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In-Depth Analysis of Green Hydrogen-Carbon Production Pathways in Q1 2026

#green_hydrogen #hydrogen_production #clean_energy #carbon_neutrality #technology_breakthrough #hydrogen_technology #industrialization #methane_cracking
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January 18, 2026

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Based on the latest information, I have prepared an in-depth analysis report on green hydrogen-carbon production pathways in Q1 2026 for you.


In-Depth Analysis of Green Hydrogen-Carbon Production Pathways in Q1 2026
I. Overview of Technological Breakthrough: CAS Hydrogen-Carbon Co-Production Technology
1.1 Core R&D Team and Background

Yu Qingkai, a researcher at the Shanghai Institute of Microsystem and Information Technology, Chinese Academy of Sciences (CAS) and Chairman of Shanghai Hydrogen Field New Materials Technology Co., Ltd., leads the team in continuous research on natural gas cracking for hydrogen-carbon co-production, graphene wafer preparation, and other fields [1]. This technology has received support from the National Key R&D Program’s “Hydrogen Energy Technology” key special project, emerging as an important pathway for green hydrogen-carbon production [2].

Core Advantages of the Technical Route:

  • Direct cracking of natural gas (methane) to produce hydrogen coupled with solid carbon
  • Effectively addresses carbon emission reduction issues in natural gas-based hydrogen production
  • Obtains large-volume high-value carbon materials (graphene, nanocarbon, etc.)
  • Avoids greenhouse gas emissions from traditional hydrogen production processes (9-12 kg CO₂/kg H₂) [2]
1.2 Breakthrough in Continuous Operation Time of Cracking Reactors

Currently, the team is focusing on overcoming technical bottlenecks such as continuous system operation, with the goal of increasing the stable continuous operation time of the cracking reactor to

one month
[1]. The key significance of this technological breakthrough is as follows:

Technical Indicator Current Status Target Significance
Continuous Operation Time Under intensive R&D One month Lays foundation for industrial production
Operating Condition Nearly zero pollution Zero emission Fully green production
Products High-purity hydrogen + graphite High-purity hydrogen + high-value carbon materials Improves economic efficiency

II. Comparative Analysis of Green Hydrogen-Carbon Production Technology Routes
2.1 Mainstream Hydrogen Production Technology Routes

Based on hydrogen sources and carbon emission levels during production, hydrogen can be classified into the following three categories [3]:

Hydrogen Type Production Source Carbon Emission Cost Characteristics
Gray Hydrogen
Coal, natural gas High Low cost
Blue Hydrogen
Fossil fuels + CCS Medium Medium cost
Green Hydrogen
Renewable energy-powered water electrolysis Zero High cost (declining)
2.2 Advantages of Natural Gas Cracking for Hydrogen-Carbon Co-Production Technology

Comparison with Traditional Technologies:

  1. Comparison with Steam Methane Reforming (SMR):

    • SMR Technology: 19% of China’s hydrogen output comes from this technology, with 9-12 kg of CO₂ emitted per kg of H₂ [2]
    • Natural Gas Cracking: Zero carbon emission, products are hydrogen + solid carbon
  2. International Competitive Landscape:

    • US Monolith Materials: Received a US$1 billion loan from the U.S. Department of Energy in 2022, pyrolyzes 20,000 tons of natural gas annually to produce 15,000 tons of carbon black and 5,000 tons of hydrogen [2]
    • Germany BASF: Has been developing mobile carbon bed catalytic technology with German government support since 2013, and highlighted it at the 2023 First Carbon Neutrality Expo [2]
    • Over 30 innovative companies worldwide are engaged in direct natural gas cracking for hydrogen production [2]

III. Industrialization Path and Market Layout
3.1 Industrialization Timeline
Phase Time Milestone
Technical R&D Phase 2024-2025 Breakthrough in continuous operation of cracking reactors
Pilot Testing & Verification 2025-2026 Achieve one month of stable continuous operation
Demonstration Application 2026 Launch demonstration project in Sichuan Province
Large-Scale Promotion 2026-2028 Build national distributed hydrogen production network
3.2 2026 Demonstration Application Plan

Sichuan Basin Demonstration Project:

  • Location Advantage:
    Abundant natural gas resources, sufficient raw material supply
  • Scale Target:
    Large-scale preparation of clean hydrogen and high-purity carbon materials
  • Application Scenarios:
    Distributed scenarios such as chemical industry and hydrogen refueling stations [1]
3.3 Market Strategic Layout
  1. Natural Gas Production Areas:
    Conduct large-scale production
  2. Chemical Industry Sector:
    Areas with concentrated demand for high-purity hydrogen
  3. Hydrogen Refueling Station Network:
    Distributed hydrogen production for on-site supply

IV. Technological Innovation and Industrial Ecosystem
4.1 Industry-University-Research Collaboration System

This project adopts a deep integration model of “Industry-Research”:

  • Leading Unit:
    Shanghai Institute of Microsystem and Information Technology, Chinese Academy of Sciences
  • Industrialization Platform:
    Shanghai Hydrogen Field New Materials Technology Co., Ltd.
  • Collaborating Units:
    ShanghaiTech University, Xi’an Jiaotong University, Harbin Institute of Technology
  • Application Verification:
    Shanghai Baowu Clean Energy Co., Ltd. [2]
4.2 Policy Support System

National Level:

  • Hydrogen energy was listed as a frontier emerging industry for the first time in the Government Work Report [2]
  • Overall goal of the National Key R&D Program’s “Hydrogen Energy Technology” special project: By 2025, China’s hydrogen energy technology R&D level will enter the international advanced ranks [2]

Local Level:

  • Shanghai International Science and Innovation Center provides agglomeration effects
  • Overall advantages and hub functions of the Yangtze River Delta
  • Concentration of high-end talents, convenient resource flow [1]

V. Global Technology Competitive Landscape and Industrial Chain Outlook
5.1 Global Development Trends
Region Representative Enterprise Technology Level Commercialization Progress
United States Monolith Materials Leading Already in commercial operation
Germany BASF Leading Pilot testing & verification
China Hydrogen Field New Materials Catching up Demonstration in 2026
Others 30+ innovative enterprises With unique features R&D phase
5.2 Development Goals of China’s Green Hydrogen Industry

According to the “Renewable Hydrogen 100” Roadmap [3]:

Phase Time Target
Phase 1 2023-2024 Enabling policies + demonstration projects
Phase 2 2024-2027 Technical standards + supply network
Phase 3 2027-2030 Green hydrogen cost reduced to RMB 15/kg

VI. Investment and Industrial Impact Analysis
6.1 Industrial Chain Opportunities
  1. Upstream:
    Natural gas cracking equipment, reactor manufacturing
  2. Midstream:
    High-purity hydrogen preparation, nanocarbon material processing
  3. Downstream:
    Hydrogen metallurgy, hydrogen refueling stations, chemical applications
6.2 Carbon Emission Reduction Benefits
Indicator Traditional SMR Natural Gas Cracking Emission Reduction Benefit
CO₂ Emission 9-12 kg/kg H₂ 0 100%
Product Value Hydrogen only Hydrogen + carbon materials 3-5 times increase

VII. Conclusions and Outlook
7.1 Significance of Core Technological Breakthrough

The breakthrough in hydrogen-carbon co-production technology by the CAS team marks:

  • Important progress made by China in the field of green hydrogen-carbon production
  • Provides key technical support for the achievement of China’s “Double Carbon” goals
  • Breaks international technological monopoly and fosters independent innovation capabilities
7.2 2026 Development Outlook

Key Milestones:

  1. Q1: Breakthrough in continuous operation time of cracking reactors
  2. Q2-Q3: System stability verification
  3. Q4: Launch of Sichuan demonstration project

Expected Achievements:

  • Achieve stable continuous operation for one month
  • Verify technical feasibility
  • Lay foundation for large-scale promotion
7.3 Long-Term Development Potential

Driven by policy support, technological breakthroughs and market demand, hydrogen-carbon co-production technology is expected to achieve large-scale commercial application between 2026 and 2030, making important contributions to China’s energy transition and carbon neutrality goals.


References

[1] China News Service - “Chinese Scientists Break Through Hydrogen-Carbon Co-Production Technology, Zero-Pollution Hydrogen Production Supports Energy Transition” (January 18, 2026)
https://www.chinanews.com.cn/gn/2026/01-18/10554059.shtml

[2] Jiefang Daily - “National Key R&D Program ‘Natural Gas Cracking for Hydrogen Production Coupled with Nanocarbon Materials Technology’ Key Special Project Launched in Shanghai”
https://www.jfdaily.com/wx/detail.do?id=744407

[3] World Economic Forum - “Green Hydrogen Acceleration Initiative: Recommendations for Enabling Green Hydrogen in China”
https://www3.weforum.org/docs/WEF_Green_Hydrogen_in_China_A_Roadmap_for_Progress_2023_CN.pdf

[4] Securities Times - “Hydrogen Energy Industrialization Accelerates, A-Share Companies Seize Opportunities”
https://www.stcn.com/article/detail/3541876.html

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