Future technologies aiming at restoring and enhancing organs function will intimately rely on
near-physiological and energy-efficient communication between living and artificial …

Neurodegenerative disorders emerge from the failure of intricate cellular mechanisms,
which ultimately lead to the loss of vulnerable neuronal populations. Research conducted …

In the central nervous system, neurons are organized in specific neural networks with
distinct electrical patterns, input integration capacities, and intracellular dynamics. In order to …

Peripheral nerves are anisotropic and heterogeneous neural tissues. Their complex
physiology restricts realistic in vitro models, and high resolution and selective probing of …

Compartmentalized microfluidic neural cell culture platforms, which physically separate
axons from the neural soma using a series of microchannels, have been used for studying a …

Due to their small dimensions, electrophysiology on thin and intricate axonal branches in
support of understanding their role in normal and diseased brain function poses …

Objective. Recent technological advances are revealing the complex physiology of the axon
and challenging long-standing assumptions. Namely, while most action potential (AP) …

Computational modeling of signal propagation in neurons is critical to our understanding of
basic principles underlying brain organization and activity. Exploring these models is used …

Mammalian axons are specialized for transmitting action potentials to targets within the
central and peripheral nervous system. A growing body of evidence suggests that, besides …

Objective: Axonal propagation has a pivotal role in information processing in the brain.
However, there has been little experimental study due to the difficulty of isolation of axons …