%0 Report
%9 Project Report
%A Grégoire, Hévin,
%A Cyrille, Balland
%A J., Billiotte
%A B., Tessier
%A F., Hadj Hassen,
%A A., Rouabhi
%A L., Blanco-Martin,
%A Kurt, Staudtmeister
%A Bastian, Leuger
%A Dirk, Zapf
%A Emmanuel, Hertz
%A Daniel, Tribout
%A Nicolas, Thelier
%A STORENGY,
%A INERIS,
%A MINES PARISTECH/ARMINES,,
%A MINES PARISTECH/ARMINES,,
%A MINES PARISTECH/ARMINES,,
%A MINES PARISTECH/ARMINES,,
%A MINES PARISTECH/ARMINES,,
%A IUB/Leibniz Universität Hannover,,
%A IUB/Leibniz Universität Hannover,,
%A IUB/Leibniz Universität Hannover,,
%A CSME/Salins.,
%A CSME/Salins.,
%A CSME/Salins.,
%F epos:2141
%I INERIS
%T Thermal cracking experiment in a salt mine.
%U https://episodesplatform.eu/eprints/2141/
%X Towards the end of the 2000s, the global energy situation began to change significantly. The need for  energy  transition  became  increasingly  important,  pushing  players  in  the  field  to  look  into   different  subjects  relating  to  energy  production  and  use.  The  energy  storage  sector  was  no exception, and research projects into compressed air or hydrogen storage in salt caverns came into   being. Within these projects, storage often involves high injection and withdrawal flow rates. This means that pressure (and temperature) variations at the cavern walls take place very quickly and "injection-withdrawal" operating cycles are very frequent.