IP Library › Granted Patent US 11,027,131
Granted Patent B2
US 11,027,131 · App. 16/022,254 · Granted Jun 8, 2021

Use of a new stimulation design to treat neurological disorders

Inventor: Dirk De Ridder (Dunedin, NZ)
A61N1/36196A61B5/369A61B5/4812A61N1/36082A61N1/36171A61N1/378A61N1/0529A61N1/0551A61N1/361A61N1/36075
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Quick Facts
Patent No.
US 11,027,131
App. No.
16/022,254
Granted
Jun 8, 2021
Kind
B2
Abstract

The method and system described herein relate to stimulating nerve tissue using a pulse generator. A stimulus is created that comprises a signal that is produced from a frequency spectrum having a power spectral density per unit of bandwidth proportional to 1/f β , wherein β is excludes 0. The stimulus is provided from the pulse generator to at least one stimulation lead; and applied to nerve tissue via one or several electrodes.

Claims (14)

1. An implantable pulse generator (IPG) for neurostimulation of a patient, comprising:

a battery for powering the IPG;

a processor for controlling the IPG according to executable instructions;

memory for storing executable instructions and data; and pulse generating circuitry for generating electrical pulses for stimulation of nerve tissue of the patient;

wherein (1) the processor controls pulse generation operations of the IPG according to one or more stimulation programs defined by a clinician of the patient, (2) IPG is programmable by the clinician to select from multiple stimulation patterns for pulse generation including a noise stimulation pattern, (3) the IPG is programmed to retrieve a parameter β from a respective stimulation program defined for the noise stimulation pattern to generate electrical pulses generally exhibiting amplitude variations for a noise power density profile of 1/f ∧ β where f represents frequency, and (4) the parameter β for the respective stimulation program is selectable by the clinician from a range of values including β=1, β=2, and multiple values therebetween.

2. The IPG of claim 1 wherein the IPG is programmed to apply a first stimulation program during an active state of the patient and is programmed to apply a second stimulation program during a sleep state of the patient, wherein the first stimulation program and the second stimulation program include different β values for respective noise stimulation patterns.

3. The IPG of claim 1 wherein the IPG is programmed to retrieve a second parameter from a respective stimulation program defined for the noise stimulation pattern to generate electrical pulses such that a noise power density profile of the respective stimulation program exhibits a peak at a frequency defined by the second parameter.

4. The IPG of claim 3 wherein the IPG is adapted to communicate with an external controller device to receive a value for the second parameter, wherein the external controller device measures neurological signals of the patient to select the value for the second parameter.

5. The IPG of claim 4 wherein the neurological signals are EGG signals.

6. The IPG of claim 1 wherein the multiple stimulation patterns includes burst stimulation, wherein burst stimulation includes a plurality of groups of multiple pulses with adjacent groups being separated by respective quiescent periods.

7. The IPG of claim 1 wherein the multiple stimulation patterns includes tonic stimulation.

8. The IPG of claim 1 wherein the IPG is programmable to apply a respective noise stimulation pattern to multiple electrodes.

9. The IPG of claim 8 wherein the IPG applies pulses by sequentially cycling through the multiple electrodes.

10. The IPG of claim 8 wherein the IPG applies pulses by randomly transitioning between the multiple electrodes.

Continuity (5)
Continuation 15299827 · Oct 21, 2016
Continuation 14176672 · Feb 10, 2014
Continuation 13221548 · Aug 30, 2011
Provisional Application 61378249 · Aug 30, 2010
Related Publication 20180304083A1 · Oct 25, 2018
Cited By (1)
US 12,458,804