Abstract Changes in the distribution of coastal macrophytes in Greenland, and elsewhere in
the Arctic are difficult to quantify as the region remains challenging to access and monitor …

The synergistic use of Landsat-8 operational land imager (OLI) and Sentinel-2 multispectral
instrument (MSI) data products provides an excellent opportunity to monitor the dynamics of …

Climate change is altering patterns of precipitation, cryosphere thaw, and land–ocean
influxes, affecting understudied Arctic estuarine tidal flats. These transitional zones between …

Optical remote sensing using unmanned aerial vehicles (UAVs) is proposed to monitor
changes in marine environments effectively. Optical measurements were performed using a …

The growing need for marine polar observations, especially using remote sensing data,
necessitates the adaptation of existing algorithms to local conditions. Five satellite imageries …

Arctic coastal margins receive organic material input from rivers, melted sea ice, and coastal
erosion, phenomena that are all undergoing changes related to global climate. The optical …

Arctic coasts, which feature land-ocean transport of freshwater, sediments, and other
terrestrial material, are impacted by climate change, including increased temperatures …

The Arctic is greatly affected by climate change. Increasing air temperatures drive permafrost
thaw and an increase in coastal erosion and river discharge. This results in a greater input of …

The Arctic is changing rapidly and permafrost is thawing. Especially ice-rich permafrost,
such as the late Pleistocene Yedoma, is vulnerable to rapid and deep thaw processes such …

The coastal domain of the Arctic is in rapid change with shifts in discharge phenology and
catchment characteristics. Riverine discharge shapes hydrography, under water light …