Abstract: An ultrasonic needle for attachment to an ophthalmic surgical handpiece includes a cannula having a proximal end and a distal end. The proximal end of the cannula is configured for attachment to an ophthalmic surgical handpiece. The distal end of the cannula includes a tip with at least one port in communication with a lumen extending through the cannula. A flexible member (e.g., a flexible loop, a flexible button, etc.) is coupled to the distal end of the cannula for tissue manipulation.

Abstract: An ophthalmic laser illuminator 10 includes multiple laser devices 12-16. There are at least three different wavelengths of light emitted by the multiple laser devices 12-16 and each wavelength of light emitted by each laser device is outside of wavelengths blocked by a safety filter used for surgical treatment lasers 52. A controller 18 controls the multiple laser devices 12-16. A graphical user interface 32 is operably attached to the controller 18 for allowing a user to select a plurality of light parameters for a light beam exiting the illuminator 10.

Abstract: An ophthalmic laser illuminator 10 includes multiple laser devices 12-16. There are at least three different wavelengths of light emitted by the multiple laser devices 12-16 and each wavelength of light emitted by each laser device is outside of wavelengths blocked by a safety filter used for surgical treatment lasers 52. A controller 18 controls the multiple laser devices 12-16. A graphical user interface 32 is operably attached to the controller 18 for allowing a user to select a plurality of light parameters for a light beam exiting the illuminator 10.

Abstract: An injector for performing a capsulotomy on a capsular bag, comprising an injector body, an injector nozzle coupled to the injector body, the injector nozzle having a lumen extending therethrough ending in an open tip, a strand of shape-memory material adapted to achieve a predetermined shape when ejected from a tip through an opening, a heating unit coupled to the strand to cause the strand to achieve an elevated temperature.

Abstract: An ophthalmic surgical system 70 includes a surgery-viewing device 10 for observing a surgical site 72. A surgical console 74 controls at least one surgical instrument 64. The surgical console 74 detects certain surgical parameters during surgery. A heads-up display 12 is connected to each of the surgery-viewing device 10 and the surgical console 74 for displaying at least one of the surgical parameters to a user through the surgery-viewing device 10.

Abstract: A surgical handpiece 10 includes an elongated housing 12 having a distal end 14 and a proximal end 16. The housing 12 is configured to receive a surgical instrument 18 at the distal end 14 and has a power cord 20 attached to the proximal end 16 for attachment to a surgical control console 34. An electronic data device 26 is fixed within the housing 12 for storing data related to the surgical handpiece 10. The data device 26 includes a connector 28 for electronically connecting the data device 26 to the console 34 or other equipment for retrieving stored data.

Abstract: A system is provided for controlling the stopping position of a surgical cutting tool relative to a tissue entrance location of a cannula housing the cutting tool. A signal processor is responsive to a motor activation signal to provide a motor activation signal to a motor control unit for driving a motor, which activates the cutting tool positioned in a cannula. The signal processor is responsive to a motor stop signal and to a stop position signal to stop the cutting tool relative to the tissue entrance location of the cannula to thereby avoid trapping a portion of the tissue base between the cutting tool and a boundary of the cannula opening.

Abstract: A system is provided for controlling the stopping position of a surgical cutting tool relative to a tissue entrance location of a cannula housing the cutting tool. A signal processor is responsive to a motor activation signal to provide a motor activation signal to a motor control unit for driving a motor, which activates the cutting tool positioned in a cannula. The signal processor is responsive to a motor stop signal and to a stop position signal to stop the cutting tool relative to the tissue entrance location of the cannula to thereby avoid trapping a portion of the tissue base between the cutting tool and a boundary of the cannula opening.

Abstract: A system is provided for controlling the stopping position of a surgical cutting tool relative to a tissue entrance location of a cannula housing the cutting tool. A signal processor is responsive to a motor activation signal to provide a motor activation signal to a motor control unit for driving a motor, which activates the cutting tool positioned in a cannula. The signal processor is responsive to a motor stop signal and to a stop position signal to stop the cutting tool relative to the tissue entrance location of the cannula to thereby avoid trapping a portion of the tissue base between the cutting tool and a boundary of the cannula opening.