Biological retinal neuronal circuits are emulated using a system of connected 1550 nm Vertical-Cavity Surface-Emitting Laser (VCSEL)-neurons. Spiking and non-spiking neuronal responses are reproduced at ultrafast speed (>7 orders of magnitude faster than neurons) with prospects for novel brain-inspired computing platforms and Artificial Intelligence
Electrically-controlled, tuneable and repeatable neuron-like spiking regimes are generated in an opt...
International audienceBrain-inspired computing concepts like artificial neural networks have become ...
The ever-increasing demand for artificial intelligence (AI) systems is underlining a significant req...
Biological retinal neuronal circuits are emulated using a system of connected 1550 nm Vertical-Cavit...
In this thesis we investigate the technology of Vertical Cavity Surface Emitting Lasers (VCSELs) as ...
We report on the activation, inhibition and propagation of controllable neuron-like spiking signals ...
Driven by the increasing significance of artificial intelligence, the field of neuromorphic (brain-i...
We report experimentally on VCSEL-based artificial optical spiking neurons with ultrafast spiking re...
In today’s data-driven world, the ability to process large data volumes is crucial. Key tasks, such ...
With the increasing importance and capabilities of artificial intelligence (AI) approaches across al...
We report experimentally on the electrically-controlled, tunable and repeatable neuron-like spiking ...
Brain-inspired computing concepts like artificial neural networks have become promising alternatives...
Photonic approaches emulating the powerful computational capabilities of the brain are receiving inc...
We report experimentally on VCSEL-based artificial optical spiking neurons with ultrafast spiking re...
We report an approach based upon vertical cavity surface emitting lasers (VCSELs) to reproduce optic...
Electrically-controlled, tuneable and repeatable neuron-like spiking regimes are generated in an opt...
International audienceBrain-inspired computing concepts like artificial neural networks have become ...
The ever-increasing demand for artificial intelligence (AI) systems is underlining a significant req...
Biological retinal neuronal circuits are emulated using a system of connected 1550 nm Vertical-Cavit...
In this thesis we investigate the technology of Vertical Cavity Surface Emitting Lasers (VCSELs) as ...
We report on the activation, inhibition and propagation of controllable neuron-like spiking signals ...
Driven by the increasing significance of artificial intelligence, the field of neuromorphic (brain-i...
We report experimentally on VCSEL-based artificial optical spiking neurons with ultrafast spiking re...
In today’s data-driven world, the ability to process large data volumes is crucial. Key tasks, such ...
With the increasing importance and capabilities of artificial intelligence (AI) approaches across al...
We report experimentally on the electrically-controlled, tunable and repeatable neuron-like spiking ...
Brain-inspired computing concepts like artificial neural networks have become promising alternatives...
Photonic approaches emulating the powerful computational capabilities of the brain are receiving inc...
We report experimentally on VCSEL-based artificial optical spiking neurons with ultrafast spiking re...
We report an approach based upon vertical cavity surface emitting lasers (VCSELs) to reproduce optic...
Electrically-controlled, tuneable and repeatable neuron-like spiking regimes are generated in an opt...
International audienceBrain-inspired computing concepts like artificial neural networks have become ...
The ever-increasing demand for artificial intelligence (AI) systems is underlining a significant req...