Method and system for vacuum suction

1. A surgical device system, comprising:

a tool assembly having a body with a distal end, and a proximal end, the tool assembly having a tool holder at the distal end, the tool holder configured for receiving a surgical tool;

a fluid intake port disposed at the distal end of the tool assembly;

a blower port disposed at the distal end of the tool assembly;

a vacuum source disposed in fluid communication with the fluid intake port;

a blower disposed in fluid communication with the blower port, the blower operable to cause a fluid flow out of the blower port toward the surgical tool and the fluid intake port;

a liquid capture canister having an inlet and an outlet disposed in fluid communication with the vacuum source and the fluid intake port, the canister configured for removably attaching to the tool assembly; and

a filter cartridge having an inlet and an outlet disposed in fluid communication with the vacuum source, the fluid intake port, and the liquid capture canister, the filter cartridge configured for removably attaching to the tool assembly, wherein the liquid capture canister is operable to cause liquids to be captured within the liquid capture canister and allows other fluids to pass to the filter cartridge.

2. The surgical device system of claim 1 , wherein the surgical tool comprises a drill.

3. The surgical device system of claim 1 , wherein the surgical tool comprises a blade.

4. The surgical device system of claim 1 , wherein the tool assembly rotates the surgical tool.

5. The surgical device system of claim 1 , wherein the tool assembly moves the surgical tool in a reciprocating motion.

6. The surgical device system of claim 1 , further comprising an RFID reader disposed on the surgical tool assembly, the RFID reader for reading an RFID tag on the filter cartridge.

7. The surgical device system of claim 1 , further comprising an RFID writer disposed on the body of the surgical tool assembly for writing filter usage data to a writeable RFID tag on the disposable filter.

8. The surgical device system of claim 1 , further comprising a moisture wick for absorbing moisture from a flow passing from the inlet towards the vacuum source.

9. The surgical device system of claim 1 , further comprising an illumination source disposed at the distal end of the surgical tool assembly.

10. The surgical device system of claim 1 , further comprising a control switch configured to receive an activation signal from a receiver selected from the group consisting of radio, WIFI, and infrared.

11. An attachment for use with a surgical device having a body with a distal end and a proximal end, the attachment disposed in fluid communication with a vacuum source, the attachment comprising:

a body having a distal end, and a proximal end;

a fluid intake port disposed on the body of the attachment and disposed adjacent to the distal end of the surgical device;

a blower port disposed on the body of the attachment and disposed adjacent to the distal end of the surgical device;

a vacuum port disposed on the body of the attachment and configured for fluid communication with the vacuum source;

a blower disposed in fluid communication with the blower port, the blower operable to cause a fluid flow out of the blower port toward the surgical device and the fluid intake port;

a canister having an inlet and an outlet configured for fluid communication with the vacuum source and the fluid intake port, the canister configured to removably attach to the attachment; and,

a filter cartridge having an inlet and an outlet configured for fluid communication with the vacuum source, the fluid intake port, and the canister, wherein the canister is operable to cause liquids to be captured within the canister and allows other fluids to pass to the filter cartridge.

12. The attachment of claim 11 , further comprising an RFID reader for reading an RFID tag on the filter cartridge.

13. The attachment of claim 11 , further comprising an RFID writer disposed on the body of the tool assembly for writing filter usage data to a writeable RFID tag on the disposable filter.

14. The attachment of claim 11 , further comprising a moisture wick for absorbing moisture from a flow passing from the inlet towards the vacuum source.

15. The attachment of claim 11 , further comprising an illumination source disposed at the distal end of the tool assembly.

16. A method for vacuum suction for a surgical device, the surgical device having a body with a distal end and a proximal end, the surgical device generating aerosol in a surgical environment, the method comprising:

providing an attachment with a body having a distal end, and a proximal end;

providing a fluid intake port disposed on the body of the attachment and disposed adjacent to the distal end of the surgical device;

providing a blower port disposed on the body of the attachment and disposed adjacent to the the distal end of the surgical device;

providing a vacuum port disposed on the body of the attachment and configured for fluid communication with the vacuum source;

providing a blower disposed in fluid communication with the blower port, the blower operable to cause a fluid flow out of the blower port toward the surgical device and the fluid intake port;

providing a canister having an inlet and an outlet configured for fluid communication with the vacuum source and the fluid intake port, the canister configured to removably attach to the attachment; and,

providing a filter cartridge having an inlet and an outlet configured for fluid communication with the vacuum source, the fluid intake port, and the canister, wherein the canister is operable to cause liquids to be captured within the canister and allows other fluids to pass to the filter cartridge;

installing the attachment on the surgical device;

activating the surgical device;

activating the vacuum source and the blower to provide vacuum for removing the aerosol from the surgical environment.