Dragutin T Mihailovic,
Dragutin T (Faculty of Agriculture, University of Novi Sad, Serbia) Mihailovic,
Igor Balaž,
Igor (Faculty of Agriculture, University of Novi Sad, Serbia) Balaz,
Darko Kapor,
Darko (Faculty of Sciences, University of Novi Sad, Serbia) Kapor
e.a.
Elsevier Science
e druk, 2016
9780444639189
Time and Methods in Environmental Interfaces Modelling
Personal Insights
Specificaties
Gebonden, blz.
|
Engels
Elsevier Science |
e druk, 2016
ISBN13: 9780444639189
Rubricering
Onderdeel van serie
Developments in Environmental Modelling
Levertijd ongeveer 8 werkdagen
Samenvatting
Time and Methods in Environmental Interfaces Modelling: Personal Insights considers the use of time in environmental interfaces modeling and introduce new methods, from the global scale (e.g. climate modeling) to the micro scale (e.g. cell and nanotubes modeling), which primarily arise from the personal research insights of the authors.
As the field of environmental science requires the application of new fundamental approaches that can lead to a better understanding of environmental phenomena, this book helps necessitate new approaches in modeling, including category theory, that follow new achievements in physics, mathematics, biology, and chemistry.
Specificaties
Inhoudsopgave
<p>Part I: Introduction</p> <p>Chapter 1. Environmental interface: Definition and introductory comments</p> <p>Chapter 2. Advanced theoretician's tools in the modelling of the environmental interface systems</p> <p>Chapter 3. Approaches and meaning of time in the modelling of the environmental interface systems</p> <p>Chapter 4. Examples of use of the formal complex analysis</p> <p>Part II: Time in Environmental Interfaces Modelling</p> <p>Chapter 5. Time in philosophy and physics</p> <p>Chapter 6. Time in biology</p> <p>Chapter 7. Functional time: Definition and examples</p> <p>Part III: Use of Different Coupled Maps in the Environmental Interfaces Modelling</p> <p>Chapter 8. Coupled logistic maps in the environmental interfaces modelling</p> <p>Chapter 9. Logistic difference equation on extended domain</p> <p>Chapter 10. Generalized logistic equation with affinity: Its use in modelling heterogeneous environmental interfaces</p> <p>Chapter 11. Maps serving the different coupling in the environmental interfaces modelling in the presence of noise</p> <p>Part IV: Heterarchy and Exchange Processes Between Environmental Interfaces</p> <p>Chapter 12. Heterarchy as a concept in environmental interfaces modelling</p> <p>Chapter 13. Heterarchy and biochemical substance exchange in a diffusively coupled ring of cells</p> <p>Chapter 14. Heterarchy and albedo of the heterogeneous environmental interfaces in environmental modelling</p> <p>Part V: Complexity Measures and Time Series Analysis of the Processes at the Environmental Interfaces</p> <p>Chapter 15. Kolmogorov complexity and the measures based on this complexity</p> <p>Chapter 16. Complexity analysis of the ionizing and nonionizing radiation time series</p> <p>Chapter 17. Complexity analysis of the environmental fluid flow time series</p> <p>Chapter 18. How to face the complexity of climate models?</p> <p>Part VI: Phenomenon of Chaos in Computing the Environmental Interface Variables</p> <p>Chapter 19. Interrelations between mathematics and environmental sciences</p> <p>Chapter 20. Chaos in modelling the global climate system</p> <p>Chapter 21. Chaos in exchange of vertical turbulent energy fluxes over environmental interfaces in climate models</p> <p>Chapter 22. Synchronization and stability of the horizontal energy exchange between environmental interfaces in climate models</p> <p>Part VII: Synchronization and Stability of the Biochemical Substance Exchange Between Cells</p> <p>Chapter 23. Environmental interfaces and their stability in biological systems</p> <p>Chapter 24. Synchronization of the biochemical substance exchange between cells</p> <p>Chapter 25. Complexity and asymptotic stability in the process of biochemical substance exchange in multicell system</p> <p>Chapter 26. Use of pseudospectra in analyzing the influence of intercellular nanotubes on cell-to-cell communication integrity</p>