Tropospheric anthropogenic aerosols contribute the second-largest forcing to climate
change, but with high uncertainty owing to their spatio-temporal variability and complicated …

Even though desert dust is the most abundant aerosol by mass in Earth's atmosphere, the
relative contributions of the world's major source regions to the global dust cycle remain …

The Geoengineering Model Intercomparison Project (GeoMIP) is a coordinating framework,
started in 2010, that includes a series of standardized climate model experiments aimed at …

The effect of an increase in atmospheric aerosol concentrations on the distribution and
radiative properties of Earth's clouds is the most uncertain component of the overall global …

As the atmosphere warms, part of the cloud population shifts from ice and mixed-phase
('cold') to liquid ('warm') clouds. Because warm clouds are more reflective and longer-lived …

Even though desert dust is the most abundant aerosol by mass in Earth's atmosphere,
atmospheric models struggle to accurately represent its spatial and temporal distribution …

Understanding and estimating regional climate change under different anthropogenic
emission scenarios is pivotal for informing societal adaptation and mitigation measures …

The change in planetary albedo due to aerosol− cloud interactions during the industrial era
is the leading source of uncertainty in inferring Earth's climate sensitivity to increased …

Abstract Fine particulate matter (PM 2.5) and surface ozone (O 3) are major air pollutants in
megacities such as Delhi, but the design of suitable mitigation strategies is challenging …

Multiple recent record-shattering weather events raise questions about the adequacy of
climate models to effectively predict and prepare for unprecedented climate impacts on …