SBIR-STTR Award

Commercialization of integrated electrode-electronics system for large scale, long-lasting electrophysiology
Award last edited on: 2/16/2024

Sponsored Program
SBIR
Awarding Agency
NIH : NINDS
Total Award Amount
$1,561,206
Award Phase
2
Solicitation Topic Code
853
Principal Investigator
Mattias Peter Karlsson

Company Information

Spikegadgets LLC

2565 3rd Street Suite 320
San Francisco, CA 94107
   (415) 317-3637
   orders@spikegadgets.com
   www.spikegadgets.com
Location: Single
Congr. District: 17
County: Santa Clara

Phase I

Contract Number: 1R44NS127692-01
Start Date: 7/1/2022    Completed: 6/30/2025
Phase I year
2022
Phase I Amount
$908,369
Examining how behavior arises from the complex interconnected activity of the brain is a cornerstone of neuroscience research. A recent technological advance in neurotechnology is enabling studies where the parallel activity of thousands of neurons can be studied in rodent brains. The Neuropixels probe, allowing 384 channels of electrophysiological data to be observed from the brain, is now a valuable tool for next-generation experiments. One goal of this project is to provide a commercial alternative to the Neuropixels probe and associated electronics that will enable feature parity in recording capability, but also be usable in scientific applications currently unaddressed by the existing Neuropixels probe. Our proposed solution is partially enabled by the makers of the Neuropixles probes-IMEC has recently made commercially available the electronics of the probes as a standalone 384 channel chip without the silicon electrodes attached. By connecting this proven technology to a new type of electrode array-flexible polyimide-based probes-we outline a strategy to offer technology with similar channel density that is 1) is resistant to breakage upon insertion, 2) enables closely-spaced implantation sites, and 3) has a significant reduction in glial scarring compared to silicon probes, enabling extremely stable recordings for months. Furthermore, by coupling this probe to powerful datalogging electronics, we will offer a way to scale channel counts to above 3000 without the need for cables between the animal and a computer.

Public Health Relevance Statement:
This project aims to provide a commercial alternative to the Neuropixels probe and associated electronics that will enable feature parity in recording capability, but also be usable in scientific applications currently unaddressed by the existing Neuropixels probe. By coupling the proposed probe to powerful datalogging electronics, we will offer a way to scale channel counts to above 3000 without the need for cables between the animal and a computer.

Project Terms:
Animals; Behavior; Brain; Brain Nervous System; Encephalon; Cicatrix; Scars; Computers; Data Collection; Electrodes; Electronics; electronic device; Electrophysiology (science); Electrophysiology; Neurophysiology / Electrophysiology; electrophysiological; Goals; Head; Laboratories; Lead; Pb element; heavy metal Pb; heavy metal lead; Macaca; Macaque; Miniaturization; Miniaturisations; Movement; body movement; Nerve Cells; Nerve Unit; Neural Cell; Neurocyte; neuronal; Neurons; parity; Common Rat Strains; Rat; Rats Mammals; Rattus; Investigators; Researchers; Research Personnel; Rodentia; Rodents Mammals; Rodent; Si element; Silicon; Technology; Leanness; Thinness; Tissues; Body Tissues; Tungsten; W element; Wolfram; Weight; Work; Measures; base; density; Procedures; Site; Chronic; Phase; Individual; non-human primate; nonhuman primate; Measurement; analog; Acquired brain injury; brain damage; brain-injured; Brain Injuries; Contracting Opportunities; Contracts; tool; instrument; mechanical; Mechanics; millimeter; Complex; Stream; Protocol; Protocols documentation; Route; Pattern; Techniques; System; Operative Procedures; Surgical; Surgical Interventions; Surgical Procedure; surgery; Operative Surgical Procedures; behavioral measure; behavioral measurement; behavior measurement; lithography; neural; relating to nervous system; Structure; Devices; Coding System; Code; Sampling; Brain region; Thickness; Thick; Preparedness; Readiness; Data; Resolution; Neurosciences Research; Small Business Innovation Research Grant; SBIR; Small Business Innovation Research; Process; Shipping; Behavioral; digital; design; designing; next generation; scale up; Consumption; Coupling; Resistance; resistant; user-friendly; implantation; neurotechnology; prototype; commercialization; flexibility; flexible; Sterilization; BRAIN initiative; Brain Research through Advancing Innovative Neurotechnologies initiative; experimental study; experiment; experimental research; miniaturized device; device miniaturization; miniaturized electronics; miniaturized technologies

Phase II

Contract Number: 5R44NS127692-02
Start Date: 7/1/2022    Completed: 6/30/2025
Phase II year
2023
Phase II Amount
$652,837
Examining how behavior arises from the complex interconnected activity of the brain is a cornerstone of neuroscience research. A recent technological advance in neurotechnology is enabling studies where the parallel activity of thousands of neurons can be studied in rodent brains. The Neuropixels probe, allowing 384 channels of electrophysiological data to be observed from the brain, is now a valuable tool for next-generation experiments. One goal of this project is to provide a commercial alternative to the Neuropixels probe and associated electronics that will enable feature parity in recording capability, but also be usable in scientific applications currently unaddressed by the existing Neuropixels probe. Our proposed solution is partially enabled by the makers of the Neuropixles probes-IMEC has recently made commercially available the electronics of the probes as a standalone 384 channel chip without the silicon electrodes attached. By connecting this proven technology to a new type of electrode array-flexible polyimide-based probes-we outline a strategy to offer technology with similar channel density that is 1) is resistant to breakage upon insertion, 2) enables closely-spaced implantation sites, and 3) has a significant reduction in glial scarring compared to silicon probes, enabling extremely stable recordings for months. Furthermore, by coupling this probe to powerful datalogging electronics, we will offer a way to scale channel counts to above 3000 without the need for cables between the animal and a computer.

Public Health Relevance Statement:
This project aims to provide a commercial alternative to the Neuropixels probe and associated electronics that will enable feature parity in recording capability, but also be usable in scientific applications currently unaddressed by the existing Neuropixels probe. By coupling the proposed probe to powerful datalogging electronics, we will offer a way to scale channel counts to above 3000 without the need for cables between the animal and a computer.

Project Terms:
Computers; Data Collection; Electrodes; Electronics; electronic; electronic device; Electrophysiology (science); Electrophysiology; Neurophysiology / Electrophysiology; electrophysiological; Goals; Head; Laboratories; Macaca; Macaque; Miniaturization; Miniaturisations; Movement; body movement; Neurons; Nerve Cells; Nerve Unit; Neural Cell; Neurocyte; neuronal; parity; Rattus; Common Rat Strains; Rat; Rats Mammals; Research Personnel; Investigators; Researchers; Rodent; Rodentia; Rodents Mammals; Silicon; Si element; Technology; Thinness; Leanness; Tissues; Body Tissues; Tungsten; W element; Wolfram; Weight; weights; Work; Measures; density; Procedures; Site; Chronic; Phase; Individual; non-human primate; nonhuman primate; Measurement; analog; Acquired brain injury; brain damage; brain-injured; Brain Injuries; Contracts; Contracting Opportunities; tool; instrument; Mechanics; mechanic; mechanical; millimeter; Complex; Stream; Protocols documentation; Protocol; Route; Pattern; Techniques; System; meter; Operative Surgical Procedures; Operative Procedures; Surgical; Surgical Interventions; Surgical Procedure; surgery; behavior measurement; behavioral measure; behavioral measurement; lithography; neural; Structure; Devices; Code; Coding System; Sampling; Brain region; Thickness; Thick; Preparedness; Readiness; Data; Resolution; resolutions; Neurosciences Research; Small Business Innovation Research Grant; SBIR; Small Business Innovation Research; Process; Shipping; Behavioral; digital; data integration; designing; design; next generation; scale up; Coupling; resistant; Resistance; Implant; user-friendly; implantation; usability; neurotechnology; prototype; commercialization; flexible; flexibility; Sterilization; Brain Research through Advancing Innovative Neurotechnologies initiative; BRAIN initiative; experiment; experimental research; experiments; experimental study; miniaturized device; device miniaturization; miniaturized electronics; miniaturized technologies; manufacture; fabrication; power consumption; Animals; Behavior; Brain; Brain Nervous System; Encephalon; Cicatrix; Scars