Abstract: The disclosure provides an apparatus and methods for performing a piotomy on a mammal comprising: performing a craniotomy to remove the skull and expose dura mater; removing the dura mater and arachnoid mater to expose subarachnoid space; and performing a piotomy using a laser to create a hole and expose the cerebral cortex.
Abstract: The disclosure provides an apparatus and methods for performing a piotomy on a mammal comprising: performing a craniotomy to remove the skull and expose dura mater; removing the dura mater and arachnoid mater to expose subarachnoid space; and performing a piotomy using a laser to create a hole and expose the cerebral cortex.
Abstract: The disclosure provides a method for fabricating a cantilever section in a structure, which includes providing a structure comprising a substrate, a compliant layer and a sacrificial layer therebetween; cutting part-way through the substrate to create an at least one linear partial cut; releasing the sacrificial layer from the structure; and breaking the substrate along the at least one linear partial cut to generate a cantilever section in a substrate.
Type:
Application
Filed:
May 31, 2022
Publication date:
November 30, 2023
Applicant:
Neuralink Corp.
Inventors:
Yu Niu Huang, Peter J. Gilgunn, Dominic A. Herincx, Zachary M. Tedoff
Abstract: The embodiments disclosed herein relate to chips used to receive and process neurological events in brain matter as captured by electrodes. Such chips may include an array of amplifiers and electrodes to receive neurological voltage signals, the chip including a config circuitry in communication with the array of amplifiers and a controller, the config circuitry configured to receive program instructions and instruct the amplifiers of a voltage threshold and instruct the controller to pass on signals from only specific rows and columns of amplifiers, the controller in communication with the array of amplifiers, the controller configured to packetize the neurological voltage signals into data packets.
Type:
Application
Filed:
March 14, 2019
Publication date:
September 19, 2019
Applicant:
Neuralink Corp.
Inventors:
Dongjin Seo, Paul A. Merolla, Manuel Alejandro Monge Osorio
Abstract: The embodiments disclosed herein relate to chips used to receive and process neurological events in brain matter as captured by electrodes. Such chips may include an array of amplifiers and electrodes to receive neurological voltage signals, the chip including a config circuitry in communication with the array of amplifiers and a controller, the config circuitry configured to receive program instructions and instruct the amplifiers of a voltage threshold and instruct the controller to pass on signals from only specific rows and columns of amplifiers, the controller in communication with the array of amplifiers, the controller configured to packetize the neurological voltage signals into data packets.
Type:
Application
Filed:
September 29, 2020
Publication date:
January 14, 2021
Applicant:
Neuralink Corp.
Inventors:
Dongjin Seo, Paul A. Merolla, Manuel Alejandro Monge Osorio
Abstract: The disclosure provides a soak tester apparatus for testing an implantable enclosure having an impedance engine, a multiplexer and a removably attached cartridge, which cartridge has a plurality of threads, comprising a Faraday cage housing; a receptacle disposed within the Faraday cage housing, wherein the receptacle is configured to host an implantable enclosure having an impedance engine, a multiplexer and a removably attached cartridge, which cartridge has a plurality of threads; and a pigtail disposed within the Faraday cage housing having a charging coil configured to power the implantable enclosure.
Type:
Application
Filed:
November 29, 2021
Publication date:
June 1, 2023
Applicant:
Neuralink Corp.
Inventors:
John W.F. To, Srinivasan Ramakrishnan, Julian Borrey, Russell Ohnemus, Joshua S. Hess, Robin E. Young, Sonal Pinto
Abstract: Systems and methods confirm a wireless pairing between an implanted device, such as a neural implant, and an external device, such as a computer or mobile device. The implanted device receives signals from the external device, which may be a varying magnetic field or a set of neural signals. The implanted device decodes the signals to identify a pairing code. Based on determining the pairing code, the implanted device may use this to perform a method of pairing which is not vulnerable to man-in-the-middle attacks. Alternatively, the implanted device can securely provide a pairing code to a helper device which can surface the pairing code to the user for confirmation.
Abstract: The embodiments disclosed herein relate to chips used to receive and process neurological events in brain matter as captured by electrodes. Such chips may include an array of amplifiers and electrodes to receive neurological voltage signals, the chip including a config circuitry in communication with the array of amplifiers and a controller, the config circuitry configured to receive program instructions and instruct the amplifiers of a voltage threshold and instruct the controller to pass on signals from only specific rows and columns of amplifiers, the controller in communication with the array of amplifiers, the controller configured to packetize the neurological voltage signals into data packets.
Type:
Grant
Filed:
March 14, 2019
Date of Patent:
November 3, 2020
Assignee:
NEURALINK CORP.
Inventors:
Dongjin Seo, Paul A. Merolla, Manuel Alejandro Monge Osorio
Abstract: An implantable device and method of manufacture include a substantially hermetic polychlorotrifluoroethylene (PCTFE) enclosure with closely-spaced wires extending through a slit in the enclosure. A method for manufacturing the implantable device includes cutting a slit in a piece of polymer and extending a plurality of insulated wires through the slit. Each of the insulated wires are parallel to a neighboring wire of the insulated wires. The piece of polymer is thermally bonded around each wire of the plurality of insulated wires such that the piece of polymer is sealed around insulation of each wire with a portion of each wire extending through the piece of polymer.
Abstract: The embodiments disclosed herein relate to chips used to receive and process neurological events in brain matter as captured by electrodes. Such chips may include an array of amplifiers and electrodes to receive neurological voltage signals, the chip including a config circuitry in communication with the array of amplifiers and a controller, the config circuitry configured to receive program instructions and instruct the amplifiers of a voltage threshold and instruct the controller to pass on signals from only specific rows and columns of amplifiers, the controller in communication with the array of amplifiers, the controller configured to packetize the neurological voltage signals into data packets.
Type:
Grant
Filed:
September 29, 2020
Date of Patent:
January 4, 2022
Assignee:
NEURALINK CORP.
Inventors:
Dongjin Seo, Paul A. Merolla, Manuel Alejandro Monge Osorio
Abstract: The embodiments disclosed herein relate to chips used to receive and process neurological events in brain matter as captured by electrodes. Such chips may include an array of amplifiers and electrodes to receive neurological voltage signals, the chip including a config circuitry in communication with the array of amplifiers and a controller, the config circuitry configured to receive program instructions and instruct the amplifiers of a voltage threshold and instruct the controller to pass on signals from only specific rows and columns of amplifiers, the controller in communication with the array of amplifiers, the controller configured to packetize the neurological voltage signals into data packets.
Type:
Grant
Filed:
December 10, 2021
Date of Patent:
May 30, 2023
Assignee:
NEURALINK CORP.
Inventors:
Dongjin Seo, Paul A. Merolla, Manuel Alejandro Monge Osorio
Abstract: The embodiments disclosed herein relate to chips used to receive and process neurological events in brain matter as captured by electrodes. Such chips may include an array of amplifiers and electrodes to receive neurological voltage signals, the chip including a config circuitry in communication with the array of amplifiers and a controller, the config circuitry configured to receive program instructions and instruct the amplifiers of a voltage threshold and instruct the controller to pass on signals from only specific rows and columns of amplifiers, the controller in communication with the array of amplifiers, the controller configured to packetize the neurological voltage signals into data packets.
Type:
Application
Filed:
December 10, 2021
Publication date:
March 31, 2022
Applicant:
Neuralink Corp.
Inventors:
Dongjin Seo, Paul A. Merolla, Manuel Alejandro Monge Osorio
Abstract: A coil formed from a flexible polymer substrate that is printed with metal traces is disclosed in which the flexible substrate has notches that align each loop as the substrate is wound into a ring. The notches are precisely spaced so that the diameter of each loop is well controlled. As the substrate is wound, adhesive is applied along its length to fill gaps between each loop's layer. Ideally, the adhesive has a similar dielectric constant as the polymer substrate. The resulting coil has loops of metal traces separated by precise a thickness of dielectric. The precision in spacing between metal layers and dielectric allows the coil to be designed for self-resonance.
Abstract: A system and method for implanting devices into biological tissue (e.g., brain tissue). The system may include a biocompatible probe, an integrated circuit (IC) chip tethered to the probe, a cartridge comprising a temporary attachment surface by which the probe is removably coupled to the cartridge, a needle to reversibly engage with the probe, a robotic arm to hold the needle, and a microprocessor controller. The microprocessor controller may control the robotic arm and the needle to remove the probe from the temporary attachment surface using the needle, pierce the biological tissue with the needle and the probe, withdraw the needle while leaving the probe within the biological tissue, and detach the IC chip from the cartridge, leaving the IC chip with the biological tissue.
Abstract: A coil formed from a flexible polymer substrate that is printed with metal traces is disclosed in which the flexible substrate has notches that align each loop as the substrate is wound into a ring. The notches are precisely spaced so that the diameter of each loop is well controlled. As the substrate is wound, adhesive is applied along its length to fill gaps between each loop's layer. Ideally, the adhesive has a similar dielectric constant as the polymer substrate. The resulting coil has loops of metal traces separated by precise a thickness of dielectric. The precision in spacing between metal layers and dielectric allows the coil to be designed for self-resonance.
Abstract: The disclosure provides a soak tester apparatus for testing an implantable enclosure having an impedance engine, a multiplexer and a removably attached cartridge, which cartridge has a plurality of threads, comprising a Faraday cage housing; a receptacle disposed within the Faraday cage housing, wherein the receptacle is configured to host an implantable enclosure having an impedance engine, a multiplexer and a removably attached cartridge, which cartridge has a plurality of threads; and a pigtail disposed within the Faraday cage housing having a charging coil configured to power the implantable enclosure.
Type:
Grant
Filed:
November 29, 2021
Date of Patent:
May 30, 2023
Assignee:
NEURALINK CORP.
Inventors:
John W. F. To, Srinivasan Ramakrishnan, Julian Borrey, Russell Ohnemus, Joshua S. Hess, Robin E. Young, Sonal Pinto
Abstract: Techniques for compressing neural signals are disclosed herein. The neural signal compression techniques can include lossless compression, lossy compression, binned spike compression, and spike-band power compression. Lossless compression can compress neural signals using a difference predictor to encode compressed neural signals via binary and unary coding. Lossy compression can compress neural signals using quantized wavelet transforms to generate an encoded bit-stream of compressed neural signals. Binned spike and spike-band power compression can leverage the sparse nature of neural signals to threshold the neural signals for generating an appended bit-stream of compressed neural signals.
Type:
Application
Filed:
March 9, 2022
Publication date:
September 14, 2023
Applicant:
Neuralink Corp.
Inventors:
Kevin Dewald, Sonal Pinto, Avinash Jois, Aram Moghaddassi
Abstract: Disclosed is a craniotomy milling system, which includes a computer numerical milling machine having a spindle configured to be positioned relative to a craniotomy location of a cranium of a patient and an end mill. The craniotomy milling system includes a controller for controlling the feed rate of the end mill. The craniotomy milling system includes an impedance measurement system and an axial force sensor. The craniotomy milling system includes a processor electrically coupled with a controller, the impedance measurement system, and the axial force sensor. The processor is configured to send a signal to the controller to change the feed rate of the end mill in response to a change in impedance or a change in axial force.
Type:
Application
Filed:
November 29, 2021
Publication date:
June 1, 2023
Applicant:
Neuralink Corp.
Inventors:
John M. Harris, Dalton James Colen, Graydon J. Wilson, Jamie N. Delton
Abstract: Systems and methods are disclosed for a lead, needle, and cannula that are sized and shaped for ease of needle threading and positioning, e.g., for implanting the lead into biological tissue. The lead has an opening at one end surrounded by an expanded region. The needle has a ledge in a side of the needle. The cannula has an exit gate with an aperture sized to accept the expanded region of the lead. A portion of the needle is held inside the cannula and can extend or retract therein. When the expanded region of the lead is threaded through the exit gate aperture, the needle is configured to extend through the opening of the lead and catch the lead on the ledge. The needle is further configured to extend past the exit gate of the cannula while pulling the lead through the slot and free of the aperture.
Abstract: Methods involving interpreting signals from a brain-machine interface (BMI) are described, as well as methods involving adjusting an implanted or wearable BMI device. The method includes receiving neural signals from a brain of a subject into a BMI decoder. The method includes determining an activity change of the subject based on a sensor. The method includes routing the neural signals from a first model to a second model in the BMI decoder based on the determined activity change. The method includes translating, using the second model in the BMI decoder, the neural signals into a command. The method includes sending the command to a controller.
Type:
Grant
Filed:
December 27, 2021
Date of Patent:
April 18, 2023
Assignee:
NEURALINK CORP.
Inventors:
Nir Even Chen, Paul A. Merolla, Joseph E. O'Doherty