621 results about "Cranial nerves" patented technology

System and method for neuromodulation therapy of neurological and neuropsychiatric disorders comprises an implantable lead and pulse generator system for providing the appropriate electrical stimulation to a cranial nerve such as the vagus nerve. The implantable pulse generator having prepackaged/predetermined programs stored in the memory of the pulse generator, and means for accessing these with an external magnet. The pulse generator adapted to selectively activate predetermined programs with the external magnet, thereby eliminating the need for an external programmer. The elimination of the external programmer resulting in significant cost reduction with essentially the same functionality.

A method for stimulating a portion of a vagus nerve of a patient to treat a pulmonary disorder is provided. At least one electrode is coupled to at least one portion of a left vagus nerve and/or a right vagus nerve of the patient. An electrical signal is applied to the portion of the vagus nerve using the electrode to treat the pulmonary disorder. The electrical signal may perform a blocking of an intrinsic neural activity on said at least one portion of the left vagus nerve and said right vagus nerve.

Methods and systems of treating a patient having an eating disorder involving coupling at least one electrode to at least one cranial nerve of the patient, implanting a sensory stimulation device in the patient, applying a sensory stimulus to the patient using the sensory stimulation device, detecting the patient's response to the sensory stimulus, and applying an electrical signal to the cranial nerve using the electrode after detecting the response to treat the eating disorder. The methods and systems are effective in treating bulimia.

A method and apparatus for treating patients suffering from involuntary movement disorders (including epilepsy) by stimulating a selected cranial nerve of the patient with an electrical signal applied to induce a signal at brain by applying an electrical signal at the nerve to ameliorate the disorder and by applying a neural conduction block at the nerve selected to at least partially block nerve impulses on said nerve at a blocking site and reduce adverse effects of said signal on an organ.

A method and apparatus for treating persons suffering from an eating disorder includes direct or indirect stimulation of selected areas of the brain associated with a symptom of the eating disorder. The stimulation regimen is programmable to enable physician optimization of stimulation signal parameters to ameliorate at least one symptom of bulimia or another eating disorder. Certain embodiments employ deep brain stimulation and/or sensing together with cranial nerve stimulation and/or sensing.

A method and system for providing electrical pulses for neuromodulating a cranial nerve of a patient utilizing an implantable stimulator. The implantable stimulator comprising a pulse generator module and a stimulus receiver module for coupling with an external stimulator. Control circuitry ensures selective operation of one pulse generator module. The external stimulator comprises a telemetry module for remotely activating (or de-activating) programs over the internet, to arrive at the optimal program for each patient. Once the optimal “dose” is titrated using the external stimulator, the implanted pulse generator can then be programmed to such parameters. The external stimulator in conjunction with the implanted stimulus receiver can override the implanted pulse generator, to provide extra dose of therapy or to conserve the implanted battery. The external stimulator is also networked to other computers. The external programmer may also comprise a global positioning system (GPS) module for determining patient location.

Disclosed is a method of treating a patient having a vocal cord disorder, comprising coupling at least one electrode to at least one cranial nerve of the patient, wherein the cranial nerve is selected from the group consisting of a vagus nerve, a trigeminal nerve, and a glossopharyngeal nerve, and applying an electrical signal to the cranial nerve using the electrode to treat the vocal cord disorder. The electrode may be coupled to a branch of the vagus nerve selected from the group consisting of a recurrent laryngeal nerve, the external branch of a superior laryngeal nerve, the internal branch of a superior laryngeal nerve, and a pharyngeal plexus. Also disclosed is a computer readable program storage device encoded with instructions that, when executed by a computer, perform the method, and a medical device and a vocal cord disorder treatment system that may be used in performance of the method.

We disclose a method of treating a patient having a hearing disorder, including coupling at least one electrode to at least one vagus nerve of the patient and applying an electrical signal to the vagus nerve using the electrode to treat the hearing disorder. We also disclose a computer readable program storage device encoded with instructions that, when executed by a computer, perform the method, and a medical device and a hearing disorder treatment system that may be used in performance of the method.

A method is disclosed for electrically stimulating a cranial nerve, especially a vagus nerve, to treat or alleviate angina pectoris. Pain is lessened or prevented by application of predetermined therapeutic electrical signal to a selected location on the cranial nerve of a patient using an implanted neurostimulating device. Such method employs selective application of electrical signals to a predetermined location on the nerve to alter the activity of the nerve and cause dilation of a coronary artery in the patient, which in turn provides complete or partial relief of chest pain or deters the onset of such pain.

An implantable medical device is provided for the suppression or prevention of pain, movement disorders, epilepsy, cerebrovascular diseases, autoimmune diseases, sleep disorders, autonomic disorders, abnormal metabolic states, disorders of the muscular system, and neuropsychiatric disorders in a patient. The implantable medical device can be a neurostimulator configured to be implanted on or near a cranial nerve to treat headache or other neurological disorders. One aspect of the implantable medical device is that it includes an electronics enclosure, a substrate integral to the electronics enclosure, and a monolithic feed-through integral to the electronics enclosure and the substrate. In some embodiments, the implantable medical device can include a fixation apparatus for attaching the device to a patient.

A system and/or method for treating auditory dysfunction by somatosensory system stimulation. The system and/or method comprises a probe and a device to stimulate the probe. The probe has a stimulation portion implanted in communication with a predetermined peripheral nerve site. The stimulation portion of the probe may be implanted in contact with a peripheral nerve dorsal root ganglia, cranial nerve or dermatome area, for example C2 dermatome area or a trigeminal dermatome area. The stimulation portion may be a laminotomy, paddle, surgical, or multiple electrode lead. The device to stimulate the probe may be implanted subcutaneously or transcutaneously.

A device for cranial nerve stimulation of an individual is disclosed, having a signal driver unit for producing a current; an intraoral stimulation board having at least one primary electrode, and at least one secondary electrode positioned on the individual for communicating a current through the individual, wherein current can flow between the intraoral stimulation board and the secondary electrode. The device may be used to treat a number of ailments. In one embodiment, the device provides input representing two planes of movement, or is used as a gaming controller. A method of using an electrical stimulation system is also disclosed, comprising the steps of: a) positioning the intraoral stimulation board within the individual's mouth; b) connecting the secondary electrode to the individual; c) operating the signal driver unit for a predetermined time to provide a current flow between the intraoral stimulation board and the secondary electrode.

A method, system, and an apparatus for stimulating a cranial nerve of a patient to treat a disorder, such as a metabolic or an endocrine disorder associated with the thyroid gland with an implantable medical device are provided. The method comprises coupling an electrode to the cranial nerve selected from the group consisting of a vagus nerve, a trigeminal nerve, and a glossopharyngeal nerve. The method further includes generating an electrical signal to treat a disorder associated with the thyroid gland. The electrical signal may be applied to the cranial nerve using the electrode to provide electrical nerve stimulation therapy to the patient. For treating a patient with a metabolic or an endocrine disorder associated with the thyroid gland, a neurostimulator may be adapted to apply an electrical stimulus to the vagus nerve and/or a branch of the vagus nerve associated with the thyroid gland. By balancing hormonal imbalance, the neurostimulator may provide electrical nerve stimulation therapy to the patient, thereby treating a target metabolic or an endocrine disorder associated with the thyroid gland.

Apparatus and method for making and using devices that generate optical signals, and optionally also electrical signals in combination with one or more such optical signals, to stimulate (i.e., trigger) and/or simulate a sensory-nerve signal in nerve and/or brain tissue of a living animal (e.g., a human), for example to treat nerve damage in the peripheral nervous system (PNS) or the central nervous system (CNS) and provide sensations to stimulate and/or simulate “sensory” signals in nerves and/or brain tissue of a living animal (e.g., a human) to treat other sensory deficiencies (e.g., touch, feel, balance, visual, taste, or olfactory) and provide sensations related to those sensory deficiencies, and/or to stimulate (i.e., trigger) and/or simulate a motor-nerve signal in nerve and/or brain tissue of a living animal (e.g., a human), for example to control a muscle or a robotic prosthesis.

A method sensing at least two physiological parameters and, for each of the at least two physiological parameters, generating a first series of signals representative of the physiological parameter sensed over a first time period, storing each of said first series of signals as a time sequence data stream, and determining when a physiological event has occurred in a patient. The method further comprises analyzing each of said time sequence data streams for a predetermined time interval preceding the occurrence of a physiological event to determine at least one marker as a predictor of the event, and again sensing the physiological parameters. Furthermore, the method comprises generating a second series of signals representative of the physiological parameter sensed, analyzing each of the second series of signals to determine whether the marker is present, and stimulating a cranial nerve when the marker is present in the second series of signals.

A method for treating a patient with laser energy to improve hearing loss. The method involves applying laser energy to the patient's spine, preferably by sweeping a linear laser beam over the patient's skin. The method may alternatively include applying laser energy to the patient's jaw, skull, ears, or a combination thereof. The laser device used for treating the patient is preferably a hand-held probe that moves freely relative to the patient's skin and can generate more than one wavelength of laser energy. In the preferred treatment, the patient is treated with a hand-held probe that emits two laser beams, one laser beam producing a pulsed line of red laser light and the other producing a pulsed line of green laser light. In the preferred embodiment, the patient's upper back, cervical vertebrae, cranial nerves, and temporomandibular joints are treated with laser energy for a total of less than 20 minutes in a single treatment.

A method of treating motion sickness in a patient is disclosed, wherein the method includes coupling at least one electrode to the patient at least one location in proximity to at least one cranial nerve; and applying an electrical signal to said nerve or nerve branch using said electrode to treat said motion sickness. An exemplary motion sickness is space motion sickness.

We disclose a method, apparatus, and system of treating a medical condition in a patient using an implantable medical device. A first electrode is coupled to a first portion of a cranial nerve of the patient. A second electrode is coupled to a second portion of the cranial nerve of the patient. A first electrical signal is provided to the first and second electrodes. The first electrical signal is provided in a first polarity configuration in which the first electrode functions as an anode and the second electrode functions as a cathode. Upon termination of the first electrical signal, the anode and cathode each comprise a first accumulated energy. A second electrical signal is provided to the first and second electrodes, in which the second electrical signal includes at least a portion of the first accumulated energy.

A method, apparatus, and system, are provided for guiding a medical procedure relating to an implantable medical device operatively coupled to a cranial nerve. Communications between the implantable medical device and an external device are established. An implant procedure is performed for implanting the implantable medical device. A first diagnostic process of the implantable medical device is performed. Using the external device a first signal is received from the implantable medical device based on the first diagnostic process. A first instruction is displayed using the external device based upon the first signal received by the external device. The first instruction includes information relating to guiding the implant procedure.