Nonlinear Processes in Geophysics

Papers
(The TQCC of Nonlinear Processes in Geophysics is 4. The table below lists those papers that are above that threshold based on CrossRef citation counts [max. 250 papers]. The publications cover those that have been published in the past four years, i.e., from 2021-04-01 to 2025-04-01.)
ArticleCitations
Superstatistical analysis of sea surface currents in the Gulf of Trieste, measured by high-frequency radar, and its relation to wind regimes using the maximum-entropy principle17
Identification of linear response functions from arbitrary perturbation experiments in the presence of noise – Part 1: Method development and toy model demonstration15
Multifractal analysis of wind turbine power and rainfall from an operational wind farm – Part 2: Joint analysis of available wind power and rain intensity15
Assessing Lagrangian coherence in atmospheric blocking12
Estimate of energy loss from internal solitary waves breaking on slopes12
Size distribution law of earthquake-triggered landslides in different seismic intensity zones11
Data-driven methods to estimate the committor function in conceptual ocean models9
The impact of entrained air on ocean waves9
Recurrence analysis of extreme event-like data9
Multifractal structure and Gutenberg–Richter parameter associated with volcanic emissions of high energy in Colima, Mexico (years 2013–2015)9
Phytoplankton retention mechanisms in estuaries: a case study of the Elbe estuary9
The joint application of a metaheuristic algorithm and a Bayesian statistics approach for uncertainty and stability assessment of nonlinear magnetotelluric data8
Review article: Interdisciplinary perspectives on climate sciences – highlighting past and current scientific achievements8
Scaling and intermittent properties of oceanic and atmospheric pCO2 time series and their difference in a turbulence framework8
How far can the statistical error estimation problem be closed by collocated data?8
The effect of strong shear on internal solitary-like waves7
A comparison of two causal methods in the context of climate analyses7
Improving the potential accuracy and usability of EURO-CORDEX estimates of future rainfall climate using frequentist model averaging7
Producing realistic climate data with generative adversarial networks7
Identification of linear response functions from arbitrary perturbation experiments in the presence of noise – Part 2: Application to the land carbon cycle in the MPI Earth System Model7
Solving a North-type energy balance model using boundary integral methods7
Ensemble Riemannian data assimilation: towards large-scale dynamical systems6
An approach for constraining mantle viscosities through assimilation of palaeo sea level data into a glacial isostatic adjustment model6
Reduced non-Gaussianity by 30 s rapid update in convective-scale numerical weather prediction6
An enhanced correlation identification algorithm and its application on spread spectrum induced polarization data6
Toward a multivariate formulation of the parametric Kalman filter assimilation: application to a simplified chemical transport model5
Representation learning with unconditional denoising diffusion models for dynamical systems5
A quest for precipitation attractors in weather radar archives5
Regional study of mode-2 internal solitary waves at the Pacific coast of Central America using marine seismic survey data4
On dissipation timescales of the basic second-order moments: the effect on the energy and flux budget (EFB) turbulence closure for stably stratified turbulence4
Control simulation experiments of extreme events with the Lorenz-96 model4
A comparison of two nonlinear data assimilation methods4
Rain process models and convergence to point processes4
Clustering of settling microswimmers in turbulence4
Inferring flow energy, space scales, and timescales: freely drifting vs. fixed-point observations4
Comparative study of strongly and weakly coupled data assimilation with a global land–atmosphere coupled model4
Effects of rotation and topography on internal solitary waves governed by the rotating Gardner equation4
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