Power-to-x

Sector coupling is the energetic link of sectors like power, energy, mobility, industry or building. It acts as a link between renewable energy sources (wind, solar, water...) and consumers.

Power-to-X as the key technology in sector coupling allows us to transform and save energy from renewable resources in a chemical form for long-term storage and use, with green hydrogen and its derivatives as the core component.

Discover how Power-to-X technology is transforming the energy landscape, harmonizing diverse sectors and paving the way for a sustainable future. Watch the video!

Project reference video with customer voices

Video Player is loading.

Current Time 0:00

Duration 0:00

Loaded: 0%

Stream Type LIVE

Remaining Time 0:00

Power to X for sector coupling: renewable power, mobility, petrochemical and chemical industry, agriculture, heat and cold green hydrogen production

Green hydrogen has to be transported in a chemical form, using Power-to-X technology

e-Methanol can be used to reduce CO2 emissions in shipping, employing Power-to-X technology.

Our Haru Oni project represents our Power to X technology for a carbon-free world

e-Ammonia is a green fuel and can be used in the electronic industry, using Power-to-X technology.

Grid technologies are vital for integrating renewable energy and enabling efficient power distribution in the Power-to-X process.

Grid connected Power-to-X projects provide stable power-supply, however, they are facing challenges regarding grid code requirements as well as regulatory boundary conditions. We take care of seamless connection and interaction with the grid, dispatch control according to regulatory requirements (e.g. hourly correlation) as well as digital certification of your product in terms of CO₂ footprint.

Siemens Energy is the only manufacturer of Power-to-X solutions with the portfolio, experience and knowledge of power generation and grid connection. We use our expertise and our tolls for system design and simulation to determine optimum technical and economic solutions for you. As an additional benefit, electrolysis can be used as a fast energy balancing unit and its end products as energy storage.

e-Fuels can be used in the chemical industry for CO2 reduction, leveraging Power-to-X technology.

Off-Grid Power-to-X projects provide advantages regarding compliance with regulatory requirements due to inherent geographic and timely correlation. In addition, grid utilization charges can be avoided.
The biggest challenge for off-grid or weak-grid projects lies in designing the grid forming and stabilizing equipment in close connection with an integrated control system.
Siemens Energy has acquired significant experience in modelling complex island grids from renewables to the electrolyzers and other downstream consumers, which is the basis for simulation and optimization of essential grid stabilizing systems such as batteries, synchronous condensers or static converters.

Comprehensive feasibility study analysis showcasing costs, benefits, and risk evaluations for Power-to-X projects

Detailed preview of initial engineering and design phase for Power-to-X projects, covering concept,

Engineering and design phase with technical specifications, cost estimates, and project planning for Power-to-X services.

Representing money, depicting currency symbols or financial assets, used to illustrate financial concepts or transactions for Power-to-X projects.

Depicting people collaborating on a project, symbolizing teamwork, coordination, and effective project management for Power-to-X processes.

Representing deployment tools for software or applications used for Power to X processes

Depicting after-sales services, representing customer support, maintenance, and assistance provided after a purchase in Power-to-X processes.

Representing certification for hydrogen processes which is also important for Power-to-X processes.

We are working closely with partners from government, academia, and industry to create a hydrogen economy that is sustainable and profitable in the long term.

Our team experts develops and integrated technologies to cover the entire hydrogen value chain - from wind parks through power transmission, large-scale industrialization of water electrolysis, as well as compression, transport, storage, and hydrogen-based power and heat generation.

To accelerate the decarbonization of the entire energy system, we intend to keep developing our hydrogen portfolio, including the industrial-scale Proton Exchange Membrane (PEM) electrolyzers and hydrogen ready gas turbines

Overview of technologies available for the production and use of green hydrogen, including Power-to-X processes.

After hydrogen is produced through electrolysis, the chemical conversion process into its derivates begins.

The economic efficiency and the flexibility of the chemical processes, also regarding the production of different end products, play a decisive role.

We are a global leader in energy technology. We support companies and countries to reduce emissions across the energy landscape – for a more reliable, affordable and sustainable energy system.
Combined with our knowledge of the underlying chemical processes and the latest technical innovations, we are the right partner for your projects.

Siemens Energy offers tailor-made, flexible Power-to-X solutions with high technical readiness and diverse synthesis pathways.

We collaborate with qualified partners to deliver individual solutions and integrate them seamlessly into existing infrastructures.

Experience the future with our innovative and sustainable Power-to-X technologies.

Chemical industry facility with industrial equipment and pipelines for power-to-X process

Hydrogen power plant for green hydrogen production in Chile, the Haru Oni project

Fuel from wind and water

In December 2022, the first low-carbon fuel was produced at a large-scale plant using wind and water
Siemens Energy, with international partners, developed and implemented this pioneering project
The system is to produce 130,000 liters of eFuel in 2023, projected to reach 55 million liters by 2028, and anticipated to produce 550 million liters annually by end of the decade