Greenhouse gases trap heat in the atmosphere, preventing infrared radiation from escaping into space and causing the Earth's temperature to rise. The cultivation of jatropha offers a powerful solution to reducing these emissions.
Common Greenhouse Gases
| Gas | Formula | Primary Source |
|---|---|---|
| Water Vapor | H2O | Evaporation |
| Carbon Dioxide | CO2 | Fossil Fuel Combustion |
| Methane | CH4 | Agriculture, Landfills |
| Nitrous Oxide | N2O | Fertilizers, Industry |
| Ozone | O3 | Photochemical Reactions |
| Sulphur Hexafluoride | SF6 | Industrial Processes |
Jatropha's Impact on Greenhouse Gases
Carbon Sequestration
Each jatropha tree absorbs approximately 8 kg of CO2 annually, actively removing carbon from the atmosphere.
Clean Fuel Production
Biodiesel from jatropha reduces CO2 emissions by 3.2 kg per liter compared to fossil diesel.
Biomass Utilization
Residues from oil extraction generate renewable electricity, further reducing carbon footprint.
Land Reclamation
Grows on degraded wastelands, preventing deforestation that releases stored CO2.
Balancing the Ecosystem
Jatropha biodiesel has a significant positive impact on reducing greenhouse gas emissions. The plants grow on wastelands with minimal irrigation while actively absorbing CO2, creating a net-negative carbon impact when processed into sustainable aviation fuel.
Aviation Fuel Blend
Jatropha-based biofuel can be blended 50/50 with conventional jet fuel, providing:
- Fuel Savings - 1.2% improvement in fuel efficiency
- Reduced Emissions - Lower CO2 output per flight mile
- Drop-In Solution - Compatible with existing aircraft engines
- Scalable Impact - Growing adoption by major airlines