Given the complete knowledge of the state variables of a dynamicalsystem at fixed intervals, it is possible to construct a mapping, which is a perfectdiscrete time model of the system. To embed this into a continuum, the translationequation has to be solved for this mapping. However, in general, neitherexistence nor uniqueness of solutions can be guaranteed, but fractional iteratesof the mapping computed by a neural network can provide regularized solutionsthat exactly comply with the laws of physics for several examples. Here weextend this method to continuous embeddings which represent the true trajectoriesof the dynamical system
A transform is introduced that maps discrete neural network dynamics to almost everywhere topologica...
AbstractHere, we study the univariate fractional quantitative approximation of real valued functions...
The existence and the S-asymptotic ω-periodic of the solution in fractional-order Cohen-Grossberg ne...
Many real processes are composed of a n-fold repetition of some simpler process. If the whole proces...
This paper presents a novel recurrent time continuous neural network model which performs nonlinear ...
Funded by Naval Postgraduate SchoolThis paper introduces a novel algorithmic framework for a deep ne...
The mathematical method of fractional or continuous iteration can be used to model a dynamical syste...
To interpolate data which is sampled in finite, discrete time steps into a continuous signal e.g. fo...
AbstractIn mathematical modeling, very often discrete-time (DT) models are taken from, or can be vie...
The paper presents a model of a neural network with a novel backpropagation rule, which uses a fract...
We introduce a new class of time-continuous recurrent neural network models. Instead of declaring a ...
Here, we study the univariate fractional quantitative approximation of real valued functions on a co...
Most of the beautiful biological functions in neural systems are expected to happen considering the ...
AbstractWe formulate discrete-time analogues of integrodifferential equations modelling bidirectiona...
This work provides a framework for the approximation of a dynamic system of the form x˙=f(x)+g(x)u b...
A transform is introduced that maps discrete neural network dynamics to almost everywhere topologica...
AbstractHere, we study the univariate fractional quantitative approximation of real valued functions...
The existence and the S-asymptotic ω-periodic of the solution in fractional-order Cohen-Grossberg ne...
Many real processes are composed of a n-fold repetition of some simpler process. If the whole proces...
This paper presents a novel recurrent time continuous neural network model which performs nonlinear ...
Funded by Naval Postgraduate SchoolThis paper introduces a novel algorithmic framework for a deep ne...
The mathematical method of fractional or continuous iteration can be used to model a dynamical syste...
To interpolate data which is sampled in finite, discrete time steps into a continuous signal e.g. fo...
AbstractIn mathematical modeling, very often discrete-time (DT) models are taken from, or can be vie...
The paper presents a model of a neural network with a novel backpropagation rule, which uses a fract...
We introduce a new class of time-continuous recurrent neural network models. Instead of declaring a ...
Here, we study the univariate fractional quantitative approximation of real valued functions on a co...
Most of the beautiful biological functions in neural systems are expected to happen considering the ...
AbstractWe formulate discrete-time analogues of integrodifferential equations modelling bidirectiona...
This work provides a framework for the approximation of a dynamic system of the form x˙=f(x)+g(x)u b...
A transform is introduced that maps discrete neural network dynamics to almost everywhere topologica...
AbstractHere, we study the univariate fractional quantitative approximation of real valued functions...
The existence and the S-asymptotic ω-periodic of the solution in fractional-order Cohen-Grossberg ne...