IP Library › Granted Patent US 12,042,432
Granted Patent B1
US 12,042,432 · App. 18/410,218 · Granted Jul 23, 2024

Method and device for the treatment of glaucoma

Inventor: Michael Reynard (Santa Monica, CA)
A61F9/00781A61N1/0526A61N1/36046A61N1/378A61M27/002A61M2210/0612
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Quick Facts
Patent No.
US 12,042,432
App. No.
18/410,218
Granted
Jul 23, 2024
Kind
B1
Abstract

An ocular electrolysis device is described that may include a diverting tube configured for insertion into an eye. The ocular electrolysis device may include an electrolysis chamber mechanically attached to the diverting tube such that aqueous from the eye enters the electrolysis chamber through the diverting tube. The ocular electrolysis device may include a pressure sensor located in the electrolysis chamber. The ocular electrolysis device may include a pair of electrodes located in the electrolysis chamber. The ocular electrolysis device may include a controller electrically connected to the pair of the electrodes and the pressure sensor, where the controller regulates electrolysis of the aqueous in the electrolysis chamber based on input from the pressure sensor through power levels at the pair of the electrodes.

Claims (33)

1. An ocular electrolysis device comprising:

a diverting tube configured for insertion into an eye;

an electrolysis chamber mechanically attached to the diverting tube such that aqueous from the eye enters the electrolysis chamber through the diverting tube, where the electrolysis chamber has a gas-permeable surface that is impervious to non-gaseous aqueous;

a pressure sensor located in the electrolysis chamber;

a pair of electrodes located in the electrolysis chamber;

a power source electrically connected to a controller; and

the controller electrically connected to the pair of the electrodes and the pressure sensor, where the controller regulates electrolysis in the electrolysis chamber based on input from the pressure sensor through power levels at the pair of the electrodes.

2. The ocular electrolysis device of claim 1 configured for attachment to the eye.

3. The ocular electrolysis device of claim 2 further comprising eyelets for facilitating the attachment to the eye.

4. The ocular electrolysis device of claim 1 where the electrolysis chamber has a surface with perforations.

5. The ocular electrolysis device of claim 1 further comprising a voltage regulator electrically connected to the pair of the electrodes and the controller.

6. The ocular electrolysis device of claim 1 further comprising an antenna electrically connected to the controller.

7. The ocular electrolysis device of claim 1 wherein the power source includes a solar cell.

8. A method for treating glaucoma comprising:

implanting an ocular electrolysis device on a surface of an eye;

inserting a diverting tube attached to the ocular electrolysis device into an anterior chamber of the eye, where aqueous from the anterior chamber flows into a electrolysis chamber in the ocular electrolysis device;

measuring a pressure measurement in the eye with a pressure sensor located in the electrolysis chamber;

reading the pressure measurement with a controller, said controller electrically connected to the pressure sensor;

applying current and voltage from a power source under direction of the controller to a pair of electrodes in the electrolysis chamber, causing electrolysis of the aqueous to occur in the electrolysis chamber;

allowing gas produced by the electrolysis to escape through a gas permeable surface of the electrolysis chamber, where the gas permeable surface is impervious to non-gaseous aqueous; and

directing, by the controller, the current and the voltage based on the pressure measurement.

9. The method for treating the glaucoma of claim 8 further comprising using the pressure measurement read by the controller to determine the voltage to apply to the pair of the electrodes.

10. The method for treating the glaucoma of claim 8 further comprising using the pressure measurement read by the controller to determine the current to apply to the pair of the electrodes.

11. The method for treating the glaucoma of claim 8 further comprising using the pressure measurement read by the controller to determine a frequency of the voltage to apply to the pair of the electrodes.

12. The method for treating the glaucoma of claim 8 further comprising sending, via an antenna, a message with information regarding the ocular electrolysis device.

13. The method for treating the glaucoma of claim 12 where the information is the pressure measurement of the aqueous.

14. The method for treating the glaucoma of claim 12 where the information relates to a status of the power source.

15. The method for treating the glaucoma of claim 8 further comprising receiving, via an antenna, a message with a parameter for the ocular electrolysis device.

16. The method for treating the glaucoma of claim 15 where the parameter includes a threshold for the pressure measurement of the aqueous.

17. The method for treating the glaucoma of claim 15 where the parameter is a critical low-pressure threshold for the pressure measurement of the aqueous.

18. The method for treating the glaucoma of claim 17 further comprising turning off the current to the electrodes by the controller when the pressure measurement of the aqueous is below the critical low-pressure threshold.

19. The method for treating the glaucoma of claim 15 where the parameter is a critical high-pressure threshold for the pressure measurement of the aqueous.

20. The method for treating the glaucoma of claim 19 further comprising turning off the current to the electrodes by the controller when the pressure measurement of the aqueous is above the critical high-pressure threshold and when the pressure measurement of the aqueous is increasing.

Cited By (1)
US 12,274,640