Both SENS4ICE and ICE GENESIS centre on SLD environments, with CAO contributing atmospheric measurement and characterisation expertise across both projects.
CENTRAL AEROLOGICAL OBSERVATORY
Russian federal atmospheric observatory specialising in supercooled large droplet icing characterisation and aviation SLD certification science.
Their core work
The Central Aerological Observatory (CAO) is a Russian federal atmospheric research institute with deep expertise in characterizing dangerous weather phenomena in the upper atmosphere, particularly icing conditions that threaten aviation. In H2020, they contributed the meteorological and atmospheric science layer to European aviation safety projects — providing real-world data on supercooled large droplet (SLD) environments, the particularly hazardous ice crystals that standard certification regimes historically underestimated. Their value to consortia is their ability to bridge atmospheric physics and aviation safety regulation: they understand both how icing forms in nature and what the certification standards (such as EASA Appendix O) require to demonstrate compliance. This positions them as a scientific ground-truth provider rather than an engineering or avionics actor.
What they specialise in
Appendix O and 'means of compliance' appear as core keywords in SENS4ICE, indicating direct involvement in the regulatory-scientific interface for SLD certification.
ICE GENESIS (2019–2023) explicitly targets next-generation 3D simulation methods for icing, with CAO as a contributing participant.
ICE GENESIS keywords include 'experimental database' and SENS4ICE includes 'flight test campaign', suggesting CAO contributes atmospheric measurement data to physical validation efforts.
SENS4ICE keywords include 'weather hazards' and 'passenger safety', reflecting CAO's meteorological perspective on operational risk.
How they've shifted over time
CAO's two projects run concurrently (both 2019–2023), so the keyword split reflects two parallel research threads rather than a clean chronological shift. Their earlier thematic cluster centred on detection technologies, flight test campaigns, and certification processes — the observational and regulatory-validation side of icing science. The more recent cluster shows a pivot toward 3D numerical simulation, experimental databases, and formalised compliance frameworks (Acceptable Means of Compliance), suggesting movement from empirical data generation toward providing the scientific foundation that underpins computational tools and standardised certification criteria. The trajectory is from field observation toward simulation-validated regulatory science.
CAO appears to be deepening toward the modelling and regulatory-standardisation end of icing science — a future collaborator should expect them to contribute atmospheric datasets and physical ground-truth validation for simulation tools rather than sensor or avionics development.
How they like to work
CAO participates exclusively as a consortium partner — they have not led any H2020 project. This is consistent with their profile as a national institute contributing a specific scientific specialisation (atmospheric icing physics) rather than driving project management or consortium assembly. Despite their modest project count, they have worked alongside 48 distinct partners across 15 countries, suggesting they are embedded in a sizeable European aviation safety research community and are trusted as a reliable specialist contributor rather than a coordination hub.
CAO has built a network of 48 unique partners across 15 countries through just two projects, indicating they joined large, multi-partner RIA consortia typical of Clean Sky and aviation safety research. Their network is European in orientation despite being a Russian institution, reflecting the international nature of aviation certification and the pre-2022 openness of EU research to third-country participants.
What sets them apart
CAO occupies a rare niche: an atmospheric observatory contributing meteorological scientific authority to aviation engineering consortia. Most icing-research actors are aerospace engineers, avionics firms, or certification bodies — CAO brings the atmospheric physics perspective, which is essential when setting realistic SLD envelope definitions for Appendix O certification. For a consortium building a project at the intersection of weather science and aviation safety regulation, they offer a scientific independence that industry partners cannot provide themselves.
Highlights from their portfolio
- SENS4ICEDirectly targets the certifiable hybrid ice-detection architecture gap in current aviation regulation, placing CAO at the centre of a passenger-safety-critical outcome with real regulatory consequences.
- ICE GENESISAims to replace the current generation of 3D icing simulation tools used across European aerospace — an infrastructure-level scientific contribution with long-term impact on how icing certification will be conducted industry-wide.