Understanding the biological-electrical transduction mechanisms is essential for reliable neural signal recording and feature extraction. As an alternative to state-of-the-art lumped-element circuit models, here we adopt a multiscale-multiphysics finite-element modeling framework. The model couples ion transport with the Hodgkin-Huxley model and the readout circuit, and is used to investigate a few relevant case studies. This approach is amenable to explore ion transport in the extracellular medium otherwise invisible to circuit model analysis
Abstract—Amplitudes and shapes of extracellular recordings from single neurons cultured on a substra...
ABSTRACT A computational model is presented for the simulation of three-dimensional electrodiffusion...
The electrical contact between an embed-ded microelectrode and a cultured neu-ron depends on the geo...
Understanding the biological-electrical transduction mechanisms is essential for reliable neural sig...
A methodology to build multi-compartment lumped elements equivalent circuits for the neuron/electro...
Mathematical models for excitable cells are commonly based on cable theory, which considers a homoge...
Mathematical models for excitable cells are commonly based on cable theory, which considers a homoge...
Electrical signaling in neurons is typically modeled using the cable equation, where dendrites or ax...
In this thesis the Drift Diffusion enhanced Hodgkin Huxley model is developed. This model uses the ...
Abstract—The electrical contact between a substrate embedded microelectrode and a cultured neuron de...
Many pathological conditions, such as seizures, stroke, and spreading depression, are associated wit...
The electrical contact between an embedded microelectrode and a cultured neuron depends on the geome...
Many pathological conditions, such as seizures, stroke, and spreading depression, are associated wit...
The electrical contact between a substrate embedded microelectrode and a cultured neuron depends on ...
Modelling of the nerve impulse is often simplified to one spatial dimension, for example by using ca...
Abstract—Amplitudes and shapes of extracellular recordings from single neurons cultured on a substra...
ABSTRACT A computational model is presented for the simulation of three-dimensional electrodiffusion...
The electrical contact between an embed-ded microelectrode and a cultured neu-ron depends on the geo...
Understanding the biological-electrical transduction mechanisms is essential for reliable neural sig...
A methodology to build multi-compartment lumped elements equivalent circuits for the neuron/electro...
Mathematical models for excitable cells are commonly based on cable theory, which considers a homoge...
Mathematical models for excitable cells are commonly based on cable theory, which considers a homoge...
Electrical signaling in neurons is typically modeled using the cable equation, where dendrites or ax...
In this thesis the Drift Diffusion enhanced Hodgkin Huxley model is developed. This model uses the ...
Abstract—The electrical contact between a substrate embedded microelectrode and a cultured neuron de...
Many pathological conditions, such as seizures, stroke, and spreading depression, are associated wit...
The electrical contact between an embedded microelectrode and a cultured neuron depends on the geome...
Many pathological conditions, such as seizures, stroke, and spreading depression, are associated wit...
The electrical contact between a substrate embedded microelectrode and a cultured neuron depends on ...
Modelling of the nerve impulse is often simplified to one spatial dimension, for example by using ca...
Abstract—Amplitudes and shapes of extracellular recordings from single neurons cultured on a substra...
ABSTRACT A computational model is presented for the simulation of three-dimensional electrodiffusion...
The electrical contact between an embed-ded microelectrode and a cultured neu-ron depends on the geo...