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  • 1
    Online Resource
    Online Resource
    Berlin, Heidelberg :Springer Berlin / Heidelberg,
    Keywords: Geomorphology--Congresses. ; Electronic books.
    Type of Medium: Online Resource
    Pages: 1 online resource (579 pages)
    Edition: 1st ed.
    ISBN: 9783540456704
    Series Statement: Lecture Notes in Physics Series ; v.582
    DDC: 551.41
    Language: English
    Note: Lecture Notes in Physics -- Geomorphological Fluid Mechanics -- Copyright -- Preface -- Contents -- List of Contributors -- 1 The Language of Pattern and Form -- 2 Geophysical Aspects of Non-Newtonian Fluid Mechanics -- 3 Introduction to Rheology and Application to Geophysics -- 4 Granular Material Theories Revisited -- 5 Earth's Surface Morphology and Convection in the Mantle -- 6 Morphological Instabilities in Flows with Cooling, Freezing or Dissolution -- 7 Shallow Lava Theory -- 8 Explosive Volcanic Eruptions -- 9 The Dynamics of Snow and Ice Masses -- 10 Response of Italian Glaciers to Climatic Variations -- 11 Asymptotic Theories of Ice Sheets and Ice Shelves -- 12 Aspects of Iceberg Deterioration and Drift -- 13 Snow Avalanches -- 14 Dense Granular Avalanches: Mathematical Description and Experimental Validation -- 15 Patterns of Dirt -- 16 Invitation to Sediment Transport -- 17 Types of Aeolian Sand Dunes and Their Formation -- 18 Dunes and Drumlins -- 19 Estuarine Patterns: An Introduction to Their Morphology and Mechanics -- 20 Longshore Bars and Bragg Resonance -- 21 Debris Flows and Related Phenomena -- 22 Mud Flow - Slow and Fast -- Index.
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  • 2
    Keywords: Electronic books.
    Type of Medium: Online Resource
    Pages: 1 online resource (517 pages)
    Edition: 1st ed.
    ISBN: 9781614992189
    Series Statement: International School of Physics Enrico Fermi Series ; v.133
    Language: English
    Note: Title Page -- Indice -- Preface -- Gruppo fotografico dei partecipanti al Corso -- Total solar irradiance variability: A review -- Introduction -- Variations observed in total solar irradiance -- Modeling total solar irradiance variations -- Modeling variations on active-regions time scale -- Results of multivariate spectral analysis -- Results of singular spectrum analysis -- Modeling variations over the solar cycle -- Uncertainties of irradiance measurements -- Limitation of the irradiance models -- Conclusions -- Cosmogenic isotopes as a tool to study solar and terrestrial variability -- Introduction -- Cosmogenic isotopes -- Production of cosmogenic isotopes -- Transport of cosmogenic isotopes -- Detection of cosmogenic isotopes -- Cosmogenic isotopes and solar variability -- Cosmogenic isotopes and terrestrial variability -- Precipitation rates -- 36Cl bomb pulse -- The "35 ky peak -- Solar variability and climate -- Summary -- Records of the solar cycle in terrestrial archives -- Introduction -- The 11 y solar cycle -- Records of the solar hydromagnetic variability -- Records of the solar bolometric variability -- Conclusions -- The 200 y variability in terrestrial archives: solar forcing? -- Cosmogenic isotope records -- Climatic records -- Records in the shallow-water cores of the Gallipoli terrace -- The cores and their dating -- The total carbonate time series -- Comparison of the carbonate record with the tree ring radiocarbon record -- The thermoluminescence (TL) time series -- Conclusions -- The solar-irradiance variability re~orded by thermoluminescence in shallow Ionian Sea sediments -- Introduction -- Experimental procedure -- Spectral properties of the TL profiles -- Conclusion -- Solar cylces recorded in meteorites -- Introduction -- Solar modulation of GCR in the inner heliosphere. , Modelling of cosmogenic nuclide production in meteorites -- The 11 y and the century scale solar cycle in meteorites -- The 11 y solar cycle -- The century scale solar cycle -- Conclusions -- Radiocarbon time scale of the Mediterranean core CT85-5: the last 40 000 years -- Radiocarbon dating -- Dating method and radiocarbon time scale -- Radiocarbon dating of the deep-sea core CT85-5 -- Long-term global change from Mediterranean Sea sediments -- Introduction -- Core dating -- Comparison of carbonate profiles in Tyrrhenian and North Atlantic cores -- Conclusions -- Records of solar activity in planetary objects -- Charge particle environment in the interplanetary space -- Interaction of charged particles with matter -- Rates of production of tracks and their depth profiles -- Tracks due to VVH (Z more or equal 30) nuclei -- Rates of production of stable and radio nuclides -- Isotope production by solar particles -- Production of nuclides by GCR protons -- Neutron capture effects -- Application of cosmogenic effects for paleosolar activity -- Paleoactivity of the Sun: Meteoritic perspective -- Meteorite records over decades to century -- Meteorite records over 10^6-10^9 years -- Meteorite records relating to the earliest stages of the solar system -- Meteorite records of the early activity of the Sun -- The Sun through time: The lunar and planetary perspective -- Lunar samples as monitors of solar processes -- The diagnostic signatures of the Sun and possible interferences -- Lunar rocks as monitors of solar-flare fluxes and their variation over the past few million years -- Lunar breccias and soils as monitors of solar processes and long-term secular variations in solar-wind characteristics -- The exposure history of grains and rocks -- The characteristic signatures of the contemporary Sun -- Measurements and possible interferences. , Observed long-term changes in isotopic ratios -- The solar-wind velocity -- Evidence of solar variability from other planetary records -- Advanced spectral-analysis methods -- Introduction -- Classical spectral estimation -- Periodogram -- Variance reduction -- Leakage reduction -- Correlogram -- Maximum-entropy method (MEM) -- Parametric spectral estimation -- Some problems with MEM spectra -- Multi-channel MEM -- Multi-taper method (MTM) -- Singular-spectrum analysis (SSA) -- Basic algorithms -- Reconstruction and power spectrum -- Monte Carlo SSA (MC-SSA) -- Multi-channel SSA (MSSA) -- Wavelet analysis -- Windowed Fourier transform (WFT) -- The wavelet transform (WT) -- Concluding remarks -- Dynamics of forced and coupled systems -- Introduction -- Time series analysis: A matter of motivations -- Phase space reconstruction -- Correlation dimension -- Self-similar random processes and surrogate data -- Systems with on / off intermittency -- Weakly coupled systems -- Conclusions and perspectives -- The maintenance of uncertainty -- Introduction -- Preliminaries -- State-space dynamics -- Linearized dynamics of infinitesimal uncertainties -- Instantaneous infinitesimal dynamics -- Finite-time evolution of infinitesimal uncertainties -- Lyapunov exponents and predictability -- The Baker's apprentice map -- Infinitesimals and predictability -- Dimensions -- The Grassberger-Procaccia algorithm -- Towards a better estimate from Takens' estimators -- Space-time-separation diagrams -- Intrinsic limits to the analysis of geometry -- Takens' theorem -- The method of delays -- Noise -- Prediction, prophecy, and pontification -- Introduction -- Simulations, models and physics -- Ground rules -- Data-based models: dynamic reconstructions -- Analogue prediction -- Local prediction -- Global prediction -- Accountable forecasts of chaotic systems. , Evaluating ensemble forecasts -- The annulus -- Prophecies -- Aids for more reliable nonlinear analysis -- Significant results: surrogate data, synthetic data and self-deception -- Surrogate data and the bootstrap -- Surrogate predictors: Is my model any good? -- Hints for the evaluation of new techniques -- Avoiding simple straw men -- Feasibility tests for the identification of chaos -- On detecting "tiny" data sets -- Building models consistent with the observations -- Cost functions -- t-shadowing: Is my model any good? (reprise) -- Casting infinitely long shadows (out-of-sample) -- Distinguishing model error and system sensitivity -- Forecast error and model sensitivity -- Accountability -- Residual predictability -- Deterministic or stochastic dynamics? -- Using ensembles to distinguish the expectation from the expected -- Numerical Weather Prediction -- Probabilistic prediction with a deterministic model -- The analysis -- Constructing and interpreting ensembles -- The outlook(s) for today -- Conclusion -- Summary -- Solar variability: Simple models and proxy data -- A nonlinear dynamo model -- Subject and methods of qualitative analysis -- Bifurcation phenomena in the nonlinear dynamo model -- Reconstruction of grand minima of solar activity from Delta 14C data -- Historical sunspot observations and grand minima -- Determination of a record of grand minima from proxy data -- Preprocessing -- Estimation procedure -- Result -- Test of models -- Comments -- Appendix A - Testing the AR model -- Phase synchronization of chaotic oscillators and analysis of bivariate data -- Introduction -- Instantaneous phase of signals and systems -- Phase synchronization of chaotic self-sustained oscillators -- Looking for synchronization phenomena in real data -- Conclusions -- Search for low-dimensional chaos in observational data -- Introduction. , The underlying dynamics -- A test case: the Rossler oscillator -- The test data sets -- The flow reconstruction -- Noise -- A real system: the light curve of R Scuti -- Conclusion -- The evolution of the solar cycle -- Introduction -- The reconstruction of the solar cycle back to 1609 -- Original measurement devices -- Wolf sunspot number -- Group sunspot number -- Solar-diameter measurements -- Original techniques and data -- Comparison of historical radius with modern values -- Period analysis of the solar-diameter data -- Maunder Minimum -- Butterfly diagram and rotation distributions -- Wavelet analysis -- Further evidences from solar-type stars -- Alpha-omega dynamo and solar cycle -- Nonlinear prospects -- Conclusion -- Catastrophes, chaos and cycles -- Astromathematics -- Sensitive systems -- Gradient systems -- Excitability -- Chaotic systems -- Intermittency -- The macculate Sun -- Variable solar maccularity -- The solar tachocline -- Solar solitoids -- Cycles -- A model solar oscillation -- Solar activity waves -- Physics of the solar dynamo -- Introduction -- Stellar magnetic cycles -- Solar magnetic activity -- Stellar activity -- Origins of the Sun's magnetic field -- Dynamo theory -- The kinematic dynamo problem -- Nonlinear equilibration -- Mean-field dynamo theory -- Modulation of activity cycles -- Toy models -- Global models -- Solar activity and climatic change -- Observational correlations -- Mechanisms and speculations -- Dynamics of the solar convection zone -- Introduction -- Multiple discrete scales of convection -- Probing of structure and flows with helioseismology -- Multitude of magnetic structures and dynamo action -- Structures and inverse cascades in turbulence -- Dynamical range of solar turbulence -- Local models of rotating compressible convection -- Formulation of local f-plane models. , Nature of rotating turbulent convection.
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  • 3
    Online Resource
    Online Resource
    Amsterdam :IOS Press, Incorporated,
    Keywords: Electronic books.
    Type of Medium: Online Resource
    Pages: 1 online resource (739 pages)
    Edition: 1st ed.
    ISBN: 9781614992172
    Series Statement: International School of Physics Enrico Fermi Series ; v.132
    Language: English
    Note: Title Page -- Indice -- Introductory note -- Gruppo fotografico dei partecipanti al Corso fuori testo -- Status of cosmological parameters: Omega_0 approx 0.3 vs. Omega = 1 -- Introduction -- Models with mostly cold dark matter -- Age of the Universe t_0 -- Hubble parameter H_0 -- A) Relative-distance methods -- B) Fundamental-physical approaches -- Correcting for Virgocentric infall -- Cosmological constant Lambda, and t_0 again -- Measuring Omega_0 -- Very-large-scale measurements -- Large-scale measurements -- Measurements on scales of a few Mpc -- Estimates on galaxy halo scales -- Clusters -- Cluster baryons vs. big-bang nucleosynthesis -- Cluster morphology -- Cluster evolution -- Early structure formation -- Neutrino mass -- Conclusions -- OBSERVATIONAL DATA -- Galaxy redshift surveys -- Introduction -- Redshift surveys -- The Las Campanas Redshift Survey -- The beginning of the end? -- Beyond the LCRS -- Peculiar motions and the Tully-Fisher relation -- Introduction -- Newtonian theory of small perturbations -- The case for large-scale motions -- The CMB dipole -- Motions at the Local Supercluster scale -- The Great Attractor -- Bulk flows -- The Tully-Fisher relation -- Scaling laws -- Extinction and the TF relation -- Optical and radio velocity widths -- The scatter in the TF relation -- Importance of the TF template relation -- Results for a cluster sample -- An all-sky field spiral sample -- Galaxy redshift surveys: caveat emptor -- Introduction -- Catalogs: tricks and pitfalls -- Nearby-galaxy catalogs -- Optical catalog -- IRAS galaxy surveys -- The density field based on redshift catalogs -- Morphological and luminosity segregation -- The Pisces-Perseus Supercluster -- Not a random volume -- Measures of clustering -- Morphological segregation -- Substructure in clusters: Abell 2634 -- Hidden galaxies -- Conclusion. , CMBR observations: spectrum -- Introduction -- Spectrum observations prior to COBE -- COBE mission -- DIRBE measurements -- FIRAS measurements -- Comparison of FIRAS with other data -- Possible distortions -- Summary -- CMBR observations: anisotropy -- Introduction -- History -- The COBE DMR -- DMR data analysis. Sparse matrix -- Correlated noise in the DMR maps -- Scaling to large maps -- DMR results -- Galactic interference -- Power spectrum -- Comparison to large-scale structure -- Future CMB work -- Galaxy number counts -- Introduction -- Modelling the number counts -- Luminosity evolution models -- The redshift distributions of faint field galaxies -- Could we fit the counts in a q_0 = 0.5 Universe model? -- Conclusion -- Cosmological adventures in the Lyman forest -- Introduction -- A Lyman-alpha database -- The b-N_(HI) distributions: the temperature of the Lyman-alpha clouds -- The HI column density distribution -- The redshift distribution -- The measure of the ultraviolet background from the proximity effect -- Clustering properties of the Lyman-alpha clouds -- Simulations -- ADVANCED STATISTICAL ESTIMATORS -- Cosmic velocity fields -- Introduction -- Gravitational instability -- Measuring peculiar velocities -- Distance indicators -- Malmquist biases -- Homogenized catalogs -- Analysis of observed peculiar velocities -- Toy models -- Potential analysis -- Regularized multiparamenter models-Wiener filter -- Malmquist-free analysis -- Fields of velocity and mass density -- Predicted motions from the galaxy Z-distribution -- Testing basic hypotheses -- CMB fluctuations vs. motions -- Galaxies vs. dynamical mass -- Environmental effects: ellipticals vs. spirals -- Then initial fluctuations -- Power spectrum-dark matter -- Bulk velocity -- Mach number -- Power spectrum from POTENT -- Power spectrum from likelihood analysis. , Probability distribution-back in time -- The value of Omega -- beta from galaxies vs. the CMB dipole -- beta from galaxy density vs. velocities -- beta from distortions in redshift space -- Omega from PDFs using velocities -- Omega from velocities in voids -- Discussion: are the hypotheses justified? -- Advanced statistical methods for large-scale structure studies -- Introduction -- The correlation statistics -- Correlation functions -- Correlations of a Gaussian field -- The count-in-cell statistics -- The hierarchical model -- Error analysis -- Sampling errors -- Cosmic variance -- Results from observations -- Correlation analysis -- The probability density function -- Geometrical descriptions of the LSS -- The void probability function -- Topology -- Conclusions -- Appendix A - The functional derivative -- Models of nonlinear clustering -- I. - Interesting distribution functions -- Introduction -- Continuous random fields -- Statistical description -- Gaussian random fields -- Scaling and the Edgeworth expansion -- The lognormal model -- Properties -- Motivation -- Discrete distributions -- Statistical description -- The Poisson model -- The GQED distribution -- Conclusions -- Measures of galaxy clustering -- Introduction -- Surveys of galaxy redshifts -- Galaxy obscuration -- Brightness and apparent-magnitude limit -- Redshift pace distortions -- Segregation -- Ergodic hypothesis -- Statistical measures -- Second-order characteristics -- Estimators of xi(r) -- Moments of the cell counts and scaling -- Multiscaling -- Conclusions -- Improved ways to compare simulations to data -- Introduction -- Testing models -- Very large scales -- Large-scale structure (~(10--100) Mpc) -- Intermediate scales (less than 10 Mpc) -- Large-scale constrained realizations -- Early structure formation -- Needs for the future -- Minkovski functionals in cosmology. , Motivation -- Fundamentals -- Hadwiger's theorem -- The principal kinematical formula of integral geometry -- Minkowski functionals of a Poissonian distribution -- Clusters, walls and filaments -- Applications -- Simulations -- Redshift catalogues -- The software and its future -- FROM BB TO MATTER-RADIATION DECOUPLING -- Inflation -- Preliminary-The art of inflation -- Introduction-Why inflate? -- Fine tuning in the big-bang model -- Origin of perturbations beyond the Hubble radius -- Unwanted relics -- Accelerated expansion and entropy production -- Models of inflation -- No-roll inflation -- Slow-roll inflation -- Pre-history -- The classical era of old inflation -- Slow-rollover renaissance of new inflation -- Rococo inflation -- Impressionism -- The postmodern era -- Details of the classical evolution -- Quantum corrections -- Overwiew -- Scalar perturbations -- Exact solution for power law inflation -- Slow-roll expansion for general potentials -- Tensor perturbations -- Mixed dark matter and supersymmetry -- Introduction -- Lepton number violation and neutrinos as HDM candidates -- The lightest supersymmetric particle (LSP) -- Lepton number violation in SUSY -- Mixed DM -- The nature of the dark matter -- Introduction -- Physical evidence for dark matter -- Spiral galaxies -- Clusters of galaxies -- Large-scale flows -- The baryonic content of the Universe -- Distribution of dark matter in the Milky Way -- Brief survey of dark-matter candidates -- Thermal relics as dark matter (WIMPs) -- Nonthermal relics as dark matter (axions) -- Search for WIMP dark matter (neutralinos) -- Motivation for supersymmetry -- Relic abundance in more detail -- Accelerator constraints -- Detection techniques -- Direct detection -- Indirect detection -- Baryonic dark matter (MACHOs) -- Microlensing -- The MACHO Collaboration experiment -- Event selection. , Detection efficiency -- Interpretation of LMC events -- Interpretation of bulge events -- Advantages of having many events -- MACHO conclusion -- Conclusions -- Doppler peaks an all that: CMB anisotropies and what they can tell us -- Introduction -- Sources of CMB fluctuations: an overview -- Primary fluctuations -- Secondary fluctuations -- Gravitational effects -- Effects of local reionization -- Effects of global reionization -- Tertiary" fluctuations (foregrounds and headaches) -- Extragalactic point sources -- Radio sources -- Infrared sources -- Diffuse galactic sources -- Power spectrum -- Frequency dependence -- Local sources -- The origin of primary anisotropies -- Before recombination: acoustic oscillations -- The classical Jeans analysis -- The relativistic multifluid case -- A toy model -- The random element -- The Doppler peaks vanish... -- ... and return -- The WKB approximation -- During recombination: damping and diffusion -- After recombination: curvature and projection effects -- Parameter dependence -- How accurately can the CMB pin down cosmological parameters? -- The parameter estimation problem -- The error bars -- A geometric interpretation -- Real-world complications: foregrounds and incomplete sky coverage -- Foregrounds -- Incomplete sky coverage -- Summary -- Appendix A - Cosmic statistics-a primer -- Random fields -- Ergodicity -- Gaussianity -- The 3D power spectrum -- Working with spherical harmonics -- Random fields on the sphere -- DARK MATTER MODELS AND LSS -- Numerical simulations in cosmology. - I. -- Introduction -- Equations of evolution of fluctuations in an expanding universe -- Methods -- Distribution of the matter and effects of resolution -- Halo identification and overmerging problem -- Numerical simulations in cosmology -- II. - Small-scale power spectrum and correlations in ACDM model -- Introduction. , Model.
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  • 4
    Electronic Resource
    Electronic Resource
    [S.l.] : American Institute of Physics (AIP)
    Physics of Fluids 11 (1999), S. 2280-2287 
    ISSN: 1089-7666
    Source: AIP Digital Archive
    Topics: Physics
    Notes: For the problem of planetary formation one seeks a mechanism to gather small dust particles together into larger solid objects. Here we describe a scenario in which turbulence mediates this process by aggregating particles into anticyclonic regions. If, as our simulations suggest, anticyclonic vortices form as long-lived coherent structures, the process becomes more powerful because such vortices trap particles effectively. Even if the turbulence is decaying, following the upheaval that formed the disk, there is enough time to make the dust distribution quite lumpy. © 1999 American Institute of Physics.
    Type of Medium: Electronic Resource
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  • 5
    Electronic Resource
    Electronic Resource
    Woodbury, NY : American Institute of Physics (AIP)
    Chaos 7 (1997), S. 82-88 
    ISSN: 1089-7682
    Source: AIP Digital Archive
    Topics: Physics
    Notes: The present distribution of galaxies in space is a remnant of their formation and interaction. On a large enough scale, we may represent the galaxies as a set of points and quantify the structures in this set by its generalized dimensions [Beck and Schlögl, Thermodynamics of Chaotic Systems (Cambridge University Press, Cambridge, 1986); Paladin and Vulpiani, Phys. Rep. 156, 147 (1987)]. The results of such evaluation are often taken to be evidence of a fractal (or multifractal) distribution of galaxies. However, those results, for some scales, may also reveal the presence of singularities formed in the gravitational processes that produce structure in the galaxy distribution. To try to make some decision about this issue, we look for the more subtle galactic lacunarity. We believe that this quantity is discernible in the currently available data and that it provides important evidence on the galaxy formation process. © 1997 American Institute of Physics.
    Type of Medium: Electronic Resource
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  • 6
    Electronic Resource
    Electronic Resource
    [S.l.] : American Institute of Physics (AIP)
    Physics of Fluids 6 (1994), S. 2465-2474 
    ISSN: 1089-7666
    Source: AIP Digital Archive
    Topics: Physics
    Notes: The dynamics of passively advected particles in either integrable or chaotic point vortex systems and in two-dimensional (2-D) turbulence is studied. For point vortices, it is shown that the regular or chaotic nature of the particle trajectories is not determined by the Eulerian chaoticity of the vortex motion, but rather by pure Lagrangian quantities, such as the distance of an advected particle from the vortex centers. In fact, each point vortex turns out to be surrounded by a regular island, where the advected particles are trapped and their Lagrangian Lyapunov exponent is zero, even though the vortex itself may perform a chaotic trajectory. In the field between the vortices, passive particles undergo chaotic advection with an associated positive Lyapunov exponent. For well-separated vortices, even at large times, the advected particles do not cross the boundary between the chaotic sea and the regular islands surrounding the vortices. A similar situation holds in the case of forced-dissipative 2-D turbulence, where particles trapped in the interior of the coherent structures have a null Lagrangian Lyapunov exponent, while those in the background turbulent sea move chaotically. This gives clear evidence of the important role played by chaotic advection, even in complex Eulerian flows.
    Type of Medium: Electronic Resource
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  • 7
    Electronic Resource
    Electronic Resource
    New York, NY : American Institute of Physics (AIP)
    Physics of Fluids 2 (1990), S. 866-869 
    ISSN: 1089-7666
    Source: AIP Digital Archive
    Topics: Physics
    Notes: The particle orbits obtained by integrating the velocity field of the Eulerian Korteweg–deVries (KdV) equation and the trajectories given by the Lagrangian KdV equation are contrasted. It is shown that the two classes of orbits, while apparently equivalent, may be quite different. In particular, a spurious wave drift is generated by integrating the Eulerian velocities. It is shown that these differences are due to a mixing of perturbation orders inherent in the integration of the Eulerian velocity field. It is believed that these results may have some implications on the calculation of particle orbits in Eulerian flow models obtained by a perturbation expansion of the primitive equations.
    Type of Medium: Electronic Resource
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  • 8
    Electronic Resource
    Electronic Resource
    [S.l.] : American Institute of Physics (AIP)
    Physics of Fluids 29 (1986), S. 656-660 
    ISSN: 1089-7666
    Source: AIP Digital Archive
    Topics: Physics
    Notes: A Lagrangian form of the KdV equation (LKdV) is given which governs the evolution of nonlinear shallow water waves. Wave motion described by this equation in the context of the inverse scattering transform (IST) is discussed. For a single soliton it is shown that LKdV allows for an orthogonal decomposition of the particle motion into a kink (tanh) soliton in the horizontal and a pulse (sech2) soliton in the vertical. Generalizations to the orthogonal decomposition of N-soliton motion and to motion with periodic boundary conditions are also discussed. Implications of this approach on experimental measurements and on other integrable (soliton) systems are briefly explored.
    Type of Medium: Electronic Resource
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  • 9
    Electronic Resource
    Electronic Resource
    Amsterdam : Elsevier
    Journal of Computational Physics 89 (1990), S. 489 
    ISSN: 0021-9991
    Source: Elsevier Journal Backfiles on ScienceDirect 1907 - 2002
    Topics: Computer Science , Physics
    Type of Medium: Electronic Resource
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  • 10
    Electronic Resource
    Electronic Resource
    Amsterdam : Elsevier
    Journal of Computational Physics 94 (1991), S. 314-351 
    ISSN: 0021-9991
    Source: Elsevier Journal Backfiles on ScienceDirect 1907 - 2002
    Topics: Computer Science , Physics
    Type of Medium: Electronic Resource
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