Piero Danieli

Dr. Piero Danieli

University of Padova
orcid
Assistant Professor

Research Focus & Metrics

Academic Career Length

8Years (2019-Present)

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

Representative Publications

View All Publications
14 July 2022 in Energy
Verified
Journal Article
Closed access
GVGabriele Volpato
Gabriele Volpato
Gianluca CarraroGianluca Carraro
Gianluca Carraro
MCMarco Cont
Marco Cont
Piero DanieliPiero Danieli
Piero Danieli
Sergio RechSergio Rech
Sergio Rech
Andrea LazzarettoAndrea Lazzaretto
Andrea Lazzaretto

10 May 2022 in Energy Conversion and Management
Verified
Journal Article
Closed access
ECEnrico Dal Cin
Enrico Dal Cin
GCGianluca Carraro
Gianluca Carraro
GVGabriele Volpato
Gabriele Volpato
ALAndrea Lazzaretto
Andrea Lazzaretto
Piero DanieliPiero Danieli
Piero Danieli

5 March 2022 in Applied Energy
Verified
Journal Article
Closed access
Piero DanieliPiero Danieli
Piero Danieli
ALAndrea Lazzaretto
Andrea Lazzaretto
JAJafar Al-Zaili
Jafar Al-Zaili
ASAbdulnaser Sayma
Abdulnaser Sayma
MMMassimo Masi
Massimo Masi
GCGianluca Carraro
Gianluca Carraro

1 December 2020 in Renewable Energy
Verified
Journal Article
Closed access
GCGianluca Carraro
Gianluca Carraro
VBViola Bori
Viola Bori
ALAndrea Lazzaretto
Andrea Lazzaretto
GTGiuseppe Toniato
Giuseppe Toniato
Piero DanieliPiero Danieli
Piero Danieli


28 August 2020 in Energies
Verified
Journal Article
Open access
PDF file
Piero DanieliPiero Danieli
Piero Danieli
Gianluca CarraroGianluca Carraro
Gianluca Carraro
Andrea LazzarettoAndrea Lazzaretto
Andrea Lazzaretto
A big amount of the pressure energy content in the natural gas distribution networks is wasted in throttling valves of pressure reduction stations (PRSs). Just a few energy recovery systems are currently installed in PRSs and are mostly composed of radial turboexpanders coupled with cogeneration internal combustion engines or gas-fired heaters providing the necessary preheating. This paper clarifies the reason for the scarce diffusion of energy recovery systems in PRSs and provides guidelines about the most feasible energy recovery technologies. Nine thousand PRSs are monitored and allocated into 12 classes, featuring different expansion ratios and available power. The focus is on PRSs with 1-to-20 expansion ratio and 1-to-500 kW available power. Three kinds of expanders are proposed in combination with different preheating systems based on boilers, heat pumps, or cogeneration engines. The goal is to identify, for each class, the most feasible combination by looking at the minimum payback period and maximum net present value. Results show that small size volumetric expanders with low expansion ratios and coupled with gas-fired heaters have the highest potential for large-scale deployment of energy recovery from PRSs. Moreover, the total recoverable energy using the feasible recovery systems is approximately 15% of the available energy.