Introduction

The  Hydrogen Platform of Toulouse is an experimental testing platform that aims to study the potential of hydrogen technologies (production, storage, use, etc.) such as fuel cells, water electrolysers,. Launched in 2010 and led by the LAPLACE laboratory, it currently hosts three other laboratories: LGC, IMFT, and CIRIMAT, managed by the same authorities: CNRS, Toulouse INP, and Université Paul Sabatier.
The Toulouse Hydrogen Platform is an experimental test platform designed to study the potential of hydrogen technologies (production, storage, use, etc.) such as fuel cells, water electrolysers and and technologies for controlling hydrogen combustion. Launched in 2010 and led by the LAPLACE laboratory, it currently includes three other laboratories: LGC, l’IMFT, and CIRIMAT, managed by the same authorities: CNRS, INP Toulouse and Université Paul Sabatier.

The Hydrogen Platform’s expertise is reflected in three types of activity:

  • Research support
  • Industrial collaboration
  • Test services

The platform’s scientific manager is Christophe Turpin, Director of Research at CNRS and also head of hydrogen activities at LAPLACE. (GENESYS research group).

The technical manager of the platform is Olivier Rallières, Research Engineer at the Toulouse Polytechnic Institute (INP) and attached to the LAPLACE Laboratory.

 

A few key dates :

2010 : Launch by the LAPLACE laboratory of the first version of the Hydrogen Platform (120m², Toulouse INP campus).
2015 : Launch of the PACAERO project, aimed at developing and carrying out an initial grouping of experiments by the four laboratories LAPLACE, LGC, IMFT and CIRIMAT carrying out different types of research into hydrogen technologies.
October 10, 2019 : Inauguration of the Hydrogen Platform, officially marking the scale it has now reached in terms of size, resources and university partners, following the PACAERO project.

Since 2019, the Platform has embarked on a continuous improvement process and aims to obtain ISO 9001 and EN9100 certifications in the near future.

Read more about our quality policy: Click here

1st quarter 2025: Start of construction of the future Technocampus Hydrogene Occitanie, on the Francazal site (Cugnaux, near Toulouse).

This new site will cover over 9,000 sq.m.. As well as bringing together all the hydrogen technology experiments from our four laboratories, it will offer an integrated approach to practical training/low TRL research/high TRL research, enabling us to host industrial trials of up to 1 MW (TRL = maturity levels).

Mid-2026 Delivery of the 1st part
Early 2027 Delivery of 2nd part

The platform in figures :

4 laboratories with additional skills :

  • LAPLACE (LAboratoire PLAsma et Conversion d’Energie)
  • LGC (Laboratoire de Génie Chimique)
  • IMFT (Institut de Mécanique des Fluides de Toulouse)
  • CIRIMAT (Centre Inter-universitaire de Recherche et d’Ingénierie des MATériaux)

900 sq.m (+500 sq.m) of H2 experimental space spread over 3 sites:

– Laplace – Toulouse INP campus (Toulouse-Labège) – 500 sq.m.
– IMFT (Toulouse INP site – IMFT, Ile du Ramier) – 90 sq.m.- Toulouse centre
– Laplace (Toulouse INP site – ENSEEIHT, Toulouse centre) – 60 m² H2 + 100 m² intelligent microgrids

9 million euros invested: it is estimated that 9 million euros have been invested to create the ‘Hydrogen Platform’ in its current form, of which almost 6 million euros were financed during the PACAERO project.

 

TOPICS

1) Hydrogen production by electrolysis AWE (1) (LGC), PEMWE (2) (LAPLACE), AEMWE (3) (LAPLACE) and SOWE (4) (CIRIMAT, LAPLACE), bioelectrolysis (LGC) and photoelectrolysis (CIRIMAT).

  • The production of biobased hydrogen through the development of innovative designs and the study of instrumented cells for the bioelectrolysis of waste and effluents. Testing and optimising the durability of the components of these electrolysis cells. (LGC)
  • Development of electrode materials to reduce the cost of aqueous electrolysis (AWE). (LGC)
  • Optimisation of the properties of materials used in high-temperature electrolysis cells (EHT or SOWE). (CIRIMAT)
  • Hydrogen production via photoelectrolysis, a method of transforming sunlight to dissociate a water molecule into hydrogen and oxygen. The light-absorbing materials used are chemically stable, eco-sustainable, easy to use and inexpensive. They enable high yields of hydrogen to be produced. (CIRIMAT)
  • Characterisation and modelling of the performance and ageing of PEM, AEM and SOWE electrolysers under quasi-static and dynamic conditions (fluctuations linked to the intermittency of renewable energies, impact of current harmonics generated by the power electronics, etc.). (LAPLACE)

2) Hydrogen storage in solid form (LGC), via hydrogen-bearing organic liquids (LOHC (5) – hydro/dehydrogenation of molecules) for long-distance hydrogen transport (LGC), in cryogenic form (LAPLACE).

  • Assessment of the storage capacity, and characterisation from an energetic and structural point of view, under given pressure and temperature conditions, of solid materials of interest for hydrogen storage (LGC)
  • Hydro/dehydrogenation for the storage and transport of hydrogen by evaluating the potential of catalytic reactors for the storage of hydrogen in organic liquid (LOHC) (5), by exploring conventional or innovative (intensified) technologies obtained by metal additive printing. (LGC)
  • Characterisation and modelling of the performance of a cryogenic chain (LAPLACE)

3) Hydrogen valuation via PEMFC (6) (IMFT – LAPLACE) and SOFC (7) (LAPLACE) fuel cells and via its combustion to produce heat or mechanical energy (IMFT).

  • Characterisation and modelling of the performance and ageing of PEMFC (low and high temperature) and SOFC fuel cells. (LAPLACE)
  • Characterisation and modelling of transfers (water, heat, etc.) within the electrodes of PEM fuel cells. (IMFT)
  • Study of the thermal-hydraulic performance of fuel cells and the auxiliaries (BoP (8)) that enable them to operate correctly. (LGC)
  • Characterisation, control and optimisation of the quality of hydrogen combustion for three scenarios: hydrogen boiler (or mixed hydrogen/CH4), hydrogen engine, fossil fuel engine (combustion optimisation). (IMFT)
  • Producing prototypes of solid oxide components such as fuel cells operating at high temperature (SOFC) and high-temperature electrolysers. (CIRIMAT)
  • Study of the durability of metallic materials at high temperatures (>500°C) in complex gaseous environments. (CIRIMAT)
  • Study and test the optimised integration of these hydrogen technologies within energy systems. Design by optimisation of complex systems, taking into account technical and economic aspects, ageing, etc. (LAPLACE)

(1) Aqueous or Alkaline Water Electrolyser
(2) Proton Exchange Membrane Water Electrolyser
(3) Anion Exchange Membrane Water Electrolyser
(4) Solid Oxide Water Electrolyser
(5) Liquid Organic Hydrogen Carrier
(6) Proton Exchange Membrane Fuel Cell (low and high temperature)
(7) Solid Oxide Fuel Cell (intermediate and high temperature)
(8) Balance Of Plant

 

@CNRS – Fréderic Maligne

@CNRS – Fréderic Maligne

@CNRS – Fréderic Maligne

LGC

TECHNICAL RESOURCES :

  • Test benches for fuel cells
  • Test benches for water electrolysers
  • Test benches for porous media used in fuel cells and water electrolysers
  • Prototyping workshop for SO fuel cells and electrolysers
  • Test benches for metal hydridesTest benches for hydrogen combustion
  • Test platform for intelligent microgrid investigations
  • Climatic chambers
  • Metrology.

HUMAN RESOURCES :

The Hydrogen platform is made up of 20 highly qualified technical staff (see the list of staff in the Members section below)

Heads
Christophe Turpin and Olivier Rallières

To contact us, please use the contact form at the bottom of the page.

 

 

@CNRS – Fréderic Maligne

@CNRS – Fréderic Maligne

 

@CNRS – Fréderic Maligne

LGC

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