Cargando…

Modern optimization methods for science, engineering and technology /

Achieving a better solution or improving the performance of existing system design is an ongoing a process for which scientists, engineers, mathematicians and researchers have been striving for many years. Ever increasingly practical and robust methods have been developed, and every new generation o...

Descripción completa

Detalles Bibliográficos
Clasificación:Libro Electrónico
Otros Autores: Sinha, G. R. (Editor )
Formato: Electrónico eBook
Idioma:Inglés
Publicado: Bristol [England] (Temple Circus, Temple Way, Bristol BS1 6HG, UK) : IOP Publishing, [2020]
Colección:IOP ebooks. 2020 collection.
Temas:
Acceso en línea:Texto completo
Tabla de Contenidos:
  • 13. A machine learning approach for engineering optimization tasks
  • 13.1. Optimization : classification hierarchy
  • 13.2. Optimization problems in machine learning
  • 13.3. Optimization in supervised learning
  • 13.4. Optimization for feature selection
  • 14. Simulation of the formation process of spatial fine structures in environmental safety management systems and optimization of the parameters of dispersive devices
  • 14.1. The use of spatial finely dispersed multiphase structures in ensuring ecological and technogenic safety
  • 14.2. Physical and mathematical simulation of the creation process of spatial finely dispersed structures
  • 14.3. Numerical simulation of the formation of spatial dispersed structures and the determination of the most effective ways of supplying fluid to eliminate various hazards
  • 14.4. General conclusions
  • 15. Future directions : IoT, robotics and AI based applications
  • 15.1. Introduction
  • 15.2. Cloud robotics, remote brains and their implications
  • 15.3. AI and innovations in industry
  • 15.4. Innovative solutions for a smart society using AI, robotics and the IoT
  • 15.5. The human 4.0 or the Internet of skills (IoS) and the tactile Internet (zero delay Internet)
  • 15.6. Future directions in robotics, AI and the IoT
  • 16. Efficacy of genetic algorithms for computationally intractable problems
  • 16.1. Introduction
  • 16.2. Genetic algorithm implementation
  • 16.3. Convergence analysis of the genetic algorithm
  • 16.4. Key factors
  • 16.5. Concluding remarks
  • 17. A novel approach for QoS optimization in 4G cellular networks
  • 17.1. Mobile generations
  • 17.2. OFDMA networks
  • 17.3. Simulation model and parameters
  • 17.4. Adaptive rate scheduling in OFDMA networks
  • 17.5. Conclusions.
  • 1. Introduction and background to optimization theory
  • 1.1. Historical development
  • 1.2. Definition and elements of optimization
  • 1.3. Optimization problems and methods
  • 1.4. Design and structural optimization methods
  • 1.5. Optimization for signal processing and control applications
  • 1.6. Design vectors, matrices, vector spaces, geometry and transforms
  • 2. Linear programming
  • 2.1. Introduction
  • 2.2. Applicability of LPP
  • 2.3. The simplex method
  • 2.4. Artificial variable techniques
  • 2.5. Duality
  • 2.6. Sensitivity analysis
  • 2.7. Network models
  • 2.8. Dual simplex method
  • 2.9. Software packages to solve LPP
  • 3. Multivariable optimization methods for risk assessment of the business processes of manufacturing enterprises
  • 3.1. Introduction
  • 3.2. A mathematical model of a business process
  • 3.3. The market and specific risks, the features of their account
  • 3.4. Measurement of the risk of using the discount rate, expert assessments and indicators of sensitivity
  • 3.5. Conclusion
  • 4. Nonlinear optimization methods--overview and future scope
  • 4.1. Introduction
  • 4.2. Convex analysis
  • 4.3. Applications of nonlinear optimizations techniques
  • 4.4. Future research scope
  • 5. Implementing the traveling salesman problem using a modified ant colony optimization algorithm
  • 5.1. ACO and candidate list
  • 5.2. Description of candidate lists
  • 5.3. Reasons for the tuning parameter
  • 5.4. The improved ACO algorithm
  • 5.5. Improvement strategy
  • 5.6. Procedure of IACO
  • 5.7. Flow of IACO
  • 5.8. IACO for solving the TSP
  • 5.9. Implementing the IACO algorithm
  • 5.10. Experiment and performance evaluation
  • 5.11. TSPLIB and experimental results
  • 5.12. Comparison experiment
  • 5.13. Analysis on varying number of ants
  • 5.14. IACO comparison results
  • 5.15. Conclusions
  • 6. Application of a particle swarm optimization technique in a motor imagery classification problem
  • 6.1. Introduction
  • 6.2. Particle swarm optimization
  • 6.3. Proposed method
  • 6.4. Results
  • 6.5. Conclusion
  • 7. Multi-criterion and topology optimization using Lie symmetries for differential equations
  • 7.1. Introduction
  • 7.2. Fundamentals of topological manifolds
  • 7.3. Differential equations, groups and the jet space
  • 7.4. Classification of the group invariant solutions and optimal solutions
  • 7.5. Concluding remarks
  • 8. Learning classifier system
  • 8.1. Introduction
  • 8.2. Background
  • 8.3. Classification learner tools
  • 8.4. Sample dataset
  • 8.5. Learning classifier algorithms
  • 8.6. Performance
  • 8.7. Conclusion
  • 9. A case study on the implementation of six sigma tools for process improvement
  • 9.1. Introduction
  • 9.2. Problem overview
  • 9.3. Project phase summaries
  • 9.4. Conclusion
  • 10. Performance evaluations and measures
  • 10.1. Performance measurement models
  • 10.2. AHP and fuzzy AHP
  • 10.3. Performance measurement in the production approach
  • 10.4. Data envelopment analysis
  • 10.5. R as a tool for DEA
  • 11. Evolutionary techniques in the design of PID controllers
  • 11.1. The PID controller
  • 11.2. FOPID controller
  • 11.3. Conclusion
  • 12. A variational approach to substantial efficiency for linear multi-objective optimization problems with implications for market problems
  • 12.1. Introduction
  • 12.2. Background
  • 12.3. A review of substantial efficiency
  • 12.4. New results and examples
  • 12.5. Conclusion