Land impacts are receiving greater attention today because measuring them consistently has long been a challenge. Companies engaged in agricultural sourcing, land transformation, or biogenic materials recognized their relevance but often lacked clear methods to quantify related emissions. Guidance was fragmented and open to interpretation, leading to reporting approaches that varied widely. This limited comparability and created uncertainty for investors, regulators, and other stakeholders evaluating disclosures. Carbon removals faced similar issues. Natural sequestration through soil carbon sequestration and vegetation management was often assessed differently from technological approaches such as direct air capture. In parallel, forest carbon methodologies remained contested and were therefore not incorporated into standardized corporate inventories. Without shared accounting principles, organizations found it difficult to integrate these activities into climate strategies or evaluate them alongside emissions reductions. As a result, land impacts remained visible in sustainability discussions but were not consistently reflected in corporate inventories. This disconnect reduced transparency and highlighted the need for more coherent reporting approaches. The complexity and sensitivity of land sector accounting across scientific, political, and operational dimensions have historically made consensus difficult, reinforcing the importance of globally coordinated frameworks.
The Land Sector and Removals Standard addresses these challenges by providing a structured framework for integrating land-related impacts into greenhouse gas inventories. It establishes shared principles that organizations can apply across industries, enabling land emissions and removals—excluding forest carbon accounting, which is expected to be addressed through future updates—to be evaluated within the same reporting systems used for other emissions sources. In practical terms, the framework broadens what companies can measure and disclose. It enables accounting for emissions from land management and land-use change, recognition of carbon stored in land and geological systems, and more consistent assessment of biogenic product impacts across value chains. It also allows both natural and technological removals to be included where reporting safeguards are met. Key coverage areas include:
Emissions from agricultural land use and land transformation
Carbon storage across land-based and geologic pools
Value-chain impacts associated with biogenic materials and biogenic emissions
Natural removals such as soil or vegetation sequestration
Technological removals, including direct air capture
By aligning these elements within a unified structure, the standard enhances transparency and comparability in climate disclosures while maintaining defined methodological boundaries. It also reflects a broader shift toward integrating ecological system impacts within corporate reporting practices. To support adoption, the GHG Protocol has indicated that a dedicated guidance document will be released in the second quarter of 2026, alongside additional supporting materials to be rolled out through the year.
Integrating land sector accounting into inventories may influence organizational decision making beyond compliance requirements. With improved visibility into land-related impacts, as defined by the standard, companies can reassess sourcing and operational choices in relation to climate performance. These changes are likely to shape planning and engagement in several ways:
Collectively, these developments encourage organizations to treat land stewardship as part of core climate planning rather than as an adjacent sustainability initiative.
As land-sector reporting expectations evolve, organizations may face challenges translating emerging standards and forthcoming guidance into operational practice. Implementing new accounting approaches often requires improved data visibility, stronger supplier engagement, and alignment between sustainability objectives and business strategy. Cognitud supports organizations in addressing these challenges by helping interpret evolving frameworks and assess implications across value chains. This includes clarifying scope boundaries, identifying exposure to land-related emissions, strengthening traceability, and integrating land metrics into transition planning. By connecting reporting requirements with strategic insight, such support enables organizations to respond more confidently to changing governance expectations while strengthening long-term resilience.
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Priyanka Mehta
Design structured sustainability pathways aligned with your industry landscape.
Carbon is removed through natural processes like forests, oceans, and soil carbon sequestration, as well as technologies like direct air capture. These methods absorb or capture CO₂ and store it, helping reduce overall atmospheric carbon levels.
Land use change is the conversion of land from one use to another, such as forests to agriculture or urban areas. It can release stored carbon or enhance carbon storage, making it a key factor in emissions and climate impact.
Direct air capture (DAC) is a technology that removes CO₂ directly from the air using chemical processes. The captured carbon is then stored underground or reused, making it a key tool for addressing hard-to-abate emissions.
Carbon sequestration is important because it removes CO₂ from the atmosphere and stores it long-term in soils, forests, or underground. It helps reduce the overall concentration of greenhouse gases and supports climate mitigation alongside emissions reduction efforts.
Carbon removal captures CO₂ from the air and stores it long-term. This happens naturally through plants and soils, or through technologies like direct air capture and underground storage, ensuring the carbon does not re-enter the atmosphere.
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