Matteo Alberghini

Dr. Matteo Alberghini

orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

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

Representative Publications

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15 March 2021 in Nature Sustainability
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Journal Article
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MAMatteo Alberghini
Matteo Alberghini
SHSeongdon Hong
Seongdon Hong
LLL. Marcelo Lozano
L. Marcelo Lozano
VKVolodymyr Korolovych
Volodymyr Korolovych
YHYi Huang
Yi Huang
SBSvetlana Boriskina
Svetlana Boriskina

1 October 2021 in Journal of Cleaner Production
Verified
Journal Article
Closed access
GAGiovanni Antonetto
Giovanni Antonetto
MMMatteo Morciano
Matteo Morciano
MAMatteo Alberghini
Matteo Alberghini
GMGabriele Malgaroli
Gabriele Malgaroli
Alessandro CiociaAlessandro Ciocia
Alessandro Ciocia
Matteo FasanoMatteo Fasano
Matteo Fasano

14 April 2023 in Journal of Energy Storage
Verified
Journal Article
Open access
Matteo MorcianoMatteo Morciano
Matteo Morciano
MAMatteo Alberghini
Matteo Alberghini
Matteo FasanoMatteo Fasano
Matteo Fasano
MAMariella Almiento
Mariella Almiento
FCFlaviana Calignano
Flaviana Calignano
Eliodoro ChiavazzoEliodoro Chiavazzo
Eliodoro Chiavazzo

13 March 2020 in Science Advances
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Journal Article
Open access
PDF file
MAMatteo Alberghini
Matteo Alberghini
Matteo MorcianoMatteo Morciano
Matteo Morciano
Matteo FasanoMatteo Fasano
Matteo Fasano
FBFabio Bertiglia
Fabio Bertiglia
VFVito Fernicola
Vito Fernicola
Eliodoro ChiavazzoEliodoro Chiavazzo
Eliodoro Chiavazzo
Space cooling in buildings is anticipated to rise because of an increasing thermal comfort demand worldwide, and this calls for cost-effective and sustainable cooling technologies. We present a proof-of-concept multistage device, where a net cooling capacity and a temperature difference are demonstrated as long as two water solutions at disparate salinity are maintained. Each stage is made of two hydrophilic layers separated by a hydrophobic membrane. An imbalance in water activity in the two layers naturally causes a non-isothermal vapor flux across the membrane without requiring any mechanical ancillaries. One prototype of the device developed a specific cooling capacity of up to 170 W m−2 at a vanishing temperature difference, considering a 3.1 mol/kg calcium chloride solution. To provide perspective, if successfully up-scaled, this concept may help satisfy at least partially the cooling needs in hot, humid regions with naturally available salinity gradients.


7 February 2024 in Journal of Power Sources
Verified
Journal Article
Open access
FSFabrizio Silveri
Fabrizio Silveri
MAMatteo Alberghini
Matteo Alberghini
VEVivien Esnault
Vivien Esnault
ABAndrea Bertinetti
Andrea Bertinetti
VRVirgile Rouchon
Virgile Rouchon
MPMartin Petit
Martin Petit