar radiation and through …

Shallow clouds covering vast areas of the world's middle-and high-latitude oceans play a
key role in dampening the global temperature rise associated with CO 2. These clouds …

Ice-nucleating particles (INPs) are rare atmospheric aerosols that initiate primary ice
formation, but accurately simulating their concentrations and variability in large-scale climate …

An advanced multiwavelength polarization Raman lidar was operated aboard the
icebreaker Polarstern during the MOSAiC (Multidisciplinary drifting Observatory for the Study …

We present retrievals of tropospheric and stratospheric height profiles of particle mass,
volume, and surface area concentrations in the case of wildfire smoke layers as well as …

Dust particles, serving as ice-nucleating particles (INPs), may impact the Arctic surface
energy budget and regional climate by modulating the mixed-phase cloud properties and …

Ice-nucleating particles (INPs) in biomass-burning aerosol (BBA) that affect cloud glaciation,
microphysics, precipitation, and radiative forcing were recently found to be driven by the …

Mixed-phase clouds are frequently observed in high-latitude regions and have important
impacts on the surface energy budget and regional climate. Marine organic aerosol (MOA) …

The amount of ice versus supercooled water in clouds is important for their radiative
properties and role in climate feedbacks. Hence, knowledge of the concentration of ice …