We characterize the first hardware implementation of a self-organizing map algorithm based on axon migration. A population of silicon growth cones automatically wires a topographic mapping by migrating toward sources of a diffusible guidance signal that is released by postsynaptic activity. We varied the diffusion radius of this signal, trading strength for range. Best performance is achieved by balancing signal strength against signal range
The strategy used by axons to find the correct paths during the nervous system development is not ye...
Axons are often guided to their targets in the developing nervous system by attractive or repulsive ...
The human brain assembles an incredible network of over a billion neurons. Understanding how these c...
We describe a self-configuring neuromorphic chip that uses a model of activity-dependent axon remode...
Neuromorphic engineers have achieved considerable success in devising silicon implementations of pro...
Neuromorphic vision systems are commonly based upon models of biological neural circuits. Currently,...
We demonstrate the first fully hardware implementation of retinotopic self-organization, from photon...
Neuronal growth cones, the sensory-motile structures at the tips of developing axons, navigate to th...
Neuronal growth cones, the sensory-motile structures at the tips of de-veloping axons, navigate to t...
A generalised model of biological topographic map development is presented which combines both weig...
During nervous system development, specific connections develop between discrete neurons, often span...
An important phenomenon seen in many areas of biological brains and recently in deep learning archit...
Axons are often guided to their targets in the developing nervous system by attractive or repulsive ...
Growth cones on neuronal process navigate over long distances to their targets in the developing ner...
In this paper, a simulation tool for modeling axon guidance is presented. A mathematical framework i...
The strategy used by axons to find the correct paths during the nervous system development is not ye...
Axons are often guided to their targets in the developing nervous system by attractive or repulsive ...
The human brain assembles an incredible network of over a billion neurons. Understanding how these c...
We describe a self-configuring neuromorphic chip that uses a model of activity-dependent axon remode...
Neuromorphic engineers have achieved considerable success in devising silicon implementations of pro...
Neuromorphic vision systems are commonly based upon models of biological neural circuits. Currently,...
We demonstrate the first fully hardware implementation of retinotopic self-organization, from photon...
Neuronal growth cones, the sensory-motile structures at the tips of developing axons, navigate to th...
Neuronal growth cones, the sensory-motile structures at the tips of de-veloping axons, navigate to t...
A generalised model of biological topographic map development is presented which combines both weig...
During nervous system development, specific connections develop between discrete neurons, often span...
An important phenomenon seen in many areas of biological brains and recently in deep learning archit...
Axons are often guided to their targets in the developing nervous system by attractive or repulsive ...
Growth cones on neuronal process navigate over long distances to their targets in the developing ner...
In this paper, a simulation tool for modeling axon guidance is presented. A mathematical framework i...
The strategy used by axons to find the correct paths during the nervous system development is not ye...
Axons are often guided to their targets in the developing nervous system by attractive or repulsive ...
The human brain assembles an incredible network of over a billion neurons. Understanding how these c...