Zero-carbon energy

Based on the large-scale deployment of renewable energies, which are intermittent and by nature difficult to predict, the energy transition creates greater needs for flexibility and storage to stabilize grids and meet market demand.

Hydrogen, an essential factor for a successful energy transition

Alongside “traditional” electricity storage solutions, such as pumped-storage hydroelectricity and batteries, in order to offer efficient storage (in gas or liquid form) and to promote the bulk reuse of surplus renewable electricity, hydrogen appears to be an essential, flexible, and competitive solution.

Hydrogen is the only energy carrier that enables the storage of surplus electricity and its reuse across multiple applications in industry, transport and energy.

Used as a fluid in industrial processes, converted into clean fuel for zero-emission vehicles, or used to facilitate storage and flexibility for electricity and gas networks: zero-carbon hydrogen – produced from the electrolysis of water using renewable electricity – plays a central role in the new energy landscape.

This capacity to adapt to multiple sectors, and the possibility of sector coupling (for example, an industrial use for hydrogen coupled with a hydrogen station to meet needs for zero-emission mobility) are among hydrogen’s key benefits.

Hydrogen generates no polluting particle emissions nor carbon at the point of use, thereby participating in the decarbonization of all areas of the economy, and facilitating the emergence of a more carbon-neutral social model. It has now been integrated into a growing number of government roadmaps, and through the development of international coalitions.

According to the Hydrogen Council1, hydrogen could represent up to 20% of the total final energy consumed in 2050 (“Hydrogen, Scaling Up” – November 2017) and help reduce annual CO2 emissions by 6 Gt. The markets for hydrogen and its technologies could represent $2.5 trillion per year and 30 million jobs worldwide.

Hydrogen Council “Scaling Up” report, November 2017

Industry, mobility, energy: the markets covered by McPhy are core factors in the environmental, economic and social challenges of the energy transition currently taking place all over the world.
Thanks to its hydrogen production and distribution equipment, McPhy is ideally placed to become a key player in the market.

How is hydrogen produced?

Water electrolysis is a mature and clean technology for producing clean hydrogen.

As the main component of the sun, hydrogen is “the most abundant element in the universe”.
However, it does not exist naturally (in the form of déposits) – it must be produced, which is why we call it an energy carrier.
On earth, the most common source of hydrogen is water, which combines atoms of hydrogen and oxygen. McPhy’s electrolysis technology makes it possible to create an electrochemical reaction between water and electricity in order to isolate the hydrogen atom.

Learn more about our technology

How do McPhy’s electrolyzers work?

McPhy Electrolyzers = Water + Electricity = Hydrogen
Water + Renewable Electricity = Renewable Hydrogen or “Clean Hydrogen”

To learn more about the electrolysis: visit this page.

Drawing on renewable energy, clean hydrogen works toward the implementation of energy systems, with the following objectives:

  • Decarbonize: pairing renewable energy, zero CO2 and zero particles,
  • Decentralize: production and utilization of local energy
  • Optimize: utilization of production surplus, intelligent grid management

1The Hydrogen Council was a global initiative in January 2020 which brought together over 80 leading international firms in energy, transport and industry, to share their vision and ambitions for hydrogen as an accelerator of the energy transition. These businesses generate a combined revenue of €1,300 billion and employ 2.06 million people worldwide.

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