High-Performance Computing Systems and Technologies in Scientific Research, Automation of Control and Production (Communications in Computer and Information Science)

✍ Scribed by Vladimir Jordan (editor), Nikolay Filimonov (editor), Ilya Tarasov (editor), Vladimir Faerman (editor)

• Publisher: Springer
• Year: 2021
• Tongue: English
• Leaves: 241
• Category: Library

✦ Synopsis

This book constitutes selected revised and extended papers from the 10th International Conference on High-Performance Computing Systems and Technologies in Scientific Research, Automation of Control and Production, HPCST 2020, Barnaul, Russia, in May 2020. Due to the COVID-19 pancemic the conference was partly held in virtual mode.
The 14 full papers presented in this volume were thoroughly reviewed and selected form 51 submissions. The papers are organized in topical sections on hardware for high-performance computing and its applications; information technologies and computer simulation of physical phenomena.

✦ Table of Contents

Preface
Organization
Contents
Hardware for High-Performance Computing and Its Applications
FPGA-Based SOC Architecture for Fog and Edge Computing Applications
1 Introduction
2 Problem Description
3 FPGA Application in Fog and Edge Computing
4 Examples of Systems
5 Conclusion
References
Meta-modeling of Space Probe On-Board Computing Complexes
1 The Features of the On-Board Computational Complexes (OBCC) Designing
1.1 The Methodologies Used in the Simulation of OBCC
1.2 General Provisions for OBCC Design
2 The Main Approaches to the Design of the OBCC in the Semantic Environment of Individual Subsystems of the Spacecraft
2.1 Augmented IDEF0 Notation for Modeling an Inertial Navigation Subsystem
2.2 Meta-modeling of the Laser Altimetry Subsystem Using Augmented Notation
2.3 Meta-modeling of a Subsystem of Star Sensors by Means of Augmented Notation IDEF0
2.4 Meta-modeling of Optical Subsystems of the Direction Finder by Means of Augmented Notation
2.5 Meta-modeling of a Computer Vision Module Using Augmented Notation
3 Representation of Suggested Semantic Elements in the Form of Programming Code
4 Conclusions
References
Comparison of Various Algorithms for Scheduling Tasks in a Desktop Grid System Using a ComBos Simulator
1 Introduction
2 Scheduling Heuristics
3 Scheduling for Multiple Applications
4 Selecting the Target Function
5 Selecting Algorithms
6 Simulating
7 Conclusion
References
Information Technologies and Computer Simulation of Physical Phenomena
Thermal and Microstructural Analysis of Intermetallide Synthesis in the Ni-Al Layered-Block Atomic Structure Based on the Computer-Aided Simulation of SHS
1 Introduction
2 Using the LAMMPS Package in a Parallel Computing Configuration for SHS Simulation in a Layered-Block Ni-Al System
2.1 Summary of MD Method, EAM Potential and LAMMPS Package
2.2 Technique for Performing Computational Experiments on Molecular-Dynamics Simulation of SHS in Layered and Layered-Block Atomic Systems Ni-Al
3 Thermal and Microstructural Analysis of Intermetallide Synthesis in the Ni-Al Layered-Block Atomic Structure
4 Conclusions
References
Mathematical Simulation of a Heat Transfer Process in Phase Change Materials
1 Introduction
2 Problem Definition
3 Methods
3.1 Mathematical Model
3.2 Notations
3.3 Multiscale Discontinuous Galerkin Method for Stefan’s Problem
3.4 Discrete Analogue of Stefan’s Problem
4 Results
4.1 Verification Procedure of the Computational Scheme
4.2 Validation Procedure of the Computational Scheme
4.3 Mathematical Simulation Results
5 Conclusion
References
Modeling of Polycrystalline Materials Deformation with Dislocation Structure Evolution and Transition to Fracture
1 Introduction
2 Materials and Methods
2.1 Approach Description
2.2 Model Structure
2.3 Description of Elastic and Plastic Deformation
2.4 Dislocation Motion Description
2.5 Description of Dislocation Densities Evolution
2.6 Transition from Deformation to Destruction
3 Solving Algorithm
4 Model Implementation
5 Results
6 Conclusion
References
The Three-Level Model to Describe Serrated Yielding: Structure, Algorithm, Implementation, Results
1 Introduction
1.1 Interaction of Impurity Atoms and Dislocations
2 Concept and Mathematical Setting
2.1 General Structure of the Model
3 Mathematical Setting
3.1 Work of Dislocation Sources
3.2 Annihilation of Dislocations
3.3 Impurity Atoms
3.4 Hardening Law
4 Model Implementation Algorithm
5 Determining Model Parameter Values
6 Software Implementation, Results
7 Conclusion
References
Mathematical Software for Testing and Setting up the Induction Soldering Process
1 Introduction
2 Literature Review
3 Mathematical Support
4 Software Support
5 Experimental Verification
6 Conclusion
References
Computing Technologies in Discrete Mathematics and Decision Making
Evaluation of Efficiency of Using Simple Transformations When Searching for Orthogonal Diagonal Latin Squares of Order 10
1 Introduction
2 Rotation of Intercalates
3 Concept and Rotation of Loops
4 The Concept and “Rotation” of Latin Subrectangles in DLS
5 Replacement of Transversals
6 Conclusion
References
Implementation of the Extrapolation Method of Expert Assessments in Selection Problems
1 Introduction
2 Materials and Methods for Solving Problems Accepted Assumptions
3 Results
4 Conclusion
References
Information Retrieval Approach Using Semiotic Models Based on Multi-layered Semantic Graphs
1 Introduction
1.1 Background
1.2 Aim
2 Basic Semantic Graph
2.1 Mathematical Model of Multi-layered Semantic Graph
2.2 Analysis of Semantic Data Extracted from Basic Dictionaries
2.3 Practical Usage of Basic-Level Semantic Graph
3 Multi-layered Semantic Graph
3.1 Layers Model
3.2 Text-To-Concept Algorithm
4 Conclusion
References
Information and Computing Technologies in Automation and Control Science
Algorithmization of Autonomous Landing of Unmanned Aerial Vehicles by “Flexible” Kinematic Trajectories
1 Introduction
2 The Principle of “Flexible” Kinematic Trajectoriesin Control Problems by Terminal Maneuvers of UAV
3 Control by Vertical Landing Maneuver of UAV on the Stationary Landing Site
3.1 Setting of Control Problem by UAV Landing
3.2 The Development and Research of Control Algorithm by UAV Landing on SLS
4 The Control of Spatial Landing Maneuver of UAV to the Moving Landing Site
4.1 The Models of the Dynamics of UAV and MLS
4.2 Setting of the Control Problem by UAV Landing on MLS
4.3 The Principle of “Flexible” Kinematic Trajectories
4.4 The Principle of the Guidance to the Target Point
4.5 Control Algorithm by the Landing of UAV
4.6 Computer Approbation of the UAV Landing Control Algorithm
5 Conclusion
References
Features of Designing a Variable-Frequency Electric Drive Control System with a Microprocessor-Based Sinusoidal Signal Generator
1 Introduction
2 Justification of the Use of a Variable-Frequency Electric Drive of the Hydraulic Directional Valve in the Servo System for the Control of the Hydraulic Press Working Member
3 Design of a Microprocessor-Based Version of Creating a Sinusoidal Signal Generator
4 Conclusions
References
Program Model of the Interacting Adaptive Traffic Control System
1 Introduction
2 Literature Review
3 Traffic Light Algorithms
4 Description of the Software Model for Studying Traffic Light Algorithms
5 Mathematical Apparatus
6 Research of Algorithms for Control of Traffic Lights
7 Conclusion
References
Author Index