Investigation of the Performance of Thermodynamic Analysis Models for a Cryocooler PPG-102 Stirling Engine

Three distinct thermodynamic analysis models are developed and applied to a renowned cryogenic engine (PPG-102), namely the isothermal model, the ideal Schmidt model, and the ideal adiabatic model. Through a comparative analysis, the theoretical outcomes derived from these models are juxtaposed with...

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Main Authors: George Antonakos, Irene Koronaki, George-Rafael Domenikos, Serafeim Baltadouros
Format: Article
Language:English
Published: MDPI AG 2023-09-01
Series:Energies
Subjects:
Online Access:https://www.mdpi.com/1996-1073/16/19/6815
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author George Antonakos
Irene Koronaki
George-Rafael Domenikos
Serafeim Baltadouros
author_facet George Antonakos
Irene Koronaki
George-Rafael Domenikos
Serafeim Baltadouros
author_sort George Antonakos
collection DOAJ
description Three distinct thermodynamic analysis models are developed and applied to a renowned cryogenic engine (PPG-102), namely the isothermal model, the ideal Schmidt model, and the ideal adiabatic model. Through a comparative analysis, the theoretical outcomes derived from these models are juxtaposed with the corresponding theoretical results from the existing literature. The comprehensive evaluation of these findings demonstrates significant convergence, with minor deviations primarily attributed to the inherent assumptions underlying each model. The design of the PPG-102 engine is meticulously executed within the Solidworks environment, allowing for the subsequent simulation under operating conditions identical to those of the computational models. Remarkably, the simulation results closely approximate the outcomes of the adiabatic analysis, thus corroborating the validity and effectiveness of this particular model. In this work, the presented models, initially developed for thermal Stirling engines, are augmented and applied to a cryogenics Stirling engine, offering a unique understanding of the workings of this apparatus.
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spelling doaj.art-9193667a202c49cc870f18cbb1f889062023-11-19T14:19:16ZengMDPI AGEnergies1996-10732023-09-011619681510.3390/en16196815Investigation of the Performance of Thermodynamic Analysis Models for a Cryocooler PPG-102 Stirling EngineGeorge Antonakos0Irene Koronaki1George-Rafael Domenikos2Serafeim Baltadouros3Laboratory of Applied Thermodynamics, Mechanical Engineering School, National Technical University of Athens, Zografou Campus, Heroon Polytecheiou 9, 15780 Athens, GreeceLaboratory of Applied Thermodynamics, Mechanical Engineering School, National Technical University of Athens, Zografou Campus, Heroon Polytecheiou 9, 15780 Athens, GreeceLaboratory of Applied Thermodynamics, Mechanical Engineering School, National Technical University of Athens, Zografou Campus, Heroon Polytecheiou 9, 15780 Athens, GreeceLaboratory of Applied Thermodynamics, Mechanical Engineering School, National Technical University of Athens, Zografou Campus, Heroon Polytecheiou 9, 15780 Athens, GreeceThree distinct thermodynamic analysis models are developed and applied to a renowned cryogenic engine (PPG-102), namely the isothermal model, the ideal Schmidt model, and the ideal adiabatic model. Through a comparative analysis, the theoretical outcomes derived from these models are juxtaposed with the corresponding theoretical results from the existing literature. The comprehensive evaluation of these findings demonstrates significant convergence, with minor deviations primarily attributed to the inherent assumptions underlying each model. The design of the PPG-102 engine is meticulously executed within the Solidworks environment, allowing for the subsequent simulation under operating conditions identical to those of the computational models. Remarkably, the simulation results closely approximate the outcomes of the adiabatic analysis, thus corroborating the validity and effectiveness of this particular model. In this work, the presented models, initially developed for thermal Stirling engines, are augmented and applied to a cryogenics Stirling engine, offering a unique understanding of the workings of this apparatus.https://www.mdpi.com/1996-1073/16/19/6815cryogenicscryocoolerStirling enginethermodynamic analysissimulation
spellingShingle George Antonakos
Irene Koronaki
George-Rafael Domenikos
Serafeim Baltadouros
Investigation of the Performance of Thermodynamic Analysis Models for a Cryocooler PPG-102 Stirling Engine
Energies
cryogenics
cryocooler
Stirling engine
thermodynamic analysis
simulation
title Investigation of the Performance of Thermodynamic Analysis Models for a Cryocooler PPG-102 Stirling Engine
title_full Investigation of the Performance of Thermodynamic Analysis Models for a Cryocooler PPG-102 Stirling Engine
title_fullStr Investigation of the Performance of Thermodynamic Analysis Models for a Cryocooler PPG-102 Stirling Engine
title_full_unstemmed Investigation of the Performance of Thermodynamic Analysis Models for a Cryocooler PPG-102 Stirling Engine
title_short Investigation of the Performance of Thermodynamic Analysis Models for a Cryocooler PPG-102 Stirling Engine
title_sort investigation of the performance of thermodynamic analysis models for a cryocooler ppg 102 stirling engine
topic cryogenics
cryocooler
Stirling engine
thermodynamic analysis
simulation
url https://www.mdpi.com/1996-1073/16/19/6815
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