How Are CCUS and Sustainable Materials Redefining Industrial Sustainability?

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Patent Intelligence Report  ·  Industrial Decarbonization Series

How Are CCUS and Sustainable Materials Redefining Industrial Sustainability?

A data-grounded look at who is filing, where decarbonization innovation is concentrated, and why CCUS and sustainable materials are becoming critical to achieving net-zero across hard-to-abate industrial sectors.

A comprehensive technology and patent intelligence analysis of Carbon Capture, Utilization, and Storage (CCUS) and Sustainable Materials — examining carbon capture systems, direct air capture (DAC), carbon utilization pathways, geological storage solutions, carbon-to-chemicals conversion, bio-based materials, circular economy technologies, and low-carbon manufacturing processes enabling industrial decarbonization across energy, cement, steel, chemicals, construction, and transportation.

CCUSCapture, utilization & storage
DACDirect air capture
Net-ZeroHard-to-abate sectors
10-partPatent landscape analysis
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Report details

CCUS and Sustainable Materials — Technology & Patent Intelligence Report

Publisher Scintillation Research
Technology CCUS & Sustainable Materials
Focus area Industrial Decarbonization
Key segments DAC, Carbon Utilization, Bio-materials, CCS
IP coverage 10-part patent landscape
Applications Energy, Cement, Steel, Chemicals, Construction
Audience IP, R&D, Strategy, Investment
CCUS Carbon capture & storage
DAC Direct air capture
Net-Zero Hard-to-abate sectors
IP 10-part patent analysis
360° Ecosystem coverage
Introduction

When conventional emissions-reduction approaches cannot decarbonize the industries that need it most

The global CCUS and Sustainable Materials industry is rapidly evolving as governments and industries intensify efforts to achieve net-zero emissions, reduce dependence on fossil resources, and support the transition toward a circular economy. Industrial sectors such as power generation, cement, steel, chemicals, refining, and construction face increasing pressure to reduce carbon emissions while maintaining productivity and economic competitiveness.

Conventional emissions-reduction approaches continue to face significant limitations: hard-to-abate industries lack viable low-carbon alternatives for their core processes; greenhouse gas emissions remain structurally embedded in high-temperature industrial processes; resource utilization is inefficient; waste generation is high; and reliance on carbon-intensive raw materials persists across global supply chains. Electrification alone cannot achieve the depth of decarbonization required across these sectors within net-zero timelines.

To address these challenges, organizations worldwide are actively developing advanced CCUS technologies and sustainable material solutions as key enablers of industrial decarbonization. Unlike traditional approaches focused solely on emissions reduction, CCUS and sustainable materials technologies enable carbon circularity and resource efficiency — capturing CO₂ at the point of emission or from the atmosphere and converting it into valuable products, fuels, and building materials while permanently storing residual carbon underground.

One of the most significant advantages of these technologies is their ability to lower carbon emissions, improve resource efficiency, support circular manufacturing, and reduce dependence on fossil-derived feedstocks — making them highly suitable for applications in energy production, chemical manufacturing, construction materials, transportation fuels, consumer products, and other industries seeking sustainable and low-carbon production pathways. This report explores the technological foundations, key challenges, recent innovations, commercialization developments, and future market potential of CCUS and sustainable materials within the global industrial decarbonization landscape.

Report structure

Table of contents

Ten chapters connecting CCUS and sustainable materials technology foundations to patent landscape intelligence and industrial decarbonization strategy. Click any chapter to expand.

— Condensed findings on CCUS and sustainable materials technology, top patent assignees, filing trends, competitive dynamics, and strategic implications for industrial decarbonization, carbon utilization, and sustainable manufacturing IP
— Who Will Benefit from This Report — industrial decarbonization engineers, climate technology investors, IP counsel, energy and materials strategists, policy professionals, and sustainability leaders in hard-to-abate sectors
3.1 Challenges in CCUS and Sustainable Materials — high capture costs, energy penalties, geological storage site availability, carbon utilization scalability, bio-based feedstock competition, circular economy integration, and hard-to-abate sector decarbonization barriers
— Structural components — post-combustion capture systems, pre-combustion capture, oxy-fuel combustion, direct air capture units, transport and compression infrastructure, geological storage wells, carbon utilization reactors, and sustainable material production processes
4.1 Key Features of CCUS — high CO₂ capture rates, modular deployment, direct air capture capability, carbon-negative pathways, geological permanence of storage, and compatibility with existing industrial infrastructure
4.2 Problems CCUS and Sustainable Materials Aim to Solve — residual industrial CO₂ emissions, fossil feedstock dependence, waste stream valorization, resource inefficiency, high-carbon construction materials, and net-zero gaps in hard-to-abate sectors
4.3 Potential Applications — power generation, cement and steel production, chemical manufacturing, transportation fuels, construction materials, consumer products, agriculture, and circular economy platforms
— CCUS commercialization roadmap, cost reduction trajectories for DAC and point-source capture, carbon market development, policy and regulatory drivers, industrial cluster deployment models, and sustainable materials market growth outlook through 2035
6.1 Methodology & Scope — patent database coverage, search strategy, classification framework, and analytical approach for CCUS, DAC, carbon utilization, geological storage, and sustainable materials IP
6.2 Scope Corrections — refinements addressing classification overlap between carbon capture, chemical process, materials science, and geological engineering patent domains
6.3 Top Assignee Picture — leading filers across energy majors, industrial gas companies, engineering contractors, materials innovators, chemical producers, and climate technology startups
6.4 Notable Assignee Profiles — detailed IP portfolio analysis for the most active CCUS and sustainable materials patent filers, including technology focus and competitive positioning
6.5 Filing Activity Over Time — trend analysis identifying R&D acceleration points, policy-driven filing surges, and IP maturity signals across CCUS and sustainable materials technology domains
6.6 Jurisdiction Coverage — USPTO, CNIPA, EPO, KIPO, JPO, WIPO, and national office distributions reflecting geographic deployment priorities and market protection strategies
6.7 Technology Segmentation — patents mapped to post-combustion capture, pre-combustion capture, oxy-fuel, DAC, carbon-to-chemicals, carbon mineralization, bio-based materials, geological storage, and circular economy processes
6.8 Foundational Anchor Patents — core IP defining the CCUS and sustainable materials landscape and their strategic competitive significance across industrial decarbonization
6.9 Representative Publications Across the Field — key academic and industry publications shaping CCUS research direction, sustainable materials development, and commercialization strategy
6.10 Whitespace & Strategic Opportunities — underprotected technology domains and emerging filing, licensing, and partnership opportunities across the CCUS and sustainable materials IP ecosystem
— Stakeholder-specific takeaways for industrial decarbonization engineers, IP counsel, climate technology investors, energy sector strategists, policy professionals, materials innovators, and sustainability leaders in hard-to-abate sectors
— Synthesis of CCUS and sustainable materials technology trajectory, IP landscape dynamics, and strategic implications for industrial net-zero transitions, carbon circularity, and sustainable manufacturing across the global economy
— Publisher profile, research methodology, and service overview — patent analytics, technology scouting, competitive intelligence, and strategic research across climate technology, energy, and materials domains
— Full legal disclaimer covering information accuracy, IP ownership, and terms of use for this intelligence report
Inside the Technology

Structural components & key features

CCUS and sustainable materials technologies form an integrated decarbonization stack — capturing CO₂ at the source or from the atmosphere, transporting and permanently storing it, or converting it into valuable products and low-carbon materials that displace fossil-derived alternatives across industrial value chains.

Post-combustion carbon capture
Chemical solvent or solid sorbent systems that separate CO₂ from flue gas streams at existing power plants, cement kilns, steel furnaces, and chemical plants — enabling deep decarbonization of existing industrial infrastructure without full process replacement.
Direct air capture (DAC)
Systems that extract CO₂ directly from ambient air using liquid solvent contactors or solid sorbent beds — enabling carbon removal independent of point-source emissions and providing the negative emissions required to achieve and maintain net-zero atmospheric CO₂ concentrations.
Pre-combustion capture & oxy-fuel
Pre-combustion reforming converts fossil fuels to hydrogen and CO₂ before combustion — allowing CO₂ to be captured at high concentration. Oxy-fuel combustion uses pure oxygen instead of air, producing a flue gas of near-pure CO₂ that can be captured and compressed without costly separation.
Carbon transport & geological storage
Captured CO₂ is compressed, transported by pipeline or ship, and injected into deep saline aquifers, depleted oil and gas reservoirs, or basalt formations for permanent geological storage — providing durable, verifiable carbon removal independent of above-ground land use constraints.
Carbon-to-chemicals & e-fuels
Captured CO₂ is converted to synthetic fuels, methanol, ethanol, formic acid, polymers, and other value-added chemicals via electrochemical, thermochemical, or biological conversion pathways — creating a circular carbon economy that displaces fossil-derived feedstocks in chemical and fuel production.
Carbon mineralization & utilization in construction
CO₂ is permanently mineralized into carbonates and incorporated into concrete, aggregates, and building materials — converting a greenhouse gas into a structural material component while permanently sequestering carbon in long-lived built infrastructure.
Bio-based & biodegradable materials
Sustainable materials derived from agricultural residues, forestry biomass, algae, and microbial fermentation — replacing fossil-derived plastics, chemicals, and composites with materials that store biogenic carbon, are biodegradable or recyclable, and reduce lifecycle emissions across consumer and industrial product chains.
Circular economy & low-carbon manufacturing
Process innovations that close material loops, recover and reuse waste streams, substitute low-carbon feedstocks, and integrate renewable energy into manufacturing — reducing the carbon intensity of industrial production pathways across cement, steel, chemicals, textiles, and packaging.
Challenges addressed

Why conventional approaches cannot decarbonize hard-to-abate industry

CCUS and sustainable materials technologies directly target five structural barriers that prevent conventional emissions-reduction approaches from achieving the depth of decarbonization required across hard-to-abate industrial sectors on net-zero timelines.

01
Residual process emissions in hard-to-abate sectors
Cement, steel, chemicals, and refining produce CO₂ as an inherent byproduct of their core chemical reactions — not only from energy combustion. Electrification and renewable energy cannot eliminate these process emissions. CCUS is the only technology pathway capable of achieving deep decarbonization in these sectors while maintaining existing production processes and economic viability
Decarbonization
02
High cost of carbon capture at scale
Current carbon capture costs — ranging from $50–$300 per tonne of CO₂ depending on source concentration and technology — remain a significant barrier to widespread CCUS deployment. Advanced sorbent materials, novel capture cycle designs, modular system architectures, and process integration innovations are actively reducing capture costs toward the levels required for large-scale commercial deployment across industrial clusters
Cost
03
Fossil feedstock dependence in chemicals and materials
The global chemicals, plastics, and materials industries are structurally dependent on petroleum and natural gas as both energy sources and chemical feedstocks — a dependence that cannot be resolved through energy efficiency alone. Carbon utilization technologies that convert captured CO₂ into synthetic fuels, chemicals, and materials, combined with bio-based material innovations, provide viable pathways to displace fossil feedstocks across industrial value chains
Feedstock
04
Net-zero gaps requiring carbon removal
Even aggressive emissions reduction across all sectors will not achieve net-zero atmospheric CO₂ without active carbon removal to offset residual emissions and reverse historical accumulation. DAC and bioenergy with carbon capture (BECCS) are the primary technology pathways capable of delivering the large-scale engineered carbon removal required by net-zero scenarios through mid-century and beyond
Net-Zero
05
Waste generation and resource inefficiency
Linear industrial production systems generate substantial solid, liquid, and gaseous waste streams that represent lost resource value and additional environmental burdens. Circular economy technologies, bio-based material substitution, and carbon utilization pathways that convert waste CO₂ and organic residues into value-added products address resource inefficiency while simultaneously reducing industrial carbon footprints across the full production lifecycle
Circularity
CCUS report cover

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