World Hydrogen Summit & Exhibition

Trade fair / May 13, 2024 - May 15, 2024

World Hydrogen Summit & Exhibition

Hydrogen and its derivatives are an important pillar in a sustainable global energy trading system, since they store vast amounts of energy over long periods of time, are transported in ships or pipelines, and will be used in all energy-consuming sectors as a replacement of fossil-based energy carriers. Furthermore, hydrogen is the basic molecule used in generating renewable synthetic fuels or chemicals.

In the business area of hydrogen technologies at Fraunhofer ISE, we conduct research on the electrochemical production and conversion as well as the thermochemical further processing of hydrogen.

At the World Hydrogen Summit & Exhibition, we will present our technology portfolio as well as scenario models for socio-economic modeling of hydrogen products in a global context.

Our presentations

Our exhibits

International Power-to-X Workshop: From Innovation to Application – Research and Industry Perspectives

This workshop will take place on May 12, 2024 at Rotterdam Ahoy, the day before the World Hydrogen Summit & Exhibition.

This year’s edition will bring together decision makers from industry and research to discuss the synergies between renewable electricity generation, hydrogen production and CO2 utilisation. We will focus on the entire power-to-x process chain and discuss technology options for the conversion, transport and use of hydrogen-based synthesis products.

Further information and registration

Event details

Location

Rotterdam Ahoy, Ahoyweg 10, 3084BA Rotterdam, Netherlands | Booth C 46

Date

May 13, 2024 - May 15, 2024

Download this event as iCal

Organization

World Hydrogen Summit & Exhibition

Our Presentations

May 13, 3:30 p.m.

H2 Tech Innovation

Green Ammonia – New Technologies for Production and Application

Presentation
Malte Semmel, Head of Group Synthesis Products: Separation and Production Technologies, Fraunhofer ISE
Florian Rümmele, Head of Group Synthesis Products: Application & Characterisation, Fraunhofer ISE

May 13, 5:45 p.m.

Summit

International Power-To-X Workshop: Concluding Statement

Presentation
Prof. Dr. Christopher Hebling, Director International, Fraunhofer ISE
Rene Peters, Business Director Gas Technology, TNO

May 14, 3:30 p.m.

H2 Tech Innovation

International Power-to-X Hubs - Insights into Global Production and Supply Costs of Green Hydrogen and Derivatives

Presentation
Dr. Christoph Hank, Project Manager for Techno-Economic and Environmental Assessment of Sustainable Synthesis Products, Fraunhofer ISE
Marius Holst, Project Manager Hydrogen Infrastructure and Technical System Analysis, Fraunhofer ISE

Our Exhibits

Power-to-X

© Fraunhofer ISE
Fraunhofer ISE's PtX Cube compares various hydrogen-based energy carrier in terms of their relative energy density.

Which hydrogen-based storage medium is the most efficient? How can synthesis, transportation and reforming be made particularly sustainable?

The Power-to-X (PtX) concept is based on the conversion of renewable energy into liquid and gaseous fuels and chemicals such as methanol, ammonia, dimethyl ether (DME) or oxymethylene ether (OME). Fraunhofer ISE’s PtX Cube displays these different hydrogen-based energy carriers in terms of their relative energy density compared to non-pressurized and compressed hydrogen.

Fraunhofer ISE offers a wide range of research services in the field of sustainable synthesis products. The researchers develop efficient PtX processes, conduct assessments of technologies and potentials and provide support with customized catalysts. They are currently researching sustainable aviation fuels, as well as an innovative, sustainable power-to-ammonia process that increases the ammonia yield and reduces production costs. In addition, they have developed the patented INDIGO® process, an efficient method for producing renewable DME from hydrogen and CO₂, which represents a cost-effective process alternative and can also be implemented at locations with limited infrastructure.

More about the production of sustainable synthesis products

Test Cell AEM Electrolysis

What impact do new types of materials, operating modes and external influences have on electrolyzers?

The AEM laboratory electrolysis cell for the in-situ characterization of new materials is a further development of the proven PEM electrolysis cell design and is used for the precise characterization and qualification of various components such as membranes, porous transport layers and catalysts. This is done at pressures of up to approx. 10 bar, increased current densities of over 5 A/cm² and under precise temperature control using an integrated heater. The 4 cm² AEM laboratory electrolysis cell is characterized by high accuracy, very good handling and high reproducibility.

Fraunhofer ISE has been working on electrolyzers for the production of green hydrogen for over 30 years. The researchers develop components and systems, integrate electrolyzers into the energy system and analyze electrolysis materials and components. They offer their customers not only precise measurement services for PEM and AEM electrolyzers, but also an in-depth understanding and analysis of the measurement results, while also identifying optimization potentials of customer products.

More about the characterization of materials and components

Hydrogen Infrastructure

© Fraunhofer ISE
Fuel cell vehicle of the Abfallwirtschaft und Stadtreinigung Freiburg GmbH (ASF) at Fraunhofer ISE’s hydrogen fueling station.

Where, when and how can hydrogen and its derivatives be produced, used, stored and transported in order to reach the right application at the right time and under the right economic conditions?

The 3D exhibit “Hydrogen Infrastructure” models a local, self-contained world with regional hydrogen production, distribution and storage and showcases the comprehensive expertise across the entire value chain of the department Hydrogen Technologies at Fraunhofer ISE.

The scientists use geographical information systems (GIS) to locate and analyze hydrogen model regions. Using techno-economic analyses, they develop and evaluate customized solutions for the production of clean hydrogen from renewable energies, its efficient storage and demand-oriented distribution. They prepare feasibility analyses of hydrogen projects, calculations for the design and optimization of electrolyzers, output forecasts and life cycle analyses.

More about the development and evaluation of hydrogen infrastructure and electrolyzers