AISAdvanced Isentropic
Solutions
In development. This page describes the planned biomass operation at Sailor Jack. The details will firm up as the project progresses.
The project

Solar-powered biomass energy extraction
&
carbon capture

An integrated operation where the sun, the forest, the cattle and the soil all work together.

How it fits together

One operation, nothing wasted

Each part of the operation feeds another. The plant runs on sunlight, so making fuel from the biomass doesn't burn other fuel to do it.

How the Sailor Jack energy operation fits together Sunlight powers solar panels and storage, which run the conversion plant. Biomass from the forest and plantation goes into the plant, where solar-powered electric heating splits it into syngas and biochar. A Fischer–Tropsch unit builds the syngas up into petrol and diesel, biochar and fertiliser go to the land, and heat and carbon dioxide go to the greenhouses. Biochar goes back into the soil and pasture, which supports the cattle and the replanting that grows the next crop of biomass. power biomass heat + CO₂ biochar back to the soil replant & regrow Sun Solar PV + storage Forest & plantation Conversion plant Syngas Petrol & diesel Biochar & fertiliser Greenhouses Soil, pasture & cattle power around the clock hydrogen + carbon monoxideinto fuel by Fischer–Tropsch grown, harvestedand replanted electric heat, no air:syngas, biochar & heat fuel for the farm and beyond richer soils, locked-in carbon hydroponics, food & vines an integrated cattleand biomass operation

Tap the diagram to see it full screen.

Step by step

From sunlight to fuel and back to the land

Capture the sun

A solar PV array, backed by non-metal battery storage, powers the plant, the greenhouses and the station around the clock.

Grow the biomass

Sailor Jack's own 1,600 hectares of forest and 2,800 hectares of leased forest at Donnybrook and Remington supply the biomass. Trees are harvested responsibly and replanted, so the supply keeps renewing itself. Of the roughly 100 hectares of cleared land, half stays as pasture for the cattle and the other half will be planted out as a plantation.

Convert it

Solar-powered electric heating cooks the biomass without air, splitting it into biochar and syngas, a mix of hydrogen and carbon monoxide. A Fischer–Tropsch plant then builds the syngas up into petrol and diesel, and fertiliser is made alongside, all without burning extra fuel.

Use what's left

Spare heat and CO₂ go to greenhouses for hydroponics and year-round growing, and solar lighting extends their day.

Return it to the land

Biochar goes back into the soil, where it holds water and nutrients, gives replanted trees a stronger start, improves the pasture for the cattle and stores carbon for the long term.

Land & carbon

Growing carbon back into the country

Replanting cleared land and returning biochar to the soil take carbon out of the air and keep it there. The project is designed to be carbon negative, taking more carbon out of the air than it puts in, and to leave the land healthier than it found it.

The plan also includes a vineyard and greenhouse food production alongside the cattle, all supplied from the same self-sustaining operation.

Pasture and gum trees at Sailor Jack Station
Biochar

An ancient secret for healthy soil

Biochar is charcoal made for the soil. Plant material is heated with little or no oxygen, so instead of burning away, its carbon is locked into a stable, porous form that can last in the ground for hundreds or even thousands of years.

Hands holding a pile of biochar made from wood
Photo: Tim Brunauer for GIZ, Wikimedia Commons, CC BY-SA 4.0

Born in the Amazon

More than 2,000 years ago, communities along the Amazon mixed charcoal, broken pottery, bone and food scraps into their soil. The result was terra preta, "black earth". Most Amazon soil is thin and poor, yet these patches are still some of the richest ground in the region today, and locals dig them up to sell as garden soil.

How it works

Biochar's tiny pores act like a sponge, holding water and nutrients that would otherwise wash away, and sheltering the microbes and fungi that help roots grow. It also eases acidity, which suits the sandy granite soils of the Granite Belt.

At Sailor Jack

The plant will make biochar from the same biomass it turns into fuel. Mixed with the operation's own fertiliser, it goes back into the pasture and the replanted forest, building healthier soil while storing carbon for the long term.

Syngas

The gas that becomes fuel

Syngas, short for synthesis gas, is a mix of hydrogen and carbon monoxide given off when biomass is heated without air. Those two simple molecules are building blocks: put back together the right way, they become petrol, diesel and other fuels.

A crowd inspecting a charcoal gas producer on a trailer behind a Ford car in 1940
A charcoal gas producer fitted to a Ford car, 1940. Photo: Sam Hood, State Library of NSW

A wartime fuel

In 1925, German chemists Franz Fischer and Hans Tropsch found how to join hydrogen and carbon monoxide into liquid fuel. During the Second World War, with petrol rationed, thousands of Australian cars and trucks ran on gas from charcoal "gas producers" like the one above. South Africa has made fuel from syngas on a large scale since the 1950s.

How it's made

Inside a sealed reactor, electric heaters raise the biomass to high temperatures with no air. Instead of burning, the wood breaks apart: the solid carbon stays behind as biochar and the rest comes off as gas. Running hotter gives more syngas and less biochar, so the balance can be tuned.

At Sailor Jack

The syngas is cleaned of tar and dust, then passed over a catalyst in the Fischer–Tropsch unit, which builds it up into the long carbon chains of petrol and diesel. Because the sun supplies the heat instead of burning part of the gas, more of every tonne of biomass ends up as fuel.

Want to know more?

We're happy to talk about the project with anyone who's interested.

Ask about the project