An advanced double-pulsed 2-micron integrated path differential absorption lidar has been developed at NASA Langley Research Center for measuring atmospheric carbon dioxide. The instrument utilizes a state-of-the-art 2-micron laser transmitter with tunable on-line wavelength and advanced receiver. Instrument modeling and airborne simulations are presented in this paper. Focusing on random errors, results demonstrate instrument capabilities of performing precise carbon dioxide differential optical depth measurement with less than 3% random error for single-shot operation from up to 11 km altitude. This study is useful for defining CO2 measurement weighting, instrument setting, validation and sensitivity trade-offs
The societal benefits of understanding climate change through identification of global carbon dioxid...
An airborne 2-micron triple-pulse integrated path differential absorption (IPDA) lidar is currently ...
An airborne 2-micron double-pulsed Integrated Path Differential Absorption (IPDA) lidar has been dev...
An advanced double-pulse 2-μm integrated path differential absorption lidar has been developed at NA...
An advanced double-pulse 2-μm integrated path differential absorption lidar has been developed at NA...
Double-pulse 2-micron lasers have been demonstrated with energy as high as 600 millijouls and up to ...
Carbon dioxide (CO2) is an important greenhouse gas that significantly contributes to the carbon cyc...
The 2-micron wavelength region is suitable for atmospheric carbon dioxide (CO2) measurements due to ...
An airborne 2 micron triple-pulse integrated path differential absorption (IPDA) lidar is currently ...
A CO2 lidar double-pulse two-micron high-energy transmitter, tuned to on- and off-line absorption wa...
For more than 15 years, NASA Langley Research Center (LaRC) has contributed in developing several 2-...
NASA LaRC is developing and integrating a double-Pulsed 2-micron direct detection IPDA lidar for CO2...
The societal benefits of understanding climate change through identification of global carbon dioxid...
NASA Langley Research Center (LaRC) developed a double pulsed, high energy 2-micron Integrated Path ...
Development of a novel triple-pulsed 2-m direct detection Integrated Path Differential Absorption (I...
The societal benefits of understanding climate change through identification of global carbon dioxid...
An airborne 2-micron triple-pulse integrated path differential absorption (IPDA) lidar is currently ...
An airborne 2-micron double-pulsed Integrated Path Differential Absorption (IPDA) lidar has been dev...
An advanced double-pulse 2-μm integrated path differential absorption lidar has been developed at NA...
An advanced double-pulse 2-μm integrated path differential absorption lidar has been developed at NA...
Double-pulse 2-micron lasers have been demonstrated with energy as high as 600 millijouls and up to ...
Carbon dioxide (CO2) is an important greenhouse gas that significantly contributes to the carbon cyc...
The 2-micron wavelength region is suitable for atmospheric carbon dioxide (CO2) measurements due to ...
An airborne 2 micron triple-pulse integrated path differential absorption (IPDA) lidar is currently ...
A CO2 lidar double-pulse two-micron high-energy transmitter, tuned to on- and off-line absorption wa...
For more than 15 years, NASA Langley Research Center (LaRC) has contributed in developing several 2-...
NASA LaRC is developing and integrating a double-Pulsed 2-micron direct detection IPDA lidar for CO2...
The societal benefits of understanding climate change through identification of global carbon dioxid...
NASA Langley Research Center (LaRC) developed a double pulsed, high energy 2-micron Integrated Path ...
Development of a novel triple-pulsed 2-m direct detection Integrated Path Differential Absorption (I...
The societal benefits of understanding climate change through identification of global carbon dioxid...
An airborne 2-micron triple-pulse integrated path differential absorption (IPDA) lidar is currently ...
An airborne 2-micron double-pulsed Integrated Path Differential Absorption (IPDA) lidar has been dev...