The Carbon Farming Initiative represents Australia’s first comprehensive legislated framework designed to reward farmers and land managers for storing carbon and reducing greenhouse gas emissions. First established under the Carbon Credits (Carbon Farming Initiative) Act 2011, this scheme recognises that agriculture and land use contribute a significant share of the country’s emissions—around 25% historically—while simultaneously offering substantial opportunities for carbon sequestration through vegetation and soils.
Since 2014, the CFI has been integrated into the Emissions Reduction Fund (now commonly referred to as the ACCU scheme), but the underlying legislation, methods, and integrity standards remain rooted in what many still call the “Carbon Farming Initiative.” Under this framework, eligible projects can generate tradable Australian Carbon Credit Units, each representing one tonne of carbon dioxide equivalent (tCO₂-e) reduced or stored in the environment.
The Carbon Farming Initiative was announced in 2010 as part of Australia’s broader climate policy response, with the Carbon Credits (Carbon Farming Initiative) Act 2011 passing Parliament in August 2011 and commencing operations in December that year. This made Australia one of the first countries in the world to establish a comprehensive, legislated domestic offset program covering the land sector.
The CFI was designed to complement Australia’s international climate commitments, initially under the Kyoto Protocol where the country agreed to limit emissions to 108% of 1990 levels during 2005-2012. The scheme acknowledged that farms and forests could play a dual role: contributing to emissions while also serving as powerful carbon sinks when managed appropriately.
A significant policy shift occurred in 2014-2015 when the Emissions Reduction Fund replaced the earlier carbon pricing mechanism. The CFI was absorbed into this new system, meaning land sector projects now compete alongside industrial and energy projects for government purchasing contracts. Initial funding of $2.55 billion supported these competitive auctions.
Following the 2022-2023 Independent Review of ACCUs (the Chubb Review), the framework has evolved further with increased emphasis on high-integrity credits. Australia’s current Paris Agreement commitments include a 43% reduction below 2000 levels by 2030 and net zero by 2050, with the land sector playing a central role in meeting these targets.
The integrity of CFI projects rests on clear principles embedded in the Carbon Credits (Carbon Farming Initiative) Act and its subordinate regulations. These principles ensure that credits represent genuine, verifiable emissions reductions rather than paper exercises.
Additionality requires that carbon farming activities go beyond what would happen anyway under normal business practices or existing regulations. The Australian framework applies two key tests: “newness” (projects must start after joining the scheme) and “regulatory additionality” (the activity isn’t already mandated by law). This prevents credits being issued for routine grazing management or practices farmers would have adopted regardless.
Permanence addresses the reality that sequestration projects like tree planting or soil carbon can be reversed by fire, drought, or land-use changes. Participants must choose either a 25-year or 100-year permanence period and commit to maintaining carbon stocks for that duration. Risk buffers—typically 20-50% of credits withheld in a government-held account—provide insurance against unavoidable reversals.
Measurability and verifiability demand that emissions reductions or sequestration be precisely quantified using approved methods. This includes soil sampling to specified depths with statistical confidence intervals, biomass inventories via ground surveys or remote sensing, and independent audits by accredited Greenhouse and Energy Auditors at intervals of 2-5 years.
No double counting ensures that one tonne of carbon can only be claimed once. All CFI credits are tracked in the Australian National Registry of Emissions Units, preventing the same abatement from being credited to multiple parties or counted under different schemes.
A typical CFI project follows a clear cycle: choose a method, register with the regulator, implement on-ground activities, monitor progress, undergo independent audits, and receive ACCUs. Understanding this process is essential before committing land to a project.
The main actors in the system include project proponents (farmers, Indigenous corporations, pastoral companies, councils, or aggregators), the Clean Energy Regulator (the administering body), accredited auditors who verify project performance, and credit buyers from both government and private sectors. Aggregators like Greenbank Carbon or CarbonLink can be particularly useful for smaller landholders, bundling multiple properties into single projects to reduce per-farm transaction costs.
Government purchasing of units historically occurred through competitive ERF auctions, with prices averaging $12-24 per unit until 2022. Today, many credits are sold through private offtake agreements and voluntary markets, with prices ranging from $20-40 per ACCU depending on credit type and vintage.
The CFI framework includes multiple approved methods spanning both carbon sequestration and emissions avoidance, each with specific rules and accounting approaches. Methods are periodically updated, replaced, or retired, so participants must follow the version applicable when their project is registered.
Vegetation projects encompass native forest regeneration on cleared land, environmental plantings of mixed native species, and plantation forestry where eligible. These projects store carbon in trees, shrubs, and woody biomass, and have been among the longest-running CFI project types.
Soil carbon projects target grazing and cropping systems, measuring changes in soil organic carbon stocks over time. These became available after 2014 method developments and remain particularly relevant for broadacre farmers across Australia’s vast grazing estate.
Savanna fire management involves controlled early dry-season burning in northern Australia to reduce emissions from intense late-season wildfires. These projects combine traditional Indigenous fire knowledge with modern emissions accounting.
Livestock and manure management covers practices like improving herd genetics for methane efficiency, biodigesters capturing methane from piggeries, and feed additives for emissions reduction (with method availability subject to current regulations).
| Project Type | Main Actions | Typical Eligibility | Key Co-Benefits |
|---|---|---|---|
| Vegetation | Regeneration, plantings, excluding grazing | Pre-1990 cleared land, minimum project size | Windbreaks, erosion control, habitat |
| Soil Carbon | Rotational grazing, cover crops, reduced tillage | Grazing/cropping land, baseline sampling | Improved soil health, water retention |
| Savanna Burning | Early dry-season cool burns | Northern Australia, Indigenous land managers | Employment, cultural benefits, biodiversity |
| Manure Management | Biodigesters, covered lagoons | Piggeries, feedlots | Energy production, odour reduction |
Soil organic carbon represents a major opportunity for Australian agriculture, particularly across the vast grazing estate that covers roughly 70% of the country’s landmass. Post-2014 methods enabled measurement-based soil projects, allowing farmers to earn credits for practices that genuinely increase carbon stocks in their soils.
Typical practice changes that can build soil carbon include establishing improved pasture species, maintaining higher groundcover year-round, implementing rotational grazing systems, reducing soil disturbance from cultivation, optimising fertiliser applications, and incorporating cover crops between cash crop rotations. Real-world studies show gains of 0.2-0.5% soil organic carbon over 5 years under well-managed rotational grazing, though results vary significantly with climate conditions and soil type.
The measurement approach involves baseline soil sampling to depth (commonly 0-30cm, sometimes deeper), repeated sampling over time, laboratory analysis of total organic carbon, and application of approved statistical methods to detect changes attributable to management. Labs analyse samples via dry combustion, applying factors like bulk density and depth to compute changes.
Practical considerations for soil carbon projects:
Vegetation projects store carbon in trees, shrubs, and woody biomass, representing some of the earliest and most established CFI project types. These projects can deliver 5-20 tCO₂-e per hectare annually in initial growth phases, tapering as vegetation matures.
Human-induced regeneration involves restoring native forests on cleared or degraded land by managing grazing pressure and suppressing regrowth clearing. Evidence of pre-2010 clearing is typically required, and the regeneration must be additional—not something that would have occurred anyway or is required by law. South Australian mallee regrowth projects have demonstrated success, with 200+ native species returning alongside carbon accumulation.
Environmental plantings establish mixed native species for habitat, shelter, and carbon storage. These differ from monoculture plantations by prioritising biodiversity and ecosystem function alongside carbon yield.
Eligibility basics include:
The practical co-benefits of vegetation projects extend well beyond carbon. Windbreaks and shelter improve livestock welfare and reduce production losses. Erosion control protects topsoil and improves water infiltration. Habitat creation supports native species and creates wildlife corridors. In western New South Wales, for instance, fencing riparian zones and altering grazing intensity has boosted biomass by 15-30% while enhancing broader environmental outcomes.
Northern Australian savanna burning projects represent a distinctive CFI activity where traditional fire knowledge and modern emissions science combine to deliver measurable climate benefits. These projects operate across the Northern Territory, Kimberley, and Cape York regions.
The science is straightforward: early dry-season burning at cooler temperatures reduces the area ultimately burned by intense late-season wildfires. These cooler burns produce significantly less methane (with 21 times the warming potential of CO₂) and nitrous oxide (298 times CO₂), generating ACCUs based on the emissions avoided compared to historical fire patterns.
Indigenous ranger groups and traditional owners play a central role in many savanna projects, bringing generations of fire management knowledge to bear. The Warddeken Land Council in Arnhem Land, for example, runs one of the largest savanna burning operations, issuing thousands of ACCUs annually while creating over 50 jobs and maintaining cultural practices on country.
Other emissions avoidance methods related to livestock include improved herd management and genetics, manure biodigesters that capture 80-90% of methane from piggeries (as demonstrated by the first CFI project in Young, NSW), and emerging feed additives for methane reduction. Method availability should be checked against current Australian regulations.
The primary financial drawcard of the CFI is generating ACCUs that provide new income alongside traditional farm revenue. For a 5,000-hectare grazing project yielding 1 tCO₂-e per hectare annually and sold at $30/ACCU, gross revenue reaches $150,000 per year before costs—a meaningful addition to most farming operations.
The non-financial co-benefits can be equally significant for farm production and resilience. Improved soil management practices boost soil structure, water-holding capacity (10-20% more in some cases), and fertility. Higher groundcover and deeper root systems enhance resilience to droughts and climate extremes. Vegetation establishment supports biodiversity while providing shelter for livestock.
| Cost Category | Typical Range | Notes |
|---|---|---|
| Baseline sampling (soil) | $10,000-50,000 | Depends on property size and sampling density |
| Project registration | $5,000-15,000 | Including legal and technical support |
| Annual monitoring | $2,000-10,000 | Record-keeping, measurements |
| Periodic audits | $20,000+ | Required every 2-5 years |
| Aggregator fees | 10-25% of credits | If using aggregation model |
Successful participation in the Carbon Farming Initiative requires administrative discipline alongside on-ground practice change. The Clean Energy Regulator has rejected 10-20% of applications historically due to baseline errors or documentation gaps.
Monitoring and reporting requirements vary by method but generally include keeping detailed management and input records, undertaking scheduled measurements (soil sampling, biomass surveys), and submitting project reports at intervals of 2-5 years depending on the method chosen.
Independent audit obligations add another layer of verification. Audits must be conducted by registered Greenhouse and Energy Auditors, usually before first ACCU issuance and then periodically throughout the project life. The Clean Energy Regulator may also conduct spot checks or compliance reviews.
Failure to meet requirements carries serious consequences. Non-compliance with permanence obligations, under-reporting, or fraud can trigger enforcement action including credit cancellation, project revocation, and penalties up to AUD 1.1 million. Careful governance, record-keeping, and legal structuring are essential—particularly for leased land or properties with multiple stakeholders.
While opportunities are significant, landholders should understand key risks before entering a CFI project. Conservative planning and professional advice can help navigate these challenges.
| Risk Type | Description | Impact |
|---|---|---|
| Climatic | Drought, fire, flood affecting sequestration | 2019-2020 Black Summer fires erased 5-15% of vegetation stocks |
| Policy/Regulatory | Method changes, integrity reforms, shifting government purchasing | Method updates may affect credit generation |
| Market | Fluctuating ACCU prices, demand variability | Prices have ranged from $15-40 in recent years |
| Project Delivery | Underperformance relative to modelled yields | Soil carbon gains halved by drought in some projects |
The CFI framework continues evolving in response to new science, market expectations, and integrity reviews. The 2022-2023 Chubb Review critiqued over-crediting in some vegetation methods and prompted reforms including remote sensing mandates and stronger verification requirements.
The international context also matters. The European Commission has developed its own carbon farming certification proposals, and voluntary carbon codes like Verra observe Australia’s experience with land sector crediting. This global attention may increase the value of well-documented, high-integrity Australian credits.
If you’re interested in exploring a CFI project on your property, a systematic approach reduces risk and improves your chances of success.
Before committing, carefully review example project documents and guidance materials available on the Clean Energy Regulator’s website. Understanding what successful projects look like helps set realistic expectations.
Early engagement with legal and tax advisers is particularly important for understanding the implications of permanence obligations, land tenure, and credit ownership. Leased or share-farmed situations can complicate 100-year commitments significantly, and clear agreements are essential before registration.
Starting small makes sense for most farmers. Piloting on 10-20% of your land, building experience and systems, and understanding the administrative requirements before scaling up can yield internal rates of return of 10-15% while managing downside risk. Success stories like CarbonLink’s 100+ projects demonstrate that measured entry and steady growth is often the most sustainable approach.
“Carbon farming” is a broad term encompassing any practices that store carbon in vegetation and soils—this includes regenerative agriculture, climate-smart farming, and various land management approaches that may boost soil organic carbon by 10-30% without any formal certification.
The Carbon Farming Initiative, by contrast, is a specific Australian legal framework with defined methods and rules that generates tradable Australian Carbon Credit Units. Many farmers adopt beneficial practices without registering a CFI project, but only approved and verified projects can issue ACCUs within the Australian scheme. If you want to monetise your carbon outcomes, CFI registration is the pathway—but if you simply want to improve soil health and productivity, informal carbon farming practices can deliver those benefits without the administrative overhead.
Eligible participants include individual farmers, pastoral companies, Indigenous organisations holding land under Indigenous Land Use Agreements (ILUAs), local councils, and other land managers with legal rights over the project area. Aggregators can bundle smaller farms into one project, which is particularly helpful for family farms that might not generate enough credits on their own to justify standalone registration costs.
Clear land tenure is a prerequisite—whether ownership, lease with appropriate term (typically 5+ years), or other legal interest. Consent from all relevant parties including mortgagees and native title holders must be documented. The “fit and proper person” test also applies to proponents, ensuring participants have the capacity and intent to meet long-term obligations.
Timelines vary significantly by method. Emissions avoidance projects like savanna fire management may generate credits within 1-2 years of registration. Sequestration projects—soil carbon and tree planting—typically take several years before measurable increases can be verified with statistical confidence.
Add to this the registration, baseline measurement, and initial audit phases, which can take 6-18 months before first ACCU issuance. Participants should plan for a multi-year horizon and ensure adequate cash flow, as carbon revenues are usually back-loaded compared with upfront costs for establishment and monitoring.
Permanence obligations continue for the duration of the commitment (25 or 100 years) even if ownership changes. This means property sale contracts must address the transfer of CFI responsibilities, and buyers must be willing to assume ongoing obligations.
Project proponents can apply to vary or revoke projects under certain conditions, but may need to relinquish ACCUs already issued or face other consequences if sequestration is reversed or obligations are not met. Prospective participants should seek legal advice on exit options, succession planning, and property sale scenarios before registering a project. Understanding these constraints upfront prevents costly surprises down the track.
ACCU prices are not fixed by government—they’re determined by auction outcomes (historically) and private market negotiations. Prices are influenced by credit type (sequestration versus avoidance), perceived integrity, contract length, and buyer demand. Historical ERF auctions averaged around $23 per unit, while private markets have seen prices range from $15 during low-demand periods to $35+ in recent years.
Landholders can sell through government processes when available, brokers, aggregators, or directly to companies seeking offsets. Each pathway involves different transaction costs and risk profiles. When planning, compare offers carefully, understand delivery obligations in any contract, and avoid business models that only work if prices reach optimistic peak levels.
Caroline Baker is a graduate of the University of Colorado Law School. She has worked with a number of grass roots environmental institutions in the Northern Rocky Mountain Region of the United States, including the Montana Wilderness Association, Jackson Hole Conservation Alliance and the Grand Teton National Park Foundation. She is currently based in Sydney, Australia where she is working as a Market and Policy Research Analyst with Carbon Training International. Caroline is passionate about the role that Governments and business can play in promoting environmental and climate policy issues.