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Climate

WA's First Direct Air Capture Plant Signals a New Chapter for Carbon Removal

Pilot Energy's Dongara project combines carbon capture, water recovery and existing gas infrastructure in what could be a blueprint for low-carbon energy hubs across Australia.

WA's First Direct Air Capture Plant Signals a New Chapter for Carbon Removal
Image: Sydney Morning Herald
Summary 3 min read

Pilot Energy is set to activate Australia's first WA-based direct air capture plant, pairing carbon removal technology with water recovery at an existing energy site.

A small Western Australian energy company is about to switch on a technology that Australia has so far only read about in overseas press releases. Pilot Energy is preparing to activate what it describes as the country's first direct air capture (DAC) plant in Western Australia, a facility that draws carbon dioxide directly from the atmosphere rather than intercepting it at the point of emission. For a nation still working through the tensions between its fossil fuel export economy and its net-zero commitments, the timing is significant.

The plant is being developed at an existing energy site in WA and is designed to do more than remove carbon. According to reporting by the Sydney Morning Herald, the facility also incorporates water recovery technology, meaning the same process that strips CO2 from the air can yield usable water as a byproduct. That dual-use design reflects a broader logic in the project: make decarbonisation pay for itself, or at least come closer to paying for itself, by producing something tangible alongside the climate benefit.

Direct air capture is not a new concept. Companies like Climeworks in Switzerland and Occidental Petroleum's 1PointFive in the United States have been operating DAC facilities at varying scales for several years. What distinguishes the Pilot Energy project is its attempt to integrate the technology into existing Australian energy infrastructure rather than build a standalone facility from scratch. The company is leveraging infrastructure already in place, which, in theory, reduces capital costs and shortens the path to commercial viability.

The science behind direct air capture is unambiguous: it works. The question has always been whether it works economically. Current DAC costs globally range from roughly $400 to over $1,000 per tonne of CO2 removed, depending on the facility, the energy source powering it, and local conditions. For context, the Australian carbon credit price has historically traded at a fraction of that figure, which means DAC cannot yet compete with cheaper abatement options on pure economics. CSIRO has identified carbon capture and storage as one of several technologies that will be needed to meet Australia's 2050 net-zero target, but has also noted that cost reduction remains the central challenge.

Proponents of the technology argue that the cost curve for DAC will follow a similar trajectory to solar panels and battery storage, both of which seemed prohibitively expensive a decade ago. There is a reasonable case for that optimism: learning rates in energy technology tend to be substantial once deployment scales up, and early movers like Pilot Energy are generating the operational data that makes cost reduction possible. The federal government's Clean Energy Regulator has shown increasing interest in novel carbon removal methodologies, and there are signals from Canberra that policy frameworks may eventually accommodate engineered carbon removal alongside land-based offsets.

Critics, however, raise legitimate concerns. Environmental groups and some climate economists argue that investment in high-cost DAC risks becoming a distraction from the faster, cheaper work of cutting emissions at source. The argument runs that every dollar spent capturing carbon from the air is a dollar not spent replacing a coal-fired power station or retrofitting a building. There is also a concern, documented in peer-reviewed literature, that the availability of carbon removal technologies gives fossil fuel industries a reason to defer the harder structural changes.

Those are serious objections and they deserve honest engagement. The IPCC's Sixth Assessment Report was clear that carbon removal will be necessary to meet Paris Agreement targets, but equally clear that removal cannot substitute for rapid emissions reduction. The two need to happen in parallel, not in sequence.

What the Pilot Energy project represents, in practical terms for Western Australia's energy sector, is a proof-of-concept at domestic scale. Whether it becomes a commercially replicable model or remains a demonstration project will depend on factors including the cost trajectory of the technology, the evolution of carbon credit markets, and how seriously Australian governments are prepared to price carbon removal as a genuine climate service. The energy transition is not a question of if, but of how and how fast, and projects like this one are part of working out the answer.

Reasonable people can disagree about how much public and private capital should flow into nascent carbon removal technology versus established renewable deployment. The data will ultimately be the arbiter. For now, a small company in WA is at least asking the right question out loud, and doing so with hardware rather than a PowerPoint presentation. That alone puts it ahead of most of the conversation.

Sources (1)
Liam Gallagher-Walsh
Liam Gallagher-Walsh

Liam Gallagher-Walsh is an AI editorial persona created by The Daily Perspective. Covering climate science, energy policy, and environmental issues with data-driven reporting and measured analysis. As an AI persona, articles are generated using artificial intelligence with editorial quality controls.