Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: Described herein are microelectrode devices to provide localized neural recording or neural stimulation to a neurological target. The device includes a plurality of electrodes disposed along the shafts of deployable flexible pins. The deployable flexible pins are enclosed within an elongated probe shaft and can be expanded from their enclosure. Additionally, a specifically manufactured outer housing can be coupled to at least a portion of the elongated probe shaft. During deployment of the flexible pins the outer housing of the microelectrode device reduces friction between the flexible pins and the probe shaft and reduces delamination of the flexible pins during deployment.

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: Described herein are microelectrode devices to provide localized neural recording or neural stimulation to a neurological target. The device includes a plurality of electrodes disposed along the shafts of deployable flexible pins. The deployable flexible pins are enclosed within an elongated probe shaft, and can be expanded from their enclosure. Additionally, a specifically manufactured outer housing can be coupled to at least a portion of the elongated probe shaft. During deployment of the flexible pins the outer housing of the microelectrode device reduces friction between the flexible pins and the probe shaft and reduces delamination of the flexible pins during deployment.

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: The present disclosure describes system and methods to configure an implantable neurostimulation device. The system can include a programmer for neurostimulation devices. The programmer can be a handheld device that programs the stimulation parameters for both new and existing patients. The programmer can configure the neurostimulation device to iteratively deliver stimulations through each of the lead's electrodes. The programmer can receive and record indications of the patient's response to each of the stimulations and generate benefit scores or side effect scores based on the patient's response. The programmer can determine the scores based on data received from patient monitors, external sensors, and clinician input. Based on the scores, the programmer can generate therapeutic windows for each of the electrodes. The programmer can combine the therapeutic windows into a therapeutic window map.

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: Described herein are microelectrode devices to provide localized neural recording or neural stimulation to a neurological target. The device includes a plurality of electrodes disposed along the shafts of deployable flexible pins. The deployable flexible pins are enclosed within an elongated probe shaft and can be expanded from their enclosure. Additionally, a specifically manufactured outer housing can be coupled to at least a portion of the elongated probe shaft. During deployment of the flexible pins the outer housing of the microelectrode device reduces friction between the flexible pins and the probe shaft and reduces delamination of the flexible pins during deployment.

Abstract: Techniques using electrical stimulation for treating an Autoimmune Disease by means of an implantable pulse generator and at least one electrode. An electrode lead is surgically implanted in a region of the insular cortex to deliver electrical stimulation. The at least one electrode lead and implantable pulse generator contain features that allow the electrical stimulation to be directed to specific volumes of the insular cortex, and ensure that non-therapeutic volumes do not receive electrical stimulation.

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: Techniques using electrical stimulation for treating an Autoimmune Disease by means of an implantable pulse generator and at least one electrode. An electrode lead is surgically implanted in a region of the insular cortex to deliver electrical stimulation. The at least one electrode lead and implantable pulse generator contain features that allow the electrical stimulation to be directed to specific volumes of the insular cortex, and ensure that non-therapeutic volumes do not receive electrical stimulation.

Abstract: Techniques using electrical stimulation for treating an Autoimmune Disease by means of an implantable pulse generator and at least one electrode. An electrode lead is surgically implanted in a region of the insular cortex to deliver electrical stimulation. The at least one electrode lead and implantable pulse generator contain features that allow the electrical stimulation to be directed to specific volumes of the insular cortex, and ensure that non-therapeutic volumes do not receive electrical stimulation.

Abstract: Techniques using electrical stimulation for treating an Autoimmune Disease by means of an implantable pulse generator and at least one electrode. An electrode lead is surgically implanted in a region of the insular cortex to deliver electrical stimulation. The at least one electrode lead and implantable pulse generator contain features that allow the electrical stimulation to be directed to specific volumes of the insular cortex, and ensure that non-therapeutic volumes do not receive electrical stimulation.

Abstract: Described herein are microelectrode devices to provide localized neural recording or neural stimulation to a neurological target. The device includes a plurality of electrodes disposed along the shafts of deployable flexible pins. The deployable flexible pins are enclosed within an elongated probe shaft, and can be expanded from their enclosure. Additionally, a specifically manufactured outer housing can be coupled to at least a portion of the elongated probe shaft. During deployment of the flexible pins the outer housing of the microelectrode device reduces friction between the flexible pins and the probe shaft and reduces delamination of the flexible pins during deployment.

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.

Abstract: The present invention concerns an actuating device for actuating a mechanical adjustment element of surgical implant, said mechanical adjustment element allowing to modify the functional shape and/or the functional size of the surgical implant when actuated, said actuating device comprising transmission means linked with one end to the mechanical adjustment element and able to move the mechanical adjustment element when said transmission means are actuated, connecting means (7) mounted on the other end of the transmission means and able to actuate the transmission means, said connecting means (7) comprising coupling means and driving means (24) comprising complementary shaped coupling means, said driving means (24) being designed to be removable and fitted into the coupling means for moving the mechanical adjustment element by driving into movement a movable part of the connecting means (7).

Abstract: The present disclosure discusses a system and methods for a deep brain stimulation lead. More particularly, the disclosure discusses a stimulation lead that includes one or more silicon based barrier layers within a MEMS film. The silicon based barrier layers can improve device reliability and durability. The silicon based barrier layers can also improve adhesion between the layers of the MEMS film.