Multi-electrode arrays (MEAs) are a widely used tool for recording neuronal activity both in vitro/ex vivo and in vivo experiments. In the last decade, researchers have increasingly used MEAs on rodents in vivo. To increase the availability and usability of MEAs, we have created an open-source wireless electrophysiological complex. The complex is scalable, recording the activity of neurons in the brain of rodents during their behavior. Schematic diagrams and a list of necessary components for the fabrication of a wireless electrophysiological complex, consisting of a base charging station and wireless wearable modules, are presented
Translational comparison of rodent models of neurological and neuropsychiatric diseases to human ele...
This paper presents a chip-based electrophysiological platform enabling the study of micro- and macr...
The paper describes a multi-channel neural spike recording system sensing and processing the action ...
To understand the neural basis of behavior, it is necessary to record brain activity in freely movin...
Chronically implantable microelectrode arrays enable multichannel electrophysiological recordings fr...
Intracranial neuronal recordings are essential for understanding neuronal function. They can be clas...
Conventional neural recording systems restrict behavioral experiments to a flat indoor environment c...
OBJECTIVE: Elucidation of neural activity underpinning rodent behaviour has traditionally been hampe...
Implantable microelectrode arrays enable multichannel electrophysiological recordings from the mamma...
Introduction ------------ In brain activity recordings, conventional systems require a bunch of ca...
Conventional neural recording systems restrict behavioral experiments to a flat indoor environment c...
<div><p>With the continued miniaturisation of portable embedded systems, wireless EEG recording tech...
This paper presents the design and the utilization of a wireless electro-optic platform to perform s...
Multiple extracellular microelectrodes (multi-electrode arrays, or MEAs) effectively record rapidly ...
This paper reports on the design, development, and test of a multi-channel wireless micro-electrocor...
Translational comparison of rodent models of neurological and neuropsychiatric diseases to human ele...
This paper presents a chip-based electrophysiological platform enabling the study of micro- and macr...
The paper describes a multi-channel neural spike recording system sensing and processing the action ...
To understand the neural basis of behavior, it is necessary to record brain activity in freely movin...
Chronically implantable microelectrode arrays enable multichannel electrophysiological recordings fr...
Intracranial neuronal recordings are essential for understanding neuronal function. They can be clas...
Conventional neural recording systems restrict behavioral experiments to a flat indoor environment c...
OBJECTIVE: Elucidation of neural activity underpinning rodent behaviour has traditionally been hampe...
Implantable microelectrode arrays enable multichannel electrophysiological recordings from the mamma...
Introduction ------------ In brain activity recordings, conventional systems require a bunch of ca...
Conventional neural recording systems restrict behavioral experiments to a flat indoor environment c...
<div><p>With the continued miniaturisation of portable embedded systems, wireless EEG recording tech...
This paper presents the design and the utilization of a wireless electro-optic platform to perform s...
Multiple extracellular microelectrodes (multi-electrode arrays, or MEAs) effectively record rapidly ...
This paper reports on the design, development, and test of a multi-channel wireless micro-electrocor...
Translational comparison of rodent models of neurological and neuropsychiatric diseases to human ele...
This paper presents a chip-based electrophysiological platform enabling the study of micro- and macr...
The paper describes a multi-channel neural spike recording system sensing and processing the action ...