State of Proof

Mathematical claim · watch · examination not started

Stable Singularity of the Euler Equations on R³

Adarsh Ganeshram; Valentin Duruisseaux; Anima Anandkumar.

Source date: 2026-09-08 · Added: 2026-09-08 · Record updated:

Inclusion is not validation. This is an intake record and proposed check plan, not a completed examination or a peer-review decision. Any separate docket states its own exact source and scope.

Watch · added · paper-2026-09-08-stable-singularity-of-the-euler-equations-on-r

AI finds a candidate; completing the proof comes next

What it is
The paper presents AI-guided evidence and a proposed route toward a stable singularity in ideal fluid flow.
Who did it
Adarsh Ganeshram, Valentin Duruisseaux, and Anima Anandkumar
What it could mean
An AI may have spotted the mathematical moment a smooth fluid model breaks. Finishing the proof would turn that machine-found pattern into something researchers can actually rely on.

Examination not started

See the check plan

Evidence & validation

From announcement to evidence

Discovery recorded. State of Proof has not yet examined this claim.

  1. Read the original work

    Stable Singularity of the Euler Equations on R³ ↗

    Adarsh Ganeshram; Valentin Duruisseaux; Anima Anandkumar.

  2. See the proposed checks

    Which quantitative estimates and interval certificates are complete, and which stability obligations are still open?

  3. No proof docket yet

    A docket is the public record of checks and open questions. This paper does not have one yet; the check plan above describes work still to do.

    Explore existing proof dockets →
How validation works →
What it claims
The manuscript presents evidence of a stable finite-time singularity, an approximate profile discovered with a physics-informed neural network, and a framework reducing nonlinear stability to finite quantitative estimates.
Why this could matter
AI finds a candidate; completing the proof comes next A neural network finds an approximate pattern that could become a singularity in ideal fluid flow. The manuscript offers evidence and a stability framework, but explicitly lists unfinished proof work. Finding a promising pattern is not yet proving it exists.
If it holds up
Completing the quantitative certification could turn AI-guided discovery into a rigorous singularity result under the exact stated assumptions.
If it does not
An unsuccessful certification would reveal where the approximate pattern or stability estimates need to change.
Impact horizon
Methods · AI-assisted discovery · Fluid models · Computer-assisted proof
Version
Public manuscript retrieved 2026-09-08; PDF SHA-256 f0164c40fad09a646412acec95f7908ea6b2fd61d16b809954a4048665fb5f78. Discovery date is not a claim of first publication.
Why we tracked it
The September 8 fluid-mathematics announcements warrant distinct intake records for each equation, forcing assumption and proof-completion state.
Highest-risk dependency
The manuscript explicitly lists remaining work to complete the proof. Do not label this a completed Euler solution or equate partial certification with the full theorem.
Available artifacts
No formal replay artifact was established in this bounded intake. A physics-informed neural network is central to profile discovery. The paper limits the role of language models to supporting tasks. No manuscript-linked code was executed; source availability is not proof verification.
Current boundary
Intake record only; examination not started.

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