Record-Breaking Climate Trends Briefing – July 19, 2016

  • Released Tuesday, July 19, 2016

Two key climate change indicators have broken numerous records through the first half of 2016, according to NASA analyses of ground-based observations and satellite data.

Each of the first six months of 2016 set a record as the warmest respective month globally in the modern temperature record, which dates to 1880. Meanwhile, five of the first six months set records for the smallest monthly Arctic sea ice extent since consistent satellite records began in 1979.

NASA will host a media teleconference at 1:00 PM EDT on Tuesday, July 19, to discuss the latest insights into these two key climate indicators, and what this means for our future climate.

Participating in the briefing:
Gavin Schmidt, director of Goddard Institute for Space Studies (GISS), New York, New York
Walt Meier, sea ice scientist at NASA's Goddard Space Flight Center in Greenbelt, Maryland
Charles Miller, science co-lead for the Arctic Boreal Vulnerability Experiment at NASA's Jet Propulsion Laboratory in Pasadena, California
Nathan Kurtz, project scientist for NASA's Operation IceBridge at NASA’s Goddard Space Flight Center in Greenbelt, Maryland

For more information:
2016 Climate Trends Continue to Break Records

Figure 1 (Schmidt) –– This color-coded map in Robinson projection displays global surface temperature anomalies for the period January 2016 through June 2016. Higher than normal temperatures are shown in red and lower then normal termperatures are shown in blue.Credit: NASA/GISS

Figure 1 (Schmidt) –– This color-coded map in Robinson projection displays global surface temperature anomalies for the period January 2016 through June 2016. Higher than normal temperatures are shown in red and lower then normal termperatures are shown in blue.

Credit: NASA/GISS

 Figure 2 (Schmidt) –– A graph of the global mean surface temperature for the six-month period of January through June of each year from 1880-2016.  The numbers are the differences from the pre-industrial era, calculated as the average mean surface temperature of 1880-1899.Credit: NASA/GISS

Figure 2 (Schmidt) –– A graph of the global mean surface temperature for the six-month period of January through June of each year from 1880-2016. The numbers are the differences from the pre-industrial era, calculated as the average mean surface temperature of 1880-1899.

Credit: NASA/GISS

Figure 3 (Meier) -- Chart showing the difference between the 1981-2010 average extent of Arctic sea ice and each year's maximum extent. Years with a larger extent of sea ice are colored red and years with a smaller extent of sea ice are colored blue.Credit: NASA/Meier

Figure 3 (Meier) -- Chart showing the difference between the 1981-2010 average extent of Arctic sea ice and each year's maximum extent. Years with a larger extent of sea ice are colored red and years with a smaller extent of sea ice are colored blue.

Credit: NASA/Meier

Figure 4 (Meier) -- Map showing the number of days, earlier or later than the long-term average, when sea ice began to melt in the Arctic.Credit: NASA/Meier

Figure 4 (Meier) -- Map showing the number of days, earlier or later than the long-term average, when sea ice began to melt in the Arctic.

Credit: NASA/Meier

Figure 5 (Meier) -- Map showing how much the barometric pressure in the Arctic differed from the long-term average.Credit: NASA/Meier

Figure 5 (Meier) -- Map showing how much the barometric pressure in the Arctic differed from the long-term average.

Credit: NASA/Meier

Figure 7 (Kurtz) -- A large melt pond is seen out the window of NASA's HU-25C Guardian Falcon aircraft during an Operation IceBridge flight over the Beaufort Sea on July 14, 2016, to measure the characteristics of melt ponds on the surface of Arctic sea ice.Credit: NASA/Richard J. Yasky

Figure 7 (Kurtz) -- A large melt pond is seen out the window of NASA's HU-25C Guardian Falcon aircraft during an Operation IceBridge flight over the Beaufort Sea on July 14, 2016, to measure the characteristics of melt ponds on the surface of Arctic sea ice.

Credit: NASA/Richard J. Yasky

Figure 8 (Kurtz) -- Chunks of sea ice, melt ponds and open water are all seen in this image captured at an altitude of 1,500 feet by the NASA's Digital Mapping System instrument during an Operation IceBridge flight over the Chukchi Sea on Saturday, July 16, 2016. Credit: NASA

Figure 8 (Kurtz) -- Chunks of sea ice, melt ponds and open water are all seen in this image captured at an altitude of 1,500 feet by the NASA's Digital Mapping System instrument during an Operation IceBridge flight over the Chukchi Sea on Saturday, July 16, 2016.

Credit: NASA

Figure 9 (Miller) -- Smoke rises into the air from a large fire in the boreal forest north of Fort Providence, Canada, on June 26, 2014.Credit: Flickr user KyleWiTh

Figure 9 (Miller) -- Smoke rises into the air from a large fire in the boreal forest north of Fort Providence, Canada, on June 26, 2014.

Credit: Flickr user KyleWiTh

Figure 10 (Miller) –– Animated GIF of false-color satellite images of Alaska's forests on June 14, 2015, before the fire season intensified, and on September 1, 2015, after the major fires had been controlled.  The images are from the Moderate Resolution Imaging Spectroradiometer (MODIS) on NASA's Terra and Aqua satellites, respectively.  More information can be found at  NASA's Earth ObservatoryView the June 14, 2015, MODIS imageView the September 1, 2015, MODIS imageCredit: Jeff Schmaltz, LANCE/EOSDIS Rapid Response

Figure 10 (Miller) –– Animated GIF of false-color satellite images of Alaska's forests on June 14, 2015, before the fire season intensified, and on September 1, 2015, after the major fires had been controlled. The images are from the Moderate Resolution Imaging Spectroradiometer (MODIS) on NASA's Terra and Aqua satellites, respectively. More information can be found at NASA's Earth Observatory

View the June 14, 2015, MODIS image

View the September 1, 2015, MODIS image

Credit: Jeff Schmaltz, LANCE/EOSDIS Rapid Response

Figure 11 (Miller) -- Photographs taken in the same place in 1987 and 2013 on Herschel Island, Yukon Territory, Canada, show the expanded growth of shrubs as the Arctic has warmed in recent decades.Credit: Myers-Smith et al, Ambio

Figure 11 (Miller) -- Photographs taken in the same place in 1987 and 2013 on Herschel Island, Yukon Territory, Canada, show the expanded growth of shrubs as the Arctic has warmed in recent decades.

Credit: Myers-Smith et al, Ambio

Figure 12 (Miller) -- At continental scales, satellite data since the 1980s have indicated increased vegetation productivity (greening) across northern high latitudes, and a productivity decline (browning) for certain areas of undisturbed boreal forest of Canada and Alaska. This image shows the change in the vegetation trend over Canada and Alaska between 1984 and 2012. Green colors indicate an increase while brown colors indicate a decrease.Credit: NASA/GSFC/Scientific Visualization Studio/Cindy Starr

Figure 12 (Miller) -- At continental scales, satellite data since the 1980s have indicated increased vegetation productivity (greening) across northern high latitudes, and a productivity decline (browning) for certain areas of undisturbed boreal forest of Canada and Alaska. This image shows the change in the vegetation trend over Canada and Alaska between 1984 and 2012. Green colors indicate an increase while brown colors indicate a decrease.

Credit: NASA/GSFC/Scientific Visualization Studio/Cindy Starr



Credits

Please give credit for this item to:
NASA's Goddard Space Flight Center

Release date

This page was originally published on Tuesday, July 19, 2016.
This page was last updated on Tuesday, November 14, 2023 at 12:19 AM EST.


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