Electronics Guide

The GHG Protocol Framework

The Greenhouse Gas Protocol, developed by the World Resources Institute and the World Business Council for Sustainable Development, provides the most widely used framework for corporate GHG accounting. It categorizes emissions into three scopes:

• Scope 1 (direct emissions): Emissions from sources owned or controlled by the organization, including on-site fuel combustion, company vehicles, and fugitive emissions from refrigerants or process gases.
• Scope 2 (energy indirect emissions): Emissions from the generation of purchased electricity, steam, heating, and cooling consumed by the organization. The GHG Protocol Scope 2 Guidance requires reporting under both a location-based method (grid-average emission factors) and a market-based method (reflecting specific electricity contracts and instruments).
• Scope 3 (other indirect emissions): All other indirect emissions occurring in the value chain across fifteen defined categories, including purchased goods and services, transportation, employee commuting, use of sold products, and end-of-life treatment. For electronics companies, Scope 3 typically represents the largest portion of total emissions.

Electronics-Specific Considerations

Carbon footprint assessment in the electronics industry presents distinctive challenges:

• Semiconductor manufacturing: Fabrication facilities (fabs) use potent fluorinated greenhouse gases, including perfluorocarbons (PFCs), hydrofluorocarbons (HFCs), nitrogen trifluoride (NF₃), and sulfur hexafluoride (SF₆), for plasma etching and chamber cleaning. These gases have global warming potentials hundreds to tens of thousands of times higher than carbon dioxide. Using the 100-year values from the IPCC Sixth Assessment Report, SF₆ is roughly 24,300 times as potent as carbon dioxide, NF₃ roughly 17,400 times, and tetrafluoromethane (CF₄) roughly 7,380 times, the last with an atmospheric lifetime measured in tens of thousands of years. Because emissions depend on how completely each gas is consumed or destroyed, fabs must combine process data with abatement performance rather than rely on purchase quantities alone.
• Complex supply chains: Electronics products draw components from numerous suppliers across multiple tiers, making comprehensive Scope 3 accounting particularly difficult.
• Product use phase: The electricity consumed by electronic devices during their operational lifetime often dominates lifecycle emissions, especially for energy-intensive products such as servers and large displays.
• Data availability: Obtaining accurate emission factors for materials and components, particularly from suppliers in regions with limited disclosure requirements, can be difficult, so companies frequently rely on spend-based or industry-average estimates that carry significant uncertainty.

The GHG Protocol Scope 3 Standard describes a rough hierarchy of calculation methods, and maturing programs move up it over time. Spend-based methods multiply procurement expenditure by an economic emission factor; they are quick to apply but insensitive to actual supplier performance, so a supplier that decarbonizes shows no improvement in the buyer's inventory. Average-data methods multiply component mass or unit counts by physical emission factors. Supplier-specific methods use primary data from the supplier's own verified inventory, allocated to the purchased item. Only the last of these registers genuine supplier abatement, which is why large electronics buyers invest heavily in primary data collection.

Assessment Methodologies

Organizations can employ several complementary methodologies:

• Corporate carbon footprint: Measures total organizational emissions, providing the basis for corporate climate targets and reporting.
• Product carbon footprint: Quantifies emissions associated with a specific product throughout its lifecycle. ISO 14067 is the current international standard, building on the ISO 14040 and 14044 lifecycle assessment framework; the GHG Protocol Product Standard covers similar ground, and the earlier British specification PAS 2050 remains referenced in older studies.
• Facility-level assessment: Detailed measurement of emissions from individual manufacturing sites, enabling targeted reduction efforts.
• Supply chain carbon mapping: Identifies emission hotspots throughout the value chain to prioritize engagement with high-impact suppliers.

Target-Setting Approaches

The SBTi offers several methods for setting targets:

• Absolute contraction approach: Reduces absolute emissions by a fixed percentage each year, regardless of business growth. This is the simplest and most transparent method.
• Sectoral decarbonization approach (SDA): Allocates the global carbon budget to sectors based on their decarbonization potential, setting intensity-based targets that follow sector-specific pathways.
• Physical intensity approach: Sets targets based on emissions per unit of physical output, suitable for homogeneous product portfolios.
• Economic intensity approach: Uses economic metrics such as revenue or value added as the denominator, though this is less favored for 1.5-degree pathways.

Near-Term and Long-Term Targets

The SBTi Corporate Net-Zero Standard distinguishes between different target timeframes:

• Near-term targets: Cover a 5-to-10-year horizon and focus on rapid, immediate reductions. Under the version 1 cross-sector pathway, 1.5-degree alignment requires a linear annual reduction of at least 4.2 percent in absolute Scope 1 and 2 emissions.
• Long-term targets: Set for 2050 or earlier, representing a commitment to net-zero emissions. They require deep reductions, typically at least 90 percent across Scopes 1, 2, and 3, before any residual emissions are neutralized.

A complete net-zero target under version 1 comprises four elements: a near-term science-based target, a long-term science-based target, mitigation beyond the value chain, and the neutralization of any remaining residual emissions with permanent removals.

Version 2.0 keeps the near-term and long-term structure but shifts emphasis from target setting toward delivery. It scales requirements by company size and national context, distinguishing a Category A group (large companies in all countries, together with medium-sized companies in high-income countries) from a Category B group (small companies in all countries, together with medium-sized companies in lower-income countries) that faces lighter obligations. It also strengthens transition planning, adds explicit tracking of actual performance against targets rather than only of the targets themselves, and addresses ongoing emissions during the transition. High-integrity carbon credits are handled through a voluntary recognition mechanism that treats them as a complement to abatement, not a substitute for it.

Scope 3 Requirements

For most electronics companies, Scope 3 emissions are the majority of the carbon footprint, which makes the treatment of Scope 3 the decisive part of the standard.

Under version 1, companies whose Scope 3 emissions exceed 40 percent of total emissions must set Scope 3 targets; near-term targets must then cover at least 67 percent of Scope 3 emissions, and long-term targets must cover the substantial majority of value-chain emissions. Because the 67 percent test applies to the total, a company could satisfy it by targeting one or two dominant categories and leaving smaller but still material ones untouched.

Version 2.0 replaces that coverage threshold with a significance test. Category A companies must set near-term targets covering every individual Scope 3 category that represents 5 percent or more of their total Scope 3 emissions, and must justify in writing any category they exclude. For an electronics manufacturer this typically pulls purchased goods and services, use of sold products, upstream transportation, and end-of-life treatment into scope simultaneously, and it demands more granular value-chain data than the previous rule. Category B companies are not required to set near-term Scope 3 targets.

Meeting Scope 3 targets under either version means engaging suppliers on climate action, designing more energy-efficient products, and accounting for end-of-life emissions.

Understanding the Terminology

• Carbon neutral: A balance between carbon emissions produced and carbon emissions removed from or avoided in the atmosphere, typically through a combination of emission reductions and carbon credits. Carbon neutrality can be claimed for specific scopes, products, or activities and does not by itself require deep absolute reductions.
• Net-zero: A more rigorous standard requiring deep decarbonization across all emission scopes (typically a 90-to-95-percent reduction) with the small remainder balanced by permanent carbon removals. Net-zero emphasizes actual emission reductions over offsetting.
• Climate positive / carbon negative: Going beyond net-zero to remove more carbon from the atmosphere than is emitted, creating a net positive climate impact.

Developing a Net-Zero Strategy

A credible net-zero strategy for an electronics organization typically includes:

1. Comprehensive baseline: Accurate measurement of current emissions across all three scopes.
2. Science-based near-term targets: Validated reduction targets for the next 5 to 10 years.
3. Long-term net-zero commitment: A 2050-or-earlier target for net-zero across the value chain.
4. Detailed transition plan: Specific initiatives, investments, and milestones for achieving the targets.
5. Governance and accountability: Board-level oversight and executive compensation linked to climate performance.
6. Transparent reporting: Regular disclosure of progress against targets.

Avoiding Greenwashing

As climate commitments have proliferated, scrutiny of their credibility has intensified, and regulators in several jurisdictions now restrict unsubstantiated "carbon neutral" and "net-zero" marketing claims. Organizations should ensure their strategies:

• Prioritize actual emission reductions over offsetting;
• Include comprehensive Scope 3 emissions;
• Rest on concrete action plans and committed investment;
• Use high-quality, verified carbon credits only for genuinely unavoidable emissions;
• Are independently validated where possible.

Types of Carbon Credits

• Avoidance and reduction credits: Projects that prevent emissions that would otherwise occur, such as renewable energy projects, methane capture from landfills, or avoided deforestation (REDD+).
• Removal credits: Projects that actively remove carbon from the atmosphere, including afforestation and reforestation, soil carbon sequestration, bioenergy with carbon capture and storage (BECCS), and direct air capture (DAC).

Quality Criteria

High-quality carbon credits should meet several criteria:

• Additionality: The emission reduction would not have occurred without the project funding.
• Permanence: The reduction or removal is durable, with mechanisms to address reversal risks.
• Verification: Independent, third-party verification by accredited bodies.
• No double counting: The emission reduction is claimed only once and is not also counted toward another entity's targets.
• Co-benefits: The project delivers additional environmental and social benefits.

Standards and Registries

Several standards and registries provide frameworks for developing and verifying credit projects:

• Verified Carbon Standard (Verra): One of the largest voluntary carbon market standards.
• Gold Standard: Emphasizes sustainable development co-benefits alongside emission reductions.
• American Carbon Registry (ACR): Operates both compliance and voluntary market programs.
• Climate Action Reserve: Focuses on North American offset projects.
• Paris Agreement Crediting Mechanism (PACM): The United Nations mechanism established under Article 6.4 of the Paris Agreement, which succeeds the Kyoto Protocol's Clean Development Mechanism. Its supervisory body adopted standards for baselines and for removals in 2024, and the mechanism began issuing its first credits thereafter.

Quality has been contested. Independent analyses of widely traded credit types, particularly avoided-deforestation projects, have found that a large share overstated the reductions achieved, which drove buyers toward removals and toward credits with clearer measurement. Sector guidance has converged in response: the Integrity Council for the Voluntary Carbon Market assesses supply against its Core Carbon Principles, while the Voluntary Carbon Markets Integrity Initiative addresses how a buyer may credibly describe its use of credits. Electronics companies purchasing credits should evaluate the specific project and vintage rather than relying on the registry name alone.

The Mitigation Hierarchy

Best practice positions credits as the final step in a mitigation hierarchy:

1. Avoid: Eliminate emission sources where possible.
2. Reduce: Minimize emissions through efficiency and technology.
3. Substitute: Replace high-carbon activities with low-carbon alternatives.
4. Compensate: Offset only residual, unavoidable emissions.

Procurement Options

• On-site generation: Installing solar panels, wind turbines, or other renewable generation at company facilities. This provides direct control and a visible commitment but can be limited by site characteristics.
• Power purchase agreements (PPAs): Long-term contracts to buy electricity directly from renewable projects. A PPA can be physical (electricity delivered to a specific location) or virtual (a financial contract for difference settled against market prices).
• Green tariffs: Utility programs that supply renewable electricity, often backed by specific renewable projects.
• Energy attribute certificates: Tradable certificates representing the environmental attributes of renewable generation, such as Renewable Energy Certificates (RECs) in North America and Guarantees of Origin in Europe. Unbundled certificates are purchased separately from the underlying electricity and offer the least additionality.

RE100 and Corporate Renewable Commitments

RE100 is a global initiative, led by the Climate Group, that brings together companies committed to 100 percent renewable electricity. Members must:

• Set a public goal to source 100 percent renewable electricity by a specified date;
• Report progress annually using credible tracking mechanisms;
• Follow RE100 technical criteria for what qualifies as renewable, including market boundary rules and limits on the age of the generating assets whose attributes may be claimed.

Many leading electronics companies have joined RE100, including major semiconductor manufacturers, consumer electronics brands, and large technology firms. A recurring difficulty for the sector is that manufacturing is concentrated in markets such as Taiwan, South Korea, Japan, and parts of Southeast Asia where renewable supply is scarce, procurement is tightly regulated, and certificate markets are thin. A company may reach 100 percent renewable electricity across its own offices and assembly sites while its contract fabs and component suppliers remain on carbon-intensive grids, which is one reason Scope 2 progress and Scope 3 progress diverge so sharply in electronics.

24/7 Carbon-Free Energy

An emerging frontier in procurement is 24/7 carbon-free energy (CFE): matching electricity consumption with carbon-free generation on an hourly basis rather than through annual volume matching. This approach:

• Addresses the intermittency of wind and solar;
• Drives investment in energy storage and in diverse, dispatchable clean sources;
• Gives a more accurate representation of the actual carbon impact of consumption;
• Accelerates grid decarbonization by creating demand for round-the-clock clean energy.

This goal is particularly relevant to data center operators, whose continuous loads are poorly represented by annual matching and whose electricity demand is rising sharply with artificial-intelligence workloads.

The accounting rules themselves are being revised. The GHG Protocol has a Scope 2 revision under way, with a first public consultation that closed in January 2026 and final publication anticipated toward the end of 2027. Among the proposals under consideration are requirements for closer temporal and geographic matching between consumption and the generation whose attributes are claimed. If adopted, such requirements would materially reduce the value of unbundled certificates bought in distant markets and would move corporate practice toward the hourly matching that 24/7 carbon-free energy programs already pursue voluntarily. Companies signing multi-year procurement contracts now should consider how those contracts would perform under stricter matching rules.

Supplier Engagement Strategies

• Disclosure requirements: Requiring suppliers to measure and report their emissions, often through platforms such as CDP's supply chain program.
• Target-setting expectations: Encouraging or requiring suppliers to set their own science-based targets.
• Capacity building: Providing training, tools, and support to help suppliers reduce emissions.
• Collaborative initiatives: Participating in industry programs, such as those run by the Responsible Business Alliance, the Semiconductor Climate Consortium convened by SEMI, and clean-energy buyer coalitions, that aggregate demand for supplier climate action. Collaboration matters disproportionately in electronics because the same fabs, substrate makers, and assembly and test providers serve many competing brands, so a single buyer rarely holds enough leverage to change a shared supplier's energy strategy.
• Preferential procurement: Favoring suppliers with strong climate performance in sourcing decisions.

Key Focus Areas for Electronics

Supply chain decarbonization in electronics should prioritize:

• Semiconductor manufacturing: Wafer fabrication is extremely energy-intensive and uses potent process gases. Leading-edge nodes worsen both problems, because more process steps, more extreme ultraviolet lithography, and more stringent cleanroom conditions raise energy per wafer even as they raise transistor density. Abatement is well established: point-of-use thermal or plasma abatement destroys much of the fluorinated gas leaving a chamber, remote plasma cleaning with NF₃ displaces higher-emitting chemistries, and process optimization reduces gas consumption at the source. The remaining emissions are dominated by purchased electricity, which returns the problem to grid decarbonization.
• Raw material extraction: Mining, smelting, and refining of metals and rare-earth elements, where aluminum and copper production are especially electricity-intensive.
• Component manufacturing: Production of displays, batteries, printed circuit boards, and other major components.
• Transportation and logistics: Particularly air freight for time-sensitive shipments, whose emissions per tonne-kilometer are roughly an order of magnitude above ocean freight; shifting a product launch off air freight can outweigh years of incremental facility efficiency work.
• Packaging: Materials production and end-of-life impacts.

Supplier Sustainability Programs

Effective supplier sustainability programs include:

• Clear expectations communicated through supplier codes of conduct;
• Regular assessment through questionnaires and audits;
• Performance tracking and benchmarking;
• Recognition and incentives for strong performers;
• Defined consequences for non-compliance or lack of progress.

Compliance Carbon Markets

Emissions trading systems cap total emissions from covered installations and let participants trade allowances. The European Union Emissions Trading System is the largest and longest-running; comparable systems operate in the United Kingdom, China, South Korea, and several North American jurisdictions, alongside carbon taxes in other countries.

Most electronics manufacturing sites fall outside the activities these systems cover directly, because the listed activities target power generation and heavy industry. The exposure is nonetheless real and mostly indirect: carbon costs are embedded in industrial electricity prices, in energy-intensive inputs such as aluminum, copper, and steel, and in the freight that moves components between continents. Companies that model only their directly regulated emissions systematically understate the financial exposure.

Border Carbon Adjustment

The European Union's Carbon Border Adjustment Mechanism (CBAM) extends carbon costs to imports of covered goods. Its transitional phase required only reporting; the definitive regime, under which importers surrender certificates reflecting the embedded emissions of what they bring in, began on 1 January 2026. Certificates covering the emissions embedded in 2026 imports are sold and surrendered from February 2027, so the first financial settlement lags the first year of obligation. Regulation (EU) 2025/2083, published in October 2025, also introduced a mass-based de minimis threshold that exempts importers bringing in 50 tonnes or less of covered goods per year, other than electricity and hydrogen. The Commission estimated that this removes roughly 90 percent of importers from the obligation while still capturing about 99 percent of the embedded emissions in covered imports.

CBAM covers cement, iron and steel, aluminum, fertilizers, electricity, and hydrogen. Finished electronic products are not covered, so a company importing assembled devices into the European Union faces no direct CBAM liability. The mechanism still reaches the sector through inputs: aluminum enclosures and heat sinks, steel racks and chassis, and similar components can cross the threshold on their own. Importers therefore need embedded-emissions data from upstream suppliers, which is precisely the primary supplier data that Scope 3 accounting also demands, and the two data-collection efforts are worth designing together.

Internal Carbon Pricing

Many organizations apply a carbon price internally to steer decisions ahead of regulation. Three forms are common:

• Shadow price: A notional cost per tonne applied in investment appraisal and project evaluation. No money changes hands; the price alters which options clear the hurdle rate, favoring efficient equipment, heat recovery, and on-site generation.
• Internal carbon fee: An actual charge levied on business units in proportion to their emissions, with the proceeds pooled to fund abatement projects. This creates a real budget signal and a dedicated funding source, at the cost of administrative overhead.
• Implicit price: The cost per tonne already implied by abatement the company has undertaken. This is a diagnostic rather than a steering tool, useful for benchmarking the marginal cost of the next increment of reduction.

An internal price is only as good as the decisions routed through it. A shadow price that applies to facility projects but not to product architecture, supplier selection, or freight mode will miss most of an electronics company's emissions.

Physical Risks

Physical risks arise from the direct impacts of a changing climate:

• Acute risks: Increased frequency and severity of extreme weather events such as floods, tropical cyclones, wildfires, and heat waves that can damage facilities, disrupt operations, and interrupt supply chains.
• Chronic risks: Longer-term shifts in climate patterns, including sea-level rise, water scarcity, and rising temperatures, that may affect site suitability and operating conditions.

Electronics manufacturing is particularly exposed because production is concentrated in climate-sensitive regions (East Asia and coastal locations) and because the precision and cleanliness requirements of fabs make them acutely sensitive to disruption.

Transition Risks

Transition risks arise from the shift to a lower-carbon economy:

• Policy and legal risks: Carbon pricing, emission regulations, product efficiency standards, and litigation related to climate impacts or disclosures.
• Technology risks: Disruption from low-carbon technologies and the possibility of stranded assets as markets shift.
• Market risks: Changing customer preferences, commodity price volatility, and shifts in demand patterns.
• Reputational risks: Stakeholder perception of climate performance and commitment.

Climate Opportunities

The transition to a low-carbon economy also presents opportunities:

• Growing markets for energy-efficient electronics and renewable energy technologies;
• Cost savings from improved resource efficiency;
• New products and services that enable climate solutions;
• Enhanced brand value and stronger stakeholder relationships;
• Improved resilience and business continuity.

Key Adaptation Strategies

• Facility resilience: Hardening physical infrastructure against extreme weather, improving drainage and flood protection, and enhancing cooling systems for higher ambient temperatures.
• Supply chain diversification: Reducing concentration risk by qualifying alternative suppliers and manufacturing locations.
• Business continuity planning: Developing robust plans for maintaining operations during climate-related disruptions.
• Water management: Addressing water scarcity in water-intensive semiconductor manufacturing through recycling, reuse, and watershed stewardship.
• Insurance and financial protection: Securing adequate coverage for climate-related losses.

Scenario Analysis

Scenario analysis helps organizations understand potential climate impacts under different warming pathways. Common reference scenarios include:

• 1.5-degree Celsius scenario: Aggressive mitigation limits warming, implying significant transition risks but more moderate physical risks.
• 2-degree Celsius scenario: The Paris Agreement upper bound, achieved with meaningful but ultimately insufficient mitigation.
• 3-to-4-degree Celsius scenario: Limited mitigation action, with severe physical risks and broad societal disruption.

Organizations should assess their exposure and resilience under multiple scenarios to inform strategic planning.

The Four Disclosure Pillars

The recommendations, carried forward into IFRS S2, are organized around four thematic areas:

1. Governance: The organization's governance of climate-related risks and opportunities, including board oversight and management's role.
2. Strategy: The actual and potential impacts of climate-related risks and opportunities on the organization's businesses, strategy, and financial planning.
3. Risk management: How the organization identifies, assesses, and manages climate-related risks.
4. Metrics and targets: The metrics and targets used to assess and manage relevant climate-related risks and opportunities.

Typical Disclosures

Within each pillar, the framework calls for specific disclosures:

• The board's oversight of climate-related risks and opportunities;
• Management's role in assessing and managing climate-related risks;
• Climate-related risks and opportunities identified over the short, medium, and long term;
• The impact on the organization's businesses, strategy, and financial planning;
• The resilience of the strategy under different climate scenarios;
• The processes for identifying, assessing, and managing climate-related risks;
• The integration of those processes with overall risk management;
• Scope 1, 2, and 3 greenhouse gas emissions;
• Climate-related targets and performance against them.

Regulatory Developments

Mandatory climate disclosure, generally aligned with the TCFD pillars and increasingly with IFRS S2, is advancing unevenly across jurisdictions, and the direction of travel is no longer uniformly toward more disclosure:

• European Union: The Corporate Sustainability Reporting Directive (CSRD) and its European Sustainability Reporting Standards (ESRS) require climate disclosure, but the "Omnibus" simplification package sharply reduced their reach. Adopted in February 2026, it confines mandatory reporting to undertakings above roughly 1,000 employees and 450 million euros of turnover, excludes listed small and medium-sized enterprises, and postpones the later reporting waves by two years. EFRAG's revised standards cut the number of data points by about 60 percent and lean more heavily on materiality judgment than on exhaustive disclosure. The great majority of companies that had been preparing for CSRD now fall outside its mandatory scope.
• United States: The Securities and Exchange Commission adopted climate disclosure rules in March 2024, but those rules were stayed amid litigation and never took effect; in May 2026 the Commission proposed to rescind them in their entirety. California's laws operate separately and have themselves been litigated on First Amendment grounds. Under SB 253, large companies doing business in the state report Scope 1 and Scope 2 emissions, with the first reports due in August 2026. Enforcement of the SB 261 climate risk reporting requirement was stayed pending appeal, and the state air regulator confirmed that it would not enforce the original January 2026 deadline.
• United Kingdom: TCFD-aligned reporting is mandatory for large companies and financial institutions, and the government has been developing UK Sustainability Reporting Standards based on the ISSB framework.
• Japan: The Sustainability Standards Board of Japan has issued standards based on IFRS S1 and S2, with application phased in for the largest Prime Market listed companies.
• Other jurisdictions: Comparable requirements, many adopting the ISSB standards directly, are in force or emerging in Australia, Canada, Hong Kong, Singapore, Brazil, and elsewhere.

For a multinational electronics company, the practical consequence is not that disclosure has become optional but that the obligations have become uneven. A group may face binding requirements in one jurisdiction, a rescinded rule in another, and customer or investor expectations that exceed both. Because the underlying data systems take years to build and are largely common across frameworks, most large companies continue to build to the ISSB baseline regardless of which specific mandate currently binds them.

Implementation Best Practices

Effective climate disclosure involves:

• Establishing clear governance structures with board-level accountability;
• Conducting thorough climate risk assessments, including scenario analysis;
• Integrating climate considerations into strategic planning and capital allocation;
• Building robust data systems for emissions tracking and reporting;
• Engaging with stakeholders on climate strategy and performance;
• Continuously improving disclosure quality and completeness.

Phase 1: Foundation (Months 1-6)

• Establish a governance structure and secure executive sponsorship;
• Conduct a comprehensive GHG inventory across all scopes;
• Perform an initial climate risk assessment;
• Benchmark against industry peers and best practices;
• Engage key stakeholders on climate strategy.

Phase 2: Strategy Development (Months 6-12)

• Set science-based emission reduction targets;
• Develop a detailed decarbonization pathway;
• Identify priority initiatives and investment requirements;
• Create a supplier engagement program;
• Establish the metrics and reporting framework.

Phase 3: Implementation (Year 2 and Beyond)

• Execute the renewable energy procurement strategy;
• Deploy energy efficiency projects;
• Engage suppliers on emission reduction;
• Implement climate-resilient practices;
• Report progress through standardized climate disclosure.

Continuous Improvement

• Monitor progress against targets;
• Update strategies as the science and regulations evolve;
• Expand scope to address additional emission sources;
• Strengthen stakeholder engagement;
• Share best practices across the industry.