Federica Restelli

Dr. Federica Restelli

orcid

Research Focus & Metrics

Academic Career Length

4Years (2023-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
4 July 2023 in International Journal of Hydrogen Energy
Verified
Journal Article
Closed access
FRFederica Restelli
Federica Restelli
ESElvira Spatolisano
Elvira Spatolisano
LPLaura A. Pellegrini
Laura A. Pellegrini
AAAlberto R. de Angelis
Alberto R. de Angelis
SCSimone Cattaneo
Simone Cattaneo
ERErnesto Roccaro
Ernesto Roccaro

31 August 2023 in International Journal of Hydrogen Energy
Verified
Journal Article
Open access
ESElvira Spatolisano
Elvira Spatolisano
FRFederica Restelli
Federica Restelli
AMAngelo Matichecchia
Angelo Matichecchia
LPLaura A. Pellegrini
Laura A. Pellegrini
AAAlberto R. de Angelis
Alberto R. de Angelis
ERErnesto Roccaro
Ernesto Roccaro

26 July 2024 in International Journal of Hydrogen Energy
Verified
Journal Article
Open access
ESElvira Spatolisano
Elvira Spatolisano
FRFederica Restelli
Federica Restelli
LPLaura A. Pellegrini
Laura A. Pellegrini
SCSimone Cattaneo
Simone Cattaneo
AAAlberto R. de Angelis
Alberto R. de Angelis
ERErnesto Roccaro
Ernesto Roccaro

31 October 2023 in International Journal of Hydrogen Energy
Verified
Journal Article
Open access
FRFederica Restelli
Federica Restelli
ESElvira Spatolisano
Elvira Spatolisano
LPLaura A. Pellegrini
Laura A. Pellegrini
SCSimone Cattaneo
Simone Cattaneo
AAAlberto R. de Angelis
Alberto R. de Angelis
ERErnesto Roccaro
Ernesto Roccaro

14 December 2023 in Journal of Environmental Chemical Engineering
Verified
Journal Article
Open access
FRFederica Restelli
Federica Restelli
MGMarta Gambardella
Marta Gambardella
LPLaura Annamaria Pellegrini
Laura Annamaria Pellegrini

27 January 2024 in Energies
Verified
Journal Article
Open access
PDF file
ESElvira Spatolisano
Elvira Spatolisano
FRFederica Restelli
Federica Restelli
Laura Annamaria PellegriniLaura Annamaria Pellegrini
Laura Annamaria Pellegrini
AAAlberto R. de Angelis
Alberto R. de Angelis
In the energy transition from fossil fuels to renewables, the tendency is to benefit from ultra-sour natural gas reserves, whose monetization was previously considered unviable. The increasing H2S content together with the growing concern about emissions that are harmful to the environment, make necessary the development of efficient strategies for pollutants management. Although large-scale H2S conversion is well-established through the Claus process, novel technologies for H2S valorization could be a reliable alternative for waste-to-valuable chemicals, following the circular economy. In this perspective, technologies such as Hydrogen Sulfide Methane Reformation (H2SMR), non-thermal plasma, photocatalytic decomposition, decomposition through cycles and electrolysis are analyzed for the H2 production from H2S. They represent promising alternatives for the simultaneous H2S valorization and H2 production, without direct CO2 emissions, as opposite to the traditional methane steam reforming. The various H2S conversion routes to H2 are examined, highlighting the advantages and disadvantages of each of them. This review focuses in particular on the most promising technologies, the H2SMR and the non-thermal plasma, for which preliminary process scheme and techno-economic analysis are also reported. Finally, the major research gaps and future developments necessary to unlock the full potential of hydrogen sulfide valorization as a sustainable pathway for hydrogen production are discussed.