NASA - National Aeronautics and Space Administration

The field campaign—called Blue Carbon Prototype Products for Mangrove Methane and Carbon Dioxide Fluxes (BLUEFLUX)—is designed to measure the methane and carbon dioxide changes at key wetlands around the Caribbean. Field teams took samples from the ground, while NASA’s Carbon Airborne Flux Experiment (CARAFE) aircraft measured methane emissions from the same locations from above. The broader goal of the campaign is to link ground and aerial data with satellite observations using machine learning and artificial intelligence algorithms in order to produce a daily methane flux dataset for the Caribbean region.

Understanding Earth and the complex influences on our planet’s climate are some of the biggest challenges of our times, and we need all the help we can get to tackle them. But, in the last 40 years, the minority representation in geosciences – meaning Earth, atmosphere, and ocean sciences – has remained relatively low despite its increase in proportion of the U.S. population. This summer, in an effort to address that, a new NASA program welcomed its first class of students.

A NASA aircraft will fly over the I-95 corridor from Washington to Baltimore and Hampton, Virginia, in support of an atmospheric campaign in the mid-Atlantic region between July 5 and 16, 2022.

NASA’s ER-2 high-altitude aircraft No. 806 returned to flight after three years of significant modifications and heavy maintenance.

In December 2021, 53 students from various universities across the United States majoring in sciences, mathematics, and engineering were selected to fly on NASA Armstrong’s DC-8 Airborne Science Laboratory, as part of the NASA Ames’ Student Airborne Research Program (SARP).

NASA’s Investigation of Microphysics and Precipitation for Atlantic Coast-Threatening Storms (IMPACTS) mission, which began in January and is planned to wrap up at the end of February, has seen upwards of 10 flights so far.

Goddard Media Studios reports on IMPACTS - watch their video chronicles of our February 3rd science flight!

Andrew Janiszeski and Troy Zaremba blow up a weather balloon in a dark hotel lobby. The weather was calm last night when they drove into Plymouth, Massachusetts, but this morning a blizzard is raging outside. Snow is piling up in the hotel parking lot, wind gusts are near 70mph, and the power is out – but they have a job to do.

After a year delay due to the COVID-19 pandemic, 53 students flew on NASA’s DC-8 as part of NASA’s Student Airborne Research Project (SARP).
Now in its thirteenth year, SARP offers opportunities to undergraduate students from various universities across the United States who are majoring in sciences, mathematics, and engineering to participate in a NASA research campaign.

Using instruments at sea and in the sky, the Sub-Mesoscale Ocean Dynamics Experiment (S-MODE) team aims to understand the role these ocean processes play in vertical transport, the movement of heat, nutrients, oxygen, and carbon from the ocean surface to the deeper ocean layers below. In addition, scientists think these small-scale ocean features play an important role in the exchange of heat and gases between air and sea. Understanding small-scale ocean dynamics will help scientists better understand how Earth’s oceans slow the impact of global warming and impact the Earth climate system.

For more than a decade, dozens of students from across the United States traveled to California to collect air samples aboard NASA research aircraft. Since 2009, about 30 students every year have studied Earth and airborne science as part of the NASA Student Airborne Research Program, or SARP, summer internship. Although COVID-19 restrictions impacted SARP 2020 and lingered in 2021, student interns continued to receive hands-on research experience using Earth and atmospheric science datasets.

NASA and university scientists will be studying the intense summer thunderstorms over the central United States to understand their effects on Earth’s atmosphere and how it contributes to climate change.

Cleaner-burning jet fuels made from sustainable sources can produce 50%-70% fewer ice crystal contrails at cruising altitude, reducing aviation’s impact on the environment, according to research conducted by NASA and the German Aerospace Center (DLR).

After a 13-month delay to the start of science operations due to COVID-19, the Submesoscale Ocean Dynamics and Vertical Transport Experiment (S-MODE) investigation has officially started collecting data with a short field campaign that began on May 3. This campaign features flights based at the NASA Armstrong Flight Research Center (AFRC) main campus in Edwards, CA on the AFRC B200, a deployment of instrumented ocean Wave Gliders from the Woods Hole Oceanographic Institution (WHOI) and the Scripps Institution of Oceanography (SIO) that look at currents at depth and other environmental conditions, and a Twin Otter International (TOI) aircraft. The B200 is equipped with the JPL Doppler Scatterometry instrument (DopplerScatt) that measures ocean surface velocity and wind, and UCLA’s Multiscale Observing System of the Ocean Surface (MOSES) that measures sea surface temperature (SST). The TOI Twin Otter carries the SIO Modular Aerial Sensing System (MASS), which measures sea surface topography, SST, ocean color, and ocean surface waves.
 
The week of May 3 marked a number of long-awaited firsts for S-MODE. On Monday, the first flight on the B200 with the combined payload of the JPL DopplerScatt and UCLA MOSES instruments flew lines between Catalina and San Clemente islands — an area of strong ocean currents. The research activities on Friday, centered at  Office of Naval Research experiment site about 350 km offshore of Los Angeles, allowed the science team to conduct joint operations for the first time among the four instruments listed above. This combination of instruments represents some of the key measurements that will be made during future S-MODE campaigns. Demonstrating successful joint operations among these platforms is a key milestone for the S-MODE investigation, and the science team is very pleased with the resulting data so far.
 
The current experiment will continue until May 18 in preparation for the S-MODE October Pilot campaign, whose flight operations will be based at NASA Ames Research Center.

S-MODE is supported by the Earth System Science Pathfinder (ESSP) Program Office at NASA Langley Research Center through the Earth Venture Suborbital-3 program and managed by the Earth Science Project Office (ESPO) at NASA Ames Research Center.

Picture:  Pilots Jim Less (NASA AFRC) and Mike Stewart (NASA ARC) and instrument investigators Jeroen Molemaker (UCLA) and Federica Polverari (JPL) before takeoff of RF4 on May 7, 2021. (Photo J. Piotrowski, AFRC)