Hydrogen-Based CCUS Technologies Market, Global Outlook and Forecast 2023-2029

Report Summary

This research report provides a comprehensive analysis of the Hydrogen-Based CCUS Technologies market, focusing on the current trends, market dynamics, and future prospects. The report explores the global Hydrogen-Based CCUS Technologies market, including major regions such as North America, Europe, Asia-Pacific, and emerging markets. It also examines key factors driving the growth of Hydrogen-Based CCUS Technologies, challenges faced by the industry, and potential opportunities for market players.
The global Hydrogen-Based CCUS Technologies market has witnessed rapid growth in recent years, driven by increasing environmental concerns, government incentives, and advancements in technology. The Hydrogen-Based CCUS Technologies market presents opportunities for various stakeholders, including Oil and Gas, Power Generation. Collaboration between the private sector and governments can accelerate the development of supportive policies, research and development efforts, and investment in Hydrogen-Based CCUS Technologies market. Additionally, the growing consumer demand present avenues for market expansion.
The global Hydrogen-Based CCUS Technologies market was valued at US$ 1148.8 million in 2022 and is projected to reach US$ 6523.5 million by 2029, at a CAGR of 28.5% during the forecast period. The influence of COVID-19 and the Russia-Ukraine War were considered while estimating market sizes.
CCUS (Carbon Capture, Utilization and Storage) carbon capture, utilization and storage technology
surgery. It is a new development trend of CCS (Carbon Capture and Storage) technology, that is, to purify the carbon dioxide emitted in the production process, and then put it into the new production process, which can be recycled instead of simply stored. Compared with CCS, carbon dioxide can be resourced, which can generate economic benefits and is more practical.Challenges of CCUS Technology
At present, CCUS technology is still in the initial stage of research and development and demonstration, and is facing difficulties and problems in the aspects of economy, market, technology, environment and policy. There are still many obstacles and challenges to achieve large-scale development.
1 Economic aspects
The important contribution of CCUS technology lies in its irreplaceable ability to reduce carbon emissions, but the cost is too high. Firstly, the investment cost of the CCUS project is huge, and the investment amount is tens of millions or even hundreds of millions of yuan; secondly, the installation of carbon capture devices will generate additional operation and maintenance costs; finally, for carbon utilization and storage, the price of captured CO2 is too high. High, the price is very uneconomical for oil production companies. With regard to the CCUS demonstration projects currently in operation in China, under such huge cost pressures, the corporate rate of return can only be maintained at 2% or below. If the emission reduction benefits cannot be realized, it will seriously affect the enthusiasm of enterprises to carry out CCUS demonstration projects.
2 Technical aspects
CCUS technology is a highly integrated collection, transportation, utilization and storage of various technologies, and it needs to promote the development of all links in an orderly and balanced manner. First of all, the introduction of the CCUS capture link will increase additional energy consumption. Under the current technical level, the primary energy consumption will increase by 10%~20% or even more, resulting in a great loss of efficiency. Secondly, because CO2 is chemically inert and thermally stable, a large amount of energy must be re-invested in order to effectively convert and utilize CO2, which limits the utilization of CO2 as a resource, and it is necessary to find a suitable catalyst system. There are risks of uncertainty in the geological exploration of the second geological utilization and storage link. The information support for CO2 geological storage is not enough, and the enterprise cannot make a comprehensive assessment of the stratum structure, storage potential, storage risk and detection plan, which increases the business risk of the enterprise. Finally, under the goal of carbon neutrality, CCUS technology needs to complete the cumulative emission reduction task of 17.5 to 31.5 billion tons of CO2. However, most of the current CCUS demonstration projects can capture CO2 from 10,000 to 100,000 tons, and there is a lack of large-scale, replicable A full-process integration demonstration project with obvious economic benefits. Therefore, research and development of low-cost, low-energy CCUS technology and large-scale full-process CCUS integration demonstration will promote the deployment and promotion of CCUS technology.
3 Market aspects
The development of the CCUS industry requires long-term and large capital investment. However, due to the high cost of CCUS emission reduction and the uncertainty of technology, companies are often unwilling to bear the risk of investing in CCUS research and development and demonstration alone. In addition, the global carbon market is in its infancy, there is no large-scale CO2 demand market, the carbon tax policy is not clear, and it is impossible to measure the emission reduction capacity of this part economically. Therefore, the foundation for the commercial development of CCUS projects is weak, and many Businesses and potential investors balk at it. On the other hand, the CCUS industry chain covers almost all links of energy production and consumption, such as electric power, steel, cement, petroleum, chemical industry and other industries. At present, there are few CCUS full-process demonstration projects, and there is a lack of cross-industry and cross-departmental cooperation models. There is a problem of poor connection between CO2 capture projects and utilization and storage projects. Therefore, under the existing market environment and policy framework, how to reasonably solve the problem of cooperation and benefit distribution among multiple enterprises on the benefit chain will directly affect CCUS development process.
4 Environmental aspects
Due to the nature of CO2 itself, any leakage of CO2 in each link of CCUS technology will have an impact on the ecological environment. Under the current technical level, the environmental risks in the general capture and transportation links are small, and the main environmental risks come from the geological storage and utilization of CO2. From the perspective of geological time scale, due to complex unforeseen and uncontrollable geological movements (such as earthquakes) and the corrosiveness of CO2 to the formation, CO2 leaks and escapes to the surface, forming a catastrophic suffocation area and a sudden increase in The greenhouse effect causes a series of environmental problems such as soil, groundwater and atmosphere near the leakage area, and poses a fatal threat to animals, plants and human health. This also seriously restricts the understanding and acceptance of CCUS by the government and the public.
Prospect of CCUS Technology Application
The technical links of CCUS are closely connected and complement each other. The front-end carbon capture link provides CO2 for the utilization and storage link, the intermediate transportation link provides CO2 transportation guarantee, and the back-end CO2 utilization turns CO2 into treasure, forming a downstream related industrial chain with commercial value. , to create a huge CO2 demand market, to achieve a win-win situation of CO2 fixation and economic benefits, which in turn will promote the development of carbon capture projects.
Most of the current carbon capture projects are industrialized centralized capture, and there are demonstration projects for pre-combustion, post-combustion, and oxygen-enriched combustion technologies; while CO2 utilization and storage projects are mainly CO2-EOR, resource utilization projects are rare . CO2-EOR is a mature technology that has been applied by the oil industry for decades, and currently occupies a dominant position in CCUS projects around the world, but its income is heavily dependent on oil prices, and its economic sustainability is poor. In terms of resource utilization of CO2, it has been reported in the literature that only 1.1 million tons of CO2 is industrially utilized and converted into chemicals every year, of which 90% is converted into urea, inorganic carbonate, etc., and very little is converted into other high-addition materials. valuable chemicals. At present, the vast majority of CO2 resource utilization industries have not yet achieved commercial application, and have not established relevant industrial chain clusters. Despite the high cost and high energy consumption of carbon capture projects, the disconnection between them and the carbon utilization stage makes it difficult to generate economic benefits, which has become the fundamental reason restricting the development of carbon capture projects. Therefore, while researching and developing low-cost, low-energy carbon capture technology, we must accelerate the layout of CO2 resource utilization, in order to accelerate the implementation, development and large-scale promotion of CCUS projects.
CO2 Utilization Industry Development Trend
1. Utilization of high value-added carbon-based new materials
CO2 conversion to manufacture high value-added carbon-based new materials (carbon nanotubes and graphene, etc.) will be part of an effective path to carbon neutrality such as coal power plants. It will provide a sustainable economic basis for overall carbon neutrality. Carbon nanomaterials have been widely used in lithium battery conductive pastes and conductive plastics, and can also be used in solar conductive silver pastes, anti-corrosion coatings, and thermal greases. At present, this technology has been successfully applied to industrial demonstration projects, with remarkable economic benefits. Due to the limited demand for high-tech materials, billions of tons of CO2 need to find another way out. One of the important directions of green chemistry research is to regard CO2, biomass, coal, oil, and natural gas as the five basic industrial raw materials, which are used to produce tens of thousands of daily-needed end products.
2. Chemical utilization
Incorporate CO2 into the industrial system, together with biomass materials, coal, oil and natural gas, as the five basic raw materials of industry, and build a new CO2 economic industrial chain, which is not only used to produce basic chemicals such as methanol and olefins, but also involves various intermediates Body and tens of thousands of end products (as shown in Figure 3). For example, Shanxi Clean Carbon Research Institute purifies CO2 in industrial flue gas, not only converting it into chemical products such as carbonate, ethylene glycol, and methanol fuel, but also using supercritical CO2 to manufacture lightweight materials for aircraft and automobile interior parts, Energy-saving and environment-friendly products such as packaging materials. With technological progress and cost reduction, CO2 resource utilization is gradually promoted, and the chemical industry is expected to accelerate greening.
Key Features:
The research report on the Hydrogen-Based CCUS Technologies market includes several key features to provide comprehensive insights and facilitate decision-making for stakeholders.
Executive Summary: The report provides overview of the key findings, market trends, and major insights of the Hydrogen-Based CCUS Technologies market.
Market Overview: The report provides a comprehensive overview of the Hydrogen-Based CCUS Technologies market, including its definition, historical development, and current market size. It covers market segmentation by Type (e.g., Carbon Capture and Storage (CCS), Carbon Capture and Utilization (CCU)), region, and application, highlighting the key drivers, challenges, and opportunities within each segment.
Market Dynamics: The report analyses the market dynamics driving the growth and development of the Hydrogen-Based CCUS Technologies market. The report includes an assessment of government policies and regulations, technological advancements, consumer trends and preferences, infrastructure development, and industry collaborations. This analysis helps stakeholders understand the factors influencing the Hydrogen-Based CCUS Technologies market's trajectory.
Competitive Landscape: The report provides an in-depth analysis of the competitive landscape within the Hydrogen-Based CCUS Technologies market. It includes profiles of major market players, their market share, strategies, product portfolios, and recent developments. 
Market Segmentation and Forecast: The report segment the Hydrogen-Based CCUS Technologies market based on various parameters, such as by Type, region, and by Application. It provides market size and growth forecasts for each segment, supported by quantitative data and analysis. This helps stakeholders identify growth opportunities and make informed investment decisions.
Technological Trends: The report should highlight the key technological trends shaping the Hydrogen-Based CCUS Technologies market, such as advancements in Type One technology and emerging substitutes. It analyses the impact of these trends on market growth, adoption rates, and consumer preferences.
Market Challenges and Opportunities: The report identify and analyses the major challenges faced by the Hydrogen-Based CCUS Technologies market, such as technical bottleneck, cost limitations, and high entry barrier. It also highlights the opportunities for market growth, such as government incentives, emerging markets, and collaborations between stakeholders.
Regulatory and Policy Analysis: The report should assess the regulatory and policy landscape for Hydrogen-Based CCUS Technologies, including government incentives, emission standards, and infrastructure development plans. It should analyse the impact of these policies on market growth and provide insights into future regulatory developments.
Recommendations and Conclusion: The report conclude with actionable recommendations for stakeholders, such as Application One Consumer, policymakers, investors, and infrastructure providers. These recommendations should be based on the research findings and address key challenges and opportunities within the Hydrogen-Based CCUS Technologies market.
Supporting Data and Appendices: The report include supporting data, charts, and graphs to substantiate the analysis and findings. It also includes appendices with additional detailed information, such as data sources, survey questionnaires, and detailed market forecasts.
Market Segmentation
Hydrogen-Based CCUS Technologies market is split by Type and by Application. For the period 2018-2029, the growth among segments provides accurate calculations and forecasts for consumption value by Type, and by Application in terms of value.
Market segment by Type
    Carbon Capture and Storage (CCS)
    Carbon Capture and Utilization (CCU)
    Carbon Capture and Conversion (CCC)
Market segment by Application
    Oil and Gas
    Power Generation
    Others
Global Hydrogen-Based CCUS Technologies Market Segment Percentages, By Region and Country, 2022 (%)
    North America
        US
        Canada
        Mexico
    Europe
        Germany
        France
        U.K.
        Italy
        Russia
        Nordic Countries
        Benelux
        Rest of Europe
    Asia
        China
        Japan
        South Korea
        Southeast Asia
        India
        Rest of Asia
    South America
        Brazil
        Argentina
        Rest of South America
    Middle East & Africa
        Turkey
        Israel
        Saudi Arabia
        UAE
        Rest of Middle East & Africa
Major players covered
    Exxonmobil Corporation
    Schlumberger
    Linde AG
    BASF
    General Electric
    Siemens
    Honeywell UOP
    Equinor
    Aker Solutions
    Shell
    Fluor
    Sinopec
Outline of Major Chapters:
Chapter 1: Introduces the definition of Hydrogen-Based CCUS Technologies, market overview.
Chapter 2: Global Hydrogen-Based CCUS Technologies market size in revenue.
Chapter 3: Detailed analysis of Hydrogen-Based CCUS Technologies company competitive landscape, revenue and market share, latest development plan, merger, and acquisition information, etc.
Chapter 4: Provides the analysis of various market segments by type, covering the market size and development potential of each market segment, to help readers find the blue ocean market in different market segments.
Chapter 5: Provides the analysis of various market segments by application, covering the market size and development potential of each market segment, to help readers find the blue ocean market in different downstream markets.
Chapter 6: Sales of Hydrogen-Based CCUS Technologies in regional level and country level. It provides a quantitative analysis of the market size and development potential of each region and its main countries and introduces the market development, future development prospects, market space of each country in the world.
Chapter 7: Provides profiles of key players, introducing the basic situation of the main companies in the market in detail, including product sales, revenue, price, gross margin, product introduction, recent development, etc.
Chapter 8: The main points and conclusions of the report.