Imaging the electrical output activity of biological cells is important to gain an understanding of how cell networks process information. This has implications for the understanding of brain processing, such as that performed by the retina in encoding the visual scene. The performance and electrical quality of a state-of-the-art high-density 519-microelectrode array, that recorded simultaneously from hundreds of live retinal output cells (ganglion cells) is reported on. The fabrication process for these devices has been optimised and their electrical characteristics examined. The electrode arrays typically exhibit an impedance of 200 kO at 1 kHz and the RMS noise of the whole recording system is 7 mV with a signal to noise ratio of 20:1. W...
The production of high-density, large-area microelectrode arrays for neurophysiology studies require...
Background: Microelectrode array (MEA) devices are frequently used in neural circuit studies, especi...
Knowledge of neuronal cell types in the mammalian retina is important for the understanding of human...
Imaging the electrical output activity of biological cells is important to gain an understanding of ...
To understand the neural code, that the retina uses to communicate the visual scene to the brain, la...
To understand the neural code, that the retina uses to communicate the visual scene to the brain, la...
To understand how biological neural networks, such as the retina, process information, transparent m...
Neurophysiologists traditionally studied the behaviour of individual neurons by measuring their extr...
Understanding how the retina encodes the visual scene is a problem, which requires large area, high-...
Recent developments in low-power electronics and semiconductor fabrication techniques have found man...
Understanding how the retina encodes the visual scene is a problem, which requires large area, high-...
The electrophysiological observation of neurological cells has allowed much knowledge to be gathered...
We have described the development of a flexible microelectrode array with potential applications in ...
A multielectrode array system has been developed to study how the retina processes and encodes visua...
The production of high-density, large-area microelectrode arrays for neurophysiology studies require...
Background: Microelectrode array (MEA) devices are frequently used in neural circuit studies, especi...
Knowledge of neuronal cell types in the mammalian retina is important for the understanding of human...
Imaging the electrical output activity of biological cells is important to gain an understanding of ...
To understand the neural code, that the retina uses to communicate the visual scene to the brain, la...
To understand the neural code, that the retina uses to communicate the visual scene to the brain, la...
To understand how biological neural networks, such as the retina, process information, transparent m...
Neurophysiologists traditionally studied the behaviour of individual neurons by measuring their extr...
Understanding how the retina encodes the visual scene is a problem, which requires large area, high-...
Recent developments in low-power electronics and semiconductor fabrication techniques have found man...
Understanding how the retina encodes the visual scene is a problem, which requires large area, high-...
The electrophysiological observation of neurological cells has allowed much knowledge to be gathered...
We have described the development of a flexible microelectrode array with potential applications in ...
A multielectrode array system has been developed to study how the retina processes and encodes visua...
The production of high-density, large-area microelectrode arrays for neurophysiology studies require...
Background: Microelectrode array (MEA) devices are frequently used in neural circuit studies, especi...
Knowledge of neuronal cell types in the mammalian retina is important for the understanding of human...