Satellite imagery indicates that the floating terminus of Pine Island Glacier has changed little in extent over the past two decades. Data on the velocity and thickness of the glacier reveal that calving of 28 ± 4 Gt a-1 accounts for only half of the ice input near the grounding line. The apparently steady configuration implies that the remainder of the input is lost by basal melting at a mean rate of 12 ± 3 m a-1. Ocean circulation in Pine Island Bay transports +1°C waters beneath the glacier and temperatures recorded in melt-laden outflows show that heat loss from the ocean is consistent with the requirements of the calculated melt rate. The combination of iceberg calving and basal melting lies at the lower end of estimates for the total ...
Glacial melt can modify heat transport, and therefore ocean processes, associated with ice front ret...
Over the past 40 years Pine Island Glacier in West Antarctica has thinned at an accelerating rate, s...
Iceberg calving has been assumed to be the dominant cause of mass loss for the Antarctic ice sheet, ...
Ice shelves play a key role in the mass balance of the Antarctic ice sheets by buttressing their sea...
Pine Island Glacier currently experiences the largest negative ice sheet mass balance in comparison ...
Observations from satellite and airborne platforms are combined with model calculations to infer the...
The first oceanographic measurements across a deep channel beneath the calving front of Pine Island ...
The Pine Island Glacier ice-drainage basin has been cited as the part of the West Antarctic ice shee...
Retreat of the grounding lines of West Antarctic ice streams may lead to the collapse of the West An...
Satellite radar measurements show that ice shelves in Pine Island Bay have thinned by up to 5.5 m yr...
Satellite radar measurements show that ice shelves in Pine Island Bay have thinned by up to 5.5 m yr...
Thinning ice in West Antarctica, resulting from acceleration in the flow of outlet glaciers, is at p...
In the Amundsen sector of West Antarctica, the flow of glaciers accelerates when intrusion of warm o...
In the Amundsen sector of West Antarctica, the flow of glaciers accelerates when intrusion of warm o...
The first oceanographic measurements across a deep channel beneath the calving front of Pine Island ...
Glacial melt can modify heat transport, and therefore ocean processes, associated with ice front ret...
Over the past 40 years Pine Island Glacier in West Antarctica has thinned at an accelerating rate, s...
Iceberg calving has been assumed to be the dominant cause of mass loss for the Antarctic ice sheet, ...
Ice shelves play a key role in the mass balance of the Antarctic ice sheets by buttressing their sea...
Pine Island Glacier currently experiences the largest negative ice sheet mass balance in comparison ...
Observations from satellite and airborne platforms are combined with model calculations to infer the...
The first oceanographic measurements across a deep channel beneath the calving front of Pine Island ...
The Pine Island Glacier ice-drainage basin has been cited as the part of the West Antarctic ice shee...
Retreat of the grounding lines of West Antarctic ice streams may lead to the collapse of the West An...
Satellite radar measurements show that ice shelves in Pine Island Bay have thinned by up to 5.5 m yr...
Satellite radar measurements show that ice shelves in Pine Island Bay have thinned by up to 5.5 m yr...
Thinning ice in West Antarctica, resulting from acceleration in the flow of outlet glaciers, is at p...
In the Amundsen sector of West Antarctica, the flow of glaciers accelerates when intrusion of warm o...
In the Amundsen sector of West Antarctica, the flow of glaciers accelerates when intrusion of warm o...
The first oceanographic measurements across a deep channel beneath the calving front of Pine Island ...
Glacial melt can modify heat transport, and therefore ocean processes, associated with ice front ret...
Over the past 40 years Pine Island Glacier in West Antarctica has thinned at an accelerating rate, s...
Iceberg calving has been assumed to be the dominant cause of mass loss for the Antarctic ice sheet, ...