Abstract: Described herein are systems and methods for applying extremely low duty-cycle stimulation sufficient to treat chronic inflammation with progressively longer delays (off periods) from an initial stimulation. In particular, described herein are supra-threshold pulses of electrical stimulation sufficient to result in a long-lasting (e.g., >48 hours) inhibition of pro-inflammatory cytokines and/or effects of chronic inflammation; the delay between initial doses (which may be single-pulse doses) may be extended for subsequent doses, potentially dramatically enhancing battery and device longevity.

Abstract: An extravascular nerve cuff that is configured to hold a leadless, integral, implantable microstimulator. The nerve cuff may include a cuff body having a pocket or pouch for removably receiving the implantable device within. The nerve cuff can be secured around the nerve such that the electrodes of the device are stably positioned relative to the nerve. Furthermore, the nerve cuff drives the majority of the current from the stimulation device into the nerve, while shielding surrounding tissues from unwanted stimulation.

Abstract: A system for treating chronic inflammation may include an implantable microstimulator, a wearable charger, and optionally an external controller. The implantable microstimulator may be implemented as a leadless neurostimulator implantable in communication with a cervical region of a vagus nerve. The microstimulator can address several types of stimulation including regular dose delivery. The wearable charger may be worn around the subject's neck to rapidly (<10 minutes per week) charge an implanted microstimulator. The external controller may be configured as a prescription pad that controls the dosing and activity of the microstimulator.

Abstract: Methods and devices for the treatment of chronic pain by modulation of the cholinergic anti-inflammatory pathway. In particular, the methods and systems described herein may be used to enhance chronic pain therapies such as spinal cord stimulation (SCS). Thus, the present invention describes devices and methods for modulation of the cytokine pathway by stimulation of the neuronal cholinergic anti-inflammatory pathway (NCAP) to enhance the treatment of chronic pain by SCS. The use of NCAP in conjunction with SCS may potentiate the effects of SCS and/or prevent the desensitization of the patient to SCS.

Abstract: An extravascular nerve cuff that is configured to hold a leadless, integral, implantable microstimulator. The nerve cuff may include a cuff body having a pocket or pouch for removably receiving the implantable device within. The nerve cuff can be secured around the nerve such that the electrodes of the device are stably positioned relative to the nerve. Furthermore, the nerve cuff drives the majority of the current from the stimulation device into the nerve, while shielding surrounding tissues from unwanted stimulation.

Abstract: A system for treating chronic inflammation may include an implantable microstimulator, a wearable charger, and optionally an external controller. The implantable microstimulator may be implemented as a leadless neurostimulator implantable in communication with a cervical region of a vagus nerve. The microstimulator can address several types of stimulation including regular dose delivery. The wearable charger may be worn around the subject's neck to rapidly (<10 minutes per week) charge an implanted microstimulator. The external controller may be configured as a prescription pad that controls the dosing and activity of the microstimulator.

Abstract: Information can be stored in a cochlear stimulation system by determining an item of patient specific information, transferring the item of patient specific information to an implantable portion of the cochlear stimulation system, and permanently storing the item of patient specific information in the implantable portion of the cochlear stimulation system. The item of patient specific information can comprise a parameter for use in generating a stimulation current. The implantable portion of the cochlear stimulation system also can be configured to permanently store one or more items of patient specific information in an alterable fashion. Further, an item of patient specific information can be retrieved from the implantable portion of the cochlear stimulation system. Additionally, an item of non-patient specific information for use in processing a received acoustic signal can be determined and permanently stored in an external portion of the cochlear stimulation system.

Abstract: An extravascular nerve cuff that is configured to hold a leadless, integral, implantable microstimulator. The nerve cuff may include a cuff body having a pocket or pouch for removably receiving the implantable device within. The nerve cuff can be secured around the nerve such that the electrodes of the device are stably positioned relative to the nerve. Furthermore, the nerve cuff drives the majority of the current from the stimulation device into the nerve, while shielding surrounding tissues from unwanted stimulation.

Abstract: Described herein are systems and methods for applying extremely low duty-cycle stimulation sufficient to treat chronic inflammation with progressively longer delays (off periods) from an initial stimulation. In particular, described herein are supra-threshold pulses of electrical stimulation sufficient to result in a long-lasting (e.g., >48 hours) inhibition of pro-inflammatory cytokines and/or effects of chronic inflammation; the delay between initial doses (which may be single-pulse doses) may be extended for subsequent doses, potentially dramatically enhancing battery and device longevity.

Abstract: A system for treating chronic inflammation may include an implantable microstimulator, a wearable charger, and optionally an external controller. The implantable microstimulator may be implemented as a leadless neurostimulator implantable in communication with a cervical region of a vagus nerve. The microstimulator can address several types of stimulation including regular dose delivery. The wearable charger may be worn around the subject's neck to rapidly (<10 minutes per week) charge an implanted microstimulator. The external controller may be configured as a prescription pad that controls the dosing and activity of the microstimulator.

Abstract: Information can be stored in a cochlear stimulation system by determining an item of patient specific information, transferring the item of patient specific information to an implantable portion of the cochlear stimulation system, and permanently storing the item of patient specific information in the implantable portion of the cochlear stimulation system. The item of patient specific information can comprise a parameter for use in generating a stimulation current. The implantable portion of the cochlear stimulation system also can be configured to permanently store one or more items of patient specific information in an alterable fashion. Further, an item of patient specific information can be retrieved from the implantable portion of the cochlear stimulation system. Additionally, an item of non-patient specific information for use in processing a received acoustic signal can be determined and permanently stored in an external portion of the cochlear stimulation system.

Abstract: Described herein are methods and systems for applying extremely low duty-cycle stimulation sufficient to treat chronic inflammation. In particular, described herein are single supra-threshold pulses of electrical stimulation sufficient to result in a long-lasting (e.g., >4 hours, greater than 12 hours, greater than 24 hours, greater than 48 hours) inhibition of pro-inflammatory cytokines and/or effects of chronic inflammation. These methods and devices are particularly of interest in treatment of inflammatory bowel disease (IBD).

Abstract: A system for treating chronic inflammation may include an implantable microstimulator, a wearable charger, and optionally an external controller. The implantable microstimulator may be implemented as a leadless neurostimulator implantable in communication with a cervical region of a vagus nerve. The microstimulator can address several types of stimulation including regular dose delivery. The wearable charger may be worn around the subject's neck to rapidly (<10 minutes per week) charge an implanted microstimulator. The external controller may be configured as a prescription pad that controls the dosing and activity of the microstimulator.

Abstract: A system for treating chronic inflammation may include an implantable microstimulator, a wearable charger, and optionally an external controller. The implantable microstimulator may be implemented as a leadless neurostimulator implantable in communication with a cervical region of a vagus nerve. The microstimulator can address several types of stimulation including regular dose delivery. The wearable charger may be worn around the subject's neck to rapidly (<10 minutes per week) charge an implanted microstimulator. The external controller may be configured as a prescription pad that controls the dosing and activity of the microstimulator.

Abstract: Devices and methods for stimulation of the vagus nerve to modulate (e.g., reduce, suppress, etc.) bone erosion. Methods and apparatus for modulating bone erosion may modulate levels of Receptor Activator for Nuclear Factor ?B Ligand (RANKL), and/or to modulate (increase, enhance, etc.) osteoprotegerin (OPG) and/or OPG/RANKL ratio. Devices may include electrical stimulation devices that may be implanted, and may be activated to apply current for a proscribed duration, followed by a period without stimulation.

Abstract: A method and system for implementing an acoustical front end customization are disclosed. The customization is implemented to optimize the sound level for each individual cochlear implant user. A known audio signal is generated using a sound source and captured by a microphone system. The captured sound signal is sampled at one or more locations along the signal processing pathway, and a spectrum is determined for the sampled signal and the known signal. A ratio of the two spectrums is related to the undesired transformation of the sampled signal, and a digital filter is designed based on the ratio to filter out the undesired transformation.

Abstract: Described herein are methods, devices and system for selecting an optimum position of a stimulation electrode, and particularly methods, devices and systems for optimizing the position of a stimulation electrode for stimulating the inflammatory reflex and thereby inhibiting inflammation. The methods, devices and systems described herein may generally include the analysis of one or more artifact modalities arising after the application of a stimulation pulse. One or more of these artifact modalities (e.g., EMG, ECG, etc.) may be detected and used to generate a comparable indicator of the fitness of the position of the electrode relative to a target, such as a portion of the inflammatory reflex like the vagus nerve.

Abstract: A system for delivering a therapeutic agent to biological tissue includes a surgically implantable lead to be inserted into the biological tissue. The surgically implantable lead includes a preformed cavity. A modular capsule is configured to be retained within the preformed cavity. The modular capsule includes a first therapeutic agent and a second therapeutic agent, wherein the first therapeutic agent elutes rapidly into the biological tissue and the second therapeutic agent elutes more slowly into the biological tissue.

Abstract: Described herein are methods and systems for applying extremely low duty-cycle stimulation sufficient to treat chronic inflammation. In particular, described herein are single supra-threshold pulses of electrical stimulation sufficient to result in a long-lasting (e.g., >4 hours, greater than 12 hours, greater than 24 hours, greater than 48 hours) inhibition of pro-inflammatory cytokines and/or effects of chronic inflammation. These methods and devices are particularly of interest in treatment of inflammatory bowel disease (IBD).

Abstract: A system for delivering therapeutic agents to biological tissue includes a surgically implantable lead configured to be inserted into the biological tissue, the surgically implantable lead including a preformed cavity; and a modular capsule containing a therapeutic agent which includes dexamethasone base; the modular capsule being secured within the preformed cavity; the modular capsule releasing the therapeutic agent into the biological tissue. A method of delivering therapeutic agents to biological tissue includes obtaining a surgically implantable lead with a preformed cavity; obtaining a modular capsule containing a therapeutic agent comprising dexamethasone base and securing it within the preformed cavity; and inserting the surgically implantable lead into the biological tissue.