Medical simulators with energy harvesting power supplies

• US 9,489,870 B2
• Filed: 01/27/2014
• Issued: 11/08/2016
• Est. Priority Date: 01/26/2013
• Status: Active Grant

• Current Assignee: gaumard scientific company, inc
• Original Assignee: gaumard scientific company, inc
• Inventors: Rodriguez, Alberto, Carvajal, Miguel Enrique
• Primary Examiner(s): Utama, Robert J
• Assistant Examiner(s): Crocker, Elroy S
• Application Number:
  US14/164,370
• Publication Number:
  US 20140212862A1
• Time in Patent Office: 1,016 Days
• Field of Search: 434/267
• US Class Current: 1/1
• CPC Class Codes: G09B 23/288 for artificial respiration or heart massage

Abstract

Devices, systems, and methods appropriate for use in medical training are provided. In some implementations, the devices, systems, and methods are not dependent on external power supplies or internal batteries. A patient simulator is provided that includes a simulated patient body portion; and an electric-harvesting system positioned within the simulated patient body portion. The electric-harvesting system converts mechanical energy applied to the simulated patient body portion into electric energy for use by one or more components of the simulated body portion.

Claims

1. A patient simulator, comprising:

a simulated patient body portion; and

an electric-harvesting system positioned within the simulated patient body portion, wherein the electric-harvesting system converts mechanical energy applied to the simulated patient body portion into electric energy for use by one or more components of the simulated body portion, wherein the electric-harvesting system includes a drive shaft and an electrical generator.

2. The patient simulator of claim 1, wherein the simulated patient body portion includes a torso.

3. The patient simulator of claim 2, wherein the mechanical energy applied to the simulated patient body portion includes chest compressions.

4. The patient simulator of claim 1, wherein the electric-harvesting system further includes a recoil spring coupled to the drive shaft.

5. The patient simulator of claim 4, wherein the recoil spring urges the drive shaft towards an original position from a displaced position.

6. The patient simulator of claim 5, wherein the electric-harvesting system harvests electrical energy during movement of the drive shaft both from the original position to the displaced position and from the displaced position to the original position.

7. The patient simulator of claim 1, wherein the electric-harvesting system further includes one or more ultra-capacitors for storing the electric energy.

8. The patient simulator of claim 1, further comprising an air-harvesting system positioned within the simulated patient body portion, wherein the air-harvesting system utilizes the mechanical energy applied to the simulated patient body portion to fill one or more reservoirs positioned within the simulated patient body with air.

9. The patient simulator of claim 8, wherein the air-harvesting system includes at least one pump that is actuated by the mechanical energy applied to the simulated patient body portion.

10. A method of medical simulation, the method comprising:

applying mechanical energy to a patient simulator, wherein the applied mechanical energy is converted into electrical energy by an electric-harvesting system having a drive shaft and an electrical generator positioned within the patient simulator for use by one or more components of the patient simulator; and

providing treatment to the patient simulator based on symptoms simulated by the one or more components of the patient simulator.

11. The method of claim 10, wherein the one or more components of the patient simulator include a simulated respiratory system.

12. The method of claim 10, wherein the one or more components of the patient simulator include a simulated circulatory system.

13. The method of claim 10, wherein the mechanical energy is applied to the patient simulator via chest compressions.

14. The method of claim 10, wherein an air-harvesting system positioned within the patient simulator utilizes the mechanical energy applied to the patient simulator to fill one or more reservoirs positioned within the simulated patient body with air.

15. A patient simulator, comprising:

one or more simulated body portions;

an electric-harvesting system positioned within the one or more simulated patient body portions, wherein the electric-harvesting system converts mechanical energy applied to the one or more simulated patient body portions into electric energy for use by one or more components of the patient simulator, wherein the electric-harvesting system includes a drive shaft and an electrical generator; and

an air-harvesting system positioned within the one or more simulated patient body portions, wherein the air-harvesting system utilizes the mechanical energy applied to the one or more simulated patient body portions to fill one or more reservoirs with air.

16. The patient simulator of claim 15, wherein the one or more simulated body portions include a head and a torso.

17. The patient simulator of claim 16, wherein the mechanical energy applied to the one or more simulated patient body portions includes chest compressions.

18. The patient simulator of claim 17, wherein the electric-harvesting system harvests electrical energy during both downward and upward movements of the chest associated with the chest compressions.

19. The patient simulator of claim 18, wherein the air-harvesting system fills the one or more reservoirs with air during both the downward and upward movements of the chest associated with the chest compressions.