We report both experimentally and in theory on the detection of edge features in digital images with an artificial optical spiking neuron based on a vertical-cavity surface-emitting laser (VCSEL). The latter delivers fast (< 100 ps) neuron-like optical spikes in response to optical inputs pre-processed using convolution techniques; hence representing image feature information with a spiking data output directly in the optical domain. The proposed technique is able to detect target edges of different directionalities in digital images by applying individual kernel operators and can achieve complete image edge detection using gradient magnitude. Importantly, the neuromorphic (brain-like) spiking edge detection of this work uses commercially s...
Electrically-controlled, tuneable and repeatable neuron-like spiking regimes are generated in an opt...
We report experimentally and in theory on the controllable propagation of spiking regimes between tw...
Biological retinal neuronal circuits are emulated using a system of connected 1550 nm Vertical-Cavit...
The ever-increasing demand for artificial intelligence (AI) systems is underlining a significant req...
With the increasing importance and capabilities of artificial intelligence (AI) approaches across al...
Driven by the increasing significance of artificial intelligence, the field of neuromorphic (brain-i...
In this thesis we investigate the technology of Vertical Cavity Surface Emitting Lasers (VCSELs) as ...
All-optical binary convolution with a photonic spiking vertical-cavity surface-emitting laser (VCSEL...
In today’s data-driven world, the ability to process large data volumes is crucial. Key tasks, such ...
Vertical-Cavity Surface-Emitting Lasers (VCSELs) are highly promising devices for the construction o...
We report experimentally on VCSEL-based artificial optical spiking neurons with ultrafast spiking re...
We report experimentally on the electrically-controlled, tunable and repeatable neuron-like spiking ...
We report on the activation, inhibition and propagation of controllable neuron-like spiking signals ...
We report a theoretical study on laterally-coupled pairs of vertical-cavity surface-emitting lasers ...
Photonic technologies offer great prospects for novel, ultrafast, energy-efficient, and hardwarefrie...
Electrically-controlled, tuneable and repeatable neuron-like spiking regimes are generated in an opt...
We report experimentally and in theory on the controllable propagation of spiking regimes between tw...
Biological retinal neuronal circuits are emulated using a system of connected 1550 nm Vertical-Cavit...
The ever-increasing demand for artificial intelligence (AI) systems is underlining a significant req...
With the increasing importance and capabilities of artificial intelligence (AI) approaches across al...
Driven by the increasing significance of artificial intelligence, the field of neuromorphic (brain-i...
In this thesis we investigate the technology of Vertical Cavity Surface Emitting Lasers (VCSELs) as ...
All-optical binary convolution with a photonic spiking vertical-cavity surface-emitting laser (VCSEL...
In today’s data-driven world, the ability to process large data volumes is crucial. Key tasks, such ...
Vertical-Cavity Surface-Emitting Lasers (VCSELs) are highly promising devices for the construction o...
We report experimentally on VCSEL-based artificial optical spiking neurons with ultrafast spiking re...
We report experimentally on the electrically-controlled, tunable and repeatable neuron-like spiking ...
We report on the activation, inhibition and propagation of controllable neuron-like spiking signals ...
We report a theoretical study on laterally-coupled pairs of vertical-cavity surface-emitting lasers ...
Photonic technologies offer great prospects for novel, ultrafast, energy-efficient, and hardwarefrie...
Electrically-controlled, tuneable and repeatable neuron-like spiking regimes are generated in an opt...
We report experimentally and in theory on the controllable propagation of spiking regimes between tw...
Biological retinal neuronal circuits are emulated using a system of connected 1550 nm Vertical-Cavit...