Systems and methods for a multifunction surgical apparatus

1. A surgical separator, the separator comprising:

a base;

a plurality of separation tongs each movably coupled to the base at their proximal end, wherein the plurality of separation tongs have distal ends each having a blunt profile; and

a cable coupled to the base, the cable including an optical fiber, where the base is arranged to position the optical fiber to aim an optical energy beam from the optical fiber out from the base and between the plurality of separation tongs at a centered point between distal ends of the plurality of separation tongs;

wherein the cable further includes at least one element providing a control signal that controls operation of the plurality of separation tongs to move between and open position and a closed position;

wherein when the distal ends of each of the plurality of separation tongs are positioned together into the closed position, the exterior profile of the plurality of separation tongs forms a wedge shape having a tip where the plurality of separation tongs meet; and

at least one thermocouple embedded within a first tong of the plurality of tongs and arranged to monitor a temperature of the first tong.

2. The separator of claim 1 , wherein the cable comprises wires that provide a mechanical control signal that controls operation of the separation tongs.

3. The separator of claim 1 , further comprising at least one servo arranged to operate the plurality of separation tongs to move between and open position and a closed position, wherein the at least one servo is controlled by the at least one element.

4. The separator of claim 1 , wherein the plurality of separation tongs and the base are comprised of a material having smooth exterior surface.

5. The separator of claim 1 , wherein the plurality of separation tongs are arranged to default to the closed position.

6. The separator of claim 1 , wherein the plurality of separation tongs are arranged to default to the open position.

7. The separator of claim 1 , wherein the optical fiber is coupled to a laser source that provides the optical energy beam, wherein laser source is calibrated such that the optical energy beam delivers a volumetric energy density in the range of 40-800 J/cm3 to a target tissue when the plurality of separation tongs are in the open position.

8. The separator of claim 1 , wherein the optical fiber is coupled to a laser source that provides the optical energy beam, wherein laser source is calibrated such that the optical energy beam delivers an volumetric energy density that heats the tip to a temperature in the range of 50 to 200 degrees Celsius.

9. The separator of claim 1 , wherein the optical fiber is extendable out from the base.

10. The separator of claim 9 , wherein the optical fiber is extendable out from the base between the plurality of separation tongs to a centered point between distal ends of the plurality of separation tongs.

11. A surgical separator, the separator comprising:

a base;

a plurality of separation tongs each movably coupled to the base at their proximal end, wherein the plurality of separation tongs have distal ends each having a blunt profile; and

a cable coupled to the base, the cable including an optical fiber, where the base is arranged to position the optical fiber to aim an optical energy beam from the optical fiber out from the base and between the plurality of separation tongs at a centered point between distal ends of the plurality of separation tongs;

wherein the cable further includes at least one element providing a control signal that controls operation of the plurality of separation tongs to move between and open position and a closed position

wherein when the distal ends of each of the plurality of separation tongs are positioned together into the closed position, the exterior profile of the plurality of separation tongs forms a wedge shape having a tip where the plurality of separation tongs meet;

at least one thermocouple embedded within a first tong of the plurality of tongs and arranged to monitor a temperature of the first tong; and

the plurality of separation tongs further comprising at least one magnet arranged to operate the plurality of separation tongs to move between and open position and a closed position, wherein the at least one magnet is controlled by the at least one element.

12. A surgical separator, the separator comprising:

a base;

a plurality of separation tongs each movably coupled to the base at their proximal end, wherein the plurality of separation tongs have distal ends each having a blunt profile; and

a cable coupled to the base, the cable including an optical fiber, where the base is arranged to position the optical fiber to aim an optical energy beam from the optical fiber out from the base and between the plurality of separation tongs at a centered point between distal ends of the plurality of separation tongs;

wherein the cable further includes at least one element providing a control signal that controls operation of the plurality of separation tongs to move between and open position and a closed position;

wherein when the distal ends of each of the plurality of separation tongs are positioned together into the closed position, the exterior profile of the plurality of separation tongs forms a wedge shape having a tip where the plurality of separation tongs meet;

at least one thermocouple embedded within a first tong of the plurality of tongs and arranged to monitor a temperature of the first tong; and

the plurality of separation tongs wherein each of the plurality of separation tongs further comprises an internal surface that faces the optical energy beam, wherein the surface includes a coating having reflective properties that inhibit absorption of optical energy from the optical energy beam.

13. The separator of claim 12 , wherein each of the plurality of separation tongs further comprises a thermally receptive coating at their distal ends.