E5-1 Policies Related to Resource Use and Circular Economy

OMV has established the following policies in order to manage our material impacts and opportunity related to E5 Resource Use and Circular Economy.

Code of Conduct

[E5-1.14] [MDR-P-65a-65f] For the Code of Conduct (CoC), unless otherwise specified, the key contents of the policy that are relevant for E5 Resource Use and Circular Economy, the process for monitoring, the scope of the policy, involvement of senior-level management, reference to third-party standards (where relevant), interests of key stakeholders in setting the policy (where relevant), and how the policy is made available to potentially affected stakeholders are covered under ESRS 2 Overarching Policies.

Environmental Management Standard

[E5-1.14] [MDR-P-65a-65f] For the Environmental Management (EM) Standard, unless otherwise specified, the key contents of the policy that are relevant for E5 Resource Use and Circular Economy, the process for monitoring, the scope of the policy, involvement of senior-level management, reference to third-party standards (where relevant), interests of key stakeholders in setting the policy (where relevant), and how the policy is made available to potentially affected stakeholders are covered under ESRS 2 Overarching Policies.

Within OMV’s EM Standard, specific processes and mechanisms have been defined to prevent, mitigate, and remediate the potential negative impact identified. [E5-1.AR 9a, AR 9b] For example, a waste management plan, as defined in the EM Standard, mandates the management and monitoring of waste contractors and facilities, applying a waste control hierarchy that prioritizes prevention followed by preparation for reuse, recycling, other recovery methods such as energy recovery, and controlled disposal. The standard also specifies that the waste hierarchy must be applied in waste control, emphasizing the prevention of waste as the most relevant measure, before recovery or treatment options. Waste shall only be transferred to waste contractors that are certified for the type of waste they receive, among other things. Waste quantities, types, hazardous nature, and method of disposal are determined and recorded by the contractor and reported to OMV. This plan should align with country-specific waste management strategies where they exist. In the absence of local or national requirements, the plan must ensure compliance with applicable legislation and requirements by adhering to all relevant laws and regulations. It must also incorporate avoidance and minimization measures and implement strategies to prevent and reduce waste generation; focus on the identification, recording, and tracing of waste streams, providing detailed tracking until final recovery or disposal; and cover the collection, segregation, labeling, storage, and treatment of waste, ensuring proper handling and processing. Lastly, it must include the management and monitoring of waste contractors and facilities, ensuring that waste contractors are reputable and licensed, with regular audits conducted based on risk profiles.

Enterprise-Wide Risk Management Standard

[MDR-P-65a-65f] For the Enterprise-Wide Risk Management Standard, unless otherwise specified, the key contents of the policy that are relevant for E5 Resource Use and Circular Economy, the process for monitoring, the scope of the policy, involvement of senior-level management, reference to third-party standards (where relevant), interests of key stakeholders in setting the policy (where relevant), and how the policy is made available to potentially affected stakeholders are covered under ESRS 2 Overarching Policies.

Greenhouse Gas Management Framework

[E5-1.14] [MDR-P-65a-65f] For the Greenhouse Gas Management Framework, unless otherwise specified, the key contents of the policy that are relevant for E5 Resource Use and Circular Economy, specifically in relation to measures to reduce Scope 3 emissions, the process for monitoring, the scope of the policy, involvement of senior-level management, reference to third-party standards (where relevant), interests of key stakeholders in setting the policy (where relevant), and how the policy is made available to potentially affected stakeholders are covered in E1-2 Policies Related to Climate Change Mitigation.

Renewables Sustainability Management Requirements

[E5-1.14] [MDR-P-65a, 65b] The OMV Renewables Sustainability Management Requirements refer to an internal procedure that defines general rules and responsibilities regarding the requirements for sustainable management of renewables, such as the process of checking certifications of suppliers. This policy is aimed at managing the potential negative material impacts that are associated with the environmental impacts of competition for sustainable inputs, such as land use changes and nature and forest degradation, and social impacts such as human rights violations. This is achieved by ensuring the correctness and traceability of the sustainability certifications of suppliers of renewable biobased inputs. It is applicable to all biobased renewable components, intermediates, Renewable Fuels of Non-Biological Origin (RNFBOs) used as biofuel or intermediates, and biofuels for the transport sector. OMV ensures monitoring and implementation of this policy through regular external audits as part of ISCC PLUS and ISCC EU certifications. In 2025, OMV also completed a voluntary independent review of its sustainability management processes, including national reporting, periodic reconciliations, and renewables certificate management. [MDR-P-65c] Implementation of the OMV Renewables Sustainability Management Requirements is the responsibility of the SVP Value Chain Optimization. [MDR-P-65d] With this policy, OMV ensures that upstream suppliers of biobased inflows have valid sustainability certifications for their delivered volumes (e.g., ISCC EU, ISCC PLUS), allowing OMV to provide adequate information to downstream customers. [MDR-P-65e] In the development of the framework, subject matter experts and relevant departments were either directly involved or their feedback on the first draft was sought during an internal consultation process. [MDR-P-65f] The framework is available to all employees internally through dedicated platforms.

Impact of the Policies on Resource Use and Circular Economy

[E5-1.15a] OMV believes that adopting a circular economy will reduce its environmental footprint and GHG emissions. A circular economy decouples economic growth from resource depletion by ensuring that materials, resources, and products remain in use for as long as possible and at their highest value, thereby minimizing their leakage into the environment, especially into oceans and landfills. Transitioning from a linear “take – make – waste” model to a circular “reduce – reuse – recycle” model will also help mitigate global warming. By effectively utilizing valuable resources, we can recover, reuse, and repurpose by-products or waste into new materials and products. This approach has the potential to significantly reduce GHG emissions throughout product value chains. In addition to increasing the use of secondary resources, such as recycling of plastic waste to make new materials and products, OMV also sees chemicals, polymers, and fuels made from renewable inputs as playing a key role in the circular economy. The use of renewable inputs lowers demand for primary fossil-based inputs and considerably decreases carbon footprints.

For monomers and polymers made from renewable sources, OMV focuses on utilizing waste biomass, such as residual forestry matter that is not in competition with the food and feed chain and thus does not require the use of additional natural resources such as land or water. If then recycled, such second-generation bioplastics can play a vital role in a sustainable, circular economy and reduce greenhouse gas emissions on two fronts, cutting emissions in the input and in the end-of-life phase. Furthermore, OMV plans to become a leading producer of renewable fuels, focusing on renewable diesel and SAF (sustainable aviation fuel), and is committed to scaling up waste-based and advanced feedstocks in production to reduce reliance on first-generation biofuels in favor of novel materials.

Processes and Mechanisms

Certification

[E5-1.15] The use of reputable certification schemes provides concrete proof for claims of origin for renewable and secondary inputs, boosting consumer trust in OMV’s products. OMV only considers materials as being sustainable if they are certified by a relevant sustainability certification scheme, as detailed in OMV’s internal procedure on Renewables Sustainability Management Requirements. The following certification schemes are used:

  • The Borealis mechanical recycling businesses mtm plastics, Ecoplast, Rialti, and Integra are certified according to the Europe-wide RecyClass program for companies that recycle post-consumer plastic waste, which provides a system for reliable traceability of the origin of plastic waste.

  • OMV uses ISCC PLUS certifications for both renewable and recycled inflows. ISCC PLUS is a sustainability certification that is well-recognized by the stakeholders in recycled and renewable materials, providing traceability along the supply chain by establishing a chain of custody and verifying that companies meet environmental and social standards. Compliance with the certification means that for each ton of sustainable input fed into a plant and replacing fossil fuels, a certain proportion of the output can be classified as sustainable by using mass balance. Applying the mass balance allocation model means that the primary fossil-based and renewable or recycled materials are not physically segregated in the production processes throughout the entire supply chain, but that they are separated in bookkeeping to provide a verifiable basis for tracking the amount and sustainability characteristics of recycled and/or renewable content in the value chain. This certification system ensures the traceability of the renewable or recycled sustainably produced feedstock from its point of origin through the entire chain of custody.

Applying the mass balance allocation model enables OMV to provide a verifiable basis for tracking the amount of its renewable and chemically recycled raw materials in the value chain. Providing more products that are certified by ISCC PLUS is crucial for the transition to a more circular economy. In the OMV Chemicals segment, two ReOil® plants (ReOil® 100 and 2000) and the integration of sustainable products in the cracker in Schwechat are certified under ISCC PLUS. In Burghausen, OMV Deutschland Marketing & Trading GmbH is also certified for the integration of bio, bio-circular, and circular feedstocks in different refinery plants to produce a wide range of sustainable products within the ISCC PLUS regime and deliver sustainable chemicals, fuels, and calcined coke to the market. The Borealis Bornewables™ portfolio, Borcycle™ C, and Borvida™ are also certified according to ISCC PLUS by applying the mass balance approach. Borealis Compounds Inc., USA, was also awarded the ISCC PLUS certification this year.

All biofuels purchased by OMV in 2025 and used for blending met the requirements of the EU’s Renewable Energy Directive (EU) 2018/2001 (RED II). OMV was at the same time preparing for transposition of EU Directive 2023/2413 (RED III) into relevant national legislations, which is happening at different paces across the member states. The ISCC EU certification allows for the verification of compliance with the legal requirements for sustainability and greenhouse gas (GHG) emissions-savings criteria for sustainable fuels, as well as those governing the production of electricity, heating, and cooling from biomass, as outlined in the updated Renewable Energy Directive (RED III) for all European Union member states.

In Fuels and Chemicals, OMV was certified under a total of 17 ISCC certification scopes by the end of 2025. OMV subsidiary companies in Austria, Italy, the United Kingdom, Germany, Czech Republic, Romania, Hungary, Slovakia, and Bulgaria hold ISCC EU Trader or Trader with Storage certifications, which allows us to trade sustainable products and place them on the market. Additionally, in the Schwechat refinery in Austria, two co-processing plants and the Glycerin-to-Propanol plant are certified under ISCC EU, which allows us to use sustainable (from first generation to advanced) bio-feedstocks to produce various types of sustainable substitutes for the gasoline, diesel, and jet fuel pool. Finally, OMV Supply & Trading Limited (UK) is certified under the ISCC PLUS and ISCC CORSIA regime to be allowed to trade sustainable chemicals and sustainable aviation fuel internationally. In the Energy segment, OMV Gas Marketing & Trading GmbH also holds ISCC EU certification to trade sustainable materials (e.g., biomethane, bio-LNG) and place them on the market.

An internal digital Renewables Tracing Platform has been implemented to manage OMV’s renewable balances and flows of Proofs of Sustainability (PoS) and Sustainability Declarations (SDs) from suppliers to customers. This platform is being gradually rolled out across products and locations, ensuring compliance, transparency, and documentation of the renewable fuels and feedstock supply chain.

Technology

Renewable Inputs to Fuels

[E5-1.15a] More details on OMV’s technological advancements in the area of low- and zero-carbon products using renewable inputs can be found in Increasing Zero-Carbon Products.

Complementarity of Recycling Technologies

[E5-1.15a] OMV is fully committed to broadening the range of applications where recycled plastic waste can be used as an input source. Currently, mechanical recycling is the primary method for recycling post-consumer plastics, involving shredding and remelting. As chemical recycling targets hard-to-recycle plastics, the two technologies are complementary.

Mechanical Recycling

[E5-1.15a] OMV’s ambitions in the area of mechanical recycling are driven by its subsidiary Borealis, which continues to work with partners to develop and innovate advanced mechanical recycling technologies aimed at delivering products with near-virgin quality and the smallest possible carbon footprint, while also improving recyclate quality for use in more demanding applications such as contact-sensitive packaging and increasing recyclate content in products. In the course of 2025, Borealis announced that due to unfavorable economic conditions, the decision to build a new mechanical plant in Austria has been put on hold, while the Group’s actions in the Americas remain in the exploration phase. Borealis focused its efforts in 2025 on fully integrating the mechanical recycler Integra Plastics in Bulgaria. Furthermore, Borealis continued its investment in compounding processes to expand the range of applications where recycled plastics can be used as viable input materials, with particular emphasis on enhancing the waste supply, sorting, and pre-treatment capabilities.

Chemical Recycling

Chemical recycling, such as pyrolysis, can extract value from residual waste streams from mechanical recycling and mixed plastic waste streams, which would otherwise be sent to landfill or incinerated. This process involves changing the chemical composition of the plastic. The resulting pyrolysis oil is then further processed and refined to create a base chemical that replaces fossil hydrocarbons as chemical feedstock for the production of new plastic. Since it is practically comparable to virgin plastics, it can also serve a more diverse field of applications compared to mechanically recycled plastic. In 2025, OMV commenced operations at its ReOil® 2000 plant at the Schwechat site, which is designed to process up to 16,000 t of hard-to-recycle plastics per year. In addition, the joint venture between OMV and Interzero to build and operate Europe’s largest sorting facility for chemical recycling remains on schedule, with the facility expected to open in 2026. OMV’s Chemicals division continued to explore its strategic investment in ReOil®-related technology, but due to market uncertainty the commercial-scale expansion was postponed.

ReOil®

[E5-1.15a] Plastic is an excellent heat insulator with low ability to transfer heat, if compared to glass or metal. These properties, which make plastic desirable in everyday life, also make it difficult to break down. OMV’s proprietary ReOil® technology is based on pyrolysis, a well-known refinery process during which thermoplastics are first melted and then cracked at a temperature of around 400–450°C. This means that long-chain hydrocarbons are cracked into light shorter-chain hydrocarbons. Compared to metal and glass, plastic is generally easier to melt. However, one of the inherent challenges in the pyrolysis process is that, once melted, plastics become highly viscous, which hinders the heat transfer necessary for effective pyrolysis. The ReOil® technology is unique compared to that of competitors because of the use of an innovative heat transfer technology, which allows the viscosity of the molten plastic to be reduced and thus heat transfer to be improved. As a result, the ReOil® process is scalable for industrial use. Thanks to the integration into OMV’s refinery in Schwechat, ReOil® also achieves higher yields than other non-integrated chemical recycling technologies.

Feedstock Selection

Plastic Waste as a Resource

[E5-1.15b] The ReOil® facility can process different forms of plastic waste, ranging from household waste to waste from commercial and industrial sources. The main feedstocks are polyethylene (e.g., films), polypropylene (e.g., food packaging and car parts), and to a certain degree polystyrene (e.g., packaging and insulation materials). Currently, the feedstock is sourced almost exclusively from Austrian waste sorting facilities. With regard to the ambition of developing a first-of-its-kind full industrial-scale ReOil® plant and the resulting need for more feedstock, the geographical scope for feedstock sourcing will be expanded and countries neighboring Austria are being explored. The scalability of the ReOil® technology and its integration into the refinery will facilitate the achievement of exponential economies of scale and optimize resource and energy balance. The only plastic waste inputs OMV uses for its ReOil® chemical recycling technology are those that cannot be mechanically recycled, thus ensuring available plastic waste material is paired with the most sustainable recycling technology available.

OMV and Borealis have entered into long-term feedstock supply agreements for their recycling facilities with TOMRA Feedstock, a subsidiary of leading sorting technology producer TOMRA. These agreements ensure a consistent supply of sustainable and high-quality raw materials for OMV’s recycling operations. OMV will process feedstock supplied from TOMRA Feedstock plants in its ReOil® plants in Austria, while Borealis will process feedstock produced by TOMRA at its mechanical recycling operations in Europe. The feedstock will be produced from mixed post-consumer plastic waste that would otherwise be lost to landfill and incineration at a first-of-its-kind sorting facility currently being developed by TOMRA in Germany, allowing OMV to substitute primary fossil-based inputs with a steady supply of high-quality input from plastic waste.

Biobased Resources

In collaboration with partners, OMV is pursuing the development of industrial-scale projects to produce biofuels, biochemicals, and bioplastics from renewable feedstock, including waste streams. Waste biomass, such as residual agricultural, forestry, and wood processing matter, or mixed municipal waste, does not compete with the food and feed chain. Although converting this waste biomass into high-value products is technically challenging, it reduces CO2 emissions compared to fossil fuels and creates value from locally available waste and by-product streams of other economic activities. OMV focuses on using secondary inputs such as used cooking oil for its chemicals production. OMV also uses primary input, such as vegetable oil, mainly for fuel production and on-demand supply to downstream customers.

OMV’s subsidiary Borealis uses biobased feedstock derived entirely from waste biomass, such as residual agricultural processing matter or collected waste streams, to produce sustainable polyolefins. These polyolefins are marketed under the portfolio name Bornewables™. The sustainable sourcing of OMV products is ensured through ISCC PLUS or ISCC EU certification for all renewable input products. A key milestone for Borealis is the near completion of Borealis’ world-scale propane dehydrogenation plant in Kallo, Belgium, which is expected to increase the integration of sustainable raw materials in base chemicals production.

OMV purchases biofuels mainly from European producers and excludes palm oil, palm kernel oil, and its related derivatives as a feedstock. International Sustainability & Carbon Certification (ISCC) standards require that no deforestation took place from January 2008 onward for any feedstock that is used for biodiesel generation. Beyond regulatory compliance, OMV places strong focus not only on scaling up the use of waste-based and advanced feedstocks in its production, but also on its selection of partners and the operational choices that actively reduce reliance on first-generation biofuels in favor of novel and advanced materials. In 2025, for example, OMV introduced cashew nut shell liquid in its co-processing unit as a regular feedstock stream, reducing the carbon intensity of related finished products. Also in 2025, none of the biofuels placed on the market by OMV were based on palm oil. The sources with the highest input quantities were rapeseed oil (27.3%), used cooking oil (UCO) (21.9%), and corn (13.3%). A total of 56.0% of OMV’s renewable biobased inputs came from conventional sources that are considered to be in competition with food and feed production, 22.2% of inputs were waste-based, 12.9% was derived from animal fats, and 9.2% was derived from advanced sources such as wheat straw, bagasse (a residue of sugar cane crushing), brown liquor (a by-product from paper production), or POME (palm oil mill effluent) and cashew nut shell liquid.

Application of Best Practices

[E5-1.14] International industry best practice is applied for the management and treatment of waste, including drilling waste. Where existing local, regional, or national waste management facilities are inadequate, OMV supports third parties in developing their capabilities. Following these practices enables OMV to manage the impact of improper waste management, which could have negative effects on the environment and nearby communities.

Recycling of Operational Waste

[E5-1.15a] Waste is recovered and recycled where possible, including during site closure and decommissioning. These guidelines enable OMV to increase the use of our own operational waste materials, and in doing so manage the associated impact. If recycling is not possible, waste is processed and/or disposed of only in licensed facilities or via reputable licensed contractors. Waste contractors are regularly audited, with the frequency being defined by sites at a local level based on a risk analysis. This ensures that waste leakages are reduced and that by way of process optimization, waste residue is minimized.

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