Warehousing & logistics

Robots that know your warehouse. Not warehouses in general.

Logistics is where robots already work. Agility's Digit has moved over 100,000 totes at GXO and became the first OSHA-certified humanoid. Roughly 16,000 humanoid robots were deployed globally in 2025 — most of them in warehouses. That part is settled.

What is not settled: those robots are trained on synthetic data. They know the statistical average of every warehouse. Yours is not average. Kin captures what your fleet — and the people around it — learns on your floor, and transfers it to every machine you run.

Last updated: July 2026

How this looks in practice

Five things a picker knows in week one — and a generic robot never learns

These are scenarios, not case studies. They show the level of detail Kin operates at — and why that detail is the whole point.

The bent totes

Without Kin

Totes from one supplier arrive with slightly bent handles. A generic robot grips them where it grips every tote — and drops them. It drops them today, and it drops them next quarter, because nothing it experiences changes what it knows.

With Kin

The rule — totes from this supplier: grip 3 cm lower — is captured once. Every robot in the fleet applies it from that moment on. A human picker learns this in week one. Now the fleet does too, and never forgets.

How this warehouse stacks

Without Kin

Mixed-pallet stacking is house style: the heavy-bottom rule, the customer whose boxes never go on top. A robot trained on the average of everywhere stacks the average way — and your supervisor spends the shift correcting pallets.

With Kin

The house style is learned once — from the floor, from the people who set it — and every robot follows it. Not because it was reprogrammed, but because it reads from the same knowledge.

The seasonal layout flip

Without Kin

Every January, aisle 14 becomes the returns zone. Every January, the fleet treats it as a surprise: re-mapping, re-routing, mis-picks in the first week.

With Kin

The pattern is part of the site's memory. The fleet knows the layout flips before it happens — because it happened last year, and the year before, and that experience was kept.

Dock quirks

Without Kin

Dock 3 slopes. Pallets shift on it. Everyone on the floor knows to slow down there. A new AMR does not — until something falls.

With Kin

The new AMR reads the site's knowledge on day one. It slows down at dock 3 on its first run, the same way an experienced driver would — because the experience transferred.

The peak-hire problem

Without Kin

Seasonal robot capacity arrives on a RaaS contract for peak. The rented machines spend their first rental weeks learning your site — the exact weeks you rented them to be productive.

With Kin

Rented robots inherit the site knowledge instantly. They work like machines that have been on your floor for a year, from hour one. When the contract ends, the knowledge stays with you.

Fleet & multi-site

Per-warehouse context. Company-wide method.

The building layer

Each warehouse has its own Kin context: the sloping dock, the seasonal layout, the supplier with the bent totes. Knowledge that only makes sense in that building stays with that building.

The method layer

How your company stacks, picks, and handles exceptions is shared across all sites. Open a new DC and the methods transfer on day one. The fleet only has to learn the building — once.

Today, a robot's experience is discarded when the machine is replaced. With Kin, the next machine inherits it — and the knowledge belongs to your business, not to the robot manufacturer. That matters most in logistics, where fleets are mixed, machines rotate, and capacity is rented. More on how this works in our primer on physical AI.

Economics

The RaaS math only works if day one is productive

Robots-as-a-Service runs at roughly $10–12 per hour against $30 per hour for human labor. Goldman Sachs projects a $38B humanoid market by 2035. On paper, the case closes itself.

The hidden cost is ramp-up. A robot that spends its first weeks dropping totes, mis-stacking pallets, and re-learning the building is paying human-labor prices for robot-labor output. Inherited knowledge removes the ramp: the machine arrives with the site already in its head. That is the difference between the spreadsheet math and the actual math.

Questions

Frequently asked

Does this work with AMRs as well as humanoids?

Yes. Kin is a knowledge layer, not a robot. It holds what has been learned about your site and makes it available to any machine in the fleet — AMRs, humanoids, arms — regardless of manufacturer.

What about our WMS?

Kin complements it. The WMS knows where inventory should be and what orders exist. Kin holds physical-world knowledge the WMS never sees: which totes have bent handles, which dock slopes, how this warehouse actually stacks a mixed pallet. Different layers, different questions.

We rent robots for peak. Does the knowledge leave with them?

No. The knowledge lives in your Kin, not in the machine. Rented robots read from it while they work for you, and what they learn is written back to your Kin. When the rental ends, the knowledge stays.

How does a multi-site rollout work?

Each warehouse gets its own Kin context for building-specific knowledge; method knowledge is shared company-wide. Opening a new DC means transferring the methods and learning only the building.

Your fleet is learning. Keep what it learns.

Whether you run two AMRs or a mixed fleet across five DCs: the knowledge should belong to you.