Davide Di Battista

Prof. Davide Di Battista

University of L'Aquila
orcid

Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

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

Representative Publications

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1 August 2015 in Applied Energy
Verified
Journal Article
Closed access
Davide Di BattistaDavide Di Battista
Davide Di Battista
MMM. Mauriello
M. Mauriello
RCR. Cipollone
R. Cipollone

1 August 2019 in Energy Conversion and Management
Verified
Journal Article
Closed access
RCRoberto Carapellucci
Roberto Carapellucci
Davide Di BattistaDavide Di Battista
Davide Di Battista
RCRoberto Cipollone
Roberto Cipollone

1 November 2013 in Energy Conversion and Management
Verified
Journal Article
Closed access
RCR. Cipollone
R. Cipollone
Davide Di BattistaDavide Di Battista
Davide Di Battista
AGA. Gualtieri
A. Gualtieri

1 January 2018 in Energy Conversion and Management
Verified
Journal Article
Closed access
Davide Di BattistaDavide Di Battista
Davide Di Battista
Marco Di BartolomeoMarco Di Bartolomeo
Marco Di Bartolomeo
CVCarlo Villante
Carlo Villante
RCRoberto Cipollone
Roberto Cipollone

1 February 2015 in Applied Thermal Engineering
Verified
Journal Article
Closed access
RCRoberto Cipollone
Roberto Cipollone
Davide Di BattistaDavide Di Battista
Davide Di Battista

1 January 2014 in Energy Procedia
Verified
Journal Article
Open access
RCRoberto Cipollone
Roberto Cipollone
Giuseppe BianchiGiuseppe Bianchi
Giuseppe Bianchi
Davide Di BattistaDavide Di Battista
Davide Di Battista
GCGiulio Contaldi
Giulio Contaldi
SMStefano Murgia
Stefano Murgia
An ORC based power plant for waste heat recovery in stationary applications has been developed and experimentally characterized. The aim of the study was to investigate the performance of a sliding vane rotary expander as the device to convert the enthalpy of the working fluid, namely R236fa, into mechanical and electric energy. A theoretical model of the expander supported the design and allowed to assess the thermodynamic transformations that take place in it. Furthermore, a deep experimental campaign explored the behavior of the expander and the one of the recovery system also at off design conditions. The experimental activity on the expander included the reconstruction of the indicated diagram using a set of high frequency piezoelectric pressure transducers that provided an accurate prediction of the pressure evolution inside the cell. The overall cycle efficiency achieved was close to 8% and further improvements concerned to the expander design have been addressed. The temperature of the upper thermal source at around 120°C and the mechanical output power close to 2kW make the expander and the whole system suitable for plenty of potential recovery applications