Interpolation Environment of Tensor Mathematics at the Corpuscular Stage of Computational Experiments in Hydromechanics

Stages of direct computational experiments in hydromechanics based on tensor mathematics tools are represented by conditionally independent mathematical models for calculations separation in accordance with physical processes. Continual stage of numerical modeling is constructed on a small time inte...

Full description

Bibliographic Details
Main Authors: Bogdanov Alexander, Degtyarev Alexander, Khramushin Vasily, Shichkina Yulia
Format: Article
Language:English
Published: EDP Sciences 2018-01-01
Series:EPJ Web of Conferences
Online Access:https://doi.org/10.1051/epjconf/201817302004
id doaj-aee54fd83c774a1f96563adea41138dc
record_format Article
spelling doaj-aee54fd83c774a1f96563adea41138dc2021-08-02T07:42:16ZengEDP SciencesEPJ Web of Conferences2100-014X2018-01-011730200410.1051/epjconf/201817302004epjconf_mmcp2018_02004Interpolation Environment of Tensor Mathematics at the Corpuscular Stage of Computational Experiments in HydromechanicsBogdanov AlexanderDegtyarev AlexanderKhramushin VasilyShichkina YuliaStages of direct computational experiments in hydromechanics based on tensor mathematics tools are represented by conditionally independent mathematical models for calculations separation in accordance with physical processes. Continual stage of numerical modeling is constructed on a small time interval in a stationary grid space. Here coordination of continuity conditions and energy conservation is carried out. Then, at the subsequent corpuscular stage of the computational experiment, kinematic parameters of mass centers and surface stresses at the boundaries of the grid cells are used in modeling of free unsteady motions of volume cells that are considered as independent particles. These particles can be subject to vortex and discontinuous interactions, when restructuring of free boundaries and internal rheological states has place. Transition from one stage to another is provided by interpolation operations of tensor mathematics. Such interpolation environment formalizes the use of physical laws for mechanics of continuous media modeling, provides control of rheological state and conditions for existence of discontinuous solutions: rigid and free boundaries, vortex layers, their turbulent or empirical generalizations.https://doi.org/10.1051/epjconf/201817302004
collection DOAJ
language English
format Article
sources DOAJ
author Bogdanov Alexander
Degtyarev Alexander
Khramushin Vasily
Shichkina Yulia
spellingShingle Bogdanov Alexander
Degtyarev Alexander
Khramushin Vasily
Shichkina Yulia
Interpolation Environment of Tensor Mathematics at the Corpuscular Stage of Computational Experiments in Hydromechanics
EPJ Web of Conferences
author_facet Bogdanov Alexander
Degtyarev Alexander
Khramushin Vasily
Shichkina Yulia
author_sort Bogdanov Alexander
title Interpolation Environment of Tensor Mathematics at the Corpuscular Stage of Computational Experiments in Hydromechanics
title_short Interpolation Environment of Tensor Mathematics at the Corpuscular Stage of Computational Experiments in Hydromechanics
title_full Interpolation Environment of Tensor Mathematics at the Corpuscular Stage of Computational Experiments in Hydromechanics
title_fullStr Interpolation Environment of Tensor Mathematics at the Corpuscular Stage of Computational Experiments in Hydromechanics
title_full_unstemmed Interpolation Environment of Tensor Mathematics at the Corpuscular Stage of Computational Experiments in Hydromechanics
title_sort interpolation environment of tensor mathematics at the corpuscular stage of computational experiments in hydromechanics
publisher EDP Sciences
series EPJ Web of Conferences
issn 2100-014X
publishDate 2018-01-01
description Stages of direct computational experiments in hydromechanics based on tensor mathematics tools are represented by conditionally independent mathematical models for calculations separation in accordance with physical processes. Continual stage of numerical modeling is constructed on a small time interval in a stationary grid space. Here coordination of continuity conditions and energy conservation is carried out. Then, at the subsequent corpuscular stage of the computational experiment, kinematic parameters of mass centers and surface stresses at the boundaries of the grid cells are used in modeling of free unsteady motions of volume cells that are considered as independent particles. These particles can be subject to vortex and discontinuous interactions, when restructuring of free boundaries and internal rheological states has place. Transition from one stage to another is provided by interpolation operations of tensor mathematics. Such interpolation environment formalizes the use of physical laws for mechanics of continuous media modeling, provides control of rheological state and conditions for existence of discontinuous solutions: rigid and free boundaries, vortex layers, their turbulent or empirical generalizations.
url https://doi.org/10.1051/epjconf/201817302004
work_keys_str_mv AT bogdanovalexander interpolationenvironmentoftensormathematicsatthecorpuscularstageofcomputationalexperimentsinhydromechanics
AT degtyarevalexander interpolationenvironmentoftensormathematicsatthecorpuscularstageofcomputationalexperimentsinhydromechanics
AT khramushinvasily interpolationenvironmentoftensormathematicsatthecorpuscularstageofcomputationalexperimentsinhydromechanics
AT shichkinayulia interpolationenvironmentoftensormathematicsatthecorpuscularstageofcomputationalexperimentsinhydromechanics
_version_ 1721239176876130304