Carbon Capture

Decarbonization efforts have gained momentum globally in recent years. Renewable energy, electrification, and battery storage are primary solutions. However, some sectors remain difficult to decarbonize using such methods, including heavy industry, heating, and certain transport sectors, such as aviation and shipping.

On the 28th November 2023, a plane flew from London to New York. For the first time in history, this transatlantic flight was 100% powered by sustainable alternative fuels. This rounds off a promising year for sustainable fuels in aviation. Earlier in 2023, ReFuelEU Aviation Regulation was adopted by the European Union, mandating a 70% sustainable aviation fuel blending obligation by 2050.

Creating a circular economy is an essential sustainability target for governments, brands, materials suppliers, and the public. Key to pushing these sustainability efforts, which range from sustainability roadmaps developed by chemical and material companies to sustainable material usage targets adopted by brands, is the danger that growing global plastic consumption poses to the environment.

As the energy and industrial landscapes experience transformative shifts, the hydrogen economy stands at the threshold of sustainable growth. The envisioned hydrogen value chain will integrate production, storage, and distribution systems, supporting a wide array of applications that span industrial processes to various transportation sectors.

CCUS is a central part of every industrial decarbonization roadmap. At its heart, this is a separation challenge, which therefore brings about the question of whether membranes can be used.

For many decades there has been an extensive amount of materials science R&D focussed on developing next-generation gas separation membranes. However, to date, the market is still dominated by those polymeric materials that initially gained commercial adoption in the late 20th century.

Thursday 22 June 2023 - Gas Separation Membranes: Decarbonization Driving New Market Opportunities. Overview of the technical advantages, history, and limitations of gas separation membranes; Technology appraisal of incumbent and emerging membrane materials; Market analysis of the emerging application areas including biogas upgrading, carbon capture, and the hydrogen infrastructure; For each market, a comparison against alternative separation techniques (e.g., PSA or cryogenic) and discussion on pain points and technical requirements; Independent outlook and technology roadmap for the commercial penetration of membranes in the fields of energy and decarbonization

Decarbonization is the main market driver across the industrial sector. In every roadmap there is an evolving mix of solutions that span the technology readiness spectrum, each with their own proponents and critics.

In the rapidly evolving landscape of hydrogen, the global push for low-carbon hydrogen production is accelerating the exploration of sustainable, scalable, and economically viable technologies.

Fuel cells could play an important role in the future of power generation, enabling the transition from traditional hydrocarbon fuels to low or zero-emission fuels. The fuel flexibility of solid oxide fuel cells (SOFC) offers a competitive advantage over the currently dominant proton exchange membrane fuel cell (PEMFC), which is limited to operating on hydrogen.