In vitro microelectrode array (MEA) technology has evolved into a widely used and effective
methodology to study cultured neural networks. An MEA forms a unique electrical interface …

Immunosensors are promising alternatives as detection platforms for the current gold
standards methods. Electrochemical immunosensors have already proven their capability …

Microfluidics have become an enabling technology for point-of-care and personalized
diagnostics. Desirable capabilities of microfluidics-based diagnostic devices include …

In modern days, self‐assembled monolayer (SAM) functionalized surfaces represent an
interesting tool for the development of ultrasensitive and selective sensing platforms for the …

Material engineering methods have been used for many years to develop biomedical
devices for use within the body to augment, repair or replace damaged tissues ranging from …

Chemical surface modification of neuron-surface interfaces is essential for the development
of biologically active and functional neural interfaces. Different types of surface modification …

Technology has advanced to where it is possible to design and grow-with predefined
geometry and surprisingly good fidelity-living networks of neurons in culture dishes. Here we …

Microelectrode array (MEA) technology is a widely used platform for the study of in vitro
neural networks as it can either record or stimulate neurons by accessing multiple sites of …

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 …

Microelectrode arrays (MEAs) find application both in vitro and in vivo to record and
stimulate electrical activity in electrogenic cells such as neurons, cardiomyocytes, pancreatic …