Abstract: Methods of treating autism include applying at least one stimulus to a stimulation site within the brain of a patient with an implanted stimulator in accordance with one or more stimulation parameters. The stimulus is configured to decrease neural activity within at least a portion of the brain to treat autism. Systems for treating autism include a stimulator configured to apply at least one stimulus to a stimulation site within the brain of a patient in accordance with one or more stimulation parameters. The stimulus is configured to decrease neural activity within at least a portion of the brain to treat autism.

Abstract: Systems and techniques for controlling the stimulation of tissue. In one aspect, an apparatus includes an implantable stimulation device to elicit a response in a tissue by delivering one or more stimuli. The stimulation device includes a stimulus delivery element to deliver the one or more stimuli to elicit the response, a memory to store a range value identifying a range of values of a stimulation parameter relative to a first value, and a controller to control delivery of the stimuli by the stimulus delivery element in accordance with the range value. The stimulation parameter characterizes the stimuli to be delivered by the stimulation device.

Abstract: Exemplary implantable stimulators for stimulating a stimulation site within a patient include an electronic module configured to generate stimulation and a housing configured to house the electronic module. The housing has a shape allowing the a stimulator and a surgical device to be accommodated together within an insertion tool used to insert the stimulator into the patient. Exemplary methods of stimulating a stimulation site within a patient include generating stimulation with an electronic module and housing the electronic module in a housing. The housing has a shape allowing the housing and a surgical device to be accommodated together within an insertion tool used to insert the housing into the patient.

Abstract: A method of treating headaches includes stimulating a nerve in a patient's head with an electrode implanted over the skull on a posterior or superior portion of the patient's head to alleviate headache pain.

Abstract: Methods of treating a medical condition include applying at least one stimulus to a motor cortex within a brain of a patient with an implanted system control unit in accordance with one or more stimulation parameters. Systems for treating a medical condition include a system control unit implanted within the patient that is configured to apply at least one stimulus to a motor cortex within a brain of a patient in accordance with one or more stimulation parameters.

Abstract: An exemplary method of regenerating a nerve within a patient includes implanting a system control unit within the patient and applying a stimulus to the nerve with the system control unit in accordance with one or more control parameters. The stimulus is configured to promote regeneration of the nerve. An exemplary system for regenerating a nerve within a patient includes a system control unit configured to apply a stimulus to the nerve in accordance with one or more control parameters. The system control unit is implanted within the patient and the stimulus promotes the regeneration of the nerve.

Abstract: Methods of treating a medical condition include applying at least one stimulus to a stimulation site within the brain of a patient with an implanted stimulator in accordance with one or more stimulation parameters. The at least one stimulus is configured to promote neural remodeling within the brain of the patient. Systems for treating a medical condition include an implantable stimulator configured to apply at least one stimulus to a stimulation site within the brain of a patient in accordance with one or more stimulation parameters. The at least one stimulus is configured to promote neural remodeling within the brain of the patient.

Abstract: Methods of treating obesity include applying at least one stimulus to a stimulation site within a patient with an implanted stimulator in accordance with one or more stimulation parameters. Systems for treating obesity include a stimulator configured to apply at least one stimulus to a stimulation site within a patient in accordance with one or more stimulation parameters.

Abstract: Methods of treating a patient with a psychiatric disorder include applying at least one stimulus to a trigeminal nerve within the patient with an implanted system control unit in accordance with one or more stimulation parameters. Systems for treating a patient with a psychiatric disorder include a system control unit that is implanted within the patient and that is configured to apply at least one stimulus to a trigeminal nerve within the patient in accordance with one or more stimulation parameters.

Abstract: A small implantable stimulator(s) having at least two electrodes is implanted adjacent to a gastrointestinal nerve and/or muscle for the stimulation treatment of gastrointestinal disorders, including gastrointestinal motility, sphincteric disorders, and/or eating disorders. The stimulator provides a means of stimulating tissue at a stimulation site when desired, and may be implanted via a minimal surgical procedure.

Abstract: Systems for adjusting a position of an implanted medical device within a patient include an engagement tool configured to couple to the implanted medical device. The engagement tool adjusts the position of the medical device when coupled to the implanted medical device. Methods of adjusting a position of an implanted medical device within a patient include locating the implanted medical device, coupling an engagement tool to the medical device, and adjusting a position of the engagement tool to adjust the position of the medical device.

Abstract: Methods of treating chronic pelvic pain include applying at least one stimulus to a stimulation site within a patient with an implanted system control unit in accordance with one or more stimulation parameters. Systems for treating chronic pelvic pain include a system control unit configured to apply at least one stimulus to a stimulation site within a patient in accordance with one or more stimulation parameters.

Abstract: Methods of treating a medical condition of a patient include applying at least one stimulus to a target nerve within the patient with an implanted system control unit in accordance with one or more stimulation parameters. The target nerve may include any nerve originating in an upper cervical spine area of the patient or a branch of any nerve originating in the upper cervical spine area of the patient. Systems for treating a medical condition of a patient include a system control unit that is implanted within the patient and that is configured to apply at least one stimulus to the target nerve within the patient in accordance with one or more stimulation parameters.

Abstract: A method of adjusting operation of a stimulator for treatment of a patient using the stimulator includes adjusting stimulation parameters of the stimulator subsequent to a fitting session with a clinician, where the adjusting is performed by the patient who has the stimulator. A system for patient adjustment of operation of a stimulator used by the patient subsequent to a fitting session with a clinician includes an external device for communicating with the stimulator and a user interface of the external device configured to receive input from the patient to adjust stimulation parameters of the stimulator.

Abstract: An exemplary system for providing power to a rechargeable battery in an implantable stimulator includes a first coil configured to emit a first magnetic field, a coil in the stimulator configured to receive the first magnetic field, and a zero volt recovery (ZVR) circuit in the stimulator configured to use the first magnetic field to cause the coil in the stimulator to be tuned to a frequency of a second magnetic field. The second magnetic field is used to provide the power to recharge the battery. An exemplary method of providing power to recharge a battery in an implantable stimulator includes transmitting a first magnetic field used to provide the power to recharge the battery, transmitting a second magnetic field; and using the second magnetic field to cause a coil in the stimulator to be tuned to a frequency of the first magnetic field.

Abstract: Systems and methods for applying electrical stimulation to the brain to treat headaches and neuralgia use at least one implantable system control unit (SCU), specifically an implantable signal/pulse generator (IPG) with one or more electrodes. The IPG is implanted in the skull and communicates with at least one external appliance, such as a Behind-the-Ear (BTE) unit. In a preferred embodiment, the system is capable of open- and closed-loop operation. In closed-loop operation, at least one SCU includes a sensor, and the sensed condition is used to adjust stimulation parameters.

Abstract: A system and method are provided for both recharging and communicating with a stimulator having a rechargeable battery, which stimulator is implanted deeply in the body, in particular where the stimulator is a microstimulator, the system includes a base station and an external device, for instance a chair pad. The chair pad may contain an antenna/charging coil and a booster coil. The antenna/charging coil can be used for charging the rechargeable battery and also for communicating with the stimulator using frequency shift keying and on-off keying. The booster coil can be used to recharge a battery depleted to zero volts. The base station connected to the chair pad may be used to power the antenna/charging coil and the booster coil.

Abstract: Miniature implantable stimulators (i.e., microstimulators) with programmably configurable electrodes allow, among other things, steering of the electric fields created. In addition, the microstimulators are capable of producing unidirectionally propagating action potentials (UPAPs).

Abstract: Miniature implantable stimulators (i.e., microstimulators) are capable of producing unidirectionally propagating action potentials (UPAPs). The methods and configurations described may, for instance, arrest action potentials traveling in one direction, arrest action potentials of small diameters nerve fibers, arrest action potentials of large diameter nerve fibers. These methods and systems may limit side effects of bidirectional and/or less targeted stimulation.

Abstract: Methods of using unidirectionally propagating action potentials (UPAPs) for vagus nerve stimulation and for certain disorders are provided. Stimulators capable of creating such UPAPs include, but are not limited to, miniature implantable stimulators (i.e., microstimulators), possibly with programmably configurable electrodes.