Membranas de separación de gases 2026-2036: materiales, mercados, actores y pronósticos

Perspectivas del mercado para las aplicaciones de descarbonización: mejora del biogás (biometano/gas natural renovable), captura de carbono, hidrógeno y helio. Materiales de membrana, actores clave y previsiones del mercado.

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Gas separation is a widespread industrial process. Among gas separation technologies, membranes have distinct advantages such as high energy efficiency and compact design. Mature applications for gas separation membranes, such as natural gas processing, have existed commercially for decades using simple polymeric materials such as cellulose acetate and polyimide. As governments and industries alike strive to reach net-zero by 2050 targets, new decarbonization applications are emerging for membranes, with new membrane materials being developed in the pursuit of improved performance.
 
"Gas Separation Membranes 2026-2036: Materials, Markets, Players, and Forecasts" provides a comprehensive outlook for gas separation membrane markets, with an in-depth analysis of the technological and economic aspects, alongside new materials, that are shaping this market. In it, IDTechEx focuses on the gas separation membrane applications most relevant to increasing demand for energy security and decarbonization, namely:
  • Biogas upgrading to produce biomethane/renewable natural gas (RNG)
  • CCUS (carbon capture, utilization, and storage)- natural gas processing, post-combustion capture, and other applications (DAC, EOR, and oxy-fuel combustion)
  • Hydrogen separations including mature applications (ammonia production, refining & petrochemical, and methanol production) and emerging applications (blue hydrogen/pre-combustion carbon capture, hydrogen deblending, and ammonia cracking)
  • Helium separation/recovery
 
This IDTechEx report analyses key market opportunities for both incumbent polymer membranes and new membrane materials within existing and emerging markets.
IDTechEx forecasts emerging membrane markets (biogas upgrading, post-combustion capture, blue hydrogen) will see the largest growth in revenue by 2036. Image source: IDTechEx
 
Membranes are the leading technology for biogas upgrading:
Membranes have rapidly become the leading technology for biogas upgrading, driven by their simplicity, low OPEX, and superior energy efficiency. This IDTechEx report provides a comprehensive overview of the biogas upgrading space, including regional biomethane demand forecasts, market drivers/barriers for RNG, leading membrane players and materials, emerging membrane materials, and alternative biogas upgrading technologies.
 
Gas separation membranes for post-combustion carbon capture are scaling up:
Outside of natural gas processing (CO2/CH4 separation), incumbent polymer membranes do not perform well at carbon capture (usually CO2/N2 separation). However, compared to incumbent amine-solvent post-combustion capture technologies, the lower energy demand of membranes could significantly lower carbon capture costs. Therefore, post-combustion capture will be a significant market growth opportunity for new membrane materials.
 
This IDTechEx report includes market research on projects, players, materials, benchmarking, and economic analysis for gas separation membranes in post-combustion carbon capture. Gas separation membranes for post-combustion capture, although not yet at the megatonne per annum scale, are continuing to scale up, with projects capable of capturing 10,000s tonnes per annum of CO2 coming online in 2025/2026.
 
Established and emerging hydrogen applications present opportunities for membranes:
Membranes are already established for mature hydrogen applications such as ammonia and methanol production. The most economic performance is usually achieved by deploying gas separation membranes in hybrid systems alongside technologies such as pressure swing adsorption (PSA). For emerging applications, new membrane materials such as palladium membranes are being explored, offering advantages such as high hydrogen purity. In this report, IDTechEx provides a detailed overview of gas separation membranes for hydrogen separations, assessing key markets, players, and materials.
 
New gas separation membrane materials can improve performance:
Incumbent asymmetric polymer membranes are easy to fabricate and cheap to produce. However, new gas separation membrane materials can enhance separation performance. This IDTechEx report analyses emerging players and materials for gas separation membranes, including players seeking to commercialize advanced polymer materials, metals, ceramics, carbon-based membranes, and new composite structures (such as thin film composites and mixed matric membranes). New membrane materials examined include Pd-metallic membranes, PEG-based membranes, facilitated transport membranes, mixed matrix membranes with MOFs, carbon fiber membranes, graphene membranes, zeolite ceramic membranes, polybenzimidazole membranes, and carbon molecular sieves.
 
Development of new membrane materials encompasses advanced polymer materials, new composite structures, and can go beyond polymeric materials to metals and ceramics. Image source: IDTechEx
 
Key Aspects: This report provides the following information:
 
Market Analysis: Gas Separation Membranes for Decarbonization Applications
  • Granular market forecasts until 2036 for revenue from membrane materials and area of membrane material (subdivided into 5 application areas), biomethane production forecasts (segmented by region), and other gas market forecasts for natural gas production, post-combustion carbon capture, and hydrogen applications.
  • Detailed overview of major membrane manufacturers, including key products, partnerships, and market developments.
  • Market assessment and outlook for key emerging markets. This includes commercial developments, market drivers and company landscapes:
  • Biogas upgrading to biomethane (RNG)
  • Carbon capture (natural gas processing, post-combustion, and emerging applications such as direct air capture and oxyfuel combustion)
  • Hydrogen separation (ammonia production, methanol production, petrochemical/refining, and emerging applications such as blue hydrogen, ammonia cracking, and hydrogen deblending)
  • Helium production and recovery
 
Technology Assessment: Incumbent and Emerging Gas Separation Membrane Materials
  • Technology overview of polymeric, ceramic, metal, and composite membranes.
  • For each gas separation application, a comparison against alternative separation techniques (e.g., PSA or cryogenic) and discussion on pain points and technical -Key technology assessments (TRL, benchmarking) for emerging membranes targeting the separation of gas mixtures. Examples include thin film composite (TFC) membranes, facilitated transport membranes (FTMs), polymers of intrinsic microporosity (PIM), mixed matrix membranes (MMMs), and many more.
Report MetricsDetails
Historic Data1990 - 2024
CAGREmerging decarbonization gas separation membrane markets will grow at a 17% CAGR to 2036
Forecast Period2025 - 2036
Forecast UnitsRevenue from membrane materials (US$), area of membrane material (m2), gas markets (bcm/Mtpa)
Regions CoveredWorldwide
Segments CoveredNatural gas processing, biogas upgrading (segmented by region), post-combustion carbon capture, blue hydrogen, grey hydrogen (ammonia production, refining & petrochemical, methanol production), and % of membrane technology usage.
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1.EXECUTIVE SUMMARY
1.1.Introduction to gas separation membranes for decarbonization
1.2.Gas separation membrane markets: Maturities and opportunities
1.3.Leading polymer materials for gas separation membranes
1.4.Material developments for gas separation membranes
1.5.Commercial maturity of materials for gas separation membranes applications in this report
1.6.Key players in gas separation membranes by material
1.7.Developing new membrane materials: Key trends
1.8.Overview of gas separation membranes for decarbonization applications
1.9.Gas separation membranes for biogas upgrading
1.10.Gas separation membranes for natural gas processing
1.11.Gas separation membranes for post-combustion carbon capture
1.12.Gas separation membranes for hydrogen
1.13.Gas separation membranes for helium
1.14.Overview of gas separation membranes in decarbonization
1.15.Main gas separation polymer membrane manufacturers
1.16.Recent industry progress in gas separation membranes for decarbonization
1.17.IDTechEx forecast: Revenue from gas separation membranes
1.18.Access More With an IDTechEx Subscription
2.INTRODUCTION
2.1.Introduction to gas separation membranes for decarbonization
2.2.Gas separation membrane markets: Maturities and opportunities
2.3.Why use membranes for gas separation?
2.4.Membranes: Operating principles
2.5.Leading polymer materials for gas separation membranes
2.6.Polymeric membrane module design: Hollow fibre vs spiral wound
2.7.Material developments for gas separation membranes
2.8.Comparing gas separation membrane materials
2.9.Polymeric-based membranes for gas separation: Overview
2.10.Ceramic-based membranes for gas separation: Overview
2.11.Metallic-based membranes for gas separation: Overview
2.12.Composite membranes for gas separation: Overview
2.13.Asymmetric membranes vs TFC membranes
2.14.Overcoming the Robeson limit: Achieving maximum selectivity and permeability
2.15.Developing new membrane materials: Key trends
2.16.Polymer membranes usually require multi-stage processes
2.17.Overview of gas separation membranes in decarbonization
3.GAS SEPARATION MEMBRANE MANUFACTURING
3.1.Leading gas separation membrane manufacturers
3.1.1.History of gas separation membranes
3.1.2.Air Liquide
3.1.3.Air Products
3.1.4.Honeywell UOP
3.1.5.UBE
3.1.6.Evonik
3.1.7.SLB
3.1.8.MTR (Membrane Technology and Research)
3.1.9.Airrane
3.1.10.Main gas separation polymer membrane manufacturers
3.1.11.2024/2025 Industry News: Gas Separation Membranes
3.2.Membrane fabrication techniques
3.2.1.Conventional membrane manufacturing: Phase inversion
3.2.2.Single asymmetric membrane vs dual layer membrane
3.2.3.Hybrid NIPS and TIPS gas separation membrane fabrication
3.2.4.Manufacturing thin film composites
3.2.5.Manufacturing organic hybrid membranes: SK Innovation
3.2.6.Manufacturing carbon membranes: Toray
4.BIOGAS UPGRADING
4.1.Introduction to biogas upgrading
4.2.Biomethane markets (renewable natural gas markets)
4.3.Barrier: Biomethane production more expensive than natural gas
4.4.Biomethane/RNG market commentary
4.5.Membranes have become the favoured technology for biogas upgrading
4.6.Main players in biogas upgrading gas separation membranes
4.7.Market share of biogas upgrading membranes
4.8.Biomethane: Main plant players
4.9.Desirable properties for biogas upgrading membranes
4.10.Evonik: 3-stage membrane process for biogas upgrading
4.11.Additional stages in membrane biogas upgrading
4.12.Hybrid process: Membranes and cryogenic for upgrading landfill gas
4.13.Emerging materials for biogas upgrading membranes
4.14.Alternatives to membranes: Developments in biogas upgrading technologies
5.CCUS
5.1.Introduction
5.1.1.What is Carbon Capture, Utilization and Storage (CCUS)?
5.1.2.Why CCUS and why now?
5.1.3.The CCUS value chain
5.1.4.Main CO2 capture systems
5.1.5.Development of the CCUS business model
5.1.6.CCUS business model: full value chain
5.1.7.CCUS business model: Networks and hub model
5.1.8.CCUS business model: Partial-chain
5.1.9.Main CO2 capture technologies
5.1.10.Comparison of CO2 capture technologies
5.1.11.Amine solvents dominate carbon capture but there are opportunities for membranes
5.1.12.No single carbon capture technology will be the best across all applications
5.1.13.Carbon capture technology providers for existing large-scale projects
5.1.14.Technology readiness levels of carbon capture technologies
5.2.Gas separation membranes for natural gas sweetening
5.2.1.Introduction to natural gas processing with carbon capture
5.2.2.Development of membranes for natural gas processing
5.2.3.Market share of natural gas separation membranes
5.2.4.Gas separation membranes for natural gas sweetening
5.2.5.Natural gas processing: spiral wound and hollow fiber membranes
5.2.6.H2S considerations in CH4/CO2 separation for natural gas sweetening
5.2.7.Overview of largest natural gas processing CCUS projects
5.2.8.Fluoropolymer gas separation membranes for natural gas processing
5.3.Gas separation membranes for post-combustion carbon capture
5.3.1.Post-combustion CO₂ capture
5.3.2.Membranes for post-combustion CO2 capture
5.3.3.When should alternatives to solvent-based carbon capture be used?
5.3.4.Overcoming the Robeson limit for post-combustion carbon capture
5.3.5.Leading players in membrane-based post-combustion capture
5.3.6.Polymer membranes for post-combustion carbon capture: PEG membranes
5.3.7.Economics of polymer membranes for post-combustion capture
5.3.8.Increasing CO2 recovery rates for polymer membranes: MTR example
5.3.9.Polymer membranes for post-combustion carbon capture: emerging materials
5.3.10.Facilitated transport membranes (FTM) for post-combustion carbon capture
5.3.11.Energy demand of post-combustion carbon capture technologies
5.3.12.Economics of FTMs for post-combustion carbon capture
5.3.13.Facilitated transport membrane materials for post-combustion carbon capture
5.3.14.Challenges and innovations for membranes in post-combustion capture
5.3.15.2024/2025 Industry News: Membranes for post-combustion capture
5.3.16.Benchmarking membranes for post-combustion capture
5.3.17.Graphene membranes for post-combustion carbon capture: Emerging material
5.3.18.MOF membranes for post-combustion carbon capture: Emerging material
5.4.Gas separation membranes for other CCUS applications (oxyfuel, EOR, DAC)
5.4.1.Oxy-fuel combustion CO₂ capture
5.4.2.Oxygen separation technologies for oxy-fuel combustion
5.4.3.What is CO2-EOR?
5.4.4.What happens to the injected CO2?
5.4.5.Membrane technology for EOR
5.4.6.CO2 capture/separation mechanisms in DAC
5.4.7.Membranes for direct air capture
5.4.8.IDTechEx CCUS Portfolio
6.HYDROGEN
6.1.Overview of the hydrogen value chain
6.1.1.State of the hydrogen market today
6.1.2.Major drivers for low-carbon hydrogen production & adoption
6.1.3.Key legislation & funding mechanisms driving hydrogen development
6.1.4.The colors of hydrogen
6.1.5.Hydrogen value chain overview
6.1.6.Blue hydrogen: Main syngas production technologies
6.1.7.Blue hydrogen production - SMR with CCUS example
6.1.8.Cost comparison of different types of hydrogen
6.1.9.Overview of hydrogen storage
6.1.10.Overview of hydrogen distribution
6.1.11.Hydrogen carriers - overview
6.1.12.Hydrogen carriers - liquid hydrogen (LH2) vs ammonia & LOHCs
6.1.13.Overview of hydrogen applications
6.1.14.Hydrogen purity requirements
6.2.Gas separation membranes for established hydrogen applications
6.2.1.Gas separation membranes used for hydrogen separation - overview
6.2.2.Common gas separations where hydrogen is used & competing technologies
6.2.3.Example application - hydrogen recovery from ammonia reactor purge gas
6.2.4.Example application - hydrogen recovery in refinery applications
6.2.5.Key gas separation membrane players in established hydrogen separations
6.2.6.Market share of hydrogen separation membranes in mature applications
6.3.Gas separation membranes in emerging hydrogen applications (blue hydrogen/pre-combustion carbon capture, hydrogen deblending, ammonia cracking)
6.3.1.Emerging opportunities for gas separation membranes in hydrogen
6.3.2.Key membrane players targeting emerging hydrogen applications
6.3.3.Gas separation membranes in blue hydrogen production (pre-combustion capture)
6.3.4.Honeywell UOP - membranes in CO2 fractionation for blue hydrogen
6.3.5.Air Liquide hybrid technology for CCUS: Blue hydrogen
6.3.6.Hydrogen blending & deblending with natural gas
6.3.7.Hydrogen deblending - applicability of membrane separations
6.3.8.Hydrogen deblending - Linde & Evonik system case study (1)
6.3.9.Hydrogen deblending - Linde & Evonik system case study (2)
6.3.10.Hydrogen deblending - National Gas case study (UK)
6.3.11.Electrochemical hydrogen separation - competitor to gas separation membranes
6.3.12.Electrochemical hydrogen separation - key players
6.3.13.Membranes in ammonia cracking
6.4.Innovations in polymer membrane materials for hydrogen separation
6.4.1.Key R&D areas for gas separation membranes
6.4.2.Polymer membrane developments for hydrogen separation - DiviGas
6.4.3.Polymer membrane developments for hydrogen separation - DiviGas
6.4.4.Polymer membrane developments for hydrogen separation - Membravo
6.4.5.Other commercial developments for polymer membranes in hydrogen separation
6.4.6.Polymers of intrinsic microporosity for hydrogen separation - Osmoses
6.4.7.Key academic research areas for H2 separation - mixed matrix membranes
6.4.8.Case study - novel mixed matrix membrane (MMM) for hydrogen
6.4.9.Key academic research areas for H2 separation - carbon molecular sieves
6.4.10.Case study - novel hybrid boronitride-CMS membrane for hydrogen
6.5.Metallic membranes for hydrogen purification in ammonia cracking & other applications
6.5.1.Metallic membranes for hydrogen purification - overview
6.5.2.Metallic membranes for hydrogen purification - materials
6.5.3.Key application markets for metallic membranes
6.5.4.Key metallic membrane players - Hydrogen Mem-Tech (1)
6.5.5.Key metallic membrane players - Hydrogen Mem-Tech (2)
6.5.6.Key metallic membrane players - H2SITE (1)
6.5.7.Key metallic membrane players - H2SITE (2)
6.5.8.Key metallic membrane players - H2SITE (3)
6.5.9.Other players developing metallic composite membrane systems
6.5.10.Other players developing metallic composite membrane systems
6.5.11.Other players developing metallic composite membrane systems
6.5.12.Other players developing metallic composite membrane systems
6.5.13.IDTechEx Hydrogen & Fuel Cell Research Portfolio
7.HELIUM
7.1.Helium markets
7.2.Typical helium supply chain and separation processes
7.3.Three industrial helium separation technologies: Cryogenic, PSA and membranes
7.4.Hollow fiber membranes are a popular choice for helium separation
7.5.Different types of hollow fiber membranes are available for helium separation
7.6.Generon's membranes + PSA technology can recover helium to >99.5% purity
7.7.Grasys develops and provides membrane technology for helium separation
7.8.Air Liquide's advanced separation technology uses membranes and PSA
7.9.Linde offers cryogenic, membrane, and PSA-based separation technologies
7.10.UGS offers fully skidded membrane-based helium separation systems
7.11.Membrane and PSA methods are more economical than cryogenic separation
7.12.Helium Market 2025-2035: Applications, Alternatives, and Reclamation
8.MARKET FORECASTS
8.1.Gas separation membrane market forecasts
8.1.1.Scope for IDTechEx gas separation membrane forecasts
8.1.2.Revenue from gas separation membranes: 2026-2036 (million US$)
8.1.3.Area of membrane material: 2026-2036 (million m2)
8.1.4.Gas separation membrane market forecasts discussion
8.2.Biomethane market forecasts
8.2.1.Global biomethane production forecast segmented by region: 2013-2036 (billion cubic meters)
8.2.2.Global biomethane production forecast discussion
8.2.3.% of biogas upgrading plants using membrane separation technologies: 2013-2036
8.2.4.Membrane biogas upgrading forecast: 2025-2036 (billion cubic meters of biomethane produced)
8.3.Natural gas market forecasts
8.3.1.Global natural gas production forecast: 1990-2036 (billion cubic meters)
8.3.2.% of natural gas processing plants using membrane separation technologies: 2000-2036
8.3.3.Membrane natural gas processing forecast: 2025-2036 (billion cubic meters of natural gas)
8.4.Membranes for post-combustion carbon capture market forecasts
8.4.1.Membrane post-combustion capture forecast: 2025-2036 (million tonnes per annum of CO2 captured)
8.4.2.Membrane post-combustion capture forecast discussion
8.5.Membranes for hydrogen production market forecasts (ammonia production, refining & petrochemical, methanol production, and blue hydrogen production)
8.5.1.Membrane hydrogen production forecast: 2024-2036 (million tonnes per annum of H2)
8.5.2.Membrane hydrogen production forecast discussion
9.COMPANY PROFILES
9.1.Links to company profiles on the IDTechEx portal
 

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Los mercados emergentes de membranas de separación de gases de descarbonización crecerán a una tasa compuesta anual del 17% hasta 2036
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