Visual-spatial perception for AI agents

Agents want to see like we do.

Scrolling flies the camera into the eye’s pupil and through the dark inside, then down onto the glowing retina, past red vessels and down through its see-through layers of cells, into a canopy of cell bodies. We drop out of the canopy inside the retina: a watercolour forest of strange layered trees made of neurons, on a yellow floor of rods and cones, with light slanting down from above and a red river of blood, where a small eye rows a boat made of a red blood cell.

Every AI that sees should see like we do.

Giving AI a sense of shape, distance and how things fit together.

sehn = “to see” · say “zane”

The problem

An LLM doesn’t see an image. It reads a list of patches.

Today’s models talk brilliantly about pictures. Yet they stumble on spatial tasks a small child solves at a glance. Try one yourself.

Three tangled lines start at dots A, B and C on the left and end in boxes 1, 2 and 3 on the right. A B C

Roughly what the model gets: separate patches

Which box does line A end in?

Tap the box where line A ends.

A three-year-old simply follows the line with their eyes.

A vision model first cuts the picture into a grid of small patches and turns each one into numbers. A line that runs across many patches is no longer one line, so the model has to guess where it goes.

The same blind spot shows up everywhere: what is in front of what, what connects to what, where there is room to move.

How it works

One sentence, and your agent can see.

sehn.ai is an MCP service. Tell your agent to use the tools at sehn.ai, and it gains a sense of space it did not have before.

  1. I.

    Any agent

    Bring the agent you already use.

    • Claude
    • GPT
    • Gemini
    • Any agent
  2. II.

    The sehn.ai MCP server

    “use the tools at sehn.ai”

    • Paths, connections
    • More coming
  3. III.

    New answers

    About shape, position and connection, that it could not give before.

Illustrative examples

Grounded in neuroscience

Built on how the brain sees space

Our tools draw on decades of vision neuroscience, and give an LLM the sense of space it can’t get from a list of patches.

Working nowpath tracing, 87% on 200 unseen mazes
More comingnew skills, each tested on puzzles it never saw

First evidence

With sehn.ai, agents trace paths they couldn’t before.

200 new mazes: which entrance reaches the exit? None of them were used to build or tune the tools, and the analysis was written down before the run.

Claude Haiku 5.5 on 200 new mazes our tools never saw

  • Answers directly 63/200 · 32%
  • Agent, can zoom in 67/200 · 34%
  • Agent + sehn.ai tools 173/200 · 87%

Guessing scores 30%.

Held up on its first real test79% even on maze styles we never built on. Weaker on unusual rendering styles. One task family so far.

Where it matters

One way of seeing, many markets

The same sense of space helps wherever a machine has to understand a room, a drawing, a face or a screen.

Robotics

A free path through a cluttered room.

Engineering firms

Follow a pipe or wire through a drawing.

Image & video generation

Surfaces and depth that stay consistent.

Live avatars

A hand in front of a face, an object held up.

Live video

Follow what moves and connects across frames.

The name

Why we call it sehn

sehn means “to see” in Austrian German.

Diana is Austrian. For her, seeing is the most important part of a good life, and she loves that agents and LLMs can learn to see. Anton’s passion has always been vision: how we see, and how a machine could see the same way.

Both have loved Magic Eye pictures since they were children. A flat pattern, and suddenly depth appears. That moment is what we give to AI.

Autostereogram in plum, rose and cream dots; with relaxed eyes a hidden word floats out in 3D.

Try it: look through the picture, as if at something far behind it. One word floats out. When the two dots turn into three, you’re close.

How to see it

Bring your face close to the screen, so the picture is a blur. Then slowly lean back with relaxed eyes, as if you were looking at a distant point behind the screen. Give it 10 to 30 seconds.

Team

The two people behind sehn

A clinical psychologist with a computer-science background, and an engineer who builds brain-inspired vision systems.

Portrait of Anton Vattay

Anton Vattay

Co-founder · CTO · Research

  • 20 years of engineering
  • Vision AI at Toren AI and VEDO
  • Brain-inspired computer vision
  • Model training and deployment
Portrait of Dr. Diana Schaffer

Dr. Diana Schaffer

Co-founder · CEO

  • Clinical psychologist, PhD; studied computer science
  • 10+ years of clinical practice
  • Organisational development, built high-performance teams
  • Former CEO of a medical center

How we got here

  1. I.People reason in pictures: we follow, fit and compare shapes without a word.
  2. II.LLMs describe images brilliantly, then get the space in them wrong.
  3. III.Anton had met the same blind spot throughout his years in computer vision.
  4. IV.sehn.ai: give AI the non-verbal reasoning it is missing.

Early access

Every AI that sees should see like we do.

sehn.ai is in early access. Tell us what your agent should see, and we’ll send you an API key to try it.

anton@mindsprings.ai diana@mindsprings.ai

Ask for an API key

required. We use your details only to reply and set up your access (privacy).
Explanation of Plate Isehn.ai dib., after the plates of S. Ramón y Cajal

The retina, from the inside. Light comes down from above and passes through every layer before it reaches the rods and cones; on its way back, the picture is taken apart and analysed, layer by layer, before the brain ever sees it.

I. ganglion cells, the roof II. inner plexiform, the canopy III. inner nuclear, the upper trunks IV. outer plexiform, the lower branches V. outer nuclear, the nuclei of rods and cones VI. rods and cones, the trunks

Gc
ganglion cellthe retina’s output: their fibres make the optic nerve, carrying a picture already analysed
Ac
amacrine cellcompares neighbours across space and time; some detect the direction of motion
Bc
bipolar cellcarries the signal inward, split into “lighter than around” and “darker than around”
Hc
horizontal cellholds back each cell’s neighbours, so that edges stand out
Mg
Müller gliaspan the whole retina, and guide light down through it like optical fibres
R
rodssee in dim light
C
conessee colour and fine detail
Cap
capillaryfeeds the inner layers
Rbc
red blood celldarker than the plasma it floats in
S
sehnlearning to see the same way
Each layer of the scene is flat; the depth you see comes only from how they move against each other. Flattened, they all move alike.
Hides the page, so only the painting of the retina is left. Scrolling still moves through it; Escape brings the page back.