UNDP India — GeoAI for Monitoring
EvalCommunity Academy Case Study
How GeoAI Is Transforming Environmental Monitoring in India
How UNDP India combined artificial intelligence, satellite imagery, computer vision, geospatial analytics and citizen science to support large-scale brick kiln monitoring.
Primary source:
UNDP — Brick kiln monitoring in India
Case at a Glance
UNDP India’s Accelerator Lab and the University of Nottingham developed a methodology combining
machine learning and geospatial analytics to map India’s brick kiln belt.
The resulting GeoAI platform combines satellite imagery, computer vision and citizen-generated data to help identify brick kilns and support environmental compliance monitoring.
In Bihar, UNDP reports that around 7,500 brick kilns were analyzed, with
1,655 identified as high risk and 1,013 subsequently inspected.
1. The UNDP Case
UNDP describes brick kiln monitoring in India as a case of collective intelligence and climate action.
Traditional brick kilns create environmental concerns through the use of fertile topsoil and emissions from chimneys.
UNDP also notes concerns about forced labour conditions among some kiln workers.
The UNDP Accelerator Lab in India and the University of Nottingham developed a new methodology using
artificial intelligence, machine learning and geospatial analytics to map the brick kiln belt.
The approach was subsequently used by the Bihar State Pollution Control Board to better target environmental policy violations.
2. The Monitoring Problem
Monitoring a very large number of geographically dispersed brick kilns through conventional field inspection creates a major scale challenge.
The central practical problem was:
How can environmental regulators identify and prioritize sites that require attention when the monitoring population is extremely large?
3. The GeoAI Intervention
The GeoAI approach combined several sources of intelligence rather than relying on a single technology.
Satellite imagery + Geospatial data + Machine learning + Computer vision + Citizen science + Crowdsourcing
UNDP describes the GeoAI digital platform as using satellite imagery and computer-vision algorithms to detect brick kilns and identify environmental monitoring hotspots.
4. Human Intelligence + Machine Intelligence
One of the particularly interesting aspects of this case is that AI was not developed in isolation.
The partners worked with citizen scientists through the Zooniverse platform to create a labelled dataset of satellite images.
The labelled data were then used to train a computer-vision algorithm to identify brick kilns.
This created a useful chain:
People label imagery → AI learns patterns → AI detects sites at scale → Humans verify and act
5. Monitoring at Scale
According to UNDP, more than 47,000 brick kilns were detected across the Indo-Gangetic plains of India and incorporated into the UNDP GeoAI open-data platform.
| Monitoring stage | UNDP-reported figure |
|---|---|
| Brick kilns detected across Indo-Gangetic plains | More than 47,000 |
| Bihar kilns analyzed | Around 7,500 |
| High-risk kilns identified | 1,655 |
| High-risk kilns inspected | 1,013 |
| Brick kilns reported as making the green transition | 1,000 |
| Reported annual CO₂ reduction | 500,000 tonnes |
Source note: Figures in this table are reported by UNDP in its primary case study and refer to the different stages of the initiative. :contentReference[oaicite:1]{index=1}
6. From Detection to Prioritization
The value of the system is not simply that it can identify brick kilns.
The important operational step is that it can help make a very large monitoring population more manageable.
7,500 kilns analyzed
→ 1,655 high-risk kilns identified
→ 1,013 inspected
This illustrates a potentially important role for AI in monitoring:
helping human teams decide where limited monitoring resources should be concentrated.
7. AI Does Not Replace Field Verification
Satellite imagery and AI can identify patterns and potential hotspots, but they do not necessarily provide all the information required to understand what is happening at a specific site.
The GeoAI approach therefore connects:
- large-scale remote observation;
- AI-based detection;
- geospatial prioritization;
- field inspection; and
- regulatory action.
This is better understood as AI-assisted monitoring rather than completely autonomous monitoring.
8. The AI-Assisted Monitoring Evidence Chain
For M&E professionals, the case can be translated into an evidence chain:
Satellite Data
→ AI Detection
→ Geospatial Evidence
→ Risk / Priority Signal
→ Human Verification
→ Monitoring Finding
→ Action
→ Follow-up Monitoring
→ Outcome
The distinction between the different stages is critical.
Detecting a kiln is not the same as demonstrating an environmental outcome.
9. Monitoring Is Not the Same as Outcome Measurement
This case provides an important lesson for evaluators.
AI-generated monitoring information should not automatically be treated as evidence of impact.
| Monitoring performance | Potential outcome evidence |
|---|---|
| Number of sites detected | Changes in environmental conditions |
| Detection accuracy | Changes in emissions |
| High-risk sites identified | Adoption of cleaner technologies |
| Inspection coverage | Environmental compliance |
| Monitoring time and cost | Social, environmental or livelihood outcomes |
EvalCommunity perspective: This distinction is an analytical framework for M&E practice, not a framework stated by UNDP in the primary case study.
10. How Should an AI Monitoring System Be Evaluated?
EvalCommunity proposes seven dimensions for evaluating AI-assisted geospatial monitoring:
- Detection accuracy — How accurately does the system identify relevant sites?
- Coverage — How much of the monitoring population can be assessed?
- Prioritization accuracy — Are high-priority sites actually more likely to require intervention?
- False positives and negatives — What does the system incorrectly flag or miss?
- Field verification — How closely do AI-generated signals correspond with ground observations?
- Operational efficiency — Does the system reduce time or cost?
- Outcome contribution — Does improved monitoring contribute to measurable environmental or social change?
This seven-dimension framework is an EvalCommunity adaptation and is not presented as a UNDP framework.
11. The False-Negative Problem
One of the most important questions in AI-powered monitoring is not simply:
“How accurate is the system?”
It is also:
“What is the system systematically missing?”
If an AI system identifies a subset of high-risk sites for inspection, evaluators should examine whether important high-risk sites are being missed.
Overall accuracy is not enough. Evaluators should examine false positives, false negatives and differential performance across locations and groups.
12. Equity and Differential Performance
AI monitoring systems may perform differently depending on geographic conditions, imagery quality, site characteristics and other contextual factors.
Evaluators should therefore ask:
- Are some types of sites harder for the AI to detect?
- Are some geographic areas systematically under-detected?
- Does imagery quality affect detection performance?
- Are certain populations or communities less visible in the data?
- Do AI-generated priorities create unintended distributional effects?
13. GeoAI as Collective Intelligence
UNDP presents the case as an example of collective intelligence, bringing together regulators, government agencies, civil society and volunteer groups.
The primary case study identifies the methods as:
Combining data sources · Remote or in-situ sensing · Citizen science · AI · Computer vision · Crowdsourcing
This is an important reminder that effective AI monitoring systems are often not simply AI systems.
They are socio-technical systems combining technology, data, people and institutions.
14. Proposed M&E Indicators
| Dimension | Possible indicator |
|---|---|
| Detection | Precision, recall and detection rate |
| False negatives | % of relevant sites missed by the system |
| Prioritization | % of high-priority sites confirmed through field inspection |
| Coverage | % of monitoring population assessed |
| Efficiency | Time and cost per verified site |
| Equity | Differences in detection performance across locations or site types |
| Outcomes | Changes in environmental, compliance or livelihood indicators |
These are proposed EvalCommunity indicators and are not reported by UNDP as the evaluation framework for this initiative.
15. How Could the Impact Be Evaluated?
If an organization wanted to go beyond assessing AI performance and evaluate the broader contribution of GeoAI to environmental outcomes, a possible design could compare:
GeoAI-supported monitoring areas
versus
Comparable areas using conventional monitoring
Potential outcomes could include:
- environmental compliance;
- adoption of cleaner technologies;
- emissions;
- inspection efficiency;
- regulatory response time; and
- other relevant environmental or social outcomes.
EvalCommunity note: This is a proposed evaluation design, not a design reported by UNDP in the primary case study.
16. Do Not Confuse AI Performance with Development Impact
This case illustrates an important M&E principle.
Good AI detection
does not automatically mean
good monitoring
and good monitoring does not automatically mean
improved development outcomes.
The causal pathway between the technology and the ultimate outcome must be examined.
17. Lessons for M&E Professionals
1. AI can dramatically expand the geographic scale of monitoring.
2. AI can help prioritize scarce monitoring resources.
3. Ground verification remains important.
4. Training data are part of the monitoring system and require quality assurance.
5. False negatives can be as important as overall accuracy.
6. Monitoring outputs should not automatically be treated as outcomes.
7. AI monitoring systems themselves should become objects of evaluation.
18. Evidence Boundary
What UNDP documents:
a collaboration between the UNDP Accelerator Lab in India and the University of Nottingham using artificial intelligence, machine learning, geospatial analytics, satellite imagery, computer vision, citizen science and crowdsourcing to support brick kiln monitoring.
UNDP reports more than 47,000 brick kilns detected across the Indo-Gangetic plains and describes the Bihar application, including the identification of high-risk kilns, field inspections, green transitions and reported CO₂ reductions. :contentReference[oaicite:2]{index=2}
What this case study adds:
the AI-assisted monitoring evidence chain, proposed M&E indicators, quality-assurance framework and possible impact-evaluation design are EvalCommunity interpretations and adaptations. They should not be presented as UNDP’s own evaluation framework or as independently verified causal findings.
Key Takeaway
The important innovation is not simply using AI to recognize brick kilns from satellite imagery.
It is connecting large-scale AI-assisted detection with human verification, regulatory action and ongoing monitoring.
EvalCommunity Academy
Learn How to Put AI to Work in Your M&E Practice
Explore practical applications of AI across monitoring and evaluation, including AI-powered monitoring, data analysis, evidence synthesis, evaluation design, qualitative analysis, reporting, ethics and human oversight.
Sources & Further Reading
Primary source:
UNDP — Brick kiln monitoring in India
UNDP India:
GeoAI for Brick Kilns in Bihar: Learnings and Recommendations
UNDP India:
Tech for Clean Air and Blue Skies
EvalCommunity Academy:
AI in Monitoring & Evaluation Certificate
