Chemical Meters/Analyzers
2021-03-08 07:49:20.0 [tstevens] insert AltLabel (id: null category: primary text: COmpact Formaldehyde FluorescencE Experiment language code: en); insert Definition (id: null text: The NASA GSFC COmpact Formaldehyde FluorescencE Experiment (COFFEE) instrument measures formaldehyde (CH2O) using a nonresonant laser induced fluorescence (LIF) technique. Originally designed to fly in the unpressurized pod of the Alpha Jet, COFFEE is capable of operation on both pressurized and unpressurized (high-altitude) aircraft. COFFEE possesses the high sensitivity, fast time response, and dynamic range needed to observe CH2O throughout the troposphere and lower stratosphere. Formaldehyde is produced via the oxidation of hydrocarbons, notably methane (a ubiquitous greenhouse gas) and isoprene (the primary hydrocarbon emitted by vegetation). Observations of CH2O can thus provide information on many atmospheric processes, including: - Convective transport of air from the surface to the upper troposphere - Emissions of reactive hydrocarbons from cities, forests, and fires - Atmospheric oxidizing capacity, which relates to formation of ozone and destruction of methane In situ observations of CH2O are also crucial for validating retrievals from satellite instruments, such as OMI, TROPOMI, and TEMPO. language code: en);
2021-03-08 07:47:48.0 [tstevens] Insert Concept add broader relation (COFFEE [84dccb6c-ce3d-416e-bac5-169eead0c515,560910] - Chemical Meters/Analyzers [3d25724b-832f-4a61-b0b2-4f2ccecdba94,543779]);
The NASA GSFC COmpact Formaldehyde FluorescencE Experiment (COFFEE) instrument measures formaldehyde (CH2O) using a nonresonant laser induced fluorescence (LIF) technique. Originally designed to fly in the unpressurized pod of the Alpha Jet, COFFEE is capable of operation on both pressurized and unpressurized (high-altitude) aircraft. COFFEE possesses the high sensitivity, fast time response, and dynamic range needed to observe CH2O throughout the troposphere and lower stratosphere. Formaldehyde is produced via the oxidation of hydrocarbons, notably methane (a ubiquitous greenhouse gas) and isoprene (the primary hydrocarbon emitted by vegetation). Observations of CH2O can thus provide information on many atmospheric processes, including: - Convective transport of air from the surface to the upper troposphere - Emissions of reactive hydrocarbons from cities, forests, and fires - Atmospheric oxidizing capacity, which relates to formation of ozone and destruction of methane In situ observations of CH2O are also crucial for validating retrievals from satellite instruments, such as OMI, TROPOMI, and TEMPO.
COFFEE