Using Satellite Imagery to Understand and Promote Sustainable Development | Stanford HAI
Stanford
University
  • Stanford Home
  • Maps & Directions
  • Search Stanford
  • Emergency Info
  • Terms of Use
  • Privacy
  • Copyright
  • Trademarks
  • Non-Discrimination
  • Accessibility
© Stanford University.  Stanford, California 94305.
Skip to content
  • About

    • About
    • People
    • Get Involved with HAI
    • Support HAI
    • Subscribe to Email
  • Research

    • Research
    • Fellowship Programs
    • Grants
    • Student Affinity Groups
    • Centers & Labs
    • Research Publications
    • Research Partners
  • Education

    • Education
    • Executive and Professional Education
    • Government and Policymakers
    • K-12
    • Stanford Students
  • Policy

    • Policy
    • Policy Publications
    • Policymaker Education
    • Student Opportunities
  • AI Index

    • AI Index
    • AI Index Report
    • Global Vibrancy Tool
    • People
  • News
  • Events
  • Industry
  • Centers & Labs
Navigate
  • About
  • Events
  • AI Glossary
  • Careers
  • Search
Participate
  • Get Involved
  • Support HAI
  • Contact Us

Stay Up To Date

Get the latest news, advances in research, policy work, and education program updates from HAI in your inbox weekly.

Sign Up For Latest News

policyPolicy Brief

Using Satellite Imagery to Understand and Promote Sustainable Development

Date
April 01, 2022
Topics
Energy, Environment
Read Paper
abstract

This brief discusses the opportunities and limitations of AI models that can map satellite image inputs to sustainable development outcomes.

Key Takeaways

  • The data needed to inform policymaking for sustainable development is often lacking or inaccurate.

  • Machine learning analysis of satellite imagery could help estimate sustainable development outcomes—broadening the availability of existing high-quality development data.

  • Currently, there is relatively limited adoption of satellite imagery analysis in many sustainable development domains, with the primary exceptions being population and agricultural measurement.

  • Policymakers and researchers should explore using synthetic data and pursue more work on model explainability and scalability to ensure ML models can be appropriately trained for satellite images.

Executive Summary

The number of non-military satellites in orbit is rapidly growing. Each of these satellites offers unprecedented access to imagery to help measure sustainable development outcomes, such as eliminating hunger, promoting health and wellbeing, and building sustainable communities. Images previously held only by governments and a few corporations are now widely available to academics, civil society organizations, and individuals. Researchers can analyze these images for a wide range of purposes, including to measure agricultural productivity, urban population density, and rural economic activity. A single satellite image, for example, might be able to tell the story of a village’s economic health—its crop yields, its agricultural diversity, and its infrastructure development.

Artificial intelligence (AI)-powered machine learning (ML) tools can extract and assess such information from satellite imagery, making them an intriguing and valuable addition to the sustainable development toolkit. Yet many questions remain. In particular, researchers and policymakers need to better understand how well these models can map satellite image inputs to sustainable development outcomes and what limits the models’ performance. Our paper in Science, “Using Satellite Imagery to Understand and Promote Sustainable Development,” outlines how researchers have used ML models to estimate sustainable development outcomes, assess methods for model training, examine the challenges hindering models’ improvement, and consider models’ future applications. We conclude by identifying current limitations to these approaches and ways to respond.

Read Paper
Share
Link copied to clipboard!
Authors
  • Marshall Burke
    Marshall Burke
  • Anne Driscoll
    Anne Driscoll
  • David Lobell
    David Lobell
  • Stefano Ermon
    Stefano Ermon
Related
  • What is Synthetic Data?

    Synthetic Data is artificially generated information created by algorithms or simulations rather than collected from real-world events or observations. It's used to train AI models when real data is scarce, expensive, privacy-sensitive, or difficult to obtain, while mimicking the statistical properties and patterns of authentic data. Synthetic data is particularly valuable for addressing data gaps, testing edge cases, and protecting privacy in fields like healthcare, autonomous driving, and financial modeling. Critics say that Synthetic Data may introduce biases, fail to capture real-world complexity and edge cases, or create "model collapse" when AI systems are trained predominantly on AI-generated content.

Related Publications

Using AI to Map Urban Change
Tianyuan Huang, Zejia Wu, Jiajun Wu, Jackelyn Hwang, Ram Rajagopal
Quick ReadJul 30, 2024
Policy Brief

This brief introduces a novel street-view image dataset and AI model as a more accurate proxy for detecting and assessing urban changes such as gentrification.

Policy Brief

Using AI to Map Urban Change

Tianyuan Huang, Zejia Wu, Jiajun Wu, Jackelyn Hwang, Ram Rajagopal
Energy, EnvironmentQuick ReadJul 30

This brief introduces a novel street-view image dataset and AI model as a more accurate proxy for detecting and assessing urban changes such as gentrification.

Using AI to Understand Residential Solar Power
Zhecheng Wang, Marie-Louise Arlt, Chad Zanocco, Arun Majumdar, Ram Rajagopal
Quick ReadSep 28, 2023
Policy Brief

This brief introduces a computer-vision approach to analyzing solar panel adoption in U.S. households that can help policymakers tailor incentive mechanisms.

Policy Brief

Using AI to Understand Residential Solar Power

Zhecheng Wang, Marie-Louise Arlt, Chad Zanocco, Arun Majumdar, Ram Rajagopal
Energy, EnvironmentComputer VisionQuick ReadSep 28

This brief introduces a computer-vision approach to analyzing solar panel adoption in U.S. households that can help policymakers tailor incentive mechanisms.

Operationalizing Real-Time Monitoring of Clinical AI
Zhongnan Fang, Lina Cheuy, Hye Sun Na, Akshay Chaudhari, David B. Larson
Quick ReadMay 14, 2026
Policy Brief

This brief demonstrates how real-time monitoring can address critical gaps in the oversight of radiological AI tools.

Policy Brief

Operationalizing Real-Time Monitoring of Clinical AI

Zhongnan Fang, Lina Cheuy, Hye Sun Na, Akshay Chaudhari, David B. Larson
HealthcareRegulation, Policy, GovernanceQuick ReadMay 14

This brief demonstrates how real-time monitoring can address critical gaps in the oversight of radiological AI tools.

Data Privacy and Foundation Models: Can We Have Both?
Jennifer King, Tiffany Saade
Quick ReadApr 08, 2026
Issue Brief

This brief examines the privacy risks foundation models pose to individuals and society, and governance mechanisms needed to address them.

Issue Brief

Data Privacy and Foundation Models: Can We Have Both?

Jennifer King, Tiffany Saade
Privacy, Safety, SecurityFoundation ModelsRegulation, Policy, GovernanceQuick ReadApr 08

This brief examines the privacy risks foundation models pose to individuals and society, and governance mechanisms needed to address them.