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Gyula Dr. Varga

associate professor

University of Miskolc

Hungary

Research Interests

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Professors in Hungary

About

Dr. Gyula Varga is an associate professor at the University Miskolc in Hungary. His research focuses on tribological aspects, surface roughness analysis, and predictive modeling in materials science, particularly in relation to diamond burnishing processes and composite materials. He has authored several articles addressing issues such as buckling strength prediction and finite element analysis of structural components.

Articles (22)

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2020

Collaborators (3)

István Sztankovics

University of Miskolc

HUNGARY

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Angelos Markopoulos

Professor

National Technical University of Athens

GREECE

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Gergely Dezső

college professor

University of Nyíregyháza

HUNGARY

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Gyula Dr. Varga

Research Interests

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About

Articles (22)

Experimental Investigation of Lubrication Effects in High-Feed Face Milling Using DOE-Based Cutting Force and Surface Analysis

Tensile Behavior of V-Notched Ductile Steel Sheets: Experimental, Numerical and Machine Learning Modeling

Experimental Characterization and a Machine Learning Framework for FDM-Fabricated Biocomposite Lattice Structures

Novel Design and Optimization of Aircraft Stiffened Panels for Improved Critical Buckling Load Resistance

Tribological Aspects of Slide Friction Diamond Burnishing Process

Analysis of Surface Roughness of Diamond-Burnished Surfaces Using Kraljic Matrices and Experimental Design

Optimized ANN Model for Predicting Buckling Strength of Metallic Aerospace Panels Under Compressive Loading

Design and Analysis of Natural Fiber-Reinforced Jute Woven Composite RVEs Using Numerical and Statistical Methods

Predicting the Elastic Moduli of Unidirectional Composite Materials Using Deep Feed Forward Neural Network

Finite Element Analysis of Post-Buckling Failure in Stiffened Panels: A Comparative Approach

Finite Element and Machine Learning-Based Prediction of Buckling Strength in Additively Manufactured Lattice Stiffened Panels

Machine Learning–Based Prediction and Comparison of Numerical and Theoretical Elastic Moduli in Plant Fiber–Based Unidirectional Composite Representative Volume Elements

ANOVA Analysis and L9 Taguchi Design for Examination of Flat Slide Burnishing of Unalloyed Structural Carbon Steel

Shape Accuracy Improvement in Selective Laser-Melted Ti6Al4V Cylindrical Parts by Sliding Friction Diamond Burnishing

Surface Roughness Improvement by Sliding Friction Burnishing of Parts Produced by Selective Laser Melting of Ti6Al4V Titanium Alloy

2D FEM Investigation of Residual Stress in Diamond Burnishing

The Influence of Diamond Burnishing Process Parameters on Surface Roughness of Low-Alloyed Aluminium Workpieces

Theoretical Roughness Modeling of Hard Turned Surfaces Considering Tool Wear

CAD and FEM Modelling of Theoretical Roughness in Diamond Burnishing

Characterization of residual stresses induced into bearing rings by means of soft turning using different turning parameters

Analysis of Cylindricity Error of High and Low Temperature Storage Tested Alternator Stators

Analysis of tool life functions in hard turning

Collaborators (3)

István Sztankovics

Angelos Markopoulos

Gergely Dezső

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