TY - JOUR
T1 - Engineered self-organization of neural networks using carbon nanotube clusters
AU - Gabay, Tamir
AU - Jakobs, Eyal
AU - Ben-Jacob, Eshel
AU - Hanein, Yael
N1 - Funding Information:
The authors thank Nadav Raichman and Itay Baruchi for help with the protocols of the cultured neural networks growth and recording. They are thankful to Ina Brainis for technical assistance in extraction of the cell cultures and preparations of the cultured networks. We thank Zehava Barkai for HRSEM imaging and Anton Sheinin for the electrical activity recordings. We also thank Danny Baranes and Pablo Blinder for useful discussions. TG acknowledges the support of the Zandman–Slaner scholarship. This research was supported in part by an ISF Grant and the Maguy–Glass Chair in Physics of Complex Systems.
PY - 2005/5/15
Y1 - 2005/5/15
N2 - A novel approach was developed to form engineered, electrically viable, neuronal networks, consisting of ganglion-like clusters of neurons. In the present method, the clusters are formed as the cells migrate on low affinity substrate towards high affinity, lithographically defined carbon nanotube templates on which they adhere and assemble. Subsequently, the gangliated neurons send neurites to form interconnected networks with pre-designed geometry and graph connectivity. This process is distinct from previously reported formation of clusterized neural networks in which a network of linked neurons collapses via neuronal migration along the inter-neuron links. The template preparation method is based on photo-lithography, micro-contact printing and carbon nanotube chemical vapor deposition techniques. The present work provides a new approach to form complex, engineered, interconnected neuronal network with pre-designed geometry via engineering the self-assembly process of neurons.
AB - A novel approach was developed to form engineered, electrically viable, neuronal networks, consisting of ganglion-like clusters of neurons. In the present method, the clusters are formed as the cells migrate on low affinity substrate towards high affinity, lithographically defined carbon nanotube templates on which they adhere and assemble. Subsequently, the gangliated neurons send neurites to form interconnected networks with pre-designed geometry and graph connectivity. This process is distinct from previously reported formation of clusterized neural networks in which a network of linked neurons collapses via neuronal migration along the inter-neuron links. The template preparation method is based on photo-lithography, micro-contact printing and carbon nanotube chemical vapor deposition techniques. The present work provides a new approach to form complex, engineered, interconnected neuronal network with pre-designed geometry via engineering the self-assembly process of neurons.
KW - Carbon nanotubes
KW - Cell patterning
KW - Nano-topography
KW - Neural networks
KW - Neurons
KW - Self-organization
UR - http://www.scopus.com/inward/record.url?scp=14844303790&partnerID=8YFLogxK
U2 - 10.1016/j.physa.2004.11.007
DO - 10.1016/j.physa.2004.11.007
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AN - SCOPUS:14844303790
SN - 0378-4371
VL - 350
SP - 611
EP - 621
JO - Physica A: Statistical Mechanics and its Applications
JF - Physica A: Statistical Mechanics and its Applications
IS - 2-4
ER -