Biochar is a natural process for improving soil fertility, sequestering carbon, and improve water retention. This unique method is an essential part of our regenerative agriculture plan. The key to this is to burn organic waste, such as crop residue and dead plants, in a controlled, no-oxygen environment. Biochar processing organic waste from cultivation to create highly activated carbon, in turn used as a organic fertilizer to improve soil health, agriculture soil fertility and reduce Green House Gas (GHG) emissions.
Rebalancing ecosystems and mitigating climate change through afforestation and reforestation projects. Our agroforestry approaches generate diversified, productive, and sustainable land-use systems by combining tree and shrub cultivation with crop and/or livestock production. This comprehensive approach improves the compatibility and synergy of many farm components, benefiting both the environment and the community.
AMPIVO Green focuses on the Agriculture, Forestry, and Other Land Use (AFOLU) sector to execute projects that reduce Greenhouse Gas (GHG) emissions, mitigate climate change, sequester carbon.
Advanced drone technology delivering precision carbon measurement for businesses seeking verified carbon credits. More accurate. More detailed. More trustworthy. Up to 91% coverage of Carbon Pool!
Why Drone-based Sequestration Outperforms Traditional Methods
Traditional Monitoring:
Ground-based carbon inventories demand extensive manual labor, specialized expertise, and time-intensive field measurements. These conventional methods frequently yield incomplete datasets with significant sampling biases and prohibitively high costs per acre assessed.
While satellite imagery offers broad geographical coverage, it fundamentally lacks the resolution necessary for precise carbon quantification, creating significant verification challenges for credit buyers seeking robust environmental impact investments.
Coverage: Limited to canopy assessment only, representing merely 2% of the total carbon pool and sequestering just 0.5-3.0 tCO2e per hectare
Our advanced UAV platforms operate at strategically optimized altitudes to capture ultra-high-resolution data, effectively bridging the critical gap between limited field sampling and broad satellite monitoring with exceptional time and cost efficiency.
Our drone technology delivers non-invasive, consistently repeatable measurements that precisely track dynamic carbon changes over time with standardized methodology—a fundamental requirement for credible carbon credit verification and certification.
Coverage: Comprehensive assessment of above and below ground biomass plus Soil Organic Carbon (SoC), encompassing 91% of the total carbon pool and sequestering over 40 tCO2e per hectare.
Precise 3D Measurement
LiDAR sensors emit laser pulses creating detailed three-dimensional point clouds that accurately capture canopy height, density, and understory terrain—critical metrics for carbon estimation.
Superior Biomass Assessment
Studies demonstrate R² values exceeding 0.9 when combining LiDAR with ground data, making it the most reliable remote sensing method for above-ground biomass quantification.
Vertical Structure Analysis
Unlike flat imagery, LiDAR penetrates vegetation layers to measure the entire carbon stock, from ground level to canopy top, providing a complete picture of sequestered carbon.
Transform animal waste into bioenergy and organic fertilizer through biodigester technology enable farmers to generate their own thermal and mechanical energy for significant improvement of livelihoods, reduce dependency on non-renewable energy through eco-technology projects and build a foundation for regenerative agriculture using organic fertilizer.
We implement Regenerative agriculture projects with the aim of helping farmers in rejuvenate their soil and farming ecosystems for better yields and profitability, as well as contribute to enhanced biodiversity through our climate preservation solutions.
Revolutionizing how we verify carbon credits in rice farming through dMRV alternate wetting and drying (AWD) data – bringing transparency, traceability, and trust to agricultural emissions reduction.
Alternate Wetting and Drying is a water-saving irrigation technique for paddy rice that breaks the continuous flooding cycle. Fields alternate between flooded and non-flooded conditions as water levels drop to specific depths below the soil surface.
By managing water levels, Alternate Wetting and Drying (AWD) significantly reduces methane emissions from paddy fields, with reported reductions ranging from 47% to 90%. This technique also leads to substantial water savings of 15% to 35%, helping conserve resources and cut costs for farmers. When implemented correctly, AWD can maintain or even increase rice yields, with some studies showing yield improvements of 3% to 9%.
Generate premium carbon credits while reducing water usage by 15-35%. Experience potential yield increases of 3-9% with proper AWD management. Minimize pumping costs and qualify for sustainability incentives.
Access verifiably genuine carbon credits with complete traceability. Meet corporate sustainability goals with high integrity offset credits. Support climate-smart agriculture with measurable impacts on GHG reduction.
Implement measurable, verifiable climate mitigation strategies in agriculture. Support water conservation efforts with proven technology. Create frameworks for rewarding sustainable farming practices through reliable data.
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