Glaciers in High Mountain Asia, many of which exhibit surface debris, contain the largest volume of ice outside of the polar regions. Many contain supraglacial pond networks that enhance melt rates locally, but no large‐scale assessment of their impact on melt rates exists. Here we use surface energy balance modeling forced using locally measured meteorological data and monthly satellite‐derived pond distributions to estimate the total melt enhancement for the four main glaciers within the 400‐km2 Langtang catchment, Nepal, for a 6‐month period in 2014. Ponds account for 0.20 ± 0.03 m/year of surface melt, representing a local melt enhancement of a factor of 14 ± 3 compared with the debris‐covered area, and equivalent to 12.5 ± 2.0% of tota...
Glaciers in High Mountain Asia generate meltwater that supports the water needs of 250 million peopl...
Many Himalayan glaciers are characterised in their lower reaches by a rock debris layer. This debris...
Understanding the future evolution of Himalayan glaciers is important in terms of runoff that provid...
Glaciers in High Mountain Asia, many of which exhibit surface debris, contain the largestvolume of i...
Supraglacial ponds on debris-covered glaciers present a mechanism of atmosphere/glacier energy trans...
Supraglacial debris covers 7% of mountain glacier area globally and generally reduces glacier surfac...
Surface ponds play a key role in transferring atmospheric energy to the ice for debris-covered glaci...
Meltwater from glacierized catchments in the Himalaya is a vital freshwater resource for one fifth o...
This document is the accepted manuscript version. An edited version of this paper was published by A...
Meltwater and runoff from glaciers in High Mountain Asia is a vital freshwater resource for one‐fift...
Supraglacial ponds play a key role in absorbing atmospheric energy and directing it to the ice of de...
The water storage and energy transfer roles of supraglacial ponds are poorly constrained, yet they a...
The hydrological systems of heavily-downwasted debris-covered glaciers differ from those of clean-ic...
Surface melting of High Mountain Asian debris-covered glaciers shapes the seasonal water supply to m...
Glaciers in High Mountain Asia generate meltwater that supports the water needs of 250 million peopl...
Many Himalayan glaciers are characterised in their lower reaches by a rock debris layer. This debris...
Understanding the future evolution of Himalayan glaciers is important in terms of runoff that provid...
Glaciers in High Mountain Asia, many of which exhibit surface debris, contain the largestvolume of i...
Supraglacial ponds on debris-covered glaciers present a mechanism of atmosphere/glacier energy trans...
Supraglacial debris covers 7% of mountain glacier area globally and generally reduces glacier surfac...
Surface ponds play a key role in transferring atmospheric energy to the ice for debris-covered glaci...
Meltwater from glacierized catchments in the Himalaya is a vital freshwater resource for one fifth o...
This document is the accepted manuscript version. An edited version of this paper was published by A...
Meltwater and runoff from glaciers in High Mountain Asia is a vital freshwater resource for one‐fift...
Supraglacial ponds play a key role in absorbing atmospheric energy and directing it to the ice of de...
The water storage and energy transfer roles of supraglacial ponds are poorly constrained, yet they a...
The hydrological systems of heavily-downwasted debris-covered glaciers differ from those of clean-ic...
Surface melting of High Mountain Asian debris-covered glaciers shapes the seasonal water supply to m...
Glaciers in High Mountain Asia generate meltwater that supports the water needs of 250 million peopl...
Many Himalayan glaciers are characterised in their lower reaches by a rock debris layer. This debris...
Understanding the future evolution of Himalayan glaciers is important in terms of runoff that provid...