"Modeling Work-Flow of the “CylinderPiston” Type Devices Using a Universal Thermodinamic Model"

A universal thermodynamic model for calculating the workflow of "cylinder-piston" type systems which describes step by step the processes in the cylinder, and takes into account the real nature of the intakeexhaust and air leakage processes has been developed.Using the model, three completely different applied problems, including modeling hydrolock when fluid enters the cylinder of an internal combustion engine, modeling the dynamics of the catapult trolley motion during the launch of an unmanned aerial vehicle and modeling the engine indicator diagram during cold cranking when measuring compression were solved.Control modeling and comparison with known experimental data on the processes of air compression in cylinder with liquid (hydrolock), results of pressure measures in the engine cylinder during cold cranking and the known data of pneumatic launchers (catapults) showed the model's overall reliability and its applicability for various applied tasks.This determines the model for possible use not only in designing devices of the type under consideration, but also for their operational diagnosing and troubleshooting of various types of damage.

Authors

Publication Details

Journal
Evolutions in Mechanical Engineering
Published
2024-08-29
DOI
https://doi.org/10.31031/eme.2024.05.000618
Primary Topic
Material Science and Thermodynamics
Type
article
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article

"Modeling Work-Flow of the “CylinderPiston” Type Devices Using a Universal Thermodinamic Model"

Alexander Khrulev
Evolutions in Mechanical Engineering
Material Science and Thermodynamics
article

"Modeling Work-Flow of the “CylinderPiston” Type Devices Using a Universal Thermodinamic Model"

Alexander Khrulev
article en

Abstract

A universal thermodynamic model for calculating the workflow of "cylinder-piston" type systems which describes step by step the processes in the cylinder, and takes into account the real nature of the intakeexhaust and air leakage processes has been developed.Using the model, three completely different applied problems, including modeling hydrolock when fluid enters the cylinder of an internal combustion engine, modeling the dynamics of the catapult trolley motion during the launch of an unmanned aerial vehicle and modeling the engine indicator diagram during cold cranking when measuring compression were solved.Control modeling and comparison with known experimental data on the processes of air compression in cylinder with liquid (hydrolock), results of pressure measures in the engine cylinder during cold cranking and the known data of pneumatic launchers (catapults) showed the model's overall reliability and its applicability for various applied tasks.This determines the model for possible use not only in designing devices of the type under consideration, but also for their operational diagnosing and troubleshooting of various types of damage.

Evolutions in Mechanical EngineeringVol. 5(4)
Openalex Percentile: Top 86%
Material Science and Thermodynamics
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"Modeling Work-Flow of the “CylinderPiston” Type Devices Using a Universal Thermodinamic Model" — Alexander Khrulev · Evolutions in Mechanical Engineering (2024) | TGRS Research Map | TGRS