Global performance analysis of a solar-driven indoor CO₂/H₂O capture system for air quality enhancement and cooling energy saving

Keyphrases

• Formaldehyde 100%
• Indoor Air Quality 100%
• Air Quality 100%
• Ambient Air 100%
• CO2 Emissions 100%
• Indoor CO2 100%
• Capture System 100%
• Cooling Energy Consumption 100%
• Solar-driven 100%
• Global Performance Analysis 100%
• Air Conditioning 66%
• Humidity 66%
• Energy Saving Potential 66%
• Eco-friendly Building 66%
• Indoor CO2 Concentration 66%
• High Temperature 33%
• Mechanical Ventilation 33%
• CO2 Concentration 33%
• High Energy 33%
• Tropical Region 33%
• System Stability 33%
• Indoor Air 33%
• Subtropical Region 33%
• Ventilation Strategy 33%
• Cooling Energy 33%
• High Humidity 33%
• Solar Irradiance 33%
• Ventilation Method 33%
• Air Conditioning Load 33%
• System Feasibility 33%
• CO2 Emission Reduction 33%
• Low Carbon Emission 33%
• Air Recirculation 33%
• Off-design Condition 33%
• Capture CO2 33%
• Sub-ambient Temperature 33%
• Variable Sensitivity Analysis 33%
• Energy Burden 33%
• Green Ventilation 33%
• Dakar 33%
• Direct Capture 33%

Engineering

• Air Quality 100%
• Capture System 100%
• Energy Conservation 100%
• Performance Analysis 100%
• Indoor Air 100%
• Air Conditioning 75%
• Ambient Air 75%
• Relative Humidity 50%
• Design Condition 25%
• Air Recirculation 25%
• Carbon Dioxide Capture 25%
• Irradiance 25%