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Open Avalanche Project

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An open-source machine learning project using historical snow and weather data to generate high-resolution, global avalanche danger forecasts and reduce avalanche deaths.

About

The Open Avalanche Project is an open-source initiative that harnesses machine learning to improve the accuracy and coverage of avalanche danger forecasting worldwide. By training algorithms on historical weather data, snow telemetry, and past avalanche forecasts from centers like the Northwest Avalanche Center, it builds predictive models capable of generating daily operational forecasts. Current forecasts are produced at a 12km resolution, with ambitions to refine that to 3km or finer where data permits. The system is designed to ingest hourly weather and snowpack updates, enabling near-real-time forecast revisions that reflect rapidly changing mountain conditions. Specialized models account for regional snowpack differences — such as continental vs. coastal snowpack behavior — uncovering patterns that may otherwise go undetected. A core goal is to extend forecast coverage to areas around the world that currently lack dedicated avalanche centers or full-time forecasters. Beyond forecasting, the platform serves as a learning and benchmarking environment: forecasting techniques developed in Europe can be tested against U.S. data, and improvements can be measured against a shared baseline. The project is completely transparent — code is published on GitHub, data is openly shared, and community participation is actively encouraged. It is aimed at backcountry recreationists, avalanche safety professionals, snow researchers, and developers who want to contribute to or build on an open avalanche intelligence platform.

Key Features

  • Hourly Forecast Updates: Integrates hourly weather observations and snow telemetry to continuously update avalanche danger assessments as mountain conditions evolve.
  • High-Resolution Forecasting: Currently generates forecasts at a 12km spatial scale with a roadmap to achieve 3km or finer resolution where sufficient data exists.
  • Specialized Regional ML Models: Trains separate models tuned to regional snowpack characteristics (continental, coastal, etc.) to capture local avalanche problem patterns.
  • Global Coverage for Underserved Areas: Targets regions around the world that lack dedicated avalanche forecast centers, aiming to fill critical safety gaps.
  • Open Learning & Benchmarking Platform: Provides a shared baseline and experimental framework so forecasters and researchers from different regions can measure, compare, and improve forecast accuracy collaboratively.

Use Cases

  • Backcountry skiers and mountaineers accessing higher-resolution, more frequently updated avalanche danger information before heading into the field.
  • Avalanche forecast centers in resource-limited regions using ML-generated forecasts as a decision-support tool.
  • Snow safety researchers benchmarking and experimenting with new forecasting techniques using the open data pipeline.
  • Developers and data scientists contributing to or building applications on top of the open-source avalanche ML platform.
  • Academic institutions using the project as a teaching and experimentation platform for applied machine learning in environmental safety domains.

Pros

  • Fully Open Source: All code, data, and financials are publicly available on GitHub, enabling community contributions and full transparency.
  • Community-Driven Collaboration: Brings together backcountry safety communities, researchers, and developers worldwide to collectively advance avalanche science.
  • Improving Forecast Resolution: Goes beyond coarse regional forecasts, pursuing granular local predictions that better reflect real terrain conditions.
  • Cross-Regional Knowledge Transfer: Enables forecasting insights and techniques learned in one part of the world to be tested and applied in another.

Cons

  • Early-Stage Maturity: The project is still experimental; ML-based forecasts have not yet fully matched or exceeded human forecaster accuracy in all scenarios.
  • Data Availability Constraints: Higher-resolution and broader-coverage forecasts depend on the availability of historical weather and snowpack data, which varies by region.
  • Requires Technical Knowledge to Contribute: Meaningful contribution to the codebase or ML models requires familiarity with data science and machine learning, limiting participation from non-technical community members.

Frequently Asked Questions

How does machine learning generate avalanche forecasts?

The project trains ML algorithms on historical weather data, snow telemetry, and past human-issued avalanche forecasts. Once trained, the model takes new daily weather and snow inputs and predicts avalanche danger levels without requiring a human forecaster.

What spatial resolution are the forecasts produced at?

Current forecasts are generated at a 12km grid scale. The project is working toward 3km or finer resolution in areas where sufficient data is available.

Is the Open Avalanche Project free to use?

Yes. The entire project — code, data, and forecasts — is open-source and freely available. The source code is hosted on GitHub.

How can I contribute to the project?

You can fork the repository on GitHub, join the mailing list, contribute data, or participate in the community. The project welcomes developers, avalanche professionals, and snow safety enthusiasts.

Which regions does the project currently cover?

The project initially trained its model on data from the Northwest Avalanche Center. It aims to expand coverage globally, especially to areas that lack dedicated full-time avalanche forecast centers.

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