Abstract: Fabricating an implantable stimulation lead by advancing work material to be wrapped with wire conductors, then, operating a plurality of payout carriers to let out the wire conductors, rotating the plurality of payout carriers to wrap the wire conductors about the work material, providing an amount of twist to each wire conductor as the wire conductors are let out, forming a lead body using the wrapped conductors, and fabricating a plurality terminals on the lead body, wherein the plurality of terminals are electrically connected to the conductive wires.

Abstract: Self-expanding lead including a lead body having a distal body end, a proximal body end, and a central axis extending therebetween. The lead body includes first and second outer arms and an inner arm disposed between the first and second outer arms. The first and second outer arms and the inner arm extend lengthwise between the proximal body end and the distal body end. The lead also includes an array of electrodes that are configured to apply a neurostimulation therapy within an epidural space of a patient. At least some of the electrodes are positioned along the first and second outer arms. Each of the first and second outer arms includes a resilient member that is biased to flex the corresponding first and second outer arms from a collapsed condition to an expanded condition in a lateral direction away from the inner arm.

Abstract: An implantable stimulation system including an epidural lead for spinal cord stimulation that includes a paddle having an array of electrodes coupled to conductors within the paddle body. The paddle is elongated in shaped with the distal end of the paddle having a tabbed or extended portion with the lead exiting the extended portion of the paddle an angle relative to the longitudinal axis of the paddle.

Abstract: The present application relates to a new stimulation design which can be utilized to treat neurological conditions. The stimulation system produces a combination of burst and tonic stimulation which alters the neuronal activity of the predetermined site, thereby treating the neurological condition or disorder.

Abstract: A method for treating a patient with a neurological or psychiatric disorder, comprising applying stimulation to at least a portion of the patient's subcaudate white matter of the subcaudate area under conditions effective to provide the patient with at least a partial relief from the neurological or psychiatric disorder. The stimulation may be electrical and/or pharmacological.

Abstract: In one embodiment, an anchor for anchoring a medical lead within the body of a patient, comprises: a first housing portion; a second housing portion, wherein the first and second housing portions define an inner passageway through the anchor and the inner passageway comprises first and second tapered portions at first and second ends of the inner passageway; and a gripping insert disposed within the inner passageway; wherein the first and second housing portions are adapted to be set in a first configuration and a second configuration by user manipulation; wherein in the first configuration, the inner passageway through the first and second housing portions permits the gripping insert to be retained in a first state; wherein in the second configuration, the gripping insert is compressed into a second state; wherein in the second configuration, the gripping insert is further compressed into a third state when the gripping insert is forced against one of the first and second tapered portions by movement of a me

Abstract: In one embodiment, a method for the controlling of the stimulation pulses being delivered via electrodes to a patient during the programming of a pulse generator using a controller device and selecting of a minimum amplitude that corresponds to the minimum amplitude for which the patient can detect stimulation; selecting an electrode combination defined in the controller device; setting the stimulation amplitude; making a determination of the amplitude for the stimulation pulses is greater than the perception amplitude, and if so, changing the amplitude of the stimulation pulses to be less than or equal to the perception amplitude; and if not or subsequent to the changing of the amplitude, changing the selected one of a plurality of electrode combinations to a different combination.

Abstract: In one embodiment, a method, of fabricating a stimulation lead for stimulating tissue of a patient, comprises: providing a lead body, the lead body comprising a plurality of conductors embedded within insulating material; providing a plurality of terminals; electrically coupling the plurality of terminals with the plurality of conductors; providing a plurality of electrodes, the plurality of electrodes comprising a plurality of substantially continuous longitudinal trenches on a surface of the electrodes, the electrodes comprising areas of reflow material forming microstructures substantially continuously along walls of the longitudinal trenches; and electrically coupling the plurality of electrodes with the plurality of conductors.

Abstract: A system and/or method treating for a neurological disorder by brain region stimulation. The system and/or method comprises a probe and a device to provide stimulation. The probe has a stimulation portion implanted in communication with a predetermined brain region site. The stimulation portion of the probe may be implanted in contact with a predetermined brain region.

Abstract: In one embodiment, a method of fabricating an implantable pulse generator, comprises: providing a lead body including a plurality of conductors; providing a feedthrough component comprising feedthrough pins; electrically coupling pulse generating circuitry through switching circuitry with the feedthrough pins; hermetically enclosing the pulse generating circuitry and switching circuitry within a housing; providing a ferrule tube connector about each feedthrough pin wherein (i) each ferrule tube connector comprises an inner diameter that is sized to make contact about a circumference of respective feedthrough pin, and (ii) each ferrule tube connector comprises at least one slot in an upper portion of the respective ferrule tube connector; placing a respective conductor of the plurality of conductors in the slot of each of the ferrule tube connectors; and performing welding operations to connect the plurality of conductors of the lead body with the ferrule tube connectors.

Abstract: In one embodiment, a method of fabricating stimulation leads, the method comprises: providing a spool of polymer film; providing a plurality of payout carriers of wires; drawing the polymer film from the spool and the wires from the plurality of payout carriers over a rotating drum, wherein the drum comprises a plurality of grooves over an outer circumferential surface of the drum for directing the wires from the plurality of payout carriers, wherein a distance of each groove from an edge of the drum is varied about the circumference of the drum; bonding the wires to the polymer film while performing the drawing to form an intermediate assembly comprising the polymer film as a carrier with the bonded wires in a repeating pattern along a length of the intermediate assembly.

Abstract: In one embodiment, an external charging device for recharging an implanted medical device, comprises: a battery for powering the external charging device; a coil for radiating RF power; drive circuitry for driving the coil according to a duty cycle; circuitry for generating a signal that is indicative of an amount of current flowing through the coil; and control circuitry for controlling the drive circuitry, wherein the control circuitry is operable to process the signal from the circuitry for generating to detect when a coil of the implantable medical device temporarily ceases absorbing RF power, the control circuitry modifying the duty cycle in response to detection of the coil of the implantable medical device temporarily ceasing absorbing RF power.

Abstract: 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.

Abstract: In one embodiment, a method of fabricating an implantable pulse generator, comprises: providing a lead body including a plurality of conductors; providing a feedthrough component comprising a plurality of feedthrough pins; hermetically enclosing pulse generating circuitry and switching circuitry within a housing, the feedthrough component being welded to the housing; laser machining each of the plurality of feedthrough pins to comprise a slot along a surface of the respective feedthrough pin; placing a respective conductor from the lead body in the respective slot of each of the plurality of feedthrough pins; and performing welding operations to connect the plurality of conductors of the lead body with the plurality of feedthrough pins of the feedthrough component.

Abstract: In one embodiment, a method of fabrication of a stimulation lead comprising a plurality of segmented electrodes for stimulation of tissue of a patient, the method comprises: providing a substrate comprising (i) a substantially cylindrical body and (ii) a plurality of projections extending radially from the cylindrical body; coating the substrate with first conductive material; patterning the first conductive material on the cylindrical body into a plurality of traces, the plurality of traces extending along the cylindrical body and electrically contacting conductive material about the plurality of projections; providing an insulative layer over the traces; coating the insulative layer over the traces with second conductive material; patterning the second conductive material to form at least a plurality of electrode surfaces including a plurality of segmented electrodes, the segmented electrodes being in electrical contact with conductive material on projections of the plurality of projections; and electricall

Abstract: Methods and systems for intracranial neurostimulation and/or sensing are disclosed. An intracranial signal transmission system in accordance with an embodiment of the invention includes a generally electrically insulating body having a head portion configured to be positioned at least proximate to an outer surface of a patient's skull, and a shaft portion configured to extend into an aperture in the patient's skull. The system can further include at least one electrical contact portion integrated with the support body. The at least one electrical contact portion can be positioned to transfer electrical signals to, from, or both to and from the patient's brain via an aperture in the patient's skull.

Abstract: According to one embodiment, an electrode for use in electrostimulation is provided, where the electrode comprises a notch that operates to substantially eliminate gaseous material from being trapped about the electrode during a molding process of an electrostimulation lead.

Abstract: A paddle lead includes a plurality of electrodes configured in at least three rows of three electrodes with the second, intermediate row operable to provide anode guarding. The paddle lead further includes a plurality of grooves disposed on a surface opposite the electrodes to facilitate the insertion of the paddle lead within a patient by inhibiting the veering of the paddle lead to one side or the other of the dorsal column as the paddle lead is advanced along the dorsal column midline during implantation.

Abstract: In one embodiment, an implantable pulse generator (IPG) for generating electrical pulses for stimulation of tissue of a patient, comprises: a controller for controlling operations of the IPG; pulse generating circuitry for generating electrical pulses; and conversion circuitry for converting a received logic signal generated by a first voltage domain for provision to a second voltage domain, the conversion circuitry comprising a first stage and a second stage, wherein (i) the first stage receives first signals at first and second logic levels; (ii) the second stage receives second signals at third and fourth logic levels, (iii) the second stage comprising two sets of cross-coupled transistors for generating a rail-to-rail output at the third and fourth logic levels according to whether the received logic signal is at the first or second logic level.

Abstract: Systems and methods for patient interactive neural stimulation and/or chemical substance delivery are disclosed. A method in accordance with one embodiment of the invention includes affecting a target neural population of the patient by providing to the patient at least one of an electromagnetic signal and a chemical substance. The method can further include detecting at least one characteristic of the patient, with the characteristic at least correlated with the patient's performance of an adjunctive therapy task that is performed in association with affecting the target neural population. The method can still further include controlling at least one parameter in accordance with which the target neural population is affected, based at least in part on the detected characteristic.