Farmless Proteins

Start where energy is cheapest.

Protein is made from carbon, hydrogen, oxygen and nitrogen. Those elements are everywhere. Cheap energy isn't.

So we start where clean energy is abundant and use it to make the simple molecules we need.

Turn energy into a shippable liquid.

Humans are very good at chemistry and energy. Both keep getting better and cheaper.

Carbon and hydrogen turn into a concentrated liquid. Nitrogen comes from the air and becomes ammonia (Hello, Haber-Bosch).

Ship molecules, not farms.

Then it goes into a 20-foot tank container: one of the most standardised, boring and well-solved objects humanity has ever built.

It can cross an ocean without refrigeration, seasons or spoilage.

Moving concentrated molecules around the world is a solved problem.

Here, protein still starts with land.

For ten thousand years, food has followed sunlight.

Sun to crop. Crop to cow. Cow to us.

At first glance, it works remarkably well. But it also consumes prodigious amounts of land, fertiliser, water and pesticides.

But making proteins from scratch is hard.

Proteins are strange little machines.

They fold into precise three-dimensional shapes, interact with thousands of other molecules and somehow end up tasting like food.

Humans can make proteins from scratch.

We're just not particularly good at making dinner this way.

Nature, fortunately, is good at making tasty protein.

Every living cell is a molecular factory.

Give it simple inputs and it builds proteins, fats, vitamins, flavours, colours and structure… all deeply inconvenient to manufacture one by one.

So we didn't try to out-engineer nature. We looked for the best interface between nature and technology.

That interface is fermentation.

Technology makes the simple inputs. Biology assembles them into food.

So we searched nature for an organism (insoil, bark, windfall fruits and other places) that could thrive on those inputs, grow exceptionally fast and produce nutrient-dense postbiotic proteins.

One stood out.

Then we built the fermentation around it.

Then we spent years making it delicious.

Finding the organism was just the start.

We screened strains, changed how we fermented and harvested them, selected for taste, colour, aroma, protein, nutrition and functionality.

And built a whole company around a single organism.

Taste alone wasn't enough. To get the most out of the organism, we've adapted the whole world around it.

Fermentation scientists, engineers, and developers work side by side, solving the same problem from different angles.

Pumps, electronics, cooling, controls and software become one continuous system.

The brewery becomes a single system.

Conventional fermentation equipment wasn’t built for this speed and precision, so we rebuilt it from the ground up.

Custom hardware runs the process. Software captures everything from fermentation to flavour. Sensors, valves, pumps and steel act as one system, holding conditions exactly where the biology wants them.

Which unlocks continuous fermentation.

Fresh nutrients flow in while protein flows out.

No filling, waiting, cleaning and emptying. The fermentation stays in peak productive state and keeps running.

More output from smaller vessels unlocks modular hardware production (hello project finance).

Fermentation in. Protein out.

The fermentation is separated, concentrated, dried and packed under one roof.

The front end looks like a brewery.

The back end looks like a dairy plant.

Then the fun part starts.

Making food.

Our postbiotic protein is a nutrient-dense whole food with a complete amino acid profile, naturally rich in B vitamins and micronutrients.

It goes to the most demanding products: shakes, bars, sport-nutrition and whatever comes next.

And when protein becomes Farmless, land becomes something else.

That creates room for rewilding, regenerative agriculture, clean energy, housing and abundance.

More Farmless. More life.