About Us

The primary objective of InMOS is to integrate modeling and observations to produce a robust global synthesis of the cycling, redistribution and storage of carbon, oxygen, and heat in the ocean since pre-industrial times.

Our funder

This project is supported by Schmidt Sciences, LLC, a philanthropy dedicated to fostering the advancement of science and technology. Read more in our press release .

International team

Our project comprises ocean, atmosphere, sea-ice scientists, numerical model developers, and machine learning experts. Our collaboration spans 5 jurisdictions and 11 academic institutions.

Machine Learning

Our project will create an Machine Learning Emulator (MLE) using deep neural networks (NNs). The MLE evolves the state of the ocean and atmosphere in time, leveraging recent spectacular success of MLEs for short-term geophysical turbulence and weather forecasts and their use to enhance Data assimilation (DA).

Innovation

Major innovations of this project include:

  1. Bridging the gap between two classes of state-of-the art models: (i) Assimilation systems that are optimized to describe the long-term ocean mean state. (ii) High resolution forward ocean models that simulate changes on fine space and time scales but, for computational reasons, cannot be optimized to represent larger-scale phenomena accurately. We plan to bridge these models via a novel ML+DA framework: Multi-model Machine Learning ocean-atmosphere Emulation-Assimilation Framework (M3Leaf). This framework is trained to emulate the variability of high-resolution forward models and assimilate large-scale mean state and oceanic and atmospheric observations, thus yielding a multi-scale product that is compatible with observations at all scales.
  2. Leveraging the coupling between fluxes of O2, carbon, and heat associated with air-sea exchange, ocean transport, and biological processes. These have been included previously in forward models but not assimilation systems, due to lack of a suitable framework.
  3. Representing atmospheric variability within the framework, to take full advantage of the constraints on air-sea fluxes of O2, CO2 and heat provided by the measurements of atmospheric O2 and CO2 that now span many decades.
  4. Filling a major gap in the atmospheric O2 measurement network by supporting the installation of atmospheric O2 analyzer systems in the Southern Ocean coordinated out of South Africa, thereby also diversifying international participation.
  5. Leveraging recent advances in the parameterization of sub-grid processes informed by ML to improve model fidelity.

Code of conduct

You will find our code of conduct here

Code of Conduct