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Randomness is ubiquitous in nature. Random drivers are generally considered a source of disorder in environmental systems. However, the interaction between noise and nonlinear dynamics may lead to the emergence of a number of ordered behaviors (in time and space) that would not exist in the absence of noise. This counterintuitive effect of randomness may play a crucial role in environmental processes. For example, seemingly 'random' background events in the atmosphere can grow into larger instabilities that have great effects on weather patterns. This book presents the basics of the theory of stochastic calculus and its application to the study of noise-induced phenomena in environmental systems. It will be an invaluable reference text for ecologists, geoscientists and environmental engineers interested in the study of stochastic environmental dynamics.
Geophysical prediction --- Random noise theory. --- Environmental sciences --- Environmental science --- Science --- Gaussian noise --- Noise, Random --- Statistical communication theory --- Stochastic processes --- Uncertainty (Information theory) --- Geophysics --- Prediction, Geophysical --- Forecasting --- Mathematics.
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Noise. --- Neurobiology. --- Random noise theory. --- Sound --- Silence --- Gaussian noise --- Noise, Random --- Statistical communication theory --- Stochastic processes --- Uncertainty (Information theory) --- Neurosciences --- Soroll --- Neurobiologia
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This book investigates the impact of noise upon the emergence and sustenance of patterns. "Patterns" loosely refers to coherent spatial structures, including fronts, as well as temporal patterns. The crucial role of nonlinearities is highlighted and expanded upon in the context of dynamical system frameworks. The author's familiarity with chaos theory, statistical physics and nonlinear science is reflected in the highly interdisciplinary character of the text. Model equations and experiments taken from fluid dynamics, semiconductor devices, biophysics and statistical mechanics complement theor
Stochastic processes. --- Random noise theory. --- Stability. --- Dynamics --- Mechanics --- Motion --- Vibration --- Benjamin-Feir instability --- Equilibrium --- Gaussian noise --- Noise, Random --- Statistical communication theory --- Stochastic processes --- Uncertainty (Information theory) --- Random processes --- Probabilities
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In this EBook, we highlight how newly emerging techniques for non-invasive manipulation of the human brain, combined with simultaneous recordings of neural activity, contribute to the understanding of brain functions and neural dynamics in humans. A growing body of evidence indicates that the neural dynamics (e.g., oscillations, synchrony) are important in mediating information processing and networking for various functions in the human brain. Most of previous studies on human brain dynamics, however, show correlative relationships between brain functions and patterns of neural dynamics measured by imaging methods such as electroencephalography (EEG), magnetoencephalography (MEG), near-infrared spectroscopy (NIRS), positron emission tomography (PET) and functional magnetic resonance imaging (fMRI). In contrast, manipulative approaches by non-invasive brain stimulation (NIBS) have been developed and extensively used. These approaches include transcranial magnetic stimulation (TMS) and transcranial electric stimulation (tES) such as transcranial direct current stimulation (tDCS), alternating current stimulation (tACS), and random noise stimulation (tRNS), which can directly manipulate neural dynamics in the intact human brain. Although the neural-correlate approach is a strong tool, we think that manipulative approaches have far greater potential to show causal roles of neural dynamics in human brain functions. There have been technical challenges with using manipulative methods together with imaging methods. However, thanks to recent technical developments, it has become possible to use combined methods such as TMS–EEG coregistration. We can now directly measure and manipulate neural dynamics and analyze functional consequences to show causal roles of neural dynamics in various brain functions. Moreover, these combined methods can probe brain excitability, plasticity and cortical networking associated with information processing in the intact human brain. The contributors to this EBook have succeeded in showcasing cutting-edge studies and demonstrate the huge impact of their approaches on many areas in human neuroscience and clinical applications.
non-invasive brain stimulation NIBS --- TMS-EEG --- Transcranial magnetic stimulation TMS --- transcranial electric stimulation tES --- Coregistration --- Near-infrared spectroscopy NIRS --- Functional magnetic resonance imaging fMRI --- transcranial direct current stimulation tDCS --- transcranial alternating current stimulation tACS --- transcranial random noise stimulation tRNS
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Random noise theory --- Nanostructured materials --- Nonlinear systems --- Nonlinear Dynamics --- Nanostructured materials. --- Nonlinear systems. --- Random noise theory. --- Nonlinear Dynamics. --- Gaussian noise --- Noise, Random --- Systems, Nonlinear --- Nanomaterials --- Nanometer materials --- Nanophase materials --- Nanostructure controlled materials --- Nanostructure materials --- Ultra-fine microstructure materials --- Non-linear Dynamics --- Non-linear Models --- Chaos Theory --- Models, Nonlinear --- Chaos Theories --- Dynamics, Non-linear --- Dynamics, Nonlinear --- Model, Non-linear --- Model, Nonlinear --- Models, Non-linear --- Non linear Dynamics --- Non linear Models --- Non-linear Dynamic --- Non-linear Model --- Nonlinear Dynamic --- Nonlinear Model --- Nonlinear Models --- Theories, Chaos --- Theory, Chaos --- Statistical communication theory --- Stochastic processes --- Uncertainty (Information theory) --- System theory --- Microstructure --- Nanotechnology --- Fractals --- Engineering --- Life Sciences --- Material Science and Metallurgy --- Telecommunications Technology --- Biomedical Engineering --- Electronics --- Biology --- Wireless Communications
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Since the parameters in dynamical systems of biological interest are inherently positive and bounded, bounded noises are a natural way to model the realistic stochastic fluctuations of a biological system that are caused by its interaction with the external world. Bounded Noises in Physics, Biology, and Engineering is the first contributed volume devoted to the modeling of bounded noises in theoretical and applied statistical mechanics, quantitative biology, and mathematical physics. It gives an overview of the current state-of-the-art and is intended to stimulate further research. The volume is organized in four parts. The first part presents the main kinds of bounded noises and their applications in theoretical physics. The theory of bounded stochastic processes is intimately linked to its applications to mathematical and statistical physics, and it would be difficult and unnatural to separate the theory from its physical applications. The second is devoted to framing bounded noises in the theory of random dynamical systems and random bifurcations, while the third is devoted to applications of bounded stochastic processes in biology, one of the major areas of potential applications of this subject. The final part concerns the application of bounded stochastic processes in mechanical and structural engineering, the area where the renewed interest for non-Gaussian bounded noises started. Pure mathematicians working on stochastic calculus will find here a rich source of problems that are challenging from the point of view of contemporary nonlinear analysis. Bounded Noises in Physics, Biology, and Engineering is intended for scientists working on stochastic processes with an interest in both fundamental issues and applications. It will appeal to a broad range of applied mathematicians, mathematical biologists, physicists, engineers, and researchers in other fields interested in complexity theory. It is accessible to anyone with a working knowledge of stochastic modeling, from advanced undergraduates to senior researchers.
Mathematics. --- Random noise theory. --- Stochastic processes. --- Random noise theory --- Stochastic processes --- Engineering & Applied Sciences --- Applied Mathematics --- Distribution (Probability theory) --- Engineering mathematics. --- Math --- Engineering --- Engineering analysis --- Distribution functions --- Frequency distribution --- Mathematics --- System theory. --- Mathematical models. --- Probabilities. --- Biomathematics. --- Physics. --- Applied mathematics. --- Mathematical Modeling and Industrial Mathematics. --- Mathematical and Computational Biology. --- Theoretical, Mathematical and Computational Physics. --- Appl.Mathematics/Computational Methods of Engineering. --- Probability Theory and Stochastic Processes. --- Complex Systems. --- Science --- Mathematical analysis --- Characteristic functions --- Probabilities --- Distribution (Probability theory. --- Mathematical and Computational Engineering. --- Mathematical physics. --- Systems, Theory of --- Systems science --- Probability --- Statistical inference --- Combinations --- Chance --- Least squares --- Mathematical statistics --- Risk --- Physical mathematics --- Physics --- Biology --- Models, Mathematical --- Simulation methods --- Philosophy --- Mathematical and Computational Engineering Applications. --- Probability Theory. --- Data processing.
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The book presents the necessary mathematical basis to obtain and rigorously use likelihoods for detection problems with Gaussian noise. To facilitate comprehension the text is divided into three broad areas – reproducing kernel Hilbert spaces, Cramér-Hida representations and stochastic calculus – for which a somewhat different approach was used than in their usual stand-alone context. One main applicable result of the book involves arriving at a general solution to the canonical detection problem for active sonar in a reverberation-limited environment. Nonetheless, the general problems dealt with in the text also provide a useful framework for discussing other current research areas, such as wavelet decompositions, neural networks, and higher order spectral analysis. The structure of the book, with the exposition presenting as many details as necessary, was chosen to serve both those readers who are chiefly interested in the results and those who want to learn the material from scratch. Hence, the text will be useful for graduate students and researchers alike in the fields of engineering, mathematics and statistics.
Mathematical Statistics --- Mathematics --- Physical Sciences & Mathematics --- Random noise theory. --- Gaussian noise --- Noise, Random --- Mathematics. --- Functional analysis. --- Information theory. --- Probabilities. --- Probability Theory and Stochastic Processes. --- Functional Analysis. --- Information and Communication, Circuits. --- Statistical communication theory --- Stochastic processes --- Uncertainty (Information theory) --- Distribution (Probability theory. --- Math --- Science --- Functional calculus --- Calculus of variations --- Functional equations --- Integral equations --- Distribution functions --- Frequency distribution --- Characteristic functions --- Probabilities --- Communication theory --- Communication --- Cybernetics --- Probability --- Statistical inference --- Combinations --- Chance --- Least squares --- Mathematical statistics --- Risk
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