A researcher prepares to launch a balloon for atmosphere studies on the North Slope.
A researcher prepares to launch a balloon for atmosphere studies on the North Slope.
SNL
A red and white weather balloon aloft with a red tethered line attached to it.
A tethered balloon at Oliktok Point measures ice droplets to determine their effects on surface temperatures.
SNL

On Earth Day, look north to the Arctic! DOE invests in research to better understand the Arctic’s importance to our Earth’s overall sustainability.

Let’s explore some of the Arctic projects funded by the DOE Office of Science:

Atmospheric Radiation Measurement

What do changes in the Earth’s atmosphere mean for the Arctic and the planet’s future? DOE lab researchers and university scientists are looking for the answers in clouds, precipitation patterns and ice data from the north slope of Alaska. Data from fixed instruments, balloons, unmanned aircraft—and even a snowflake camera—at the ARM observatories on the North Slope of Alaska have given scientists insight into weather patterns, air/water temperatures, and sea ice. For example, they collected data on how liquid and ice in Arctic clouds act as blankets to warm the surface by reducing the cooling that happens naturally by radiation into space. Their research--conducted year-round, often in darkness and in sub-zero temperatures--is critical to our ability to predict and understand climate change impacts.  . 

earth model showing North and South America with a temperature gradient in the oceans.
This image from the E3SM model shows the Earth's surface temperature.
E3SM.org

Energy Exascale Earth System Modeling (E3SM)

Climate forecasting accuracy is dramatically increasing with high performance supercomputers at the national labs that analyze global climate data at resolutions 30 times finer than previous typical resolution for global climate models. Scientists can capture weather events, such as cold snaps, with more accuracy.

With more accurate data on weather variables--including snowfall, humidity, sunlight, and wind--they can more accurately model climate change impacts. For example, the models can help researchers predict Arctic air and water temperatures that lead to sea ice retreat and sea-level rise, and forecast coastal flooding, which can impact Arctic ports, fishing operations, or community infrastructure.

Researchers huddle over instruments in Alaska for NGEE Arctic field work.
Researchers prepare to measure Arctic plant structure and function to gain insight into how they might be adapting to a changing climate.
LBNL
This graphic shows the relationships among hydrology and vegetation to understand energy and carbon transfer.
This graphic shows the relationships between hydrology and vegetation being studied in NGEE Arctic.
Office of Science

Next-Generation Ecosystem Experiments (NGEE Arctic)

Data collected from Arctic tundra, forests and permafrost areas will improve understanding of how climate change affects Arctic vegetation. Experiments conducted near Utqiaġvik and Nome shed light on how water, nitrogen, carbon, and energy interact. Understanding these links between land, precipitation, and vegetation enables scientists to better predict how plants—and the Earth’s ecosystems--will respond to future climate change.

For example, warmer summers and increased permafrost melting can lead colder water to flow into Arctic streams, affecting vegetation and the wildlife depending on it. Lab researchers hope to better understand if and where the Arctic becomes wetter or drier, and the implications for ecosystems throughout Alaska and around the world.

By gathering and analyzing the data from these and other Arctic-related projects, scientists are working to help us answer questions that are vital to our energy future. Making decisions about our future energy generation, transmission and delivery begins with accurate forecasting and data.

Carolyn Hinkley
Carolyn Hinkley serves as the Communications Director for the Arctic Energy Office.
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