摘要:
A system and method for generating a beamforming signal is disclosed. A beam forming signal is generated by disposing a first microphone and a second microphone in horizontal coplanar alignment. The first and second microphones are used to detect a known signal to generate a first response and a second response. The first response is processed along a first signal path communicatively linked to the first microphone, and the second response is processed along a second signal path communicatively linked to the second microphone. The first and second responses are matched, and the matched responses are combined to generate the beamforming signal on a combined signal path.
摘要:
Described herein are devices, systems and method of treating inflammation by vagus nerve stimulation and the delivery of an anti-inflammatory drug. In particular, described herein are methods of treating inflammation including the steps of stimulating a subject's inflammatory reflex to inhibit the immune response and administering an anti-inflammatory drug.
摘要:
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.
摘要:
Described herein are devices, including interface modules or prescription pads, and systems including these devices and methods of using them, for treating inflammation or inflammatory disorders, and particularly for interfacing with a user desiring to prescribe treatment of an inflammatory disorder using an implanted stimulator.
摘要:
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.
摘要:
A bionic ear cochlear stimulation system has the capability to stimulate fast enough to induce stochastic neural firing, thereby acting to restore “spontaneous” neural activity. Such neurostimulation involves the use of a high rate pulsitile stimulation signal that is amplitude modulated with sound information. Advantageously, by using such neurostimulation, a fitting system may be utilized that does not normally require T-level threshold measurements. T-level threshold measurements are not required in most instances because the high-rate pulsitile stimulation, even though at levels that would normally be a sub-threshold electrical stimulus, is able to modulate neural firing patterns in a perceptible way.
摘要:
Methods and systems for modifying the parameters of at least one hearing device for a patient with residual hearing provide needed orchestration of acoustic and electric stimulation of patients wearing such devices.
摘要:
A flap thickness measurement system includes a reference cochlear stimulation system. The reference cochlear stimulation system includes a sound processor, a transmitter that transmits a telemetric signal, and a cochlear stimulator having a receiver that receives the telemetric signal and transmits a signal back to the transmitter. The system further includes one or more flap simulators having one or more known thicknesses that is positioned between the transmitter and receiver. Also included is a microprocessor that receives and processes data representative of tank voltage from the reference cochlear stimulation system.
摘要:
A multichannel neurostimulation device spatially spreads the excitation pattern in the target neural tissue by either: (1) rapid sequential stimulation of a small group of electrodes, or (2) simultaneously stimulating a small group of electrodes. Such multi-electrode stimulation stimulates a greater number of neurons in a synchronous manner, thereby increasing the amplitude of the extra-cellular voltage fluctuation and facilitating its recording. The electrical stimuli are applied simultaneously (or sequentially at a rapid rate) on selected small groups of electrodes while monitoring the evoked compound action potential (ECAP) on a nearby electrode. The presence of an observable ECAP not only validates operation of the implant device at a time when the patient may be unconscious or otherwise unable to provide subjective feedback, but also provides a way for the magnitude of the observed ECAP to be recorded as a function of the amplitude of the applied stimulus. From this data, a safe, efficacious and comfortable threshold level can be obtained which may be used thereafter as the initial setting of the stimulation parameters of the neurostimulation device, or to guide the setting of the stimulation parameters of the neurostimulation device.
摘要:
A fully implantable cochlear implant system (170) and method includes an implantable cochlear stimulator (ICS) unit (212) that is connected to an implantable speech processor (ISP) unit (210). Both the ISP unit and the ICS unit reside in separate, hermetically-sealed, cases. The ICS unit has a coil (220) permanently connected thereto through which magnetic or inductive coupling may occur with a similar coil located externally during recharging, programming, or externally-controlled modes of operation. The ICS unit further has a cochlear electrode array (114) permanently connected thereto via a first multi-conductor cable (116). The ICS unit 212 also has a second multi-conductor cable (222) attached thereto, which second cable contains no more than five conductors. The second cable is detachably connected to the ISP unit via a connector (224) located on the case of the ISP unit. The ISP unit includes an implantable subcutaneous microphone (218) as an integral part thereof, and further includes ISP circuitry (214) and a replenishable power source (216), e.g., a rechargeable battery.