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AI-enabled digital MRV for scaling agroforestry and trees outside forests in India

India flag

India

Environment

High

Implementing Organisation

Farmers for Forests

India, Maharashtra, Pune

Civil Society

Implementing Point of Contact

Pravin Mulay

Vice President, Tech & Research

Contributor of the Impact Story

Carnegie India

Year of implementation

2023

Problem statement

Agroforestry and trees outside forests (AF-TOF) are increasingly recognized as vital for climate resilience, soil restoration, and rural livelihoods in South Asia. Yet, their large-scale adoption is constrained by the absence of reliable, affordable, and transparent measurement, reporting, and verification (MRV) systems. Traditional field inventories are costly and inconsistent, limiting the credibility of carbon and ecosystem service claims. Young saplings below the age of 3 years are missed by most satellite products, and many existing solutions are not affordable or openly available, thus preventing ecosystem adoption at a larger scale. To address these gaps, we developed an open-source digital MRV framework that leverages drones and artificial intelligence to automate tree detection and carbon quantification in smallholder landscapes. Using high-resolution drone orthomosaics, tree crown identification was conducted with deep learning models for object detection, while Gaussian Process Regression was applied for above-ground biomass estimation. Models were trained and validated on ~120,000 manually annotated crowns across agroforestry sites in Maharashtra, India. Our results demonstrate substantial improvements in both accuracy and cost-efficiency compared to conventional survey methods. By releasing our work under open-source licenses, the framework reduces barriers to adoption, enables independent validation, and encourages adaptation by practitioners, researchers, and policymakers across geographies.

Impact story details

Farmers for Forests (F4F) addresses a structural failure at the intersection of climate change, land degradation, and rural poverty. Across India, smallholder and tribal farmers are among the most vulnerable to climate-induced shocks such as droughts, floods, and erratic rainfall. At the same time, rising global demand for carbon credits and ecosystem restoration offers an opportunity to channel climate finance to rural communities. Yet smallholders remain systematically excluded from Payments for Ecosystem Services (PES) and carbon markets. This exclusion is not due to lack of impact, but due to the failure of conventional Monitoring, Reporting, and Verification (MRV) systems. Existing MRV approaches are manual, expensive and slow, making fragmented, small landholdings financially unviable for climate finance. Early-stage restoration is particularly hard to verify: young trees are invisible to most satellite products, while field sampling relies on sparse plots and heavy extrapolation, creating high uncertainty among registries and funders. India has nearly 30% of its land degraded, and over 120 million smallholder farmers face declining soil fertility and livelihood insecurity. Agroforestry and forest protection are proven solutions that improve farm incomes, restore biodiversity, and sequester carbon - but adoption remains limited because impact cannot be measured credibly or affordably during the critical first 3–5 years. F4F solves this MRV bottleneck using AI-driven, high-resolution monitoring. We provide farmers with subsidized saplings, drip irrigation, organic inputs, and free training to transition to agroforestry. Using drone imagery and machine learning models, we perform tree-level and plot-level monitoring at approximately one-tenth the cost of traditional high-resolution systems. Verified plots are then connected to global carbon markets. Farmers benefit through diversified agroforestry produce, premium carbon revenues, lower input costs, improved soil health, and greater resilience. By making verification affordable, transparent, and scalable, F4F unlocks climate finance for millions of smallholders while accelerating ecosystem restoration at scale.

AI Technology Used

Computer Vision

Key Outcomes

Access

Reach, Inclusion

Equity, Economic Value Creation, Resilience

Risk Reduction

Narrative Outcome

Farmers for Forests uses AI-enabled measurement, reporting, and verification systems to provide affordable and transparent monitoring of tree planting and carbon sequestration. The platform has scaled from 100 farmers to 10,000, with land under active restoration also growing significantly, demonstrating the value of AI to support climate goals.

Impact Metrics

Direct benefits to smallholder and tribal farmer households

Baseline Value

100 farmers

Post-Implementation

The number of farmers being directly benefitted increased to 10,000 Number of farmers

Internal Monitoring·Jun 2022 - Dec 2025

Hectares under active restoration or protection

Baseline Value

150 hectares

Post-Implementation

Area under active restoration or protection increased to 12,000 hectares Area in hectares

Independent Evaluation·Jun 2022 - Dec 2025

Annual CO2e sequestered (in tonnes)

Baseline Value

4000 tonnes

Post-Implementation

2 ,00,000 tonnes of CO2e was sequestered post intervention

Independent Evaluation·Jun 2022 - Dec 2025

Hectares enabled through partner organizations using F4F’s MRV-as-a-service

Baseline Value

0 hectares

Post-Implementation

10 ,000 hectares were enabled through partner organization using F4F's MRV-as-a-service

Internal Monitoring·Jun 2024 - Dec 2025

Implementation Context

Deployed

Indian states including Maharashtra, Gujarat, Jharkhand, Madhya Pradesh, Telangana, Tamil Nadu, Karnataka, Odisha, Philippines

Approximately 20 million smallholder farmers

Key Partnerships

Myrada, Foundation for Ecological Security (FES), Raha Foundation, Soul Forest, FCF India, Shola Trust, Heartfulness, SayTrees, CIP - India, CleanMax, Agro Rangers, Sajveen Trust, Cognisphere Solutions, CIP - Philippines, Unique LU Solutions

Replicability & Adaptation

High

1. This use case is highly adaptable across geographies and application domains with minimal modification 2. This is primarily because our pipeline is built on generic, open-source computer vision and deep learning models from Meta's Detectron2 library rather than bespoke, location-specific architectures 3. We have already successfully repurposed the same core model and training pipeline for multiple tasks beyond tree detection, including agroforestry pit detection, Drip pipe detection and invasive species (lantana) detection, simply by supplying task-specific annotated training data 4. The only material adaptation required for a new geography or use case is the collection and annotation of appropriate drone imagery reflecting the local landscape and target objects 5. No changes to the underlying modeling approach or system architecture are necessary 6. Drone data needs to be collected according to a fixed protocol and following fixed specifications, and annotated according to the use-case 7. An object detection model needs to be fine-tuned with this data 8. Technical, Human and Financial resources will only be required if the use-case is being implemented completed independent of support by the current implementing agency

* The data presented is self-reported by the respective organisations. Readers should consult the original sources for further details.