A colossal iceberg, estimated to be at least a dozen houses long, capsized off the coast of Greenland, triggering waves described as tsunami-like and sending clouds of mist hundreds of feet into the air. The dramatic event occurred near the UNESCO-listed Ilulissat Icefjord on Greenland's west coast.
Sped-up footage captured the immense ice mass tipping over and towering above the nearby settlement. Despite the powerful waves generated by the capsizing, no injuries were reported.
Some observers have speculated that the El Niño climate pattern, which has caused unusually warm surface water temperatures in the Pacific, may have contributed to the iceberg's instability. El Niño events are known to alter global weather patterns for several months, and elevated temperatures are expected to persist into the following year. Climate scientists are concerned that the current El Niño could develop into a 'Godzilla' or 'Super' El Niño by December, potentially causing sea surface temperatures to rise significantly above normal. Such an event could be among the strongest recorded since 1950, with fears it could rival the 1877 El Niño that led to severe global droughts, crop failures, and an estimated 50 million deaths.
The Ilulissat Icefjord is a significant area where the Greenland ice sheet meets the sea. It is home to Sermeq Kujalleq, one of the world's fastest and most active glaciers, which sheds approximately 46 cubic kilometers of ice annually in the form of icebergs. Some of this ice is estimated to be as old as 250,000 years, making it the largest source of icebergs outside of Antarctica.
Earlier this year, the world observed the disintegration of A-23A, formerly the world's largest iceberg. This 'megaberg', which weighed nearly a trillion tons and spanned approximately 1,540 square miles, originally calved from Antarctica's Filchner Ice Shelf in 1986. After remaining grounded on the seabed, it began a slow drift in 2020, eventually traveling over 2,000 miles north before breaking apart. Its final months saw extensive melting and fragmentation, reducing its size significantly before it ultimately disintegrated.