Guido Francesco Frate

Dr. Guido Francesco Frate

University of Pisa - Department of Energy, Systems, Territory and Construction Engineering
orcid

Research Focus & Metrics

Academic Career Length

10Years (2017-Present)

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

Representative Publications

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1 December 2020 in Journal of Energy Storage
Verified
Journal Article
Closed access
ODOlivier Dumont
Olivier Dumont
GFGuido Francesco Frate
Guido Francesco Frate
APAditya Pillai
Aditya Pillai
SLSteven Lecompte
Steven Lecompte
MPMichel De Paepe
Michel De Paepe
VLVincent Lemort
Vincent Lemort

1 July 2017 in Applied Thermal Engineering
Verified
Journal Article
Closed access
GFGuido Francesco Frate
Guido Francesco Frate
M. AntonelliM. Antonelli
M. Antonelli
Umberto DesideriUmberto Desideri
Umberto Desideri

1 January 2021 in Renewable Energy
Verified
Journal Article
Closed access
GFGuido Francesco Frate
Guido Francesco Frate
LFLorenzo Ferrari
Lorenzo Ferrari
Umberto DesideriUmberto Desideri
Umberto Desideri


1 March 2019 in Applied Thermal Engineering
Verified
Journal Article
Closed access
GFGuido Francesco Frate
Guido Francesco Frate
Lorenzo FerrariLorenzo Ferrari
Lorenzo Ferrari
Umberto DesideriUmberto Desideri
Umberto Desideri

12 September 2020 in Energies
Verified
Journal Article
Open access
PDF file
GFGuido Francesco Frate
Guido Francesco Frate
Lorenzo FerrariLorenzo Ferrari
Lorenzo Ferrari
Umberto DesideriUmberto Desideri
Umberto Desideri
This paper provides an overview of a novel electric energy storage technology. The Thermally Integrated Pumped Thermal Electricity Storage (TI-PTES) stores electric energy as thermal exergy. Compared to standard PTES, TI-PTES takes advantage of both electric and low-temperature heat inputs. Therefore, TI-PTES is a hybrid technology between storage and electric production from low-temperature heat. TI-PTES belongs to a technology group informally referred to as Carnot Batteries (CBs). As the TI-PTES grows in popularity, several configurations have been proposed, with different claimed performances, but no standard has emerged to date. The study provides an overview of the component and operating fluid selection, and it describes the configurations proposed in the literature. Some issues regarding the performance, the ratio between thermal and electrical inputs, and the actual TI-PTES utilisation in realistic scenarios are discussed. As a result, some guidelines are defined. The configurations that utilise high-temperature thermal reservoirs are more extensively studied, due to their superior thermodynamic performance. However, low-temperature TI-PTES may achieve similar performance and have easier access to latent heat storage in the form of water ice. Finally, to achieve satisfactory performance, TI-PTES must absorb a thermal input several times larger than the electric one. This limits TI-PTES to small-scale applications.