SiNAPS by Corticale

SiNAPS by Corticale

The most advanced active neural probes technology for brain research in neuroscience

SiNAPS by Corticale

The most advanced active neural probes technology for brain research in neuroscience

SiNAPS probe is the new and most advanced tool for electrophysiological experiment for neuroscientist. It applies to any experimental need, in a wide range of animal models and is compatible with most of the standard hardware and data analysis tool.

Making easy the brain complexity

SiNAPS probe is the new and most advanced tool for electrophysiological experiment for neuroscientist. It applies to any experimental need, in a wide range of animal models and is compatible with most of the standard hardware and data analysis tool.

Full band recording (Local Field and Action Potentials)

Full band recording (Local Field and Action Potentials)

20 kHz sampling frequency from each channel

20 kHz sampling frequency from each channel

<8µV RMS noise amplifiers in AP band

<8µV RMS noise amplifiers in AP band

14 x 14 µm Ti/Pt electrode interface

14 x 14 µm Ti/Pt electrode interface

30 µm electrode pitch

30 µm electrode pitch

Minimal wiring

Minimal wiring

Internal on-probe reference

Internal on-probe reference

Whole array readout: no need for channel pre-selection

Whole array readout: no need for channel pre-selection

Corticale provides 5 different SiNAPS probe layouts ranging from 256 to 1024 simultaneously recording electrodes arranged in high-density array on one or multiple shank. Each electrode has its own independent low-noise amplifier making useless any additional external amplification electronic. Thanks to its on-shank time division multiplexing circuitry SiNAPS probes requires a very low number of interconnecting wires (in a ratio of 1 every 32 channels) to transmit the neural data to the digital acquisition system, thus enabling extremely compact and lightweight packaging, ideal for small animals.

High-density neural data collected from SiNAPS probes enable neuroscientist in mapping, at the single cell, wide brain circuits with an unprecedented spatiotemporal resolution, without the need of complicated procedures and expensive tools. This advancing not only the brain understanding but also reducing the number of subjects needed to achieve statistically significant results compared with standard low-channel count silicon probes.

Recording from 8-shanks 1024 channels SiNAPS probe of mouse hippocampus
(fullband traces and spike raster plot)

Capture the brain dynamics

The complex mechanisms that regulate brain function often arise from extensive neural networks that synergistically generate neural dynamics. These dynamics gain true meaning only when the collective activity of these circuits can be accurately captured.​
This is why we have designed and developed high-density neural probes that, compared to any competing solution, offer neuroscientists community with the most advanced electrophysiological tool capable of recording the bioelectrical activity of entire neural circuits with unmatched spatiotemporal resolution.

Multishanks recording
from​ 16 channels

Multishanks recoding
from​ 384 channels

SiNAPS
Multishanks recording
from​ 1024 channels

One technology, multiple layouts

Corticale probes are all based on SiNAPS technology whose allows for the realization of active CMOS-based devices capable of recording simultaneously from all the available electrodes present on the probe, by guarantee the following specifications:

One technology, multiple layouts

Corticale probes are all based on SiNAPS technology whose allows for the realization of active CMOS-based devices capable of recording simultaneously from all the available electrodes present on the probe, by guarantee the following specifications:

Model 1

Model 1

Channels: 256
Shanks: 1
Shanks Size (WxL): 88x5900
Active Area: 3865
Shanks Spacing: -
Array Layout: 2 columns

Model 1

Model 2

Channels: 1024
Shanks: 4
Shanks Size (WxL): 88x5900
Active Area: 3865
Shanks Spacing: 560
Array Layout: 2 columns

Model 2

Model 3

Channels: 512
Shanks: 1
Shanks Size (WxL): 88x9700
Active Area: 7750
Shanks Spacing: -
Array Layout: 2 columns

Model 3

Model 4

Channels: 1024
Shanks: 8
Shanks Size (WxL): 88x5050
Active Area: 1925
Shanks Spacing: 300
Array Layout: 2 Columns

Model 4

Model 5

Channels: 512
Shanks: 1
Shanks Size (WxL): 88x6900
Active Area: 3870
Shanks Spacing: -
Array Layout: 4 Columns

Model 5

Probe Model

Channels

Shanks Numb.

Shank Size (WxL)

Active Area

Shank Spacing

Array Layout

Model 1

256

1

88 x 5900

3865

-

2 columns

Model 2

1024

4

88 x 5900

3865

560

2 columns

Model 3

512

1

88 x 9700

7750

-

2 columns

Model 4

1024

8

88 x 5050

1925

300

2 columns

Model 5

512

1

155 x 6900

3870

-

4 columns

Dimensions are expressed in micrometers

Our SiNAPS probes are compatible and provided by leading neurotech companies

Our SiNAPS probes are compatible and provided by leading neurotech companies

SiNAPS probes data are compatible with most of the standard data analysis tools such as Kilosort, Phy and SpikeInterface.

Voices from the field

" Understanding neural circuits is a problem of both depth and breadth, the SiNAPS probe provides true 1024 channels of simultaneous recording. With its configurable 4 or 8 shanks, it can record from a large volume of brain structures, such as the neocortex, hippocampus, striatum, and thalamus, allowing monitoring of both mesoscopic local field potentials and single neurons at an unprecedented scale. ”


-György Buzsáki, M.D., Ph.D., Biggs Professor of Neural Sciences at the NYU Neuroscience Institute, Langone Medical Center.

“These amazing probes give an unprecedented insight into cortical function. We have been able to record from many thousands of cells in awake behaving monkey, throughout the cortical depth and into the bank of the central sulcus. They are easy to use, and mark a considerable refinement because experimental sessions can be shortened whilst actually gathering more data. I especially appreciate the ability to record from all contacts at once, meaning we don’t have to make critical decisions on the fly about which channels to choose.”


-Stuart Baker, Professor of Movement Neuroscience

Faculty of Medical Sciences, Newcastle University

Many laboratories around the world have already chosen to use our technology to advance their research

SiNAPS probe is the new and most advanced tool for electrophysiological experiment for neuroscientist. It applies to any experimental need, in a wide range of animal models and is compatible with most of the standard hardware and data analysis tool.

Making easy the brain complexity

Full band recording (Local Field and Action Potentials)

20 kHz sampling frequency from each channel

<8µV RMS noise amplifiers in AP band

14 x 14 µm Ti/Pt electrode interface

30 µm electrode pitch

Minimal wiring

Internal on-probe reference

Whole array readout: no need for channel pre-selection

Corticale provides 5 different SiNAPS probe layouts ranging from 256 to 1024 simultaneously recording electrodes arranged in high-density array on one or multiple shank. Each electrode has its own independent low-noise amplifier making useless any additional external amplification electronic. Thanks to its on-shank time division multiplexing circuitry SiNAPS probes requires a very low number of interconnecting wires (in a ratio of 1 every 32 channels) to transmit the neural data to the digital acquisition system, thus enabling extremely compact and lightweight packaging, ideal for small animals.

High-density neural data collected from SiNAPS probes enable neuroscientist in mapping, at the single cell, wide brain circuits with an unprecedented spatiotemporal resolution, without the need of complicated procedures and expensive tools. This advancing not only the brain understanding but also reducing the number of subjects needed to achieve statistically significant results compared with standard low-channel count silicon probes.

Recording from 8-shanks 1024 channels SiNAPS probe of mouse hippocampus
(fullband traces and spike raster plot)

Capture the brain dynamics

The complex mechanisms that regulate brain function often arise from extensive neural networks that synergistically generate neural dynamics. These dynamics gain true meaning only when the collective activity of these circuits can be accurately captured.​
This is why we have designed and developed high-density neural probes that, compared to any competing solution, offer neuroscientists community with the most advanced electrophysiological tool capable of recording the bioelectrical activity of entire neural circuits with unmatched spatiotemporal resolution.

Multishanks recording
from​ 16 channels

Multishanks recoding
from​ 384 channels

SiNAPS
Multishanks recording
from​ 1024 channels

One technology, multiple layouts

Corticale probes are all based on SiNAPS technology whose allows for the realization of active CMOS-based devices capable of recording simultaneously from all the available electrodes present on the probe, by guarantee the following specifications:

Model 1

Model 1

Model 2

Model 2

Model 3

Model 3

Model 4

Model 4

Model 5

Model 5

Probe Model

Channels

Shanks Numb.

Shank Size (WxL)

Active Area

Shank Spacing

Array Layout

Model 1

256

1

88 x 5900

3865

-

2 columns

Model 2

1024

4

88 x 5900

3865

560

2 columns

Model 3

512

1

88 x 9700

7750

-

2 columns

Model 4

1024

8

88 x 5050

1925

300

2 columns

Model 5

512

1

155 x 6900

3870

-

4 columns

Dimensions are expressed in micrometers

Our SiNAPS probes are compatible and provided by leading neurotech companies

SiNAPS probes data are compatible with most of the standard data analysis tools such as Kilosort, Phy and SpikeInterface.

Voices from the field

" Understanding neural circuits is a problem of both depth and breadth, the SiNAPS probe provides true 1024 channels of simultaneous recording. With its configurable 4 or 8 shanks, it can record from a large volume of brain structures, such as the neocortex, hippocampus, striatum, and thalamus, allowing monitoring of both mesoscopic local field potentials and single neurons at an unprecedented scale. ”


-György Buzsáki, M.D., Ph.D., Biggs Professor of Neural Sciences at the NYU Neuroscience Institute, Langone Medical Center.

“These amazing probes give an unprecedented insight into cortical function. We have been able to record from many thousands of cells in awake behaving monkey, throughout the cortical depth and into the bank of the central sulcus. They are easy to use, and mark a considerable refinement because experimental sessions can be shortened whilst actually gathering more data. I especially appreciate the ability to record from all contacts at once, meaning we don’t have to make critical decisions on the fly about which channels to choose.”


-Stuart Baker, Professor of Movement Neuroscience

Faculty of Medical Sciences, Newcastle University

Many laboratories around the world have already chosen to use our technology to advance their research

Progetto cofinanziato con risorse del PR FESR Liguria 2021/2027

Programma Regionale PR FESR Liguria 2021/2027 – Obiettivo Specifico 1.2. “Permettere ai cittadini, alle impese, alle organizzazioni di ricerca e alle autorità pubbliche di cogliere i vantaggi della digitalizzazione” – Azione 1.2.3 “Sostenere l’introduzione di pratiche e tecnologie digitali nelle imprese” – Bando “Supporto allo sviluppo di progetti di digitalizzazione nelle micro, piccole e medie imprese” – Anno 2024.

Via Pietro Chiesa 9

16149 Genova, Italy

Phone: +39 010 8595211

Email: info@corticale.com

Privacy Policy

Cookie Policy

Grants & Incentives

Quality Policy

Corticale SRL | Capitale Sociale: € 177000 | C.F. 02728520996 P.IVA 02728520996 | PEC: info@pec.corticale.com
Registered Office: Via Pietro Chiesa 9 - 16149 Genova (GE) | Branch: Via Porta Tenaglia 1 Milano (MI)


Progetto cofinanziato con risorse del PR FESR Liguria 2021/2027

Programma Regionale PR FESR Liguria 2021/2027 – Obiettivo Specifico 1.2. “Permettere ai cittadini, alle impese, alle organizzazioni di ricerca e alle autorità pubbliche di cogliere i vantaggi della digitalizzazione” – Azione 1.2.3 “Sostenere l’introduzione di pratiche e tecnologie digitali nelle imprese” – Bando “Supporto allo sviluppo di progetti di digitalizzazione nelle micro, piccole e medie imprese” – Anno 2024.

Via Pietro Chiesa 9

16149 Genova, Italy

Phone: +39 010 8595211

Email: info@corticale.com

Privacy Policy

Cookie Policy

Grants & Incentives

Quality Policy

Corticale SRL | Capitale Sociale: € 177000 | C.F. 02728520996 P.IVA 02728520996 | PEC: info@pec.corticale.com
Registered Office: Via Pietro Chiesa 9 - 16149 Genova (GE) | Branch: Via Porta Tenaglia 1 Milano (MI)


Progetto cofinanziato con risorse del PR FESR Liguria 2021/2027

Programma Regionale PR FESR Liguria 2021/2027 – Obiettivo Specifico 1.2. “Permettere ai cittadini, alle impese, alle organizzazioni di ricerca e alle autorità pubbliche di cogliere i vantaggi della digitalizzazione” – Azione 1.2.3 “Sostenere l’introduzione di pratiche e tecnologie digitali nelle imprese” – Bando “Supporto allo sviluppo di progetti di digitalizzazione nelle micro, piccole e medie imprese” – Anno 2024.

Via Pietro Chiesa 9

16149 Genova, Italy

Phone: +39 010 8595211

Email: info@corticale.com

Privacy Policy

Cookie Policy

Grants & Incentives

Quality Policy

Corticale SRL | Capitale Sociale: € 177000 | C.F. 02728520996 P.IVA 02728520996

Registered Office: Via Pietro Chiesa 9 - 16149 Genova (GE) Branch: Via Porta Tenaglia 1 Milano (MI)

PEC: info@pec.corticale.com


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