IP Library Granted Patent US 10,369,351
Granted Patent B2
US 10,369,351 · App. 15/784,697 · Granted Aug 6, 2019

Electrode interfaces and electrode assemblies for performing transcranial direct current stimulation

Inventors: Michael P. Weisend (Yellow Springs, OH); Matthew S. Sherwood (Sidney, OH); Megan K. Howes (Venice, FL)
Assignee: Wright State University
A61N1/0456A61N1/0476A61N1/20A61N1/36025
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Quick Facts
Patent No.
US 10,369,351
App. No.
15/784,697
Granted
Aug 6, 2019
Kind
B2
Abstract

Electrode interfaces and electrode assemblies for performing transcranial direct current stimulation. The electrode interfaces include a body configured to be coupled to an electrode for delivery of electrical current therethrough. The body includes a non-contact surface and a contact surface opposing the non-contact surface. The body defines a plurality of conductivity passages extending therethrough from the non-contact surface to the contact surface. Each conductivity passage is disposed along a central axis and includes at least one branching inlet and at least one branching subpassage extending from the at least one branching inlet to the contact surface. Each branching subpassage defines a plurality of branches, and each branch diverges from the central axis and then extends to the contact surface. The electrode assemblies include a neurostimulation device, at least two electrodes coupled to the neurostimulation device, and an electrode interface including a body coupled to each electrode.

Claims (26)

1. An electrode interface comprising:

a body configured to be coupled to an electrode for delivery of electrical current therethrough, wherein the body comprises a non-contact surface and a contact surface opposing the non-contact surface, wherein the body defines a plurality of conductivity passages extending therethrough from the non-contact surface to the contact surface, and wherein each conductivity passage is disposed along a central axis and comprises:

at least one branching inlet; and

at least one branching subpassage extending from the at least one branching inlet to the contact surface, wherein each branching subpassage defines a plurality of branches, and wherein each branch diverges from the central axis and then extends to the contact surface.

2. The electrode interface of claim 1 , wherein the body comprises a rim region and a recessed region for accommodating the electrode.

3. The electrode interface of claim 1 , wherein the non-contact surface and the contact surface are parallel.

4. The electrode interface of claim 1 , wherein each conductivity passage extends from a conductivity inlet defined by the body to a conductivity outlet defined by the body.

5. The electrode interface of claim 1 , wherein the body defines at least six conductivity passages extending therethrough.

6. The electrode interface of claim 5 , wherein the at least six conductivity passages are arranged in a hexagon configuration or a triangle configuration.

7. The electrode interface of claim 5 , wherein the at least six conductivity passages are arranged in a hexagram configuration.

8. The electrode interface of claim 1 , wherein each conductivity passage is tubular.

9. The electrode interface of claim 1 , wherein the at least one branching subpassage defines at least two branches which diverge from the central axis and branch toward the contact surface.

10. The electrode interface of claim 1 , wherein the at least one branching subpassage defines at least three branches which diverge from the central axis and branch toward the contact surface.

11. The electrode interface of claim 1 , wherein each branch extends from the at least one branching inlet to a branching outlet defined by the body.

12. The electrode interface of claim 1 , wherein:

each conductivity passage includes a conductivity outlet defined by the body;

each branching subpassage includes a plurality of branching outlets defined by the body, and

the conductivity outlet of each conductivity passage and the respective branching outlets of each branching subpassage thereof are arranged in an inline configuration or a cross configuration.

13. An electrode assembly for performing transcranial direct current stimulation, the electrode assembly comprising:

a neurostimulation device;

at least two electrodes coupled to the neurostimulation device; and

an electrode interface comprising a body coupled to each electrode for delivery of electrical current therethrough, wherein the body comprises a non-contact surface and a contact surface opposing the non-contact surface, wherein the body defines a plurality of conductivity passages extending therethrough from the non-contact surface to the contact surface, and wherein each conductivity passage is disposed along a central axis and comprises:

at least one branching inlet; and

at least one branching subpassage extending from the at least one branching inlet to the contact surface, wherein each branching subpassage defines a plurality of branches, and wherein each branch diverges from the central axis and then extends to the contact surface.

14. The electrode assembly of claim 13 , wherein the at least two electrodes are ring electrode.

15. The electrode assembly of claim 13 , further comprising a conductive contact medium disposed within the plurality of conductivity passages and the at least one branching subpassage.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jun 21, 2019
From: SHERWOOD, MATTHEW S.
To: WRIGHT STATE UNIVERSITY
Reel/Frame 049549/0955 →
Continuity (2)
Provisional Application 62408636 · Oct 14, 2016
Related Publication 20180126150A1 · May 10, 2018