Ophthalmic surgical device
An ophthalmic surgical device is disclosed that combines laser energy for treatment of vision or ocular defect and illumination energy for visualization of a treatment site during surgery in a single common waveguide fiber, thereby enabling reduction of a diameter of a probe or canula of the device, whereby a smaller incision may be utilized to reduce trauma to the eye. The device may further include additional features, such as a conduit for supply of material or removal of material from the treatment site.
1. A waveguide ophthalmic surgical instrument comprising:
an optical coupling for receiving a surgical laser energy input from a surgical laser energy source and an illumination energy input from an illumination energy source, said optical coupling comprising a centrally disposed first waveguide, wherein said centrally disposed first waveguide is operable with a waveguide associated with the surgical laser energy source, said optical coupling further comprising at least one second waveguide disposed approximately concentrically about said centrally disposed first waveguide, wherein said at least one second waveguide is operable with a plurality of waveguides associated with the illumination energy source; and
a single-fiber waveguide disposed within a probe carried by a handpiece of said waveguide ophthalmic surgical instrument, wherein said single-fiber waveguide is operable with said centrally disposed first waveguide of said optical coupling proximate a cross-sectional center of said single-fiber waveguide, such that surgical laser energy may be transmitted approximately centrally through said single-fiber waveguide; wherein said single-fiber waveguide is further operable with but a portion of said at least one second waveguide of said optical coupling disposed adjacent a peripheral margin of said single-fiber waveguide, such that illumination energy may be transmitted through said single-fiber waveguide in a manner that does not interfere with transmission of surgical laser energy; and wherein the cross-sectional area of said single-fiber waveguide is less than the combined cross-sectional areas of said centrally disposed first waveguide and said at least one second waveguide of said optical coupling,
wherein said optical coupling is operable to transmit surgical laser energy from the surgical laser energy source and illumination energy from the illumination energy source within said single-fiber waveguide for combined delivery thereof to a surgical site proximate a distal end of said single-fiber waveguide.
2. The waveguide ophthalmic surgical instrument of claim 1 , wherein said optical coupling further comprises at least one of an optical gel, an anti-reflective coating, an anti-scattering coating, a reflective element, a refractive element, a tapered fiber, a fusion bond, and a weld.
3. The waveguide ophthalmic surgical instrument of claim 1 , wherein said probe further comprises a conduit, said conduit providing access to the surgical site proximate a distal end of conduit.
4. The waveguide ophthalmic surgical instrument of claim 3 , wherein said probe comprises a tube.
5. The waveguide ophthalmic surgical instrument of claim 4 , wherein said tube comprises an aperture through a sidewall thereof for passage of material, said aperture allowing passage of the material without interfering with transmission of laser or illumination energy proximate said optical coupling.
6. The waveguide ophthalmic surgical instrument of claim 1 , further comprising a coupler for retaining said single-fiber waveguide in operable communication with a plurality of fiber waveguides of said optical coupling.
7. A method of effecting a surgery using the waveguide ophthalmic surgical instrument of claim 1 , comprising the steps of:
disposing a distal end of said single-fiber waveguide of said instrument proximate an intraocular surgical site via manipulation of said instrument; and
supplying a first laser energy to said optical coupling of said instrument via a first connector;
supplying a second illumination energy to said optical coupling of said instrument via a second connector, said second illumination energy being supplied from a source separate from a source of said first laser energy; and
delivering said first laser energy and said second illumination energy to the intraocular surgical site via said single-fiber waveguide,
wherein delivery of at least one of said laser light energy and said second illumination energy enables said surgery.
8. The method of claim 7 , further comprising the step of at least one of selectively controlling and selectively adjusting said source of said laser energy to deliver a predetermined amount of said laser energy to said surgical site.
9. The method of claim 7 , further comprising the step of at least one of selectively controlling and selectively adjusting said source of said illumination energy to deliver a predetermined amount of said illumination energy to said surgical site.
10. The method of claim 7 , wherein said optical coupling is retained in operable communication with said single-fiber waveguide via a coupler.
11. The method of claim 7 , further comprising at least one of the step of delivering a selected material to the surgical site via a conduit of said instrument and the step of removing a selected material from the surgical site via said conduit of said instrument.
12. The method of claim 11 , wherein at least one of the step of delivering a selected material to the surgical site via a conduit of said instrument and the step of removing a selected material from the surgical site via said conduit of said instrument is accomplished via an accessory operable with said conduit.
13. The method of claim 7 , further comprising the step of detecting a parameter via a conduit of said instrument.
14. An ophthalmic surgical device comprising:
a single-fiber waveguide disposed within a probe carried by a handpiece;
an optical coupling operable with said single-fiber waveguide, said optical coupling comprising a centrally disposed surgical laser energy waveguide, said centrally disposed surgical laser energy waveguide optically communicating with a waveguide associated with a surgical laser energy source, said optical coupling further comprising a plurality of illumination energy waveguides disposed approximately concentrically about said centrally disposed surgical laser energy waveguide, each of said plurality of illumination energy waveguides optically communicating with a corresponding one of a plurality of waveguides associated with an illumination energy source;
said single-fiber waveguide optically communicating with said centrally disposed surgical laser energy waveguide of said optical coupling proximate a cross-sectional center of said single-fiber waveguide, such that surgical laser energy may be transmitted approximately centrally through said single-fiber waveguide; said single-fiber waveguide further optically communicating with but a portion of each of said plurality of illumination energy waveguides of said optical coupling disposed adjacent a peripheral margin of said single-fiber waveguide, such that illumination energy may be transmitted through said single-fiber waveguide in a manner not interfering with transmission of surgical laser energy; and wherein the cross-sectional area of said single-fiber waveguide is less than the combined cross-sectional areas of said centrally disposed surgical laser energy waveguide and said plurality of illumination energy waveguides of said optical coupling;
wherein said single-fiber waveguide disposed within said probe is enabled to transmit surgical laser energy from the surgical laser energy source to an intraocular surgical site, and is further enabled to transmit illumination energy from the illumination energy source to illuminate the intraocular surgical site.
15. The ophthalmic surgical device of claim 14 , wherein said probe comprises a tube and a space between said tube and said single-fiber waveguide disposed within said probe.
16. The ophthalmic surgical device of claim 14 , further comprising a coupler for retaining said one single-fiber waveguide disposed within said probe in operable connection with said plurality of fiber waveguides of said optical coupling.