AETHERAOcean intelligence laboratory

An ocean twin that explains itself.

A transparent engineering path from observed state to reproducible calculation, visual behaviour and a decision record.

01 · Why Aethera

Signals are fragmented before decisions become difficult.

A wave forecast can say little about water chemistry. A pollution reading can say little about port exposure. A beautiful map can still hide where a number came from. Aethera starts with one disciplined question: can every visible output travel with its source, assumptions, formula and decision boundary?

The product is not the animated ocean. The product is a scenario that another person can understand, reproduce and challenge.
02 · Physical model

Wave behaviour comes from the selected state.

The initial laboratory uses deep-water approximations suitable for an engineering demonstration. For density ρ = 1025 kg/m³, gravity g = 9.81 m/s², significant wave height Hs and energy period T:

Wavelength L = g × T² / (2π)
Energy E = ρ × g × Hs² / 8
Power P = ρ × g² × Hs² × T / (64π)

The shader receives the same Hs, T and wind state used by the calculation engine. It amplifies vertical scale so a reviewer can inspect the difference between scenarios; the amplification is visual, not a claim about geographic bathymetry.

03 · Explainable intelligence

No mysterious “AI score”.

The current stress value is a declared weighted heuristic: temperature anomaly 18%, dissolved-oxygen deficit 24%, chemistry deviation 16%, plastic pressure 18%, and wave/wind/current exposure 24%. The interface ranks these components and exposes the state that produced them.

A later machine-learning component is allowed only after authoritative, time-aligned and labelled evidence is available. Its validation set, error, uncertainty and model card must be published alongside any claim.

04 · System architecture

Static-first now; evidence-first at scale.

Governed data adapters

Schema validation + source/time/quality flags

Physics engine · environmental model · future ML service

3D scene + explanation + evidence ledger

Human review · export · audit

The current baseline is deliberately static-first: browser computation, no database and no always-on server. A pilot can later introduce a geospatial store, signed observations and low-cost serverless APIs without rebuilding the presentation layer.

05 · SIH execution

Build around a confirmed problem statement.

  1. Confirm the official SIH statement and beneficiary with the institution.
  2. Select one pilot coast and define the decision the prototype must improve.
  3. Register authoritative data sources and an offline-safe sample dataset.
  4. Calibrate the physics/environmental baseline against observed records.
  5. Add one justified ML task—classification, forecasting or anomaly detection—not “AI everywhere”.
  6. Conduct usability, accessibility, mobile and low-bandwidth tests with evidence.
  7. Prepare a three-minute product story, technical demo and limitations response.
06 · Integrity

What this release does not claim.

It is not connected to a physical buoy, ship, port or government warning system. It is not calibrated to a specific coastline. It cannot issue evacuation, fishing, weather, navigation or environmental-compliance guidance. Sample records are controlled demonstrations.