Surgical laser system and laser fiber

1. An optical device comprising:

an optical fiber having: (i) a longitudinal axis, and (ii) an optical fiber core configured to direct a first laser energy and a second laser energy along the longitudinal axis, the first laser energy having a first wavelength configured to perform a first treatment, and the second laser energy having a second wavelength configured to perform a second treatment;

a distal end of the optical fiber core including a distal terminating end configured to discharge the first laser energy in a first direction along or parallel to the longitudinal axis, and the second laser energy in a second direction transverse with the longitudinal axis;

a fiber cap comprising an interior cavity and an opening to the interior cavity, wherein the distal end of the optical fiber core is received within the interior cavity through the opening so that the first laser energy is discharged through the fiber cap in the first direction for performance of the first treatment, and the second laser energy is discharged through the fiber cap in the second direction for performance of the second treatment;

a first treatment laser source configured to generate the first laser energy;

a second treatment laser source configured to generate the second laser energy;

a first aiming laser source configured to generate a first aiming beam having a power that does not cause tissue damage;

a second aiming laser source configured to generate a second aiming beam having a power that does not cause tissue damage; and

a controller coupled to the first treatment laser source, the second laser treatment source, the first aiming laser source, and the second aiming laser source, wherein the controller is configured to:

in response to a request to activate the first treatment laser source, activate the first aiming laser source to deliver the first aiming beam through the fiber cap in the first direction, and then activate the first treatment laser source to deliver the first laser energy in the first direction; and

in response to a request to activate the second treatment laser source, activate the second aiming laser source to deliver the second aiming beam through the fiber cap in the second direction, and then activate the second treatment laser source to deliver the second laser energy in the second direction.

2. The optical device of claim 1 , wherein the distal terminating end of the optical fiber core comprises a polished beveled surface disposed at an angle transverse to the longitudinal axis of the optical fiber.

3. The optical device of claim 2 , wherein the polished beveled surface has a coating that promotes reflection of the first laser energy off of the polished beveled surface in the first direction, and transmission of the second laser energy through the polished beveled surface in the second direction.

4. The optical device of claim 3 , wherein the coating is a dichroic coating that reflects the first laser energy and transmits the second laser energy.

5. An optical device, comprising:

a first treatment laser source configured to generate a first laser energy;

a second treatment laser source configured to generate a second laser energy;

a first aiming laser source configured to generate a first aiming beam having a wavelength from 300 nm to 600 nm, the first aiming beam having a power that does not cause tissue damage;

a second aiming laser source configured to generate a second aiming beam having a wavelength from 1900 nm to 2100 nm, the second aiming beam having a power that does not cause tissue damage;

an optical fiber having: (i) a longitudinal axis, and (ii) an optical fiber core configured to direct the first laser energy and the second laser energy along the longitudinal axis, the first laser energy having a first wavelength configured to perform a first treatment, and the second laser energy having a second wavelength configured to perform a second treatment, wherein the first and second treatments are different, the first treatment is configured to affect bodily tissues by ablating tissue, and the second treatment is configured to affect bladder or kidney stones by ablating the bladder or kidney stones;

a distal end of the optical fiber core including a distal terminating end configured to discharge the first laser energy in a first direction along or parallel to the longitudinal axis, and the second laser energy in a second direction transverse with the longitudinal axis;

a fiber cap comprising an interior cavity and an opening to the interior cavity, wherein the distal end of the optical fiber core is received within the interior cavity through the opening so that the first laser energy is discharged through the fiber cap in the first direction for performance of the first treatment, and the second laser energy is discharged through the fiber cap in the second direction for performance of the second treatment; and

a controller coupled to the first treatment laser source, the second laser treatment source, the first aiming laser source, and the second aiming laser source, wherein:

the distal terminating end of the optical fiber core comprises a polished beveled surface disposed at an angle transverse to the longitudinal axis of the optical fiber;

the distal terminating end is configured to discharge the first aiming beam through the fiber cap in the first direction and the second aiming beam through the fiber cap in the second direction;

each of the first and second aiming beams are configured to indicate a wavelength for the respective first and second laser energies;

in response to a request to activate the first treatment laser source, the controller is configured to activate the first aiming laser source to deliver the first aiming beam through the fiber cap in the first direction, and then activate the first treatment laser source to deliver the first laser energy in the first direction;

in response to a request to activate the second treatment laser source, the controller is configured to activate the second aiming laser source to deliver the second aiming beam through the fiber cap in the second direction, and then activate the second treatment laser source to deliver the second laser energy in the second direction;

the polished beveled surface has a coating that promotes reflection of the first laser energy and the first aiming beam off of the polished beveled surface in the first direction based on the wavelength of the first laser energy and the first aiming beam, respectively, and transmission of the second laser energy and the second aiming beam through the polished beveled surface in the second direction based on the wavelength of the second laser energy and the second aiming beam, respectively;

the fiber cap is bonded to the optical fiber so as to seal the interior cavity, and the sealed interior cavity includes at least one of a gas, a liquid, or a vacuum configured to promote total internal reflection of the first laser energy off of the polished beveled surface;

the coating is a dichroic coating that reflects the first laser energy and transmits the second laser energy; and

the first wavelength is in the range of 300-600 nm, and the second wavelength is in the range of 1900-2100 nm.

6. The optical device of claim 1 , wherein the first and second treatments are different.

7. The optical device of claim 6 , wherein the first treatment affects bodily tissues and the second treatment affects bladder or kidney stones.

8. The optical device of claim 1 , wherein the distal terminating end is configured to discharge the first aiming beam through the fiber cap in the first direction and the second aiming beam through the fiber cap in the second direction.

9. The optical device of claim 8 , wherein each of the first and second aiming beams is configured to indicate at least one of a wavelength or a power level for the respective first and second laser energies.

10. The optical device of claim 2 , wherein the fiber cap is bonded to the optical fiber so as to seal the interior cavity, and the sealed interior cavity includes at least one of a gas, a liquid, or a vacuum configured to promote total internal reflection of the first laser energy off of the polished beveled surface.

11. The optical device of claim 1 , wherein the controller is configured to provide an indication of a direction that the first or second laser energy will be discharged, wherein the indication is one of an image of a probe tip illustrating the direction in which the first or second laser energy will be discharged, and an audio warning indicating the direction in which the first or second laser energy will be discharged.

12. The optical device of claim 1 , wherein:

the distal terminating end of the optical fiber core comprises a polished beveled surface disposed at an angle transverse to the longitudinal axis of the optical fiber;

the polished beveled surface has a coating that promotes reflection of the first laser energy off of the polished beveled surface in the first direction, and transmission of the second laser energy through the polished beveled surface in the second direction;

the coating is a dichroic coating that reflects the first laser energy and transmits the second laser energy;

the fiber cap is bonded to the optical fiber so as to seal the interior cavity, and the sealed interior cavity includes at least one of a gas, a liquid, or a vacuum configured to promote total internal reflection of the first laser energy off of the polished beveled surface;

the first wavelength is in the range of 300-600 nm and the second wavelength is in the range of 1900-2100 nm; and

the first aiming beam has a wavelength in the range of 300-600 nm and the second aiming beam has a wavelength in the range of 1900-2100 nm.

13. The optical device of claim 5 , wherein the controller is configured to provide an indication of a direction that the first or second laser energy will be discharged, wherein the indication is one of an image of a probe tip illustrating the direction in which the first or second laser energy will be discharged, and an audio warning indicating the direction in which the first or second laser energy will be discharged.