Granted Patent B2

US 12,214,252 · App. 18/597,602 · Granted Feb 4, 2025

Inventors: Adam Meyer (London, CA); Peter Scarrott (London, CA); Neritan Alizoti (London, CA); Jason Suggett (London, CA); Ronak Sakaria (London, CA)

Assignee: Trudell Medical International Inc.

A63B23/185A61M16/0006A61M16/024A61M16/0488A61M16/208A63B1/00A63B71/0622A61M2016/0027A61M2016/0042A61M2205/3368A61M2205/3375A61M2205/587

Abstract

Claims (36)

1. An oscillating positive expiratory pressure system comprising:

an oscillating positive expiratory pressure device comprising an inhalation port and a user interface port;

a mouthpiece;

an adapter coupled to and between the mouthpiece and the user interface port of the oscillating positive expiratory pressure device, wherein the adapter defines a flow channel; and

a control module coupled to the adapter and in communication with the flow channel, the control module comprising:

a housing cantilevered over a top of the oscillating positive expiratory pressure device, wherein a longitudinal axis of the oscillating positive expiratory pressure device extends through the housing, wherein the longitudinal axis is orthogonal to the flow channel;

a pressure and/or flow sensor disposed in the housing and configured to determine the pressure and/or flow in the flow channel;

a printed circuit board disposed in the housing and operably connected to the pressure and/or flow sensor;

a battery disposed in the housing and operably connected to the printed circuit board; and

a visual display coupled to the housing and operably connected to the printed circuit board, wherein the visual display is configured to provide feedback to a user.

2. The oscillating positive expiratory pressure system of claim 1 wherein the housing comprises an upper casing connected to a lower casing.

3. The oscillating positive expiratory pressure system of claim 1 wherein the adapter is removably coupled between the mouthpiece and the oscillating positive expiratory pressure device.

4. The oscillating positive expiratory pressure system of claim 1 wherein the adapter comprises a first end coupled to the oscillating positive expiratory pressure device, a second end opposite the first end coupled to the mouthpiece, wherein the flow channel is defined between the first and second ends, and a port communicating with the flow channel between the first and second ends.

5. The oscillating positive expiratory pressure system of claim 4 further comprising a flexible membrane disposed across the port and defining a chamber adjacent the pressure and/or flow sensor.

6. The oscillating positive expiratory pressure system of claim 1 wherein the control module is releasably coupled to the adapter.

7. The oscillating positive expiratory pressure system of claim 1 wherein the control module further comprises a data port, including one or more of an SD or USB port.

8. The oscillating positive expiratory pressure system of claim 1 wherein the visual display comprises an LED.

9. The oscillating positive expiratory pressure system of claim 1 wherein the printed circuit board comprises an accelerometer.

10. The oscillating positive expiratory pressure system of claim 1 wherein the control module comprises a microphone.

11. The oscillating positive pressure system of claim 1 wherein the oscillating positive expiratory pressure device control module does not extend rearwardly past an end of the inhalation port.

12. A feedback system for use with an oscillating positive expiratory pressure device having a port and a mouthpiece, the feedback system comprising:

an adapter configured to be coupled to and between the mouthpiece and the port of the oscillating positive expiratory pressure device, wherein the adapter comprises a flow channel; and

a control module coupled to the adapter and in communication with the flow channel, the control module comprising:

a housing spaced above the flow channel and cantilevered rearwardly from the adapter, wherein a longitudinal axis of the oscillating positive expiratory pressure device is configured to extend through the housing during use, wherein the longitudinal axis is orthogonal to the flow channel;

a pressure and/or flow sensor disposed in the housing and configured to determine the pressure and/or flow in the flow channel;

a printed circuit board disposed in the housing and operably connected to the pressure and/or flow sensor;

a battery disposed in the housing and operably connected to the printed circuit board; and

a visual display coupled to the housing and operably connected to the printed circuit board, wherein the visual display is configured to provide feedback to a user.

13. The feedback system of claim 12 wherein the housing comprises an upper casing connected to a lower casing.

14. The feedback system of claim 12 wherein the adapter comprises a first end adapted to be coupled to the oscillating positive expiratory pressure device and a second end opposite the first end and adapted to be coupled to the mouthpiece, wherein the flow channel is defined between the first and second ends, and a port communicating with the flow channel between the first and second ends.

15. The feedback system of claim 14 further comprising a flexible membrane disposed across the port and defining a chamber adjacent the pressure and/or flow sensor.

16. The feedback system of claim 12 wherein the control module is releasably coupled to the adapter.

17. The feedback system of claim 12 wherein the control module further comprises a data port, including one or more of an SD or USB port.

18. The feedback system of claim 12 wherein the visual display comprises an LED.

19. The oscillating positive expiratory pressure system of claim 12 wherein the printed circuit board comprises an accelerometer.

20. The oscillating positive expiratory pressure system of claim 12 wherein the control module comprises a microphone.

Assignments (2)

Continuity (5)

References Cited (400)