Process for forming synapses in neural networks and resistor therefor
Patent
·
OSTI ID:870526
- San Francisco, CA
Customizable neural network in which one or more resistors form each synapse. All the resistors in the synaptic array are identical, thus simplifying the processing issues. Highly doped, amorphous silicon is used as the resistor material, to create extremely high resistances occupying very small spaces. Connected in series with each resistor in the array is at least one severable conductor whose uppermost layer has a lower reflectivity of laser energy than typical metal conductors at a desired laser wavelength.
- Research Organization:
- Lawrence Livermore National Laboratory (LLNL), Livermore, CA (United States)
- DOE Contract Number:
- W-7405-ENG-48
- Assignee:
- Regents of University of California (Oakland, CA)
- Patent Number(s):
- US 5538915
- OSTI ID:
- 870526
- Country of Publication:
- United States
- Language:
- English
A laser direct write double-level-metal technology for rapid fabrication
|
conference | January 1990 |
An introduction to computing with neural nets
|
journal | January 1987 |
Resistive synaptic interconnects for electronic neural networks
|
journal | July 1987 |
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Related Subjects
process
forming
synapses
neural
networks
resistor
customizable
network
resistors
form
synapse
synaptic
array
identical
simplifying
processing
issues
highly
doped
amorphous
silicon
material
create
extremely
resistances
occupying
spaces
connected
series
severable
conductor
uppermost
layer
reflectivity
laser
energy
typical
metal
conductors
desired
wavelength
metal conductor
neural network
amorphous silicon
laser energy
highly doped
neural networks
resistor material
metal conductors
uppermost layer
resistors form
synaptic array
forming synapses
metal conduct
neural net
processing issues
customizable neural
laser wavelength
/438/
forming
synapses
neural
networks
resistor
customizable
network
resistors
form
synapse
synaptic
array
identical
simplifying
processing
issues
highly
doped
amorphous
silicon
material
create
extremely
resistances
occupying
spaces
connected
series
severable
conductor
uppermost
layer
reflectivity
laser
energy
typical
metal
conductors
desired
wavelength
metal conductor
neural network
amorphous silicon
laser energy
highly doped
neural networks
resistor material
metal conductors
uppermost layer
resistors form
synaptic array
forming synapses
metal conduct
neural net
processing issues
customizable neural
laser wavelength
/438/