Feasibility study of a space-based high pulse energy 2  μm CO₂ IPDA lidar

Keyphrases

• Space-based 100%
• High Pulse Energy 100%
• Integrated Path Differential Absorption Lidar 100%
• CO2 Measurement 66%
• Integrated Path Differential Absorption 66%
• Water Vapor 33%
• Simultaneous Measurement 33%
• Detection System 33%
• Measurement Capability 33%
• Technology Development 33%
• Systematic Error 33%
• Direct Detection 33%
• Random Error 33%
• Optical Depth 33%
• Loading Conditions 33%
• Thin Cloud 33%
• Absorption Feature 33%
• Strong Absorption 33%
• Dry Air 33%
• Parameter Dependence 33%
• Atmospheric Measurements 33%
• Earth Surface 33%
• Recent Technology 33%
• HgCdTe 33%
• Continental Scale 33%
• Carbon Dioxide CO2 33%
• Weight Function 33%
• Aerosol Loading 33%
• Surface Measurement 33%
• Atmospheric Model 33%
• Signal Averaging 33%
• Line Broadening 33%
• Avalanche Photodiode 33%
• Surface Target 33%
• Weight Measurement 33%
• Aerosol Model 33%
• Reference Surface 33%
• Railroad Valley 33%

Engineering

• Feasibility Study 100%
• Optical Radar 100%
• Pulse Energy 100%
• Broadening 50%
• Systematic Error 50%
• Random Error 50%
• Loading Condition 50%
• Direct Detection 50%
• Dry Air 50%
• Railway 50%
• Target Surface 50%
• Signal Averaging 50%
• Avalanche Photodiode 50%
• Technological Development 50%
• Reference Surface 50%

Earth and Planetary Sciences

• Differential Absorption Lidar 100%
• Feasibility Study 100%
• Carbon Dioxide 100%
• Atmospherics 25%
• State of the Art 12%
• Near-Surface Geology 12%
• Earth Surface 12%
• Technological Development 12%
• Systematic Error 12%
• Random Error 12%