Precision agriculture ยท ML-based analysis

Your fields
Intelligently analyzed

AgroScan combines remote sensing, machine learning and an easy-to-use visual workflow. Simply select your agricultural field to receive a detailed map of its soil organic carbon content!

AgroScan Screenshot

We turn complex satellite and AI predictions into straightforward insights to help you understand and manage your soil with confidence.

AgroScan Team
Farmer on field
How it works

One click to become a carbon connoisseur

Select the polygon drawing tool on the map, click around the edges of your field, and start the analysis.

The program splits the selected polygon into a 60x60 m grid and predicts the agricultural soil organic carbon content using a machine learning model.

โ†’ Try out now
Machine Learning Model

Satellite driven decision support

The machine learning model is trained on Sentinel-2 data as well as vegetation and soil indices. It utilized only free, publicly available data and is fully open-source making it easy to customize to your own use case. Curious? Read our report or checkout our GitHub repository.

Flow chart of the machine learning model
IVIA Lab ETH Zurich
AI4GOOD ยท IVIA Lab

From classroom to climate impact

AgroScan grew out of the elective course AI4GOOD: Human-Centered AI for Social Good โ€” Peace, Health, Climate at ETH Zurich. Offered by the IVIA Lab (Interactive Visualization & Intelligence Augmentation), the course brings together computer science with peace and security, global health, and climate science.

Students move from seminar discussions to hands-on projects: they build AI prototypes on public data and reflect on ethical and societal implications along the way. AgroScan applies that approach to precision agriculture by providing open-source, satellite-based soil organic carbon maps that farmers and researchers can use without proprietary lock-in.

Who We Built AgroScan For

Developed with the user in mind

AgroScan has been developed to meet the needs of users. Find out more about the two farmers who helped us design our website.

โ†’ Who We Built AgroScan For
Development

Roadmap

v0.1

Prototype development

Literature research, ML model programming and training, initial web-app development with FastAPI and Jinja2, and integration of the model into the application.

v1.0

First version for project submission

Finalizing UX and design, deployment, project documentation, and presentation for course submission โ€” the current AgroScan v1.0.

v2.0

ML model improvements

More data sources, local input, and higher-resolution predictions.

v2.1

Community forum

Connect with other farmers and share AgroScan ideas.

v2.2

Baseline & historic analysis

Historic analyses and baseline charts for your fields.

v2.3

Track your progress

SOC goals, progress tracking, and light gamification.

v2.4

Chatbot recommendations

Personalized recommendations for sustainable soil management.

The roadmap above is a quick overview. For more detail on all planned features โ€” from model improvements to community tools โ€” visit the Future Work page.

โ†’ Future Work
Team

The faces behind the Project

Clara Buller
Clara Buller
Master Student in Energy Science and Technology
Interactive ML model development, Website UX design support, Website content development, Project report, Literature review
Margarete Breitenhuber
Margarete Breitenhuber
Master Student in Mechanical Engineering
Interactive ML model development, Website-ML model communication, Website UX design support, User case research, Literature review
Jerome Reiter
Jerome Reiter
Bachelor Student in Computational Science and Engineering
Backend and frontend development, Map design and personal dashboard, Project pitch, Literature review
Claudio Bussinger
Claudio Bussinger
Bachelor Student in Computational Science and Engineering
Backend and frontend development, Map design and website design, Project pitch, Literature review

Ready for smart field analysis?

Go to the analysis page and draw your first polygon.

โ†’ Start analysis