BASF’s 2025 Carbon Capture Strategy: From Technology Licensing to Market Dominance
Industry Adoption: How BASF is Shaping the 2025 Carbon Capture Market
Between 2021 and 2024, BASF meticulously laid the groundwork to become a pivotal technology provider in the carbon capture market. The company’s strategy focused on validating its diverse portfolio of gas treatment solutions across critical, hard-to-abate sectors. Its OASE® white technology was selected for bp’s H2Teesside blue hydrogen project, targeting a capture rate of up to 99.99%, while the HiPACT® technology, promising cost reductions of up to 35%, was chosen for INPEX’s blue ammonia project in Japan. This period was also marked by a significant technological leap with the commercial-scale, multi-ton production of metal-organic frameworks (MOFs) for solid-sorbent leader Svante, signaling BASF’s expansion beyond traditional liquid amines. These moves established BASF not just as a solvent supplier, but as a core enabler for decarbonizing hydrogen, cement, and ammonia production.
The period from 2025 to the present reveals a crucial strategic inflection point. While continuing to secure licensing agreements for its proven OASE® blue technology, BASF has refined its market approach to prioritize a capital-light model. The decision in March 2025 to shelve a planned €1 billion investment in a CCS plant at its own Antwerp site was a landmark move, signaling a decisive shift away from the risks of facility ownership. This pivot is validated by a subsequent flurry of licensing deals: providing OASE® blue to ANDRITZ for a waste-to-energy plant in Denmark, to Forestal del Atlántico for e-methanol production in Spain, and to CCAT for a power plant pilot in Taiwan. Concurrently, BASF is de-risking its next-generation technology pipeline through high-profile collaborations, most notably the partnership with ExxonMobil to build a demonstration plant for methane pyrolysis. This two-pronged strategy—aggressively licensing mature technologies while co-developing future ones—allows BASF to maximize market penetration and participate in a CCUS market projected to grow at a 23.06% CAGR, all while mitigating direct exposure to the immense capital expenditure of large-scale infrastructure.
Table: BASF’s Strategic Capital Allocation in Carbon Management
| Time Frame | Investment / Initiative | Details and Strategic Purpose | Source |
|---|---|---|---|
| 2025 – 2028 | Renewable Energy & Emissions Reduction | Allocation of ~€550 million (€300M for Scope 1 reduction, €250M for renewables) to support the company’s 2030 climate targets and enable the adoption of low-carbon technologies like CCUS. | E1 Climate Change |
| July 2025 | Modernization of Dispersion Production Sites | Upgrades at Ludwigshafen and Hamina facilities to support low-carbon technologies, aligning plant infrastructure with broader sustainability and emissions reduction goals. | BASF is investing in its dispersion production sites to meet … |
| March 2025 | Internal Carbon Price | Revealed use of an internal carbon price up to €340 per tonne to stress-test projects and steer capital towards low-carbon investments, ensuring financial alignment with climate strategy. | Chemicals giant BASF uses €340 internal carbon price |
| March 2025 | Shelved Antwerp CCS Project | Decision to not proceed with a planned >€1 billion investment in a CCS plant at its Antwerp site, a strategic pivot to avoid high CAPEX and focus on a technology-licensing model. | € 1 billion investment in Antwerp to capture CO2 – or not? … |
| Dec. 2022 | Kairos@C Project (Antwerp@C) | The broader Antwerp@C consortium, including BASF’s Kairos@C project, received a €144.6 million grant from the EU Innovation Fund to build a shared CO2 export terminal, de-risking infrastructure costs. | Port of Antwerp-Bruges, partners net $152mln EU funding … |
| Nov. 2021 | NET ZERO Accelerator Unit | Establishment of a dedicated corporate unit to accelerate low-CO2 technology projects, representing a significant strategic allocation of internal resources towards decarbonization. | Chemical Giant BASF Launches Unit Dedicated to … |
| March 2021 | Climate Protection Roadmap | Announced investment of up to €1 billion by 2025 and an additional €2-€3 billion by 2030 to develop and scale low-emission technologies, explicitly including CCUS. | BASF presents roadmap to climate neutrality |
Table: BASF’s Web of CCUS Collaborations
| Partner / Project | Date | Details and Strategic Purpose | Source |
|---|---|---|---|
| ExxonMobil / Methane Pyrolysis Demo | Nov. 2025 | Joint development to advance methane pyrolysis, with a demo plant in Baytown, TX, to produce 2,000 tons/year of low-emission hydrogen. This pioneers a new “turquoise” hydrogen pathway. | BASF and ExxonMobil Team Up to Boost Low-Emission … |
| ANDRITZ Group / Waste-to-Energy CCS | Oct. 2025 | License agreement for OASE® blue to capture 435,000 tons/year of CO2 at a Danish waste-to-energy plant, expanding BASF’s technology into the circular economy sector. | BASF and ANDRITZ Sign License Agreement for OASE … |
| Yara International / Low-Carbon Ammonia | Aug. 2025 | Discontinuation of a joint project for a US Gulf Coast blue ammonia facility, reflecting a strategic re-evaluation and potential avoidance of large-scale, complex joint ventures. | BASF and Yara scrap US Gulf Coast low-carbon ammonia … |
| Sinopec, Shell, China Baowu / East China CCUS | June 2025 | Collaboration to advance CCUS development and establish an “artificial carbon cycle” model in a key industrial region, deepening BASF’s presence in the critical Chinese market. | Carbon Future with CCUS – Sinopec … |
| CCAT / Taiwan Power Company | May 2025 | License agreement for OASE® blue for a pilot CCS project at a major Taiwanese power plant, marking a key entry into Taiwan’s emerging energy decarbonization market. | BASF’s OASE® blue supports CCAT in carbon capture and … |
| Forestal del Atlántico / Triskelion Project | March 2025 | Supply of OASE® blue to capture CO2 for e-methanol production in Spain, demonstrating a critical application of BASF’s technology in the Carbon Capture and Utilization (CCU) value chain. | BASF And Forestal Pave Way For E-Methanol Via CO2 … |
| Exterra Carbon Solutions / Canada CCS | Nov. 2024 | Collaboration to pair BASF’s OASE® blue capture technology with Exterra’s carbon mineralization storage solution for industrial emitters in Quebec, Canada. | BASF and Exterra to collaborate on commercial scale … |
| bp / H2Teesside Project | Feb. 2024 | License agreement to provide OASE® white for a 1.2 GW blue hydrogen project, capturing up to 2 million tonnes of CO₂ per year and validating the technology at world scale. | bp selects BASF’s carbon capture technology for blue … |
| Svante Technologies / MOF Supply | Oct. 2023 | Commercial supply agreement for BASF’s CALF-20 MOF sorbent, enabling Svante to scale its solid-sorbent filter manufacturing for million-tonne scale projects. | Svante Secures Commercial Supply of MOF |
| Linde & Heidelberg Materials / CCU Plant | May 2023 | Use of OASE® blue in the world’s first industrial-scale CCU facility at a cement plant, capturing 70,000 tons/year of CO₂ for use in the chemical and food industries. | BASF’s gas treatment technology to be used by Linde and … |
| INPEX / Blue Hydrogen & Ammonia Project | Feb. 2023 | Contribution of HiPACT® technology to Japan’s first blue hydrogen/ammonia demo project, targeting lower capture costs and capturing 700,000 tons/year of CO₂. | BASF contributes CO2 capture technology to Japan’s first … |
| Samsung Heavy Industries / Onboard Capture | Sep. 2022 | Feasibility study to apply OASE® blue for onboard carbon capture on maritime vessels, exploring a new, high-potential market for mobile emission sources. | Joint News Release – BASF and Samsung Heavy … |
| Air Liquide / Kairos@C Project | Nov. 2021 | Joint project to develop a major cross-border CCS value chain at the Port of Antwerp, a foundational move to create large-scale, shared CCUS infrastructure in Europe. | Air Liquide and BASF welcome support from European … |
Geography: BASF’s Global CCUS Footprint
Between 2021 and 2024, BASF’s geographic strategy was concentrated on de-risking its technology in established industrial clusters with supportive policy frameworks. Europe was the clear epicenter, with the landmark Kairos@C project in Antwerp, Belgium, and technology deployments for blue hydrogen in Teesside, UK, and cement in Lengfurt, Germany. These locations provided access to dense industrial emitters and public funding like the EU Innovation Fund. Parallel entries were made into other key markets, including Asia via the INPEX blue ammonia project in Japan and North America through collaborations like the Houston CCUS hub initiative and pilot testing in Illinois. This initial phase was about proving commercial viability in mature, high-emission industrial heartlands.
From 2025 onwards, BASF’s geographic activity shows a distinct expansion from core hubs to new growth frontiers. While Europe remains a key market with new projects in Denmark (Aarhus waste-to-energy) and Spain (Mugardos e-methanol), the focus has clearly broadened. The partnership with ExxonMobil establishes a crucial technology development site in Baytown, Texas, a major U.S. energy and chemical hub. More significantly, BASF is penetrating new Asian markets, moving beyond Japan to secure a pilot project in Taiwan’s power sector and joining a major CCUS consortium in East China. This geographic diversification signals that BASF’s technology is now considered a bankable solution ready for deployment in emerging CCUS markets, moving the company from a regional champion to a global technology licensor. The primary risk in this expansion is navigating the diverse regulatory landscapes and nascent infrastructure of эти new regions.
Technology Maturity: BASF’s Pipeline from Commercial Scale to Next-Gen R&D
The 2021-2024 period was defined by the large-scale commercial validation of BASF’s core solvent technologies. OASE® (blue and white) and HiPACT® transitioned from proven solutions to being the specified technology in world-scale commercial projects. The agreements with bp for the H2Teesside plant (1.2 GW of hydrogen) and INPEX for Japan’s first blue ammonia facility confirmed these technologies as mature, bankable options for industrial decarbonization. The most significant development in this period was the advancement of next-generation materials: BASF became the first to achieve multi-ton commercial-scale production of MOFs, supplying them to Svante. This moved MOF-based solid sorbents from the lab to a commercially scalable manufacturing process, positioning BASF as a key supplier for the next wave of capture technology.
In 2025, BASF’s technology strategy has matured into a two-speed approach. The first track involves the rapid, widespread deployment of its fully commercialized OASE® platform into new applications. Projects in waste-to-energy (ANDRITZ) and e-methanol production (Forestal) demonstrate the technology’s versatility and its readiness for plug-and-play adoption across the CCUS spectrum. The second, more forward-looking track focuses on advancing the next frontier of carbon management. The partnership with ExxonMobil to build a methane pyrolysis demonstration plant is the critical validation point for this “turquoise” hydrogen technology, moving it from the pilot stage toward commercial readiness. Industrial-scale production of MOFs has now been achieved, meaning the technology is no longer in development but is ready for market deployment as soon as partners like Svante secure large-scale projects. This demonstrates a clear, strategic pipeline: fully commercialize today’s proven technologies while actively demonstrating and de-risking the breakthrough solutions of tomorrow.
Table: SWOT Analysis of BASF’s CCUS Strategy
| SWOT Category | 2021 – 2024 | 2025 – Today | What Changed / Validated |
|---|---|---|---|
| Strengths | Established a diverse portfolio of proven solvent technologies (OASE®, HiPACT®) through partnerships in key sectors like blue hydrogen (bp) and cement (Heidelberg Materials). | Solidified its capital-light, technology-licensor model, underscored by multiple OASE® licensing deals (ANDRITZ, CCAT) and first-mover advantage in industrial-scale MOF production. | The strategy shifted from proving technology to leveraging a proven, diversified portfolio for rapid, low-risk market penetration. The asset-light licensing model has been validated as the core strategy. |
| Weaknesses | High exposure to capital costs and execution risks of large-scale infrastructure, exemplified by the planned €1 billion Kairos@C investment at its own Antwerp site. | Increased dependency on partners’ ability to reach Final Investment Decisions (FIDs), as seen in the shelved Antwerp project and the discontinued Yara blue ammonia project. | The weakness of direct CAPEX exposure was acknowledged and mitigated by pivoting strategy. The new, less direct weakness is a reliance on the commercial and financial success of its partners’ projects. |
| Opportunities | Tapping into the growing blue hydrogen market (bp H2Teesside) and exploring emerging applications like onboard maritime capture through a feasibility study with Samsung Heavy Industries. | Expanded into new high-growth applications like waste-to-energy (ANDRITZ) and CCU for e-methanol (Forestal). The ExxonMobil partnership opens a new frontier in “turquoise” hydrogen via methane pyrolysis. | The addressable market has significantly broadened from core industrial capture to adjacent growth areas in the circular economy (CCU) and alternative hydrogen production pathways, leveraging core chemical expertise. |
| Threats | The high cost and complexity of CCUS projects could slow market adoption. Competition from other solvent and technology providers was a latent threat. | Project economics remain a major hurdle, as the shelved €1B Antwerp project made tangible. This financial uncertainty could slow the licensing pipeline as potential customers delay decisions. | The theoretical threat of high project costs became a demonstrated market reality, forcing a strategic realignment. This external headwind is now a primary factor influencing BASF’s partnership-focused model. |
Forward-Looking Insights and Summary
The data from 2025 paints a clear picture of BASF’s go-forward strategy in carbon capture: dominate the market as a technology enabler, not an asset owner. The company is pursuing a sophisticated, two-track approach that energy executives and investors must watch closely. The first track involves an aggressive commercial rollout of its mature OASE® platform. Expect to see a continued stream of licensing agreements in sectors that have recently proven viable, such as waste-to-energy and e-methanol production. The success of the ANDRITZ and Forestal projects serves as a repeatable template for global expansion.
The second, and arguably more strategic, track involves the maturation of next-generation technologies. The single most critical signal to watch is the progress of the methane pyrolysis demonstration plant with ExxonMobil in Baytown. A successful outcome, achieving its target of 2,000 tons of low-emission hydrogen per year, would validate a disruptive new pathway for hydrogen production and position BASF as a key player. Likewise, the first commercial-scale deployments of Svante’s capture technology using BASF’s MOF sorbents will be a crucial test for the market viability of solid-sorbent systems. Conversely, what’s losing steam is the model of chemical companies leading massive, high-CAPEX CCUS infrastructure projects. The shelving of the Antwerp investment and cancellation of the Yara project are powerful signals that BASF has found a more profitable, lower-risk role as the chemical and materials brain behind the world’s growing carbon management industry.
Frequently Asked Questions
Why is BASF focusing on licensing its technology instead of building its own carbon capture plants?
BASF has adopted a “capital-light” strategy to maximize market penetration while minimizing risk. Building and owning large-scale Carbon Capture, Utilization, and Storage (CCUS) facilities, like the shelved €1 billion Antwerp project, requires immense capital expenditure and carries significant project execution risks. By licensing its proven technologies (like OASE®), BASF can generate revenue from a wide range of partners across multiple industries and geographies without being directly exposed to the high costs and complexities of infrastructure ownership.
What are the main carbon capture technologies in BASF’s portfolio?
BASF offers a diverse range of technologies. Its core commercial products are its OASE® amine-based solvents: OASE® blue is used for capturing CO2 from flue gas in sectors like power, cement, and waste-to-energy, while OASE® white is optimized for blue hydrogen production. For next-generation solutions, BASF is the first to mass-produce metal-organic frameworks (MOFs), a solid sorbent supplied to partners like Svante. Furthermore, it is pioneering “turquoise” hydrogen by co-developing methane pyrolysis technology with ExxonMobil.
The article mentions BASF shelved a major project in Antwerp. Does this mean the company is less committed to CCUS?
On the contrary, the decision reflects a strategic sharpening, not a reduced commitment. By canceling its own high-CAPEX plant, BASF pivoted away from being an asset owner to focus on being a pure-play technology provider. This move, followed by a series of new licensing deals in different sectors, demonstrates a commitment to a more scalable and profitable role in the CCUS market. Their strategy is to enable many projects globally rather than funding one of their own.
What is the most important future development to watch in BASF’s carbon management strategy?
The progress of the methane pyrolysis demonstration plant with ExxonMobil is the most critical signal to watch. This technology creates “turquoise” hydrogen from natural gas, producing solid carbon instead of CO2 gas, which could be a disruptive new pathway for low-emission hydrogen. A successful demonstration would validate this technology and position BASF as a key enabler in an entirely new segment of the hydrogen economy.
How is BASF’s geographic focus for carbon capture changing?
Initially, BASF focused on proving its technology in established industrial clusters with supportive policies, primarily in Europe (Belgium, UK, Germany) and Japan. Since 2025, its footprint has expanded globally. While Europe remains a core market, BASF has secured new projects in emerging CCUS regions like Taiwan (power sector), expanded in the US (technology development in Texas), and deepened its presence in China through a major industrial consortium. This shows a shift from regional validation to global commercial deployment.
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