01
Restored frame
A clean, colour-true image — the only input the pipeline needs.
Computational Marine Imagery · ABYSS-1 uplink
You are looking through the eye of an underwater rover, 2,400 metres down. The water has taken almost everything from this frame. Keep scrolling — we're going to give it back.
Chapter 06 · Abyssal Studio
Clarity is the input, not the product. Everything the vehicle sees goes into Abyssal Studio — our analysis workbench — where a single click turns pixels into a catalogued, confidence-scored, exportable survey.
0K+
Species classes
0%
Detection mAP
0ms
Detect latency
IOD
+ EUVP + UIEB
Chapter 07 · Reconstruction
Monocular depth estimation lifts each restored frame off the image plane. Consecutive frames fuse into a georeferenced point cloud, then a textured mesh — a survey site you can open in Blender, QGIS, or your own viewer.
01
A clean, colour-true image — the only input the pipeline needs.
02
Per-pixel range inferred with a marine-tuned monocular depth model.
03
Pixels lift into 3D and fuse across frames with DVL-aided odometry.
04
Poisson surface reconstruction, then projected colour from the source frames.
Chapter 08 · The platform
There is no model to pick and no mode to switch. The suite decides what a frame needs, runs it, and hands the next stage a better input than it had.
Stage 01
Colour-cast inversion, backscatter removal and 4× super-resolution, quantised to INT8 and running in the thruster power budget.
Stage 02
Detection and classification over 15,000+ marine classes, plus geology and threat catalogues, every box confidence-scored and exportable.
Stage 03
Frame-to-frame fusion into georeferenced point clouds and textured meshes, with sediment and structure classification baked in.
Stage 04
Telemetry, quality scores and CLIP-validated retraining close the loop: every dive makes the next dive's models better.
Chapter 09 · Deployment
The same stack that helps a marine biologist count coral recruits helps a navy classify a contact. It runs on the vehicle, on a ship's server, or on a diver's headset.
Maritime surveillance, submarine and mine classification, coastal monitoring, unauthorised-diver detection.
Pipeline and riser inspection, rig structural surveys, anode and corrosion tracking, site clearance.
Reef health time-series, biodiversity cataloguing, climate monitoring, deep-sea and hydrothermal exploration.
Live visibility enhancement for pilots and divers, wreck documentation, guided species identification for tour operators.
Chapter 10 · Mission & team
Seventy percent of the planet is dark to us. Not because we lack cameras — because water destroys what cameras record. Underwater AI exists to give that sense back, cheaply enough that every vehicle can carry it.
Goal 01
Everything must run on the vehicle inside a 15 W budget. A model that needs a ship's server is a model that arrives too late.
Goal 02
GoPro, machine-vision rig, or a 4,000 m-rated ROV camera — the same weights work, with no per-camera calibration pass.
Goal 03
Every output carries confidence scores, quality metrics and provenance, so it stands up in a survey report or a mission log.
Goal 04
Trained on the Indian Ocean Dataset alongside EUVP and UIEB, because the waters we know best are the ones least represented in public data.
Chief Executive Officer
Sets the vision and drives strategic partnerships across defence, energy and research.
Chief Technology Officer
Leads model architecture, edge deployment and the engineering team behind the suite.
Chief Operating Officer
Orchestrates operations, partnerships and field deployments across dive programmes.
Chief Product Officer
Shapes the product roadmap, the Abyssal Studio experience and customer success.
Take it down there
Tell us what you fly, where you dive, and what you need to see. We'll send a build tuned to your optics and your water.