J 2024

Investigation of Cylindrical Particles Sphericity and Roundness Based on the Extreme Vertices Model

PASTERNAK, V.; O. ZABOLOTNYI; Dagmar CAGÁŇOVÁ and Y. HULCHUK

Basic information

Original name

Investigation of Cylindrical Particles Sphericity and Roundness Based on the Extreme Vertices Model

Name (in English)

Investigation of Cylindrical Particles Sphericity and Roundness Based on the Extreme Vertices Model

Authors

PASTERNAK, V.; O. ZABOLOTNYI; Dagmar CAGÁŇOVÁ and Y. HULCHUK

Edition

Lecture Notes in Mechanical Engineering, Springer Nature Switzerland, 2024, 2195-4356

Other information

Type of outcome

Article in a journal

Confidentiality degree

is not subject to a state or trade secret

References:

Marked to be transferred to RIV

No

Organization unit

NEWTON University

EID Scopus

Keywords in English

3D Model; Correlation Dependence; Linear Programming; Manufacturing Innovation; Mathematical Modelling; Parameters; Shape Factors; Spherical Particles

Tags

International impact, Reviewed
Changed: 16/7/2026 23:26, prof. Mgr. Dagmar Cagáňová, PhD.

Abstract

In the original language

In this scientific investigation, the article’s authors have created a three-dimensional computer simulation model to explore the sphericity and roundness of elements, specifically particles. The authors elucidated the detailed calculation of the sphericity of elements and roundness of elements for cylindrical particles through the application of the extreme-vertex 3D model. Based on the proposed extreme vertex model theory, the points at which linear constraints intersect were optimized, allowing for the maximum approximation of the form factor to unity. Furthermore, the proposed theory of extreme vertices in the context of modeling elements, particularly in voxel-based modeling, is of significant importance in defining the boundaries and limits of objects in three-dimensional space. Moreover, it was discovered that this idea holds importance in the context of the simplex-complex method, a commonly employed algorithm for addressing linear programming problems. Additionally, correlations between the sphericity and roundness of elements and the particle diameter were examined, enabling the prediction of particle shape. This is because the obtained sphericity values mostly approximate 1, which implies that the elements have a spherical or nearly spherical shape. © The Author(s), under exclusive license to Springer Nature Switzerland AG 2024.