Using the network architecture in Fig 5, we initialize neural populations “pop1” and “pop2” with 100 detailed neurons, then use osNEF to train encoders, decoders, and synaptic filters. The connection between “pop1” and “pop2” is trained to multiply two scalars: “pop1” represents the two scalars, and “pop2” should represent their product. The top plot shows the state space target and the decoded estimates from “pop2”, and the bottom plot shows the mean error between this estimate and the target across 10 simulations with unique input signals.</p
A. The input noise to each neuron consists of a correlated noise component (black) that is common fo...
The top row shows the weight vectors of two typical output neurons that develop when the input neuro...
<p>(<b>A</b>) Network illustration. A set of 3600 excitatory and 900 inhibitory recurrently connecte...
Using the network architecture in Fig 5, we initialize neural populations “pop1” and “pop2” with 100...
This network extends the training network in Fig 2, represented by components with the gray backgrou...
The top half of the figure is the “oracle” stream, where the desired filters and transformations are...
<p>(<b>A</b>) Illustration of input similarity <i>ρ</i><sub><i>same</i></sub> for which the first <i...
<p><b>A.</b> The decoding mechanism is illustrated in the case of a two-pool model, in which denote...
Nonlinear dynamics within complex neuron models leads to systematic decoding error if a default filt...
In this paper, the precision of function which expresses the relation between input and output of a ...
(A) Network structure emerging after learning 2 training stimuli. The modeled neuronal populations a...
One of the most important building blocks of the brain–machine interface (BMI) based on neuronal spi...
<p>The training data set “MG” is used. Neuron 1 (output neuron): (A) Initial input distribution. (B)...
This system loads and stores a two-dimensional value in a working memory; when the “gate” signal is ...
<p>The trained neuron receives inputs from 500 neurons. The spike trains received from these neurons...
A. The input noise to each neuron consists of a correlated noise component (black) that is common fo...
The top row shows the weight vectors of two typical output neurons that develop when the input neuro...
<p>(<b>A</b>) Network illustration. A set of 3600 excitatory and 900 inhibitory recurrently connecte...
Using the network architecture in Fig 5, we initialize neural populations “pop1” and “pop2” with 100...
This network extends the training network in Fig 2, represented by components with the gray backgrou...
The top half of the figure is the “oracle” stream, where the desired filters and transformations are...
<p>(<b>A</b>) Illustration of input similarity <i>ρ</i><sub><i>same</i></sub> for which the first <i...
<p><b>A.</b> The decoding mechanism is illustrated in the case of a two-pool model, in which denote...
Nonlinear dynamics within complex neuron models leads to systematic decoding error if a default filt...
In this paper, the precision of function which expresses the relation between input and output of a ...
(A) Network structure emerging after learning 2 training stimuli. The modeled neuronal populations a...
One of the most important building blocks of the brain–machine interface (BMI) based on neuronal spi...
<p>The training data set “MG” is used. Neuron 1 (output neuron): (A) Initial input distribution. (B)...
This system loads and stores a two-dimensional value in a working memory; when the “gate” signal is ...
<p>The trained neuron receives inputs from 500 neurons. The spike trains received from these neurons...
A. The input noise to each neuron consists of a correlated noise component (black) that is common fo...
The top row shows the weight vectors of two typical output neurons that develop when the input neuro...
<p>(<b>A</b>) Network illustration. A set of 3600 excitatory and 900 inhibitory recurrently connecte...