Title
Reduced Computational Models of Serotonin Synthesis, Release, and Reuptake
Abstract
Multiscale computational models can provide systemic evaluation and prediction of neuropharmacological drug effects. To date, little computational modeling work has been done to bridge from intracellular to neuronal circuit level. A complex model that describes the intracellular dynamics of the presynaptic terminal of a serotonergic neuron has been previously proposed. By systematically perturbing the model's components, we identify the slow and fast dynamical components of the model, and the reduced slow or fast mode of the model is computationally significantly more efficient with accuracy not deviating much from the original model. The reduced fast-mode model is particularly suitable for incorporating into neurobiologically realistic spiking neuronal models, and hence for large-scale realistic computational simulations. We also develop user-friendly software based on the reduced models to allow scientists to rapidly test and predict neuropharmacological drug effects at a systems level.
Year
DOI
Venue
2014
10.1109/TBME.2013.2293538
Biomedical Engineering, IEEE Transactions  
Keywords
Field
DocType
bioelectric phenomena,cellular biophysics,drug delivery systems,medical computing,neurophysiology,dynamical components,intracellular circuit level,intracellular dynamics,large-scale realistic computational simulations,multiscale computational models,neurobiologically realistic spiking neuronal models,neuronal circuit level,neuropharmacological drug effects,reduced computational models,reduced fast-mode model,serotonin release,serotonin reuptake,serotonin synthesis,user-friendly software,Dynamical systems,mathematical models,neuromodulator,neuropharmacology,serotonin
Neuroscience,Cellular biophysics,Neurophysiology,Biological system,Computer science,Serotonin synthesis,Electronic engineering,Computational model,Serotonergic Neuron,Reuptake
Journal
Volume
Issue
ISSN
61
4
0018-9294
Citations 
PageRank 
References 
1
0.41
4
Authors
2
Name
Order
Citations
PageRank
Gordon Flower110.41
KongFatt Wong-Lin24611.52