We present a high electrode density and high channel count CMOS (complementary metal-oxide-semiconductor) active neural probe containing 1344 neuron sized recording pixels (20 µm × 20 µm) and 12 reference pixels (20 µm × 80 µm), densely packed on a 50 µm thick, 100 µm wide, and 8 mm long shank. The active electrodes or pixels consist of dedicated in-situ circuits for signal source amplification, which are directly located under each electrode. The probe supports the simultaneous recording of all 1356 electrodes with sufficient signal to noise ratio for typical neuroscience applications. For enhanced performance, further noise reduction can be achieved while using half of the electrodes (678). Both of these numbers considerably surpass the s...
In vivo recording of neural action-potential and local-field-potential signals requires the use of h...
In vivo recording of neural action-potential and local-field-potential signals requires the use of h...
Large-scale in vivo electrophysiology requires tools that enable simultaneous recording of multiple ...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high density CMOS neural probe with active electrodes (pixels), consisting of dedicated...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high density CMOS neural probe with active electrodes (pixels), consisting of dedicate...
We present a high density CMOS neural probe with active electrodes (pixels), consisting of dedicate...
Neural probes have become the most important tool for enabling neuroscientists to place microelectro...
Neural probes have become the most important tool for enabling neuroscientists to place microelectro...
In vivo recording of neural action-potential (AP) and local-field-potential (LFP) signals requires t...
In vivo recording of neural action-potential and local-field-potential signals requires the use of h...
In vivo recording of neural action-potential and local-field-potential signals requires the use of h...
In vivo recording of neural action-potential and local-field-potential signals requires the use of h...
Large-scale in vivo electrophysiology requires tools that enable simultaneous recording of multiple ...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high density CMOS neural probe with active electrodes (pixels), consisting of dedicated...
We present a high electrode density and high channel count CMOS (complementary metal-oxide-semicondu...
We present a high density CMOS neural probe with active electrodes (pixels), consisting of dedicate...
We present a high density CMOS neural probe with active electrodes (pixels), consisting of dedicate...
Neural probes have become the most important tool for enabling neuroscientists to place microelectro...
Neural probes have become the most important tool for enabling neuroscientists to place microelectro...
In vivo recording of neural action-potential (AP) and local-field-potential (LFP) signals requires t...
In vivo recording of neural action-potential and local-field-potential signals requires the use of h...
In vivo recording of neural action-potential and local-field-potential signals requires the use of h...
In vivo recording of neural action-potential and local-field-potential signals requires the use of h...
Large-scale in vivo electrophysiology requires tools that enable simultaneous recording of multiple ...