Complex network topologies represent the necessary substrate to support complex brain
functions. In this work, we reviewed in vitro neuronal networks coupled to Micro-Electrode …

Dissociated cortical neurons from rat embryos cultured onto micro-electrode arrays exhibit
characteristic patterns of electrophysiological activity, ranging from isolated spikes in the first …

In vitro cultured neuronal networks coupled to microelectrode arrays (MEAs) constitute a
valuable experimental model for studying changes in the neuronal dynamics at different …

This paper presents a chip-based electrophysiological platform enabling the study of micro-
and macro-circuitry in in-vitro neuronal preparations. The approach is based on a 64× 64 …

Here we provide the state-of-the-art of bioelectronic interfacing between biological neuronal
systems and artificial components, focusing the attention on the potentiality offered by …

Despite the extensive use of in-vitro models for neuroscientific investigations and
notwithstanding the growing field of network electrophysiology, all studies on cultured cells …

Most neuronal networks, even in the absence of external stimuli, produce spontaneous
bursts of spikes separated by periods of reduced activity. The origin and functional role of …

Neurons extracted from specific areas of the Central Nervous System (CNS), such as the
hippocampus, the cortex and the spinal cord, can be cultured in vitro and coupled with a …

Functional-effective connectivity and network topology are nowadays key issues for studying
brain physiological functions and pathologies. Inferring neuronal connectivity from …

The interplay between anatomical connectivity and dynamics in neural networks plays a key
role in the functional properties of the brain and in the associated connectivity changes …